Developed by Shray Alag, The Harker School
Sections: Correlations,
Clinical Trials, and HPO
Navigate: Clinical Trials and HPO
Name (Synonyms) | Correlation | |
---|---|---|
drug1980 | Mavrilimumab Wiki | 0.17 |
drug4171 | vv-ECMO + cytokine adsorption (Cytosorb adsorber) Wiki | 0.12 |
drug4172 | vv-ECMO only (no cytokine adsorption) Wiki | 0.12 |
Name (Synonyms) | Correlation | |
---|---|---|
drug1438 | HFNC Wiki | 0.12 |
drug3408 | Telmisartan Wiki | 0.10 |
drug2878 | Respiratory mechanics measurement Wiki | 0.09 |
drug245 | Angiotensin 1-7 Wiki | 0.09 |
drug2851 | Relaxation Wiki | 0.09 |
drug1575 | Hyperbaric oxygen therapy Wiki | 0.09 |
drug358 | Awake prone positioning Wiki | 0.09 |
drug1525 | Hydroxychloroquine + azithromycin + / - tocilizumab Wiki | 0.09 |
drug2086 | Monitoring for aggravation Wiki | 0.09 |
drug3734 | XCEL-UMC-BETA Wiki | 0.09 |
drug1953 | Machine learning model Wiki | 0.09 |
drug3093 | Serologic testing Wiki | 0.09 |
drug3155 | Social Distancing Advertisements Wiki | 0.09 |
drug3240 | Standard of care. Wiki | 0.09 |
drug2289 | Observation only Wiki | 0.09 |
drug1132 | ELMO PROJECT AT COVID-19: STUDY IN HUMANS Wiki | 0.09 |
drug3725 | Without haptic stimulation Wiki | 0.09 |
drug2372 | PB1046 Wiki | 0.09 |
drug196 | AirGo Respiratory Monitor Wiki | 0.09 |
drug2688 | Psilocybin Wiki | 0.09 |
drug3877 | epidemiological and demographic characteristics Wiki | 0.09 |
drug1621 | IgIV Wiki | 0.09 |
drug3161 | Sodium Nitrite Wiki | 0.09 |
drug1459 | Helmet CPAP Wiki | 0.09 |
drug2143 | NaCl Wiki | 0.09 |
drug3536 | Treatment with Dexmedetomidine Wiki | 0.09 |
drug2661 | Prolonged Exposure (PE) Wiki | 0.09 |
drug1117 | ECCO2R Wiki | 0.09 |
drug4176 | zinc Wiki | 0.09 |
drug2836 | Reconsolidation of Traumatic Memories (RTM) Wiki | 0.09 |
drug198 | Airway pressure release ventilation Wiki | 0.09 |
drug2167 | Nebulised unfractionated heparin (UFH) Wiki | 0.09 |
drug1969 | Marker Therapeutics D2000 Cartridge (D2000) for use with the Spectra Optia® Apheresis System (Optia SPD Protocol) Wiki | 0.09 |
drug1936 | MRI Wiki | 0.09 |
drug1449 | Haptic stimulation Wiki | 0.09 |
drug3748 | Zilucoplan® Wiki | 0.09 |
drug787 | Choice of Assignment: Enhanced Active Choice Wiki | 0.09 |
drug4046 | positive psychological intervention Wiki | 0.09 |
drug3819 | bromelain Wiki | 0.09 |
drug4166 | ventilatory support with oxygen therapy Wiki | 0.09 |
drug214 | Almitrine Wiki | 0.09 |
drug1441 | HIT-exercise Wiki | 0.09 |
drug215 | Alteplase 100 MG [Activase] Wiki | 0.09 |
drug3608 | Usual care positioning with no instructions Wiki | 0.09 |
drug2442 | Patient with SAR-CoV-2 infection Wiki | 0.09 |
drug112 | ASP2390 Wiki | 0.09 |
drug1009 | Decidual Stromal Cells (DSC) Wiki | 0.09 |
drug4062 | pulmonary ultrasound Wiki | 0.09 |
drug159 | Acceptability questionnaire Wiki | 0.09 |
drug2737 | Quercetin Wiki | 0.09 |
drug2667 | Prone position Wiki | 0.09 |
drug1739 | Isotonic saline Wiki | 0.09 |
drug1503 | Hospital anxiety and depression scale Wiki | 0.09 |
drug3120 | Sham intervention Wiki | 0.09 |
drug786 | Choice of Assignment: Active Choice Wiki | 0.09 |
drug319 | Assigned Strategies: Active Choice Wiki | 0.09 |
drug788 | Choice of Assignment: Opt-in Wiki | 0.09 |
drug626 | COVID visitation restrictions Wiki | 0.09 |
drug2361 | Oxygen Hood Wiki | 0.09 |
drug923 | Coronary artery calcium score and cardiac computed tomographic angiography Wiki | 0.09 |
drug2363 | Oxygen gas Wiki | 0.09 |
drug1878 | Low Dose (10 mg) Control Wiki | 0.09 |
drug2261 | Normobaric oxygen therapy Wiki | 0.09 |
drug93 | APPS Wiki | 0.09 |
drug297 | Arm exercise electrocardiographic stress test Wiki | 0.09 |
drug1585 | ICU Recovery + Physical Therapy Wiki | 0.09 |
drug814 | Closed-loop control of oxygen supplementation by O2matic Wiki | 0.09 |
drug3527 | Treadmill electrocardiographic stress test Wiki | 0.09 |
drug2469 | Peripheral blood sampling Wiki | 0.09 |
drug1389 | Gas exchange measurement Wiki | 0.09 |
drug3025 | Saline Placebo Wiki | 0.09 |
drug2295 | Observational only Wiki | 0.09 |
drug321 | Assigned Strategies: Opt-in Wiki | 0.09 |
drug1671 | Inhaled budesonide and formoterol Wiki | 0.09 |
drug1700 | Intermittent prone positioning instructions Wiki | 0.09 |
drug751 | Cerebrospinal fluid sampling, meningeal and brain parenchyma biopsies Wiki | 0.09 |
drug3254 | Standard therapy recommended by the Ministry of Health of the Russian Federation and Dalargin intramuscular injection Wiki | 0.09 |
drug4119 | standard operating procedures Wiki | 0.09 |
drug2552 | Placebo of excipient(s) will be administered Wiki | 0.09 |
drug2604 | Postural Positioning Wiki | 0.09 |
drug2464 | Performing Virtual Actions Wiki | 0.09 |
drug128 | AVIGAN 200 mg FT Wiki | 0.09 |
drug3256 | Standard therapy recommended by the Ministry of Health of the Russian Federation. Wiki | 0.09 |
drug2887 | Retrospective case-control analysis Wiki | 0.09 |
drug2410 | PT-Pal Wiki | 0.09 |
drug1080 | Dociparastat sodium Wiki | 0.09 |
drug273 | Anticoagulation Agents (Edoxaban and/or high dose LMWH) Wiki | 0.09 |
drug2710 | Pulmozyme/ Recombinant human deoxyribonuclease (rh-DNase) Wiki | 0.09 |
drug172 | Active control condition Wiki | 0.09 |
drug1623 | Iloprost Wiki | 0.09 |
drug3020 | STP + COVID-19 Convalescent Plasma (CP) Wiki | 0.09 |
drug1460 | Helmet Continuous Positive Airway Pressure (CPAP) Wiki | 0.09 |
drug3941 | life questionnaires Wiki | 0.09 |
drug1672 | Inhaled nitric oxide (iNO) Wiki | 0.09 |
drug1811 | Lactoferrin (Apolactoferrin) Wiki | 0.09 |
drug3227 | Standard of Care (SoC) Wiki | 0.09 |
drug2488 | Phsyiotherapy Wiki | 0.09 |
drug163 | Acetylsalicylic acid Wiki | 0.09 |
drug1250 | Experts consensus Wiki | 0.09 |
drug2806 | Rapamycin Wiki | 0.09 |
drug260 | Anti-SARS-CoV-2 equine immunoglobulin fragments (INOSARS) Wiki | 0.09 |
drug1667 | Inhaled ILOPROST Wiki | 0.09 |
drug3419 | Tenecteplase Wiki | 0.09 |
drug1987 | Mechanical ventilation with the automated BVM compressor Wiki | 0.09 |
drug682 | CPAP treatment Wiki | 0.09 |
drug69 | ACE inhibitor, angiotensin receptor blocker Wiki | 0.09 |
drug1016 | Defibrotide Injection Wiki | 0.09 |
drug971 | DFV890 Wiki | 0.09 |
drug12 | 0.9%sodium chloride Wiki | 0.09 |
drug1875 | Losmapimod oral tablet Wiki | 0.09 |
drug3898 | high flow nasal cannula device Wiki | 0.09 |
drug2005 | Mefloquine + azithromycin + / - tocilizumab Wiki | 0.09 |
drug292 | Aprepitant injectable emulsion Wiki | 0.09 |
drug3237 | Standard of care therapies Wiki | 0.09 |
drug1461 | Helmet non-invasive ventilation Wiki | 0.09 |
drug2335 | Only Standard Treatment Wiki | 0.09 |
drug2935 | Ruxolitinib plus simvastatin Wiki | 0.09 |
drug4147 | thoracic lung ultrasound Wiki | 0.09 |
drug2841 | Regadenoson myocardial perfusion imaging stress test Wiki | 0.09 |
drug3638 | Verapamil Wiki | 0.09 |
drug681 | CPAP Wiki | 0.09 |
drug3503 | Tracheotomy Wiki | 0.09 |
drug1236 | Exercise Training Only Wiki | 0.09 |
drug250 | Angiotensin-Converting Enzyme Inhibitors (ACE-I) and Angiotensin II Receptor Blockers (ARB) Wiki | 0.09 |
drug2755 | Questionnaires, spirometry Wiki | 0.09 |
drug1131 | ELMO PROJECT AT COVID-19: PROOF OF CONCEPT AND USABILITY Wiki | 0.09 |
drug1970 | Masimo, LidCO Wiki | 0.09 |
drug1439 | HFNO Wiki | 0.09 |
drug3895 | gammaCore® Sapphire (non-invasive vagus nerve stimulator) Wiki | 0.09 |
drug355 | Aviptadil by intravenous infusion + standard of care Wiki | 0.09 |
drug3070 | Self-guided exercises Wiki | 0.09 |
drug320 | Assigned Strategies: Enhanced Active Choice Wiki | 0.09 |
drug2004 | Mefloquine Wiki | 0.09 |
drug940 | Covid19 Wiki | 0.09 |
drug1474 | High Flow Nasal Oxygen (HFNO) Wiki | 0.09 |
drug356 | Awake Prone Positioning Wiki | 0.09 |
drug3289 | Sulodexide Wiki | 0.09 |
drug2286 | Observation of Virtual Actions (step 4) Wiki | 0.09 |
drug223 | Amiodarone Wiki | 0.09 |
drug1346 | Fondaparinux Wiki | 0.09 |
drug1561 | Hydroxychloroquine sulfate &Azithromycin Wiki | 0.09 |
drug262 | Anti-SARS-CoV2 serological controls and serum neutralization Wiki | 0.09 |
drug3671 | Vit D Wiki | 0.09 |
drug3253 | Standard therapy recommended by the Ministry of Health of the Russian Federation and Dalargin inhalation Wiki | 0.09 |
drug3480 | Tirofiban Injection Wiki | 0.09 |
drug3958 | mechanical ventilation Wiki | 0.09 |
drug3717 | Wellness Wiki | 0.09 |
drug1674 | Inhaled placebo Wiki | 0.09 |
drug3291 | Supine position Wiki | 0.09 |
drug1574 | Hyperbaric oxygen Wiki | 0.09 |
drug2529 | Placebo PBMT/sMF Wiki | 0.09 |
drug1273 | FAVIR 200 MG FT Wiki | 0.09 |
drug1224 | Evaluate HACOR score effectivity in this patients Wiki | 0.09 |
drug393 | BDB-001 Injection Wiki | 0.09 |
drug2729 | Quality of Life Wiki | 0.09 |
drug2134 | NK-1R antagonist Wiki | 0.09 |
drug3851 | conventional oxygen Wiki | 0.09 |
drug3637 | Ventil - a gas flow divider Wiki | 0.09 |
drug3241 | Standard oxygen therapy Wiki | 0.09 |
drug926 | Corticosteroid injection Wiki | 0.09 |
drug3572 | Ultra-Low-dose radiotherapy Wiki | 0.09 |
drug2198 | Nitazoxanide and atazanavir/ritonavir Wiki | 0.09 |
drug2358 | Oxycodone and Midazolam Wiki | 0.09 |
drug3255 | Standard therapy recommended by the Ministry of Health of the Russian Federation and Dalargin intramuscular injection combined with Dalargin inhalation Wiki | 0.09 |
drug990 | Dapagliflozin 10 MG Wiki | 0.09 |
drug1456 | Healthy Weight Program (HW) Wiki | 0.09 |
drug4028 | patients receiving nasal high flow Wiki | 0.09 |
drug3641 | VibroLUNG Wiki | 0.09 |
drug216 | Alteplase 50 MG [Activase] Wiki | 0.09 |
drug3013 | SPIN-CHAT Program Wiki | 0.09 |
drug3447 | The usual treatment Wiki | 0.09 |
drug4145 | thoracic CT-scan Wiki | 0.09 |
drug2359 | Oxycodone, Paroxetine, and Quetiapine Wiki | 0.09 |
drug2253 | Normal Saline Infusion + standard of care Wiki | 0.09 |
drug3208 | Standard Therapy Protocol (STP) Wiki | 0.09 |
drug1476 | High Intensity Resistance (HIT-RT) and Endurance exercise (HIIT) Wiki | 0.09 |
drug3524 | Transpulmonary pressure measurements Wiki | 0.09 |
drug66 | ABX464 Wiki | 0.09 |
drug3021 | STP + Standard Plasma (SP) Wiki | 0.09 |
drug2504 | Piperacillin/tazobactam Wiki | 0.09 |
drug2285 | Observation of Virtual Actions Wiki | 0.09 |
drug1639 | Impact Event Score Wiki | 0.09 |
drug1603 | ISIS 721744 Wiki | 0.09 |
drug1462 | Helmet non-invasive ventilation (NIV) Wiki | 0.09 |
drug532 | Body Project (BP) Wiki | 0.09 |
drug171 | Active PBMT/sMF Wiki | 0.09 |
drug359 | Awake proning Wiki | 0.09 |
drug1237 | Exercise and Cognitive Training Wiki | 0.09 |
drug4155 | trimethoprim/sulfamethoxazole Wiki | 0.09 |
drug1991 | Medical Ozone procedure Wiki | 0.09 |
drug2338 | Ophthalmologic exam Wiki | 0.09 |
drug2665 | Prone Positioning (PP) Wiki | 0.09 |
drug1889 | Low dose Low molecular weight heparin or Placebo Wiki | 0.09 |
drug278 | Antroquinonol Wiki | 0.09 |
drug1919 | MAS825 Wiki | 0.09 |
drug3772 | aerosolized DNase Wiki | 0.09 |
drug2103 | Multiple Doses of Anti-SARS-CoV-2 convalescent plasma Wiki | 0.09 |
drug673 | COVID-19+ observational Wiki | 0.09 |
drug2505 | Placebo Wiki | 0.08 |
drug2251 | Normal Saline Wiki | 0.08 |
drug364 | Azithromycin Wiki | 0.07 |
drug2572 | Placebos Wiki | 0.06 |
drug2776 | RLF-100 (aviptadil) Wiki | 0.06 |
drug1895 | Low molecular weight heparin Wiki | 0.06 |
drug3749 | Zinc Wiki | 0.06 |
drug4054 | prone position Wiki | 0.06 |
drug1609 | Ibrutinib Wiki | 0.06 |
drug916 | Conventional treatment Wiki | 0.06 |
drug3133 | Simvastatin Wiki | 0.06 |
drug1033 | Dexamethasone injection Wiki | 0.06 |
drug3688 | Vonoprazan Wiki | 0.06 |
drug2709 | Pulmozyme Wiki | 0.06 |
drug812 | Clopidogrel Wiki | 0.06 |
drug2207 | Nitrogen gas Wiki | 0.06 |
drug1754 | Ivermectin Oral Product Wiki | 0.06 |
drug2621 | Practice details Wiki | 0.06 |
drug1520 | Hydroxychloroquine Wiki | 0.06 |
drug2210 | No Intervention Wiki | 0.05 |
drug3045 | Sargramostim Wiki | 0.05 |
drug261 | Anti-SARS-CoV2 Serology Wiki | 0.05 |
drug1978 | Matching placebo Wiki | 0.05 |
drug2006 | Melatonin Wiki | 0.05 |
drug2664 | Prone Positioning Wiki | 0.05 |
drug306 | Aspirin Wiki | 0.05 |
drug2895 | Rifampin Wiki | 0.04 |
drug176 | Ad26.COV2.S Wiki | 0.04 |
drug4069 | questionnaire Wiki | 0.04 |
drug2360 | Oxygen Wiki | 0.04 |
drug1434 | HCQ Wiki | 0.04 |
drug3221 | Standard of Care Wiki | 0.04 |
drug2327 | Online Survey Wiki | 0.04 |
drug632 | COVID-19 Convalescent Plasma Wiki | 0.04 |
drug4071 | questionnaire assesment Wiki | 0.04 |
drug1296 | Favipiravir Wiki | 0.04 |
drug1093 | Doxycycline Wiki | 0.04 |
drug776 | Chloroquine Wiki | 0.03 |
drug2557 | Placebo oral tablet Wiki | 0.03 |
drug1874 | Losartan Wiki | 0.03 |
drug229 | Anakinra Wiki | 0.03 |
drug3812 | blood sample Wiki | 0.03 |
drug3676 | Vitamin D Wiki | 0.03 |
drug3212 | Standard care Wiki | 0.03 |
drug3485 | Tocilizumab Wiki | 0.03 |
drug1030 | Dexamethasone Wiki | 0.03 |
drug3603 | Usual Care Wiki | 0.03 |
drug881 | Control Wiki | 0.03 |
drug1872 | Lopinavir/ritonavir Wiki | 0.03 |
drug3674 | Vitamin C Wiki | 0.02 |
drug4034 | placebo Wiki | 0.02 |
drug908 | Convalescent plasma Wiki | 0.02 |
drug2855 | Remdesivir Wiki | 0.02 |
drug1745 | Ivermectin Wiki | 0.02 |
drug895 | Convalescent Plasma Wiki | 0.02 |
drug2741 | Questionnaire Wiki | 0.02 |
Name (Synonyms) | Correlation | |
---|---|---|
D011665 | Pulmonary Valve Insufficiency NIH | 0.23 |
D012128 | Respiratory Distress Syndrome, Adult NIH | 0.18 |
D000860 | Hypoxia NIH | 0.17 |
Name (Synonyms) | Correlation | |
---|---|---|
D012127 | Respiratory Distress Syndrome, Newborn NIH | 0.15 |
D055371 | Acute Lung Injury NIH | 0.14 |
D011014 | Pneumonia NIH | 0.13 |
D045169 | Severe Acute Respiratory Syndrome NIH | 0.12 |
D007249 | Inflammation NIH | 0.11 |
D018352 | Coronavirus Infections NIH | 0.11 |
D012594 | Scleroderma, Localized NIH | 0.09 |
D012595 | Scleroderma, Systemic NIH | 0.09 |
D001851 | Bone Diseases, Metabolic NIH | 0.09 |
D006935 | Hypercapnia NIH | 0.09 |
D009133 | Muscular Atrophy NIH | 0.09 |
D001284 | Atrophy NIH | 0.09 |
D010291 | Paresis NIH | 0.09 |
D055948 | Sarcopenia NIH | 0.09 |
D005128 | Eye Diseases NIH | 0.09 |
D055370 | Lung Injury NIH | 0.08 |
D006333 | Heart Failure NIH | 0.08 |
D013577 | Syndrome NIH | 0.08 |
D011024 | Pneumonia, Viral NIH | 0.07 |
D013896 | Thoracic Diseases NIH | 0.06 |
D000075902 | Clinical Deterioration NIH | 0.06 |
D007040 | Hypoventilation NIH | 0.06 |
D011654 | Pulmonary Edema NIH | 0.05 |
D008269 | Macular Edema NIH | 0.05 |
D011111 | Polymyalgia Rheumatica NIH | 0.05 |
D013700 | Giant Cell Arteritis NIH | 0.05 |
D005356 | Fibromyalgia NIH | 0.04 |
D012818 | Signs and Symptoms, Respiratory NIH | 0.04 |
D016769 | Embolism and Thrombosis NIH | 0.04 |
D003693 | Delirium NIH | 0.04 |
D010003 | Osteoarthritis, NIH | 0.04 |
D001068 | Feeding and Eating Disorders NIH | 0.03 |
D016638 | Critical Illness NIH | 0.03 |
D040921 | Stress Disorders, Traumatic NIH | 0.03 |
D012141 | Respiratory Tract Infections NIH | 0.03 |
D000070642 | Brain Injuries, Traumatic NIH | 0.03 |
D007239 | Infection NIH | 0.03 |
D013313 | Stress Disorders, Post-Traumatic NIH | 0.03 |
D001930 | Brain Injuries, NIH | 0.03 |
D006331 | Heart Diseases NIH | 0.03 |
D029424 | Pulmonary Disease, Chronic Obstructive NIH | 0.03 |
D012598 | Scoliosi NIH | 0.02 |
D009103 | Multiple Sclerosis NIH | 0.02 |
D008173 | Lung Diseases, Obstructive NIH | 0.02 |
D002908 | Chronic Disease NIH | 0.02 |
D004617 | Embolism NIH | 0.02 |
D003141 | Communicable Diseases NIH | 0.02 |
D058186 | Acute Kidney Injury NIH | 0.02 |
D008171 | Lung Diseases, NIH | 0.02 |
D006973 | Hypertension NIH | 0.02 |
D013927 | Thrombosis NIH | 0.02 |
D002318 | Cardiovascular Diseases NIH | 0.02 |
D004630 | Emergencies NIH | 0.02 |
D004194 | Disease NIH | 0.01 |
D014777 | Virus Diseases NIH | 0.01 |
Name (Synonyms) | Correlation | |
---|---|---|
HP:0010444 | Pulmonary insufficiency HPO | 0.23 |
HP:0012418 | Hypoxemia HPO | 0.15 |
HP:0002090 | Pneumonia HPO | 0.13 |
Name (Synonyms) | Correlation | |
---|---|---|
HP:0000478 | Abnormality of the eye HPO | 0.09 |
HP:0012344 | Morphea HPO | 0.09 |
HP:0003202 | Skeletal muscle atrophy HPO | 0.09 |
HP:0000938 | Osteopenia HPO | 0.09 |
HP:0001269 | Hemiparesis HPO | 0.09 |
HP:0012416 | Hypercapnia HPO | 0.09 |
HP:0002791 | Hypoventilation HPO | 0.06 |
HP:0011505 | Cystoid macular edema HPO | 0.06 |
HP:0100598 | Pulmonary edema HPO | 0.06 |
HP:0001635 | Congestive heart failure HPO | 0.06 |
HP:0011947 | Respiratory tract infection HPO | 0.03 |
HP:0001907 | Thromboembolism HPO | 0.02 |
HP:0001919 | Acute kidney injury HPO | 0.02 |
HP:0002088 | Abnormal lung morphology HPO | 0.02 |
Navigate: Correlations HPO
There are 132 clinical trials
We have to be aware of the challenge and concerns brought by 2019-nCoV to our healthcare workers. Front-line healthcare workers can become infected in the management of patients with COVID-19; the high viral load in the atmosphere, and infected medical equipment are sources for the spread of SARS-CoV-2. If prevention and control measures are not in place, these healthcare workers are at great risk of infection and become the inadvertent carriers to patients who are in hospital for other diseases. Nowadays a question that has not yet been clarified by science has been arises: is hydroxychloroquine associated with zinc compared to ivermectin associated with zinc effective as a prophylaxis for asymptomatic professionals involved in the treatment of suspected or confirmed case of COVID-19?
Description: Proportion of participants in whom there was a a positivity for SARS-CoV-2 through specific examination (RT-PCR) or by serology for antibodies specific (IgM and IgG), corroborated or not with clinical finding of COVID-19, defined as the occurrence of signs and symptoms suggestive of this disease.
Measure: Proportion of participants in whom there was a positivity for SARS-CoV-2. Time: Post-intervention at day 52Description: Proportion of participants who developed mild, moderate, or severe forms of COVID-19.
Measure: Participants who developed mild, moderate, or severe forms of COVID-19. Time: Post-intervention at day 52.Description: Measurement of the QT interval through electrocardiogram evaluation.
Measure: Measurement of the QT interval. Time: Baseline, 3, 15 and 45 days post-intervention.Description: Proportion of participants who evolved with widening of the corrected QT interval or with changes in heart rate on the ECG.
Measure: Widening of the corrected QT interval or with changes in heart rate on the ECG. Time: Day 52.Description: Comparison of baseline (visit 0) and final (visit 5) values of hematological and biochemical parameters.
Measure: Comparison of hematological and biochemical parameters. Time: Day 52.Description: Proportion of occurrence of adverse events reported by participants or verified by the attending physician, or even observed in laboratory tests.
Measure: Occurrence of adverse events. Time: Post-intervention at day 52.Description: Severity of symptoms of COVID-19 measured by a visual analog scale (VAS), with scores ranging from zero to 10, where zero represents the absence of the symptom and 10 corresponds to the most intense manifestation of symptoms (severe dyspnoea).
Measure: Assessment of COVID-19 symptom severity. Time: Post-intervention at day 52.Description: Proportion of participants who discontinue study intervention,
Measure: Proportion of participants who discontinue study intervention. Time: Post-intervention at day 52.Description: Proportion of participants who required hospital care.
Measure: Proportion of participants who required hospital care. Time: Post-intervention at day 52.Description: Proportion of participants who required mechanical ventilation.
Measure: Proportion of participants who required mechanical ventilation. Time: Post-intervention at day 52.Triple blinded, phase III randomized controlled trial with parallel groups (200mg of hydroxychloroquine per day vs. placebo) aiming to prove hydroxychloroquine's security and efficacy as prophylaxis treatment for healthcare personnel exposed to COVID-19 patients.
Description: Symptomatic infection rate by COVID-19 defined as cough, dyspnea, fever, myalgia, arthralgias or rhinorrhea along with a positive COVID-19 real-time polymerase chain reaction test.
Measure: Symptomatic COVID-19 infection rate Time: From date of randomization until the appearance of symptoms or study completion 60 days after treatment startDescription: Symptomatic infection rate by other non-COVID-19 viral etiologies defined as cough, dyspnea, fever, myalgia, arthralgias or rhinorrhea along with a positive viral real time polymerase chain reaction test.
Measure: Symptomatic non-COVID viral infection rate Time: From date of randomization until the appearance of symptoms or study completion 60 days after treatment startDescription: Number of days absent from labor due to COVID-19 symptomatic infection
Measure: Days of labor absenteeism Time: From date of randomization until study completion 60 days after treatment startDescription: Absenteeism from labor rate due to COVID-19 symptomatic infection
Measure: Rate of labor absenteeism Time: From date of randomization until study completion 60 days after treatment startDescription: Rate of severe respiratory COVID-19 disease in healthcare personnel
Measure: Rate of severe respiratory COVID-19 disease in healthcare personnel Time: From date of randomization until the appearance of symptoms or study completion 60 days after treatment startTo develop and validate a machine-learning model based on clinical, laboratory, and radiological characteristics alone or combination of COVID-19 patients to facilitate risk Assessment before and after symptoms and triage (home, hospitalization inward or ICU).
Description: AUC, accuracy, sensitivity, and specificity
Measure: Predictive performance Time: Janunary 1, 2020, to February 13, 2020Posttraumatic Stress Disorder (PTSD) is a common cause of morbidity in combat veterans, but current treatments are often inadequate. Reconsolidation of Traumatic Memories (RTM) is a novel treatment that seeks to alter key aspects of the target memory (e.g., color, clarity, speed, distance, perspective) to make it less impactful, and reduce nightmares, flashbacks, and other features of PTSD. The memory is reviewed in the context of an imaginal movie theater, presenting a fast (~45 sec) black and white movie of the trauma memory, with further adjustment as needed so the patient can comfortably watch it. Open and waitlist studies of RTM have reported high response rates and rapid remission, setting the stage for this randomized, controlled, single-blind trial comparing RTM versus prolonged exposure (PE), the PTSD therapy with the strongest current evidence base. The investigators hypothesize that RTM will be non-inferior to PE in reducing PTSD symptom severity post-treatment and at 1-year follow up; will achieve faster remission, with fewer dropouts; will improve cognitive function; and that epigenetic markers will correlate with treatment response. The investigators will randomize 108 active or retired service members (SMs) with PTSD to ≤10 sessions of RTM or PE, affording power to test our hypotheses while allowing for ≤ 25% dropouts. The investigators will use an intent to treat analysis, and the Clinician Administered PTSD Scale for the Diagnostic and Statistical Manual of Mental Disorders, 5th Edition, or DSM5 (CAPS-5), conducted by blinded assessors, will be the primary outcome measure. Secondary measures of depression (PHQ-9), anxiety (GAD-7), sleep (PSQI), and functional status (WHOQOL-100), will be assessed pre- and post-treatment, and at 2, 6, and 12 months. ANOVA will compare symptom severity over time within and between groups. Blood draws will be obtained pre- and posttreatment to assess predictors of treatment response and epigenetic markers of change. The NIH Toolbox Neurocognitive Assessment, pre- and post-treatment, will assess impact on cognitive function. The investigators will track comorbid TBI, anticipating it will not adversely impact response. More effective therapies for PTSD, with and without TBI, must be developed and evaluated. RTM is safe and promising, but requires testing against evidence-based interventions in well-designed randomized clinical trials (RCTs). The full study can now be conducted via video conferencing due to COVID-19.
Description: the gold standard for PTSD diagnosis, a trained expert administrator scores PTSD symptom severity; range 0-80, higher score represents greater severity
Measure: Clinician Administered PTSD Symptom Scale for DSM5 (CAPS-5) Time: week 10Description: well-validated and widely used 9-item self-report measure of depression symptom severity, range 0-27, higher score represents greater severity
Measure: Change in Patient Health Questionnaire (PHQ-9) Score Time: week 10, and 2, 6 and 12 months later, compared to baselineDescription: a reliable 20-item screen for PTSD, in which each item is rated on a 5-point Likert scale, range 0-80, higher score represents greater severity
Measure: Change in PTSD Checklist for DSM5 (PCL5) Score Time: week 10, and 2, 6 and 12 months later, compared to baselineDescription: a clinically validated 9-item assessment of sleep quality and sleep disturbances; range 0 to 21, higher score represents greater severity
Measure: Change in Pittsburgh Sleep Quality Index (PSQI) Score Time: week 10, and 2, 6 and 12 months later, compared to baselineDescription: a reliable 22-item self-report measure assessing functional status and post concussive symptoms, range 0-88, higher score represents greater severity
Measure: Change in Neurobehavioral Symptom Inventory (NSI) Score Time: week 10, and 2, 6 and 12 months later, compared to baselineDescription: a reliable 100 item self-report inventory measuring overall quality of life in 8 dimensions; range 100 to 500, higher score represents greater severity
Measure: Change in World Health Organization Quality of Life Inventory (WHOQOL-100) Score Time: week 10, and 2, 6 and 12 months later, compared to baselineDescription: inflammatory cytokine that increases with physical and psychological trauma, measured at the picogram per milliliter level, present in plasma at detectable levels in all individuals with the single molecule array (SIMOA) technology to be applied, but expected to decrease in response to intervention
Measure: Change in plasma tumor necrosis factor-alpha level Time: week 10, compared to baselineDescription: inflammatory cytokine that increases with physical and psychological trauma, measured at the picogram per milliliter level, present in plasma at detectable levels in all individuals with the SIMOA technology to be applied, but expected to decrease in response to intervention
Measure: Change in plasma interleukin-6 level Time: week 10, compared to baselineDescription: inflammatory cytokine that increases with physical and psychological trauma, measured at the picogram per milliliter level, present in plasma at detectable levels in all individuals with the SIMOA technology to be applied, but expected to decrease in response to intervention
Measure: Change in plasma interleukin-10 level Time: week 10, compared to baselineDescription: Normalized Summary Score for a battery of 7 tests to measure various aspects of cognition including memory, executive function, attention span; normed for age, with a score of 50 being average, scores greater than 50 demonstrate greater than average cognitive function, and scores lower than 50 indicating lower than average cognitive function
Measure: Change in NIH Toolbox Cognition Battery (NIH-TB) Neurocognitive Assessment Composite Score Time: week 10, compared to baselineEating disorders are psychopathologies with serious repercussions on the somatic, psychological and social level. Currently available treatments are unfortunately for now not fully efficient, therefore researchers have recommended to develop prevention initiatives. Until now, no study has been carried out in Switzerland to evaluate the efficacy of an intervention for the prevention of eating disorders. The goal of the present study is to evaluate two eating disorders prevention intervention that have been largely validated in the US, called the Body Project (BP) and the Healthy Weight Program (HW). Both interventions target body dissatisfaction, which is a well-identified risk factor of eating disorders. They will be compared to a one-month waiting list. Because of the pandemic situation due to the Severe Acute Respiratory Syndrome coronavirus (COVID-19), both interventions will be delivered virtually via a collaborative platform. The sessions will be recorded to carry out a quality control. To compare the BP and HW interventions to a waiting list, a three-arm randomized controlled study will be carried out, including female students from French-speaking Switzerland. Recruitment will include 90 participants. Participants will be randomly assigned to one of the three arms of the study. They will be evaluated before (T0) and after (T1) the interventions or the waiting list. Following the interventions, the participants will have one month of follow-up before a final evaluation (T2). Participants on the waiting list will receive the BP following the one-month waiting period and will then be evaluated (T2). After having signed the consent form, the participant will be randomized to one of the three study arms, with a 1: 1: 1 allocation ratio. Interventions will be given in groups of six participants. Randomization will be blocked to ensure groups of equal size, and that groups of six participants for each arm are regularly formed. The blocks will be of variable size (3, 6, 9) to protect the concealment. The hypotheses are as follows: 1. The two interventions BP and HW will have an effect on body dissatisfaction (primary outcome) as well as on the thin-ideal internalization, dietary restraint, negative affect, and eating disorders psychopathology (secondary outcomes), compared to the waiting list; 2. There will be no differences between the BP and the HW on the primary and secondary outcomes; 3. The effects observed thanks to the interventions will be maintained after one month of follow-up.
Description: Mean change in Body Dissatisfaction after interventions in comparison with waiting-list
Measure: Mean Change in Body Dissatisfaction on the Body Shape Questionnaire 8C (score ranging from 8 to 48, with higher scores indicating higher body dissatisfaction) from baseline to post-intervention or post-waiting Time: one month (Month 1)Description: Mean change in thin-ideal internalization after interventions in comparison with waiting-list
Measure: Mean Change in Thin-Ideal Internalization on the Socio-Cultural Attitudes Towards Appearance Questionnaire (score ranging from 1 to 5 with higher scores indicating higher thin-ideal internalization) from baseline to post-intervention or post-waiting Time: one month (Month 1)Description: Mean change in Dietary Restraint after interventions in comparison with waiting-list
Measure: Mean Change in Dietary Restraint on the Dutch Eating Behaviour Questionnaire (score ranging from 1 to 5 with higher scores indicating higher dietary restraint) from baseline to post-intervention or post-waiting Time: one month (Month 1)Description: Mean change in Anxiety after interventions in comparison with waiting-list
Measure: Mean Change in Anxiety on the Hospital Anxiety and Depression Scale (score ranging from 0 to 21 with higher scores indicating higher anxiety) from baseline to post-intervention or post-waiting Time: one month (Month 1)Description: Mean change in Depression after interventions in comparison with waiting-list
Measure: Mean Change in Depression on the Hospital Anxiety and Depression Scale (score ranging from 0 to 21 with higher scores indicating higher depression) from baseline to post-intervention or post-waiting Time: one month (Month 1)Description: Mean change in Eating Disorders Psychopathology after interventions in comparison with waiting-list
Measure: Mean Change in Eating Disorders Psychopathology on the Eating Disorders Examination-Questionnaire (score ranging from 0 to 6 with higher scores indicating higher eating disorders psychopathology) from baseline to post-intervention or post-waiting Time: one month (Month 1)Description: Mean change in Body Dissatisfaction between post-intervention and follow-up
Measure: Mean Change in Body Dissatisfaction on the Body Shape Questionnaire 8C (score ranging from 8 to 48, with higher scores indicating higher body dissatisfaction) from post-intervention to follow-up Time: one month (Month 2)Description: Mean change in Thin-Ideal Internalization between post-intervention and follow-up
Measure: Mean Change in Thin-Ideal Internalization on the Socio-Cultural Attitudes Towards Appearance Questionnaire (score ranging from 1 to 5 with higher scores indicating higher thin-ideal internalization) from post-intervention to follow-up Time: one month (Month 2)Description: Mean change in Dietary Restraint between post-intervention and follow-up
Measure: Mean Change in Dietary Restraint on the Dutch Eating Behaviour Questionnaire (score ranging from 1 to 5 with higher scores indicating higher dietary restraint) from post-intervention to follow-up Time: one month (Month 2)Description: Mean change in Anxiety between post-intervention and follow-up
Measure: Mean Change in Anxiety on the Hospital Anxiety and Depression Scale (score ranging from 0 to 21 with higher scores indicating higher anxiety) from post-intervention to follow-up Time: one month (Month 2)Description: Mean change in Depression between post-intervention and follow-up
Measure: Mean Change in Depression on the Hospital Anxiety and Depression Scale (score ranging from 0 to 21 with higher scores indicating higher depression) from post-intervention to follow-up Time: one month (Month 2)Description: Mean change in Eating Disorders Psychopathology between post-intervention and follow-up
Measure: Mean Change in Eating Disorders Psychopathology on the Eating Disorders Examination-Questionnaire (score ranging from 0 to 6 with higher scores indicating higher eating disorders psychopathology) from post-intervention to follow-up Time: one month (Month 2)Description: Mean of satisfaction with BP and HW assessed with four Likert scales after interventions
Measure: Mean of four 5-point Likert scales assessing program usefullness, help, understandability, usefulness of exercises (score from 1 to 5 with 5 indicating higher satisfaction) after interventions Time: Month 1 or Month 2The COVID-19 attack is polymorphic with otorhinolaryngological, pneumological, cardiac, digestive, neurological, muscular attacks with a higher mortality in subjects with comorbidity [> 70 years old, cardiovascular history in particular Arterial hypertension (hypertension ), heart disease…]. This polymorphism is linked to vasculitis and the immune response. Patients with cardiovascular disease are particularly at risk of decompensating, particularly due to the increased metabolism induced by viral infection and reduced cardiovascular capacities. On the cardiovascular level, two sides can be considered. On the one hand, cardiovascular disease (hypertension, coronary artery disease) is a comorbid factor. On the other hand, the myocardial damage reflected by the increase in troponin or an alteration of the ejection fraction is a very clear risk factor for death or severe form. Cardiovascular involvement is particularly high in hospitalized and deceased patients. The odds ratio calculated in a meta-analysis of severe forms of covid-19 with hypertension is 3 [1.9; 3.1], for cardiovascular pathologies of 2.93 [1.73; 4.96]. Recommendations were made for pulmonary rehabilitation but not for cardiovascular rehabilitation. Cardiac rehabilitation is indicated in most cardiovascular pathologies (after acute coronary syndrome, after coronary angioplasty, in heart failure, after coronary or valve heart surgery, etc.). It consists of a multidisciplinary approach combining therapeutic pharmacological adjustment, physical activity, therapeutic education in order to improve physical capacities for exertion and reduce morbidity and mortality. The physical exercises can be endurance or resistance type. Capacity gain at the end of rehabilitation is measured by visual scales, quality of life questionnaires, and a stress test at the start and end of rehabilitation. Most often, rehabilitation centers only do the stress test and estimate through questioning for subjective improvement. The hypothesis is that patients who contracted COVID-19 would have lower cardiac capacities after recovery from the infection than patients without COVID-19 or that their capacity for recovery would be less. There could be a difference in recovery after cardiac rehabilitation between the two populations regardless of whether the cardiac damage requiring rehabilitation was triggered by COVID-19 or was pre-existing.
Description: This outcome corresponds to the difference between the average gain in exercise capacity after cardiac rehabilitation between the two groups of patients Control and COVID-19.
Measure: Impact of COVID-19 on exercise capacity gain after cardiovascular rehabilitation Time: Month 3Introduction: Survivors of acute respiratory failure develop persistent muscle weakness and deficits in cardiopulmonary endurance combining to limit physical functioning. Early data from the Covid-19 pandemic suggest a high incidence of critically ill patients admitted to intensive care units (ICU) will require mechanical ventilation for acute respiratory failure. Covid-19 patients surviving an admission to the ICU are expected to suffer from physical and cognitive impairments that will limit quality of life and return to pre-hospital level of functioning. In this present study, the investigators will evaluate the safety and feasibility of providing a novel clinical pathway combining ICU after-care at an ICU Recovery clinic with physical therapy interventions. Methods and Analysis: In this single-center, prospective (pre, post cohort) trial in patients surviving ICU admission for Covid-19. The investigators hypothesize that this novel combination is a) safe and feasible to provide for patients surviving Covid-19; b) improve physical function and exercise capacity measured by performance on 6-minute walk test and Short Performance Physical battery; and c) reduce incidence of anxiety, depression and post-traumatic stress assessed with Hospital Anxiety and Depression Scale and the Impact of Events Scale-revised. Safety will be assessed by pooled adverse events and reason for early termination of interventions. Feasibility will be assessed by rate of adherence and attrition. Repeated measures ANOVA will be utilized to assess change in outcomes from at first ICU Recovery Clinic follow-up (2-weeks) and 3- and 6-months post hospital discharge. Ethics and Dissemination: The trial has received ethics approval at the University of Kentucky and enrollment has begun. The results of this trial will support the feasibility of providing ICU follow-up and physical therapy interventions for patients surviving critical illness for Covid-19 and may begin to support effectiveness of such interventions. Investigators plan to disseminate trial results in peer-reviewed journals, as well as presentation at physical therapy and critical care national and international conferences.
Description: Incidence of adverse events, quantified by pain or discomfort that causes termination of interventions; a fall (with or without injury) during interventions or directly related to interventions such as fall due to fatigue; and physiologic event/abnormality that warrants termination of interventions or medical follow-up including bradycardia, tachycardia, and emergent hypertension
Measure: Adverse events (safety) Time: through study completion, an average of 3-monthsDescription: Feasibility will be assessed by the consent rate (number of patients agreed to participate/number of patients approached for consent) and adherence attendance measured by the percentage of sessions patient participated divided total number of scheduled appointments. Adherence will also be prospectively assessed by total duration of exercise, dosage and intensity of exercises as described above. Attrition will be quantified by number of patients lost to follow-up.
Measure: Feasibility (success of consent process, adherence, and attrition) Time: through study completion, an average of 3-monthsDescription: Distance walked on six-minute walk test performed in line with the ATS/ERS Guidelines as measure of exercise capacity
Measure: Six minute walk test Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: Short Performance Physical Battery (SPPB) is a performance-based physical function test with components of balance, repetitive five times sit-to-stand for time, and 4-meter habitual gait speed. Higher scores on SPPB indicate better physical function.
Measure: Short Performance Physical Battery Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: Health-related quality of life (HRQoL) will be measured by self-report questionnaire, the Five Dimension Euro-Quality of Life (EQ-5D) that includes a visual analog scale with rating for overall HRQoL (0-100)
Measure: Quality of life (EQ-5DL) Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: Cognitive function will be assessed by the Montreal Cognitive Assessment (MOCA) with <23/30 distinguishing mild cognitive impairment. If the patient participating in telemedicine through Zoom then the MOCA-Blind version will be completed.
Measure: Cognitive function Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: Anxiety and depression will be assessed with the Hospital Anxiety and Depression Scale (HADS), a fourteen-item scale with subset scores of >8/21 indicating anxiety or depression
Measure: Anxiety and Depression Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: Distress and Post-traumatic stress disorder (PTSD) will be assessed through the Impact of Events Scale-Revised (IES-R), a 22-item self-report measure, with scores >35/88 recommending provisional diagnosis of PTSD
Measure: PTSD and distress Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: For patients previously employed, the return to work will be assessed using the self-report survey instrument designed for ICU follow-up
Measure: Return to work Time: Assessed at baseline, and repeated 3- and 6-months post hospital dischargeDescription: Readmission rate and morality with be assessed
Measure: Secondary complication Time: Assessed 3 and 6-months post hospital dischargeWhile "conditioning" by exercise training has been widely evaluated, the available literature on "passive deconditioning" (i.e. forced deconditioning) is predominately limited to studies with or with almost complete mechanical and/or metabolic immobilization/sedation of the respective functional system (e.g. paralysis, bedriddenness). Vice versa, the effects of moderately long interruptions of dedicated types of exercise while maintaining everyday activity are rarely addressed. However, this topic is of high relevance, e.g. considering that breaks of health-related exercise programs due to increased family/occupational stress, vacation or temporary orthopedic limitation are rather frequent in everyday life. In the present project we aimed to determine the effects of 3 months of physical deconditioning due to COVID-19 induced lockdown after 13 month of high intensity endurance and resistance exercise in early postmenopausal women on parameters related to health and physical fitness.
Description: Body composition as determined by Dual-Energy x-Ray Absorptiometry
Measure: Body composition Time: From intervention end to 3 months FUDescription: Hip-/Leg extension strength as determined by an isokinetic leg press
Measure: Hip-/Leg extension strength Time: From intervention end to 3 months FUDescription: cardio-metabolic risk factors summarized in the Metabolic Syndrome Z-Score according to the definition of the International Diabetes Federation
Measure: Metabolic Syndrome Time: From intervention end to 3 months FUDescription: BMD at the lumbar spine and total hip as determined by Dual Energy x-Ray Absorptiometry
Measure: Bone Mineral Density (BMD) Time: From intervention end to 3 months FUDescription: Menopausal symptoms as determined by the "Menopausal Rating Scale" (MRS) with a scale from 0 (no complaints) to 4 (very serious complaints).
Measure: Menopausal symptoms Time: From intervention end to 3 months FUDescription: Back and joint pain as determined by a standardized pain questionnaire with a scale from 0 (never) to 7 (permanent) for pain frequency or 0 (no pain) to 7 (extremely) for pain severity.
Measure: Back and joint pain Time: From intervention end to 3 months FUAfter a hospitalization in Intensive Care Unit (ICU), approximately 50% of patients usually have a ICU-Weakness, i.e. nerves and muscles injury secondary to immobilization and to treatments which had to be used. This disease is expected to be similar or even higher in patients suffering from COVID-19 and hospitalized in ICU due to the average length of hospitalization of several weeks in this population. This condition will delay the return-to-walk of these patients, their discharge from hospitalization and may deteriorate their autonomy in daily life activities. Virtual Reality (VR) environments are already used and have proven their worth for the assessment and rehabilitation of patients with neurological diseases. It therefore seems appropriate to offer the use of virtual environments for this type of population. VR represents a unique opportunity for the rehabilitation care of these patients, and in particular those who have been reached by COVID-19, due to the possible mismatch between the amount of motor rehabilitation to be provided and the fatigability and breathlessness at the slightest effort which seem particularly intense in this population. The main objective of our project is to improve and to accelerate gait recovery in patients hospitalized in Physical and Rehabilitation Medicine after discharge from Resuscitation or Continuous Care Unit and in patients hospitalized in ICU and presenting ICU-weakness secondary to resuscitation, notably due to COVID-19 infection, thanks to the use of Virtual Reality tools. The VR tool will consist of virtual environments presented using a Virtual Reality headset where an avatar (double) of the patient hospitalized in Physical and Rehabilitation Medicine or in ICU will be represented, who will perform different motor tasks involving their lower limbs (ex: walking, or kicking a ball) in several different virtual environments (settings). The patient will be asked to observe actions, then to imagine carrying out their actions which will be performed by the avatar in the virtual environment, then they will be able to control the actions of the avatar using their legs thanks to sensors, then feel walking sensations through the use of haptic devices.
Description: Number of meters taken during the 6-minute test the day after the last session.
Measure: 6-minute test Time: Day 10Description: Gait assessment before the start of the first session, the day after the last session and 1 month from inclusion: 10-meter test (time in seconds)
Measure: Time for 10-meter test Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Gait assessment before the start of the first session, the day after the last session and 1 month from inclusion: 6-minute walk test (need for breaks, scale de Borg, existence of desaturation)
Measure: 6-minute walk test Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Gait assessment before the start of the first session, the day after the last session and 1 month from inclusion: recovery time for walking over 10 meters without human or technical assistance
Measure: Recovery time Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Assessment of balance before the start of the first session, the day after the last session and 1 month from inclusion: normal or deficient posture balance in sitting and standing
Measure: Normal or deficient posture balance in sitting and standing Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Assessment of balance before the start of the first session, the day after the last session and 1 month from inclusion: Berg Balance Scale. Berg's balance scale includes 14 tests that assess static balance and dynamic balance. Each test is rated from 0 (needs help) to 4 (can do on him/her own). Total score is on 56 points.
Measure: Berg Balance Scale Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Assessment of balance before the start of the first session, the day after the last session and 1 month from inclusion: Timed Up and Go test (time in seconds)
Measure: Timed Up and Go test Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Assessment of balance before the start of the first session, the day after the last session and 1 month from inclusion: test of the 10 chair lifts (duration in seconds, existence of a desaturation, Borg scale)
Measure: Duration for the test of the 10 chair lifts Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Strength assessment before the start of the first session, the day after the last session and within 1 month of inclusion: MRC testing of the lower limbs. The Medical Research Council's scale (MRC scale) is an assessment of muscle power, rated form 0 (no contraction) to 5 (normal power).
Measure: MRC scale Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Assessment of autonomy before the start of the first session, the day after the last session and within 1 month of inclusion: Functional Independence Measure. The Functional Independence Measure (FIM) is an 18-item instrument measuring a person's level of disability in terms of burden of care. Each item is rated from 1 (requiring total assistance) to 7 (completely independent). Three independent FIM scores can be generated by summing item scores: a total score (FIM total: 18 items), a motor score (FIM motor: eating, grooming, bathing, dressing - upper body, dressing - lower body, toileting, bladder management, bowel management, and transfers bed/chair/wheelchair, toilet, tub/shower, walk, stairs), and a cognitive score (FIM cognitive: auditory comprehension, verbal expression, social interaction, problem solving, and memory). Multiple studies support the reliability and validity of FIM scales in the older population.
Measure: Functional Independence Measure Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionDescription: Acceptability (a priori, patients and caregivers for stage 2) questionnaires
Measure: Acceptability Time: Day 1 (step 2)Description: Acceptance (patients for stages 1, 3, 4 and 5) questionnaires
Measure: Acceptance Time: Day 1 (step 2)Description: Fatigue assessment (visual analog scale) (steps 1, 3, 4, 5)
Measure: Fatigue Time: End of each session, at days 1 to 9Description: Collections of possible undesirable effects by open question at the end of each session with the Virtual Reality tool (steps 1, 3, 4, 5)
Measure: Undesirable effects Time: End of each session, at days 1 to 9Description: Assessment of confidence in the future using a questionnaire (steps 1, 3, 4, 5) before the start of the first session, the day after the last session and 1 month from inclusion
Measure: Confidence in the future Time: Before the start of the first session (day 1), the day after the last session (day 9) and 1 month after inclusionMenopause usually have a serious impact on a woman's life, associated with negative consequences for health and quality of life. Early preventive assessments are very difficult to implement due to the complex hormone-deficiency-induced effects on a large variety of organs and systems with estrogen receptors. In fact, only a few types of interventions have the potential to comprehensively improve the various risk factors and complaints of the menopausal transition. In detail, however, not every form of exercise training or every training protocol is effective for exerting positive effects on selected risk factors. In particular, the training concept for addressing musculoskeletal or cardio-metabolic risk factors differ fundamentally. In several studies, we confirmed the effect of different complex training programs on risk factors of different postmenopausal female cohorts with special consideration of osteoporotic aspects. The training programs applied in this context were characterized by the consistent implementation of recognized training principles and an in general exercise intensity-oriented approach. Recent studies confirmed the effectiveness of this proceeding for women with relevant postmenopausal risk factors including low bone strength. However, the crucial issue of the most effective, feasible and easily customizable training protocol for addressing postmenopausal risk factors remains to be answered, taking into account that the majority of exercise programs were realized in an ambulatory group setting. The aim of the study will be to evaluate the effects of an optimized physical training on risk factors and complaints of (early) postmenopausal women with special consideration of the osseous fracture risk. Note (05.06.2020): Of importance, the intervention has to be cancelled due to COVID-19 lockdown in March 2020 after 13 months of intervention.
Description: Bone Mineral Density (BMD) at the lumbar spine region of interest as determined by Dual Energy x-Ray Absorptiometry (DXA)
Measure: BMD Lumbar Spine Time: from baseline to 13 month follow-upDescription: Bone Mineral Density at the total hip region of interest as determined by DXA
Measure: BMD total Hip Time: from baseline to 13 month follow-upDescription: Muscle density at the para-vertebral region as determined by Magnetic Resonance Imaging (MRI)
Measure: Para-vertebral muscle density Time: from baseline to 13 month follow-upDescription: Muscle density at the mid-thigh region as determined by MRI
Measure: Mid-thigh muscle density Time: from baseline to 13 month follow-upDescription: Metabolic Syndrome Z-Score according to the Internationale Diabetes Federation (IDF)
Measure: Metabolic Syndrome Time: from baseline to 13 month follow-upDescription: Visceral body fat as determined by Magnetic Resonance Imaging (MRI)
Measure: Visceral body fat Time: from baseline to 13 month follow-upDescription: Total body fat as determined by whole body DXA
Measure: Total body fat Time: from baseline to 13 month follow-upDescription: Total Lean Body Mass as determined by whole body DXA
Measure: Total Lean Body Mass Time: from baseline to 13 month follow-upDescription: Menopausal complaints as determined by the Menopause Rating Scale (German version. Questionnaire with 11 items; scale from 0 (no complaints/problems) to 4 (very severe complaints/problem)
Measure: Menopausal complaints Time: from baseline to 13 month follow-upDescription: Maximum isokinetic leg extensor strength as determined by an isokinetic leg press
Measure: Maximum leg strength Time: from baseline to 13 month follow-upDescription: Total fat rate as determined by Bio Impedance technique (BIA)
Measure: Total fat rate Time: from baseline to 13 month follow-upDescription: Fat free mass as determined by BIA
Measure: Fat free mass Time: from baseline to 13 month follow-upIn the context of quarantine with COVID-19, we wish to study the experience and psychological impact in adult patients living with osteoporosis.
Osteosarcopenia designates the simultaneous presence of sarcopenia and osteopenia; both chronic conditions of advanced age. Dynamic-resistance exercise (DRT) might be the most powerful agent to fight osteosarcopenia. Indeed, in the present FrOST study, we clearly determine the positive effect of slightly adapted 18 month high-intensity (HIT)-DRT on bone mineral density (BMD), sarcopenia and other health related parameters in osteosarcopenic men. However, after a short training break, COVID-19 induced lock down prevented a re-start of the HIT resistance exercise training in the FrOST cohort. The aim of the present observational study is thus to determine the effects of 6 months of deconditioning on health related parameters under special regard of osteosarcopenia in this cohort of older men with osteosarcopenia.
Description: Skeletal muscle mass index (appendicular skeletal muscle mass / body height; kg/m2) as determined by Dual Energy x-Ray Absorptiometry
Measure: SMI Time: Change from Baseline to 26 weeksDescription: Bone Mineral Density at the Lumbar Spine as determined by Dual Energy x-Ray Absorptiometry
Measure: BMD-LS Time: Change from Baseline to 26 weeksDescription: Bone Mineral Density at the total hip as determined by Dual Energy x-Ray Absorptiometry
Measure: BMD-hip Time: Change from Baseline to 26 weeksDescription: Z-Score of parameters constituting the metabolic syndrome (i.e. SMI, hand-grip strength, gait velocity)
Measure: Sarcopenia-Z-Score Time: Change from Baseline to 26 weeksDescription: Intramuscular adipose tissue at the mid thigh as determined by Magnetic Resonance Imaging
Measure: Fat infiltration thigh muscles Time: Change from Baseline to 26 weeksDescription: Intramuscular adipose tissue at the mid thigh as determined by Magnetic Resonance Imaging
Measure: Fat infiltration para-vertebral muscles Time: Change from Baseline to 26 weeksDescription: Maximum hip-/leg extensor strength as determined by an isokinetic leg press
Measure: Maximum hip-/leg extensor strength Time: Change from Baseline to 26 weeksDescription: Metabolic Syndrome Z-Score based on the definition of the International Diabetes Federation including waist circumference, resting glucose, HDL-cholesterol, triglyzerides, mean arterial blood pressure)
Measure: Metabolic Syndrome Z-Score Time: Change from Baseline to 26 weeksDescription: Late-Life Function and Disability Index of McAuley et al.
Measure: Self rated physical performance Time: Change from Baseline to 26 weeksThe overarching aim of this project is to implement and evaluate a proven cognitive training regimen in combination with a community exercise program among older adults who attend wellness exercise programs at the YMCA. To support this aim, the investigators have developed a collaboration with the YMCA of Kitchener-Waterloo, which offer exercise programs targeted to older adults. The specific objectives are: (1) to evaluate the feasibility of a combined exercise and cognitive training in a community-setting among older adults; and (2) to conduct a preliminary evaluation and comparison of changes in cognitive function, physical function, well-being and self-efficacy with 12-weeks of combined exercise and cognitive training versus exercise alone. The hypothesis for each objective are as follows: (1) It is anticipated that this program will be feasible to implement and will be well accepted by the participants and exercise providers. (2) The investigators may not have the power to find statistically significant differences between the control and experimental groups for physical and cognitive function. However, the investigators expect to observe positive changes between the pre- and post-assessments, suggesting improved cognitive function and mobility as a result of the 12-week program.
Description: Total number of people enrolled divided by the total number of people invited to participate (multiplied by 100 to calculate a percentage)
Measure: Recruitment Rate Time: Pre-program (baseline)Description: Percentage of people who completed the full program and all assessments
Measure: Completion Rate Time: Through study completion, 12 weeksDescription: Percentage of people who attended program sessions (exercise and cognitive training components)
Measure: Attendance Time: Throughout entire intervention (12 weeks, 2 sessions/week per group)Description: Participant and instructors rating of program components and overall program (via hand-written questionnaire). Participants and instructors must rate their level of agreement (1 = strongly disagree, 2 = disagree, 3 = no opinion, 4 = agree, 5 = strongly agree) with various statements. The higher the rating, the greater the satisfaction. They also must rate if the difficulty of the program was optimal, somewhat easy or hard, or too easy or hard. They must also specify how much money they would be willing to spend on the program. They are also given an opportunity to record optional additional comments/recommendation.
Measure: Change in Participant and Instructor Rating of experience, satisfaction, and feasibility of program Time: Mid-point (6 weeks) and post-program (12 weeks)Description: Financial cost of running program (equipment purchased for study - cognitive training tablet and stands - and YMCA staff pay) as reported by researcher and YMCA staff
Measure: Cost of program Time: Post-program (12 weeks)Description: Self-reported biological sex (at birth) using basic demographics questionnaire
Measure: Sex Time: Pre-program (baseline)Description: One-on-one interview with researcher, answering broad questions about their experience in the program and study
Measure: Participant and Instructor perceived program experience and satisfaction Time: Post-program (at 12 weeks)Description: Experience of participants and instructors will also be observed by the researcher (observational notes will be taken by the researcher during each class). No names of participants and instructors will be recorded.
Measure: Participant and Instructor observer-perceived program experience and satisfaction Time: Throughout entire intervention (12 weeks, 2 sessions/week per group)Description: Self-reported years of formal education and training (training years for instructors only) using basic demographics questionnaire
Measure: Education Time: Pre-program (baseline)Description: Self-reported previous and current occupations using basic demographics questionnaire
Measure: Occupation Time: Pre-program (baseline)Description: Self-reported previous and current medical conditions using basic demographics questionnaire
Measure: Medical Condition Time: Pre-program (baseline)Description: Self-reported previous and current medications using basic demographics questionnaire
Measure: Medications Time: Pre-program (baseline)Description: Using the Montreal Cognitive Assessments (brief clinical tool) to assess visual/spatial abilities, working memory, executive functioning, language, abstraction, and orientation). Will be used to describe participants' baseline cognitive status (a score out of 30 is measured).
Measure: Montreal Cognitive Assessment (global cognitive function) Time: Pre-program (baseline)Description: Using the International Physical Activities Questionnaire (IPAQ) to assess physical activity level based on self-reported frequency and duration of job-related, house work-related, transportation-related, and leisure-related physical activities done in the past week. METS-minutes/week will be calculated and reported (i.e. take the number of minutes doing an activity in the past week and multiply by the appropriate metabolic equivalent, which will vary based on the intensity of the physical activity).
Measure: Physical Activity Level Time: Pre-program (baseline)Description: Using a cognitive activity scale (score of 0-4 per activity) that requires participants to self-report how often they typically engage in a variety of mentally stimulating activities (i.e. playing card games, reading, cooking, etc.) The more frequently they engage in the activity, the higher the score.
Measure: Participant cognitive activity Time: Pre-program (baseline)Description: Using a scale (score of 0-3 per group) that requires participants to self-report how often they typically interact (face-to-face or virtually) with different groups of people (i.e. their spouse, family, friends, co-workers, etc.). The more frequently they interact with the group, the higher the score.
Measure: Participant social activity Time: Pre-program (baseline)Description: Self-reported years of age using basic demographics questionnaire
Measure: Participant and Instructor Age Time: Pre-program (baseline)Description: STROOP task which assesses the length of time (seconds) it takes for a participant to correctly name a coloured square (test 1), read the name of a colour (test 2), and say the name of the colour that a word is printed in (test 3). Number of corrected and uncorrected errors are also recorded.
Measure: Change in Stroop Task Performance Time: Pre-program (baseline) and post-program (12 weeks)Description: Trails Making Test Part A and B. Part A assesses visual search (participants must connect numbered circles in ascending numerical order (1-2-3-etc). Part B assesses working memory and task-switching (participants must connect circles in ascending numerical and alphabetical order (1-A-2-B- etc.). Time to complete the tests (second) and errors (number) made during the tests are recorded.
Measure: Change in Trail Making Task Performance Time: Pre-program (baseline) and post-program (12 weeks)Description: Resting (seated) heart rate (beats per minute) using an automatic blood pressure cuff
Measure: Change in Resting Heart Rate Time: Pre-program (baseline) and post-program (12 weeks)Description: Resting (seated) blood pressure (millimeters of mercury) using an automatic blood pressure cuff
Measure: Change in Resting Systolic and Diastolic Blood Pressure Time: Pre-program (baseline) and post-program (12 weeks)Description: Using hand dynamometer (assessing grip strength in lbs) for right and left hand (two trials per hand)
Measure: Change in Grip Strength Time: Pre-program (baseline) and post-program (12 weeks)Description: Weight (using automatic scale to measure in lbs, converted to kg) and height (measured in feet and inches, converted to meters) measured and combined to provide BMI (kg/m^2)
Measure: Change in Body Mass Index (BMI) Time: Pre-program (baseline) and post-program (12 weeks)Description: Divide waist circumference (cm) by hip circumference (cm) to get ratio calculation
Measure: Change in Hip-to-Waist Circumference Ratio Time: Pre-program (baseline) and post-program (12 weeks)Description: Agility and functional balance will be assessed using the Timed Up-and-Go (participants stand up from a chair, walk 6 meters, turn around an object, walk back to chair, and sit down). Time to complete test is measured (seconds) and assessor's observational notes of performance are taken.
Measure: Change in Timed Up-and-Go Performance Time: Pre-program (baseline) and post-program (12 weeks)Description: Agility and functional balance will be assessed using the Four Square Step Test (participants must step over lines that are set up in a cross formation, creating 4 quadrants. They must step forward, backward, and side to side in a specific pattern (i.e. from quadrant 1 to quadrant 2, to quadrant 3, to quadrant 4). Time to complete test is recorded in seconds.
Measure: Change in Four Square Step Test Performance Time: Pre-program (baseline) and post-program (12 weeks)Description: Lower body strength will be assessed using the 5 Time Sit-to-Stand (participants must complete 5 sit-to-stands from a chair as fast as they can). Time to complete all 5 is recorded in seconds.
Measure: Change in Sit-to-Stand Performance Time: Pre-program (baseline) and post-program (12 weeks)Description: Functional fitness will be assessed using the 6 minute walk (participants walk along indoor track for 6 minutes). The number of laps achieved in 6 minutes is recorded. Assessor's observational notes of walking performance is also recorded.
Measure: Change in 6-minute walk test Performance Time: Pre-program (baseline) and post-program (12 weeks)Description: Well-being will be self-reported using the "Vitality-Plus Scale" (self-reported general health questionnaire - rating of sleep quality, appetite, general energy level, etc.). Participants rate their degree of health on a scale from 1 - 5 (the higher the rating, the better their perceived overall well-being).
Measure: Change in Overall Well-being Time: Pre-program (baseline) and post-program (12 weeks)Description: Bandura Scale (named after the researcher who developed it) - self-reported rating of confidence (0 - 100%) to continue exercising routinely in various hypothetical situations (i.e. if one is sick, if the weather is poor, etc). The greater the confidence, the higher the score
Measure: Change in Exercise-related Self-Efficacy Time: Pre-program (baseline) and post-program (12 weeks)This multi-center, open, randomized study will evaluate the efficacy and safety of BDB-001 injection in severe COVID-19 with severe pneumonia, or acute lung injury/acute respiratory distress syndrome. Patients will be randomized to two treatment arms (Arm A: Conventional treatment + BDB-001; Arm B: Conventional treatment alone).
The host response against the coronavirus 2 (SARS-CoV-2) appears to be mediated by a 'cytoquine storm' developing a systemic inflammatory mechanism and an acute respiratory distress syndrome (ARDS), in the form of a bilateral pneumonitis, requiring invasive mechanical ventilation (IMV) in an important group of patients. In terms of preventing progression to the critical phase with the consequent need of admission to the intensive care units (ICU), it has been recently proposed that this inflammatory cytoquine-mediated process can be safely treated by a single course of ultra-low radiotherapy (RT) dose < 1 Gy. The main purpose of the study was to analyze the efficacy of ultra low-dose pulmonary RT, as an anti-inflammatory intention in patients with SARS-Cov-2 pneumonia with a poor or no response to standard medical treatment and without IMV.
Description: To evaluate the efficacy of ultra low-dose pulmonary RT through clinical evaluation.It was performed by oxygen therapy status assessment after RT treatment. Improvement criteria is considered as an oxygen therapy de-escalation (more to less need for support: Ventimask (VMK) with reservoir >VMK >Nasal Cannula-(NC).)
Measure: Oxygen Therapy Status at Day 2 Time: At 2 after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through clinical evaluation. .It was performed by oxygen saturation (Sat02 %) status assessment after RT treatment. Improvement criteria is considered as a Sat02 with/without oxygen therapy >93% (Pulse oximeter measurement)
Measure: Oxygen Saturation (Sat02; Pulse oximeter measurement) at Day 2 Time: At 2 days after RTDescription: Pa02 / Fi02 > 300 mmHg
Measure: Blood Gas Analysis at Day 2 Time: At 2 days after RTDescription: Achievement of normal range value in 1 or more of the inflammatory and immunological parameters (lymphocytes, IL-6, D-dimer, ferritin, LDH, C Reactive Protein (CRP) and fibrinogen)
Measure: Blood Test at Day 2 Time: At 2 days after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through clinical evaluation.It was performed by oxygen therapy status assessment after RT treatment. Improvement criteria is considered as an oxygen therapy de-escalation (more to less need for support: Ventimask (VMK) with reservoir >VMK >Nasal Cannula-(NC).)
Measure: Oxygen Therapy Status at Day 5 Time: At 5 after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through clinical evaluation. .It was performed by oxygen saturation (Sat02 %) status assessment after RT treatment. Improvement criteria is considered as a Sat02 with/without oxygen therapy >93% (Pulse oximeter measurement)
Measure: Oxygen Saturation (Sat02; Pulse oximeter measurement) at Day 5 Time: At 5 days after RTDescription: Achievement of normal range value in 1 or more of the inflammatory and immunological parameters (lymphocytes, IL-6, D-dimer, ferritin, LDH, C Reactive Protein (CRP) and fibrinogen)
Measure: Blood Test at Day 5 Time: At 5 days after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through clinical evaluation.It was performed by oxygen therapy status assessment after RT treatment. Improvement criteria is considered as an oxygen therapy de-escalation (more to less need for support: Ventimask (VMK) with reservoir >VMK >Nasal Cannula-(NC).)
Measure: Oxygen Therapy Status at Day 7 Time: At 7 after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through clinical evaluation. .It was performed by oxygen saturation (Sat02 %) status assessment after RT treatment. Improvement criteria is considered as a Sat02 with/without oxygen therapy >93% (Pulse oximeter measurement)
Measure: Oxygen Saturation (Sat02; Pulse oximeter measurement) at Day 7 Time: At 7 days after RTDescription: Achievement of normal range value in 1 or more of the inflammatory and immunological parameters (lymphocytes, IL-6, D-dimer, ferritin, LDH, C Reactive Protein (CRP) and fibrinogen)
Measure: Blood Test at Day 7 Time: At 7 days after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through radiological evaluation.It was performed by thoracic CT scan after RT treatment . It is considered a radiological improvement the decrease of the Total Severity Score (TSS) from the baseline in > or = 1 point. NOTE: The score values ranged from 0 to 4 according to the sum of the percentage involvement of each of the 5 lung lobes. The total severity score (TSS), was reached by summing the overall involvement in the lung (0-20 points)
Measure: Change from baseline Total Severity Score (TSS) analyzed in a thoracic CT scan at Day 7 Time: At 7 days after RTDescription: Recovery time after RT administration until hospital discharge or death (<48h; 2-7 days; >7 days; clinical worsening or death)
Measure: Recovery time Time: From RT administration until hospital discharge or deathDescription: COVID-19 negativization test
Measure: COVID-19 status Time: At 7 days after RTDescription: To evaluate the efficacy of ultra low-dose pulmonary RT through radiological evaluation.It was performed by thoracic CT scan after RT treatment . It is considered a radiological improvement the decrease of the Total Severity Score (TSS) from the baseline in > or = 1 point. NOTE: The score values ranged from 0 to 4 according to the sum of the percentage involvement of each of the 5 lung lobes. The total severity score (TSS), was reached by summing the overall involvement in the lung (0-20 points)
Measure: Change from baseline Total Severity Score (TSS) analyzed in a thoracic CT scan al Month 1 Time: At 1 month after RTDescription: Toxicity was assessed and rated according to the NIH Common Terminology Criteria for Adverse Events (CTCAE version 5.0) and RTOG scales.
Measure: Acute Toxicity Time: 1-3 months after RTRandomized, double-blind, parallel, two-arms clinical trial to assess the efficacy and safety of 2 infusions of Wharton-Jelly mesenchymal stromal cells (day 1 and day 3, endovenously at 1E6cells/Kg per dose) in patients with moderate acute respiratory distress syndrome (ARDS) secondary to SARS-CoV-2 infection. Follow-up will be established on days 3, 5, 7, 14, 21, and 28. Long term follow-up will be performed at 3, 6 and 12 months.
Description: Number of patients who died, by treatment group
Measure: All-cause mortality at day 28 Time: Day 28Description: Number of patients with treatment-emergent adverse events, by treatment group
Measure: Safety of WJ-MSC Time: Day 28Description: Number of patients who, after the start of treatment, required rescue medication, by treatment group
Measure: Need for treatment with rescue medication Time: Day 28Description: Number of days that the patient requires invasive mechanical ventilation from the start of treatment to day +28, by treatment group
Measure: Need and duration of mechanical ventilation Time: Day 28Description: Days after treatment in which the patient remains alive and free of invasive mechanical ventilation, per treatment group.
Measure: Ventilator free days Time: Day 28Description: Variation of the oxygenation index (PaO2 / FiO2) with respect to the baseline value, by treatment group.
Measure: Evolution of PaO2 / FiO2 ratio Time: Day 28Description: Variation of the score of the Sequential Organ Failure Assessment (SOFA) Index with respect to the baseline value, by treatment group.
Measure: Evolution of the SOFA index Time: Day 28Description: Variation of Acute Physiology and Chronic Health disease Classification System II (APACHE II) score, by treatment group.
Measure: Evolution of the APACHE II score Time: Day 28Description: Days of stay in the ICU from the day of admission until discharge to day 28, or date of death if earlier, by treatment group.
Measure: Duration of hospitalization Time: Day 28Description: Variation in the count and percentage of leukocytes and neutrophils, by treatment group.
Measure: Evolution of markers of immune response (leucocyte count, neutrophils) Time: Day 28Description: Feasibility will be evaluated by the time elapsed from the request of the treatment by the hospital center until the delivery date
Measure: Feasibility of WJ-MSC administration Time: Day 28Description: Feasibility will be evaluated by the number of patients treated within 2 days of the request for treatment.
Measure: Feasibility of WJ-MSC administration Time: Day 28Description: Variation in the values of the biomarker, by treatment group.
Measure: Evolution of disease biomarker: polymerase chain reaction (RT-PCR) Time: Day 28Description: Variation in the values of the biomarker, by treatment group.
Measure: Evolution of disease biomarker: lactate dehydrogenase (LDH) Time: Day 28Description: Variation in the values of the biomarker, by treatment group.
Measure: Evolution of disease biomarker: D-dimer Time: Day 28Description: Variation in the values of the biomarker, by treatment group.
Measure: Evolution of disease biomarker: Ferritin Time: Day 28Description: Blood sample analysis
Measure: Analysis of subpopulations of lymphocytes and immunoglobulins Time: Day 28Description: In vitro response will be assessed using commercial viral antigens (Miltenyi Biotech)
Measure: Evaluation of the in vitro response of the receptor lymphocytes Time: Day 28Description: Reactivity will be assessed using ELISPOT
Measure: Study of reactivity against SARS-CoV-2 peptides Time: Day 28Description: Blood sample analysis
Measure: Immunophenotypic study of memory cells in response to SARS-CoV-2 peptides Time: Day 28Description: Blood sample analysis for the patient's genomic sequencing
Measure: Genetic variability of patient's genotype in response to treatment Time: Day 28Description: Genomic sequencing of the SARS-CoV-2 in a nasopharyngeal sample
Measure: Genetic variability of the SARS-CoV-2 genotype in response to treatment Time: Day 28The aim of the study is to clinically use bovine Lf as a safe antiviral adjuvant for treatment and to assess the potential in reducing mortality and morbidity rates in COVID-19 patients. The study was approved by the ethical committee of the Egyptian Center for Research and Regenerative Medicine in 11-5-2020.
Description: Comparing the influence of the intervention on the Survival rate.
Measure: Survival rate. Time: up to 8 weeks.Description: For mild/moderate symptoms patients: fever, cough and other symptoms relieved with improved lung CT - For severe symptoms patients: fever, cough and other symptoms relieved with improved lung CT, and oxygen saturation by pulse oximetry (SPO2 )> 93% for nonasthmatic patients, and from 88-92% in asthmatic patients.
Measure: Rate of disease remission. Time: up to 4 weeks.Description: Comparing the influence of the intervention on the PCR negative results.
Measure: The number of patients with PCR negative results. Time: up to 4 weeks.Description: Recording the changes from severe to moderate or mild and the time taken.
Measure: Mean change in the disease severity (clinical assessment). Time: up to 4 weeks.Description: Recording the changes in blood pressure mmHg.
Measure: Mean change in blood pressure. Time: up to 4 weeks.Description: Recording the changes in heart rate in beat/second.
Measure: Mean change in heart beats. Time: up to 4 weeks.Description: Recording the changes in body temperature in Celsius.
Measure: Mean change in body temperature. Time: up to 4 weeks.Description: Recording the changes in the respiratory rate in breath/minute.
Measure: Mean change in body respiratory rate. Time: up to 4 weeks.Description: Recording the changes in arterial oxygen saturation in mmHg.
Measure: Mean change in oxygen saturation. Time: up to 4 weeks.Description: Recording the changes in the ratio of arterial oxygen partial pressure to fractional inspired oxygen (PF ratio).
Measure: Mean change in the ratio in arterial oxygen partial pressure to fractional inspired oxygen (PF ratio). Time: up to 4 weeks.Description: Recording the changes in complete blood picture (CBC) in cells per liter.
Measure: Mean change in complete blood picture (CBC). Time: up to 4 weeks.Description: Recording the changes in C reactive protein (CRP) in mg/L.
Measure: Mean change in C reactive protein (CRP). Time: up to 4 weeks.Description: Recording the changes in erythrocyte sedimentation rate (ESR) in mm/hr.
Measure: Mean change in erythrocyte sedimentation rate (ESR). Time: up to 4 weeks.Description: Recording the changes in D-dimer in ng/mL.
Measure: Mean change in D-dimer. Time: up to 4 weeks.Description: Recording the changes in ferritin in ng/mL.
Measure: Mean change in ferritin. Time: up to 4 weeks.Description: Recording the changes in liver Albumin in g/L.
Measure: Mean change in liver Albumin. Time: up to 4 weeks.Description: Recording the changes in total and direct Bilirubin in mg/dL.
Measure: Mean change in total and direct Bilirubin. Time: up to 4 weeks.Description: Recording the changes in prothrombin time (PT), partial thromboplastin time (PTT ) in seconds and calculating International Normalized Ratio (INR).
Measure: Mean change in prothrombin time (PT) and partial thromboplastin time (PTT ). Time: up to 4 weeks.Description: Recording the changes in aspartate aminotransferase (AST) in IU/L.
Measure: Mean change in aspartate aminotransferase (AST). Time: up to 4 weeks.Description: Recording the changes in Alanine Aminotransferase (ALT) in IU/L.
Measure: Mean change in Alanine Aminotransferase (ALT). Time: up to 4 weeks.Description: Recording the changes in Blood Urea Nitrogen (BUN) in mg/dL.
Measure: Mean change in Blood Urea Nitrogen (BUN). Time: up to 4 weeks.Description: Recording the changes in Serum Creatinine in mg/dL.
Measure: Mean change in Serum Creatinine. Time: up to 4 weeks.Description: Recording the changes in Serum Creatinine in ml/min.
Measure: Mean change in Serum Creatinine clearance. Time: up to 4 weeks.Description: Recording the changes in Glomerular filtration rate (GFR ) ml/min/m2.
Measure: Mean change in Glomerular filtration rate (GFR ). Time: up to 4 weeks.Description: Recording the changes in interleukin-1 (IL-1) in pg/ml.
Measure: The mean change in serum interleukin-1 (IL-1). Time: up to 4 weeks.Description: Recording the changes in interleukin-6 (IL-6) in pg/ml.
Measure: The mean change in serum interleukin-6 (IL-6). Time: up to 4 weeks.Description: Recording the changes in interleukin-10 (IL-10) in pg/ml.
Measure: The mean change in serum interleukin-10 (IL-10). Time: up to 4 weeks.Description: Recording the changes in tumor necrosis factor-alpha (TNF alpha) in ng/ml.
Measure: The mean change in serum tumor necrosis factor-alpha (TNF alpha). Time: up to 4 weeks.Description: Recording the changes in immunoglobulin G (IgG) in ng/ml.
Measure: Mean changes in immunoglobulin G (IgG). Time: up to 4 weeks.Description: Recording the changes in immunoglobulin M (IgM) in ng/ml.
Measure: Mean changes in immunoglobulin M (IgM). Time: up to 4 weeks.Description: Recording the changes in PCR viral load in copies/mL.
Measure: The mean change in PCR viral load. Time: up to 4 weeks.Description: Recording the changes in lung CT.
Measure: Mean change in lung CT manifestation. Time: up to 4 weeks.Description: Recording any unexpected Adverse Events of the intervention.
Measure: Nature and severity of Adverse Events. Time: up to 4 weeks.Description: Recording the changes (the average time of lung imaging recovery), as assessed by lung CT.
Measure: Time for lung recovery. Time: up to 8 weeks.Description: Recording the changes the event of missed drug doses.
Measure: The number of missed drug doses among each treatment group. Time: up to 4 weeks.This is a quality improvement study with the purpose of observing and measuring the effects of implementation of a proven standardized lung protective ventilation protocol in the new electronic medical record system iCentra across all Intermountain Healthcare hospitals. Approximately 14,000 records will be accessed for this study from a database of mechanically ventilated patients established for quality improvement purposes. The investigators hypothesize that implementation of a standardized computerized lung protective ventilation protocol across all Intermountain Healthcare hospitals will be feasible, will decrease initial tidal volumes to the target 6 ml/kg PBW, and will improve outcomes. The objectives of this study are to: - Determine if the implementation of lung protective ventilation (with a 6 ml/kg PBW tidal volume ventilation protocol on initiation of mechanical ventilation) improves outcomes in patients with acute respiratory failure requiring mechanical ventilation - Determine if the implementation of lung protective ventilation (with a 6 ml/kg PBW tidal volume ventilation protocol on initiation of mechanical ventilation) improves outcomes in the sub-group of patients with the acute respiratory distress syndrome (ARDS) - Measure compliance with the implementation of a computerized lung protective ventilation protocol at 12 Intermountain Healthcare hospitals
This research study seeks to establish the effectiveness of a combination of an inhaled corticosteroid and a beta agonist compared to placebo for the prevention of acute respiratory failure (ARF) in hospitalized patients with pneumonia and hypoxemia.
Description: High flow nasal cannula (HFNC) and/or Noninvasive ventilation (NIV) use for greater than 36 hours OR Invasive mechanical ventilation for greater than 36 hours OR Death in a patient placed on respiratory support (HFNC, NIV, ventilator) who dies before 36 hours
Measure: Acute respiratory failure (ARF) Time: within 7 days of randomizationIn December 2019 a new kind of virus was identified in China as the responsible of severe acute respiratory syndrome (SARS) and interstitial pneumonia. Severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) quickly spread around the world and in February 2020 became a pandemia in Europe. No pharmacological treatment is actually licensed for the SARS-CoV2 infection and at the current state of art there is a lack of data about the clinical management of the coronavirus 2019 disease (COVID-19). The aim of this observational study is to collect the data and the outcomes of COVID-19 patients admitted in the H. Sacco Respiratory Unit treated according to the Standard Operating Procedures and the Good Clinical Practice.
Description: Data collection about the real life management of patients affected by SARS-CoV-2 infection with acute respiratory distress syndrome
Measure: Real life data of the severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) infection Time: 1-6 monthsDescription: How many patients died during the hospitalization
Measure: in-hospital mortality Time: 1 monthDescription: How many patients died 30 days after the discharge
Measure: 30 days mortality Time: 1 monthDescription: How many patients died 6 months after the discharge
Measure: 6 months mortality Time: 6 monthsDescription: How many patients were intubated during the hospitalization
Measure: Intubation rate Time: 7 daysDescription: How many days/hours from admittance to intubation
Measure: Time to Intubation Time: 7 daysDescription: How many days/hours from admittance to the start of non invasive ventilation or CPAP therapy
Measure: Time to ventilation Time: 7 daysDescription: How many days/hours from the start of non invasive ventilation or CPAP therapy to the intubation
Measure: Non invasive to Invasive time Time: 7 daysDescription: How many patients were healed from the infection and discharged
Measure: Recovery rate Time: 1 monthDescription: How many patients underwent re-infection after previous recovery from COVID19
Measure: Recurrence rate Time: 1 monthDescription: Assessment of the risk factors for the infection and the admission to the hospital
Measure: Risk factor for COVID19 Time: retrospectiveDescription: What serological parameter could be used as predictor of good or negative prognosis.
Measure: Blood tests and outcome Time: 1 monthDescription: Impact of antiviral therapy on the clinical course of the disease
Measure: Antiviral therapy Time: 1 monthDescription: Assessment of bacterial, fungal or other coinfections rate
Measure: Coinfections Time: 1 monthDescription: Impact of radiological findings on the clinical course and the outcome
Measure: Radiological findings Time: 1 monthDescription: Impact of ultrasound findings on the clinical course and the outcome
Measure: Ultrasound findings Time: 1 monthDescription: Assessment of the evidence of myocardial injury in covid19+ patients
Measure: Myocardial injury Time: 1 monthDescription: impact of standard therapeutic operating procedures (eg enteral nutrition, hydration, drugs) on the clinical course.
Measure: Medical management Time: 1 monthOpioids can decrease breathing and co-administration of benzodiazepines with opioids can further decrease breathing. It is unknown whether certain other drugs also decrease breathing when co-administered with opioids. The objective of this study is to determine whether certain drugs combined with an opioid decrease breathing compared to breathing with an opioid alone. In order to assess this, this study will utilize the Read Rebreathing method, where study participants breathe increased levels of oxygen and carbon dioxide. The increased levels of carbon dioxide cause the study participants to increase breathing. This increased breathing response can be decreased by opioids and benzodiazepines, and potentially other drugs. Using this procedure, low doses of opioids or benzodiazepines can be administered that have minimal-to-no effects on breathing when study participants are going about normal activities breathing room air, however breathing increases less than expected as carbon dioxide levels are increased. This study will also obtain quantitative pupillometry measurements before and after each rebreathing assessment to allow for comparisons of pupillary changes to ventilatory changes when subjects receive different drugs and drug combinations. This study includes three parts: A Lead-In Reproducibility Phase and two main parts (Part 1 and Part 2). The Lead-In Reproducibility Phase will measure the variability between study participants and between repeated uses of the method in the same study participant within a day and between days. Part 1 will study an opioid alone, benzodiazepine alone, and their combination to show the methodology will detect changes in breathing at low doses of the drugs that are known to affect breathing. Part 2 will assess whether two drugs, selected due to their effects on breathing in a nonclinical model, decrease the breathing response when combined with an opioid compared to when an opioid is administered alone.
Description: Data will be analyzed using nonlinear regression of the minute ventilation versus partial pressure of end tidal CO2 (PETCO2) data and used to estimate VE55.
Measure: Part 1 - Comparison of the minute ventilation at the 55 mm Hg end tidal carbon dioxide (CO2) point (VE55) of midazolam combined with oxycodone vs. oxycodone alone. Time: Part 1: 2 hour timepoint on Day 1Description: Data will be analyzed using nonlinear regression of the minute ventilation versus PETCO2 data and used to estimate VE55.
Measure: Part 2 - Comparison of the minute ventilation at the 55 mm Hg end tidal CO2 point (VE55) of paroxetine or quetiapine combined with oxycodone vs. oxycodone alone on Day 1. Time: Part 2: 5 hour timepoint on Day 1Description: Data will be analyzed using nonlinear regression of the minute ventilation versus PETCO2 data and used to estimate VE55.
Measure: Part 2 - Comparison of the minute ventilation at the 55 mm Hg end tidal CO2 point (VE55) of paroxetine or quetiapine combined with oxycodone vs. oxycodone alone on Day 5. Time: Part 2: 5 hour timepoint on Day 5Description: Data will be analyzed using nonlinear regression of the minute ventilation versus PETCO2 data and used to estimate VE55.
Measure: Part 1 - VE55 of oxycodone or midazolam alone compared to placebo Time: Part 1: 2 hour timepoint on Day 1Description: Data will be analyzed using nonlinear regression of the minute ventilation versus PETCO2 data and used to estimate VE55.
Measure: Part 2 - VE55 of paroxetine or quetiapine alone compared to placebo Time: Part 2: 5 hour timepoint on Day 4Description: Cmax will be summarized using descriptive statistics
Measure: Part 1 - Maximum observed plasma concentration (Cmax) of oxycodone alone vs. in combination with midazolam Time: Part 1: Day 1 at 0, 1, 2, 3, 4, 6, 8, 12, 24 hourDescription: Cmax will be summarized using descriptive statistics
Measure: Part 2 - Cmax of oxycodone alone vs. in combination with paroxetine or quetiapine on Day 1 Time: Part 2: Day 1 at 3, 4, 5, 6, 9, 12, 24 hourDescription: Cmax will be summarized using descriptive statistics
Measure: Part 2 - Cmax of oxycodone alone vs. in combination with paroxetine or quetiapine on Day 5 Time: Part 2: Day 5 at 3, 4, 5, 6, 9, 12, 24 hourDescription: AUC will be summarized using descriptive statistics
Measure: Part 1 - Area under the plasma concentration-time curve (AUC) of oxycodone alone vs. in combination with midazolam Time: Part 1: Day 1Description: AUC will be summarized using descriptive statistics
Measure: Part 2 - AUC of oxycodone alone vs. in combination with paroxetine or quetiapine on Day 1 Time: Part 2: Day 1Description: AUC will be summarized using descriptive statistics
Measure: Part 2 - AUC of oxycodone alone vs. in combination with paroxetine or quetiapine on Day 5 Time: Part 2: Day 5Novel Corona Virus (SARS-CoV-2) is known to cause Respiratory Failure, which is the hallmark of Acute COVID-19, as defined by the new NIH/FDA classification. Approximately 50% of those who develop Critical COVID-19 die, despite intensive care and mechanical ventilation. Patients with Critical COVID-19 and respiratory failure, currently treated with high flow nasal oxygen, non-invasive ventilation or mechanical ventilation will be treated with Aviptadil, a synthetic form of Human Vasoactive Intestinal Polypeptide (VIP) plus maximal intensive care vs. placebo + maximal intensive care. Patients will be randomized to intravenous Aviptadil will receive escalating doses from 50 -150 pmol/kg/hr over 12 hours.
Description: Mortality
Measure: Mortality Time: 5 Days with followup through 30 daysDescription: Index of Respiratory Distress
Measure: PaO2:FiO2 ratio Time: 5 Days with followup through the end of telemetry monitoringDescription: TNF alpha levels as measured in hospital laboratory
Measure: TNF alpha Time: 5 DaysDescription: Multi-system organ failure free days
Measure: Multi-system organ failure free days Time: 5 days with followup through 30 daysDescription: Days free of Respiratory Failure
Measure: Days free of Respiratory Failure Time: 14 daysThe emergence of SARS-CoV-2 is currently engaging and consuming most of resources of efficient healthcare systems in Europe, and several hospitals are currently experiencing a shortage of ICU beds for critically-ill patients with SARS-CoV-2 pneumonia. A risk stratification based on clinical, radiological and laboratory parameters seems necessary in order to better identify those patients who may need ICU admission and/or those who may benefit from a prompt antiviral therapy
Description: Composite of ICU admission or SpO2<92% with 100% FiO2 of oxygen treatment (reservoir mask or CPAP or NIV), respiratory rate >30 bpm, respiratory distress
Measure: Respiratory failure Time: 14 daysDescription: Incidence of bacterial superinfection among ventilated patients with SARS-CoV-2 pneumonia
Measure: Occurence of bacterial superinfection Time: 14 daysThis cohort study aims at prospectively collecting detailed clinical information on patients positive to or suspected of COVID-19 visiting Italian emergency departments (EDs). The objectives of the study are: 1. To monitor and describe the COVID-19 patients visiting Italian EDs. 2. To assess the prognostic impact of demographics, clinical characteristics, risk factors and pre-existing diseases. 3. To develop a predictive model, providing estimates of the prognosis using multiple relevant factors. 4. To construct a detailed database to enable comparative effectiveness research (CER), with the goal of generating hypothesis of efficacy and effectiveness of treatments, therapies and interventions, in the management and treatment of COVID-19 patients.
Description: The study outcomes will be death or need of intubation within 7 days since ED arrival.
Measure: Death or need of intubation Time: 7 days since ED arrivalDescription: 30-day mortality
Measure: 30-day mortality Time: 30 days since ED arrivalIn December 2019 in the city of Wuhan in China, a series of patients with unclear pneumonia was noticed, some of whom have died of it. In virological analyses of samples from the patients' deep respiratory tract, a novel coronavirus was isolated (SARS-CoV-2). The disease spread rapidly in the city of Wuhan at the beginning of 2020 and soon beyond in China and, in the coming weeks, around the world. Initial studies described numerous severe courses, particularly those associated with increased patient age and previous cardiovascular, metabolic and respiratory diseases. A small number of the particularly severely ill patients required not only highly invasive ventilation therapy but also extracorporeal membrane oxygenation (vv-ECMO) to supply the patient's blood with sufficient oxygen. Even under maximum intensive care treatment, a very high mortality rate of approximately 80-100% was observed in this patient group. In addition, high levels of interleukin-6 (IL-6) could be detected in the blood of these severely ill patients, which in turn were associated with poor outcome. From experience in the therapy of severely ill patients with severe infections and respiratory failure, we know that treatment with a CytoSorb® adsorber can lead to a reduction of the circulating pro- and anti-inflammatory cytokines and thus improve the course of the disease and the outcome of the patients. Our primary goal is to investigate the efficacy of treatment with a CytoSorb® adsorber in patients with severe COVID-19 disease requiring venous ECMO over 72 hours after initiation of ECMO. The primary endpoint is the reduction of plasma interleukin-6 levels 72 hours after initiation of ECMO support. As secondary endpoints we investigate 30-day survival, vasopressor and volume requirements, lactate in terms of lactate and platelet function. As safety variables, we further investigate the levels of the applied antibiotics (usually ampicillin and sulbactam).
Description: measurement of IL-6 levels in patient blood after 72 hours of cytokine adsorption (in relation to level before initiation of cytokine adsorption)
Measure: interleukin-6 (IL-6) level after 72 hours Time: 72 hoursDescription: survival after 30 days
Measure: 30-day-survival Time: 72 hoursDescription: needed dosage of norepinephrine and other vasopressors
Measure: vasopressor dosage Time: 72 hoursDescription: fluid balance levels during cytokine adsorption
Measure: fluid balance Time: 72 hoursDescription: serum-lactate levels during cytokine adsorption
Measure: lactate Time: 72 hoursThe study aims at clarifying whether early treatment with continuous positive airway pressure (CPAP) ventilation is able to reduce the need for intubation or death in patients visiting an emergency department (ED) with known or suspected COVID-19 infection and insufficiency respiratory.
Description: The study outcomes will be death or need of intubation within 7 days since ED arrival.
Measure: Death or need of intubation Time: 7 days since ED arrivalDescription: 30-day mortality
Measure: 30-day mortality Time: 30 days since ED arrivalPhase IV study to evaluate the effectiveness of additional inhaled sargramostim (GM-CSF) versus standard of care on blood oxygenation in patients with COVID-19 coronavirus infection and acute hypoxic respiratory failure.
Description: by mean change in PaO2/FiO2 (PaO2=Partial pressure of oxygen; FiO2= Fraction of inspired oxygen)
Measure: Improvement in oxygenation at a dose of 250 mcg daily during 5 days improves oxygenation in COVID-19 patients with acute hypoxic respiratory failure Time: at end of 5 day treatment periodDescription: demonstrated by bacterial or fungal culture
Measure: incidence of severe or life-threatening bacterial, invasive fungal or opportunistic infection Time: during hospital admission (up to 28 days)Description: defined by HS (Hemophagocytic Syndrome) score
Measure: number of patients developing features of secondary haemophagocytic lymphohistiocytosis Time: at enrolment, end of 5 day treatment period, 10 day period, 10-20 weeksCOVID-19 may cause severe pneumonitis that require ventilatory support in some patients, the ICU mortality is as high as 62%. Hospitals do not have enough ICU beds to handle the demand and to date there is no effective cure. We explore a treatment administered in a randomized clinical trial that could prevent ICU admission and reduce mortality. The overall hypothesis to be evaluated is that HBO reduce mortality, increase hypoxia tolerance and prevent organ failure in patients with COVID19 pneumonitis by attenuating the inflammatory response.
Description: The proportion of subjects admitted to ICU from day 1 to day 30, based on at least one of the following criteria: i) Rapid progression over hours ii) Lack of improvement on high flow oxygen >40L/min or non invasive ventilation with fraction of inspired oxygen (FiO2) > 0.6 iii) Evolving Hypercapnia or increased work of breathing not responding to increased oxygen despite maximum standard of care available outside ICU iv) Hemodynamic instability or multi organ failure with maximum standard of care available outside ICU
Measure: ICU admission Time: Through study completion 30 daysDescription: Proportion of subjects with 30-day mortality, all cause Mortality, from day 1 to day 30.
Measure: 30-day mortality Time: Through study completion 30 daysDescription: Time-to-Intubation, i.e. cumulative days free of invasive mechanical ventilation, from day 1 to day 30
Measure: Time-to-intubation Time: Through study completion 30 daysDescription: Time-to-ICU, i.e. cumulative ICU free days, derived as the number of days from day 1 to ICU, where all ICU free subjects are censored at day 30.
Measure: Time-to-ICU Time: Through study completion 30 daysDescription: Mean change in inflammatory response from day 1 to day 30. White cell count + differentiation Procalcitonin C-Reactive protein Cytokines (IL-6) (if available at local laboratory) Ferritin D-Dimer LDH
Measure: Inflammatory response Time: Through study completion 30 daysDescription: Overall survival (Kaplan-Meier)
Measure: Overall survival Time: Through study completion 30 daysDescription: Hospital mortality of any cause, proportion of subjects, from day 1 to day 30.
Measure: Hospital mortality Time: Through study completion 30 daysDescription: Proportion of subjects with ICU mortality, Mortality of any cause in ICU, from day 1 to day 30.
Measure: ICU mortality Time: From ICU admission to study completion 30 daysDescription: Time-to-stop of intubation/invasive mechanical ventilation, from ICU admission to day 30.
Measure: Time in Invasive Ventilation Time: From ICU admission to study completion 30 daysDescription: Mean daily NEWS from day 1 to day 30.
Measure: NEWS Time: Through study completion 30 daysDescription: Mean change in PaO2/FiO2 (PFI), from day 1 to day 2, … to day 30.
Measure: PaO2/FiO2 (PFI) Time: Through study completion 30 daysDescription: Proportion of HBO treatments given vs planned. Proportion of subjects with HBO treatment administered within 24h after enrolment.
Measure: HBO Compliance Time: Day 1 to day 7Description: Time-to-discharge from hospital
Measure: Hospital discharge Time: Through study completion 30 daysDescription: Mean oxygen dose per day including HBO and cumulative pulmonary oxygen toxicity expressed as Units of oxygen pulmonary toxicity dose (UPTD) and Cumulative pulmonary toxicity dose (CPTD) from day 1 to day 30.
Measure: Oxygen dose Time: Through study completion 30 daysDescription: Median number of HBO treatments and dose of HBO given, from day 1 to day 7
Measure: HBO dose Time: Day 1 to day 7Description: Change in expression of Micro RNA in plasma from day 1 to day 30
Measure: Micro RNA Time: Through study completion 30 daysDescription: Change in gene expression and Micro RNA interactions in Peripheral Blood Mononuclear Cells (PBMC) (20 Subjects) from day 1 to day 30
Measure: Hypoxic response Time: Through study completion 30 daysDescription: Immunological response (20 subjects) from day 1 to day 30 in the following. Cytokines extended including (IL-1β, IL-2, IL-6, IL33 and TNFα) Lymphocyte profile Flowcytometry with identification of monocyte/lymphocyte subsets including but not limited to CD3+/CD4+/CD8+ and CD4+/CD8+ ratio FITMaN panel/Flow cytometry, Interleukins (IL-1β, IL-2, IL-6, IL33 and TNFα), T-reg cells (CD3+/CD4+/CD25+/CD127+) Monocyte proliferation markers, Ex vivo monocyte function
Measure: Immunological response Time: Through study completion 30 daysDescription: Mean change in routine biomarkers for organ dysfunction, from day 1to day 30.
Measure: Multi organ dysfunction Time: Through study completion 30 daysDescription: Viral load, review of records from day 1 to day 30.
Measure: Viral load Time: Through study completion 30 daysDescription: Number of secondary infections, review of records, number of events and patients from day 1 to day 30.
Measure: Secondary infections Time: Through study completion 30 daysDescription: Diagnosed PE needing treatment, review of records, number of events and patients from day 1 to day 30.
Measure: Pulmonary embolism Time: Through study completion 30 daysDescription: Changes on Pulmonary CT, review of records from day 1 to day 30.
Measure: Pulmonary CT Time: Through study completion 30 daysDescription: Changes on Chest X-ray, review of records from day 1 to day 30.
Measure: Chest X-ray Time: Through study completion 30 daysDescription: Changes in Lung ultrasound, review of records from day 1 to day 30.
Measure: Lung ultrasound Time: Through study completion 30 daysBackground: A novel Coronavirus (SARS-CoV-2) described in late 2019 in Wuhan, China, has led to a pandemic and to a specific coronavirus-related disease (COVID-19), which is mainly characterized by a respiratory involvement. While researching for a vaccine has been started, effective therapeutic solutions are urgently needed to face this threaten. The renin-angiotensin system (RAS) has a relevant role in COVID-19, as the virus will enter host 's cells via the angiotensin-converting enzyme 2 (ACE2); RAS disequilibrium might also play a key role in the modulation of the inflammatory response that characterizes the lung involvement. Angiotensin-(1-7) is a peptide that is downregulated in COVID-19 patient and it may potentially improve respiratory function in this setting. Methods/Design: The Investigators describe herein the methodology of a randomized, controlled, adaptive Phase II/Phase III trial to test the safety, efficacy and clinical impact of the infusion of angiotensin-(1-7) in COVID-19 patients with respiratory failure requiring mechanical ventilation. A first phase of the study, including a limited number of patients (n=20), will serve to confirm the safety of the study drug, by observing the number of the severe adverse events. In a second phase, the enrollment will continue to investigate the primary endpoint of the study (i.e. number of days where the patient is alive and not on mechanical ventilation up to day 28) to evaluate the efficacy and the clinical impact of this drug. Secondary outcomes will include the hospital length of stay, ICU length of stay, ICU and hospital mortality, time to weaning from mechanical ventilation, reintubation rate, secondary infections, needs for vasopressors, PaO2/FiO2 changes, incidence of deep vein thrombosis, changes in inflammatory markers, angiotensins plasmatic levels and changes in radiological findings. The estimated sample size to demonstrate a reduction in the primary outcome from a median of 14 to 11 days is 56 patients, 60 including a dropout rate of 3% (i.e. 30 per group), but a preplanned recalculation of the study sample size is previewed after the enrollment of 30 patients. Expected outcomes/Discussion: This controlled trial will assess the efficacy, safety and clinical impact of the Angiotensin-(1-7) infusion in a cohort of COVID-19 patients requiring mechanical ventilation. The results of this trial may provide useful information for the management of this disease.
Description: composite outcome of mortality and necessity of mechanical ventilation
Measure: ventilator free days Time: 28 daysDescription: number of days free from intensive care unit
Measure: ICU free days Time: trough study completion, on average 40 daysDescription: Hospital length of stay
Measure: Hospital length of stay Time: through study completion, on average 60 daysDescription: Time to wean from mechanical ventilation
Measure: Time to wean from mechanical ventilation Time: through study completion, on average 14 daysDescription: PaO2/FiO2 changes during drug administration
Measure: PaO2/FiO2 changes during drug administration Time: 48 hoursDescription: US confirmed deep vein thrombosis
Measure: Deep vein thrombosis incidence Time: through study completion, on average 30 daysDescription: including IL-1, IL-2, IL-6, IL-7, IL-8, IL-10, TNF-alpha, interferon gamma
Measure: Changes in inflammatory markers Time: at randomization, 48 hours after randomization and 72 hours after randomizationDescription: Ang II and Ang-(1-7) plasmatic levels
Measure: RAS effectors levels Time: at randomization, 48 hours after randomization and 72 hours after randomizationDescription: Chest x-ray or CT scan changes
Measure: Radiological findings Time: through study completion, on average 30 daysDescription: phase 2b = principal safety outcome; phase 3 = secondary outcome
Measure: Rate of serious adverse events Time: study drug administration/day 28 or ICU discharge or deathPhase II, prospective, interventional, single-arm, multicentric, open label trial, with a parallel retrospective collection of data on not treated patients from IRCCS, San Raffaele Scientific Institute included in the institutional observational study. A sample of 50 patients with COVID-19 pneumonia will allow to detect an absolute reduction in the rate of Respiratory-failure at day+14 after treatment of 20%, assuming that the actual rate of failure in the corresponding not treated patients is 70% (alpha=5%, power=90%, two-sided test). The software PASS15 was used for calculations. The study will also include a parallel retrospective group of temporally concomitant patients from IRCCS, San Raffaele Scientific Institute, who did not receive an experimental treatment and who are enrolled in an already IRB approved observational study
Description: To demonstrate that the treatment with Defibrotide administered intravenously in addition to the best available therapy according to institutional guidelines (protease inhibitors antiviral treatment and hydroxychloroquine (HCQ), and if needed, metilprednisolone is able to reduce the progression of acute respiratory failure, the need of mechanical ventilation, the transfer to the intensive care unit or death, in patients with severe COVID-19 pneumonia. Patients with a baseline PaO2/FiO2 >= 200: progression of respiratory failure is defined by: severe gas transfer deficit (PaO2/FiO2 < 200); persistent respiratory distress while receiving oxygen (persistent marked dyspnea, use of accessory respiratory muscles, paradoxical respiratory movements); transfer to the intensive care unit; death. The rate will be calculated as the proportion of patients who experienced at least one of the events above by day+14 from treatment start.
Measure: to able to reduce the progression of acute respiratory failure Time: 14 daysDescription: To evaluate the safety of Defibrotide will be analyzed the frequency and incidence of Treatment-Related Adverse Events as Assessed by CTCAE v4.0
Measure: Adverse events Time: 7 daysDescription: evaluate the time of hospitalization that will determine how much and how the administration of defibrotide can resolve the infection
Measure: duration of hospitalization Time: 14 daysDescription: To evaluate the level of PCR, LDH, ferritin, IL-10, IL-6, TNF-alpha, IFN-gamma, PTX3 at day +7 and +14 after start of treatment with Defibrotide. performed per day. Laboratory values performed at day 7 and 14 will be analyzed and compared with each other to understand their progress.
Measure: systemic inflammation Time: 14 daysDescription: To evaluate the overall survival at day+28 after start treatment with Defibrotide
Measure: overall survival Time: 28 daysTrial design: Prospective, multi-centre, randomised, pragmatic, double blind trial Methods: Participants: Adult (>18 years) within 24 hours of admission to intensive care unit with proven or suspected COVID-19 infection, whether or not mechanically ventilated. Exclusion criteria: symptoms of febrile disease for ≥1 week, treatment limitations in place or moribund patients, allergy or intolerance of any study treatment, incl. long QT syndromes, participation in another outcome-based interventional trial within last 30 days, patients taking Hydrochloroquine for other indication than COVID-19, pregnancy. Interventions: Patients will be randomised in 1:1:1 ratio to receive Hydrochloroquine 800mg orally in two doses followed by 400mg daily in two doses and Azithromycin 500 mg orally in one dose followed by 250 mg in one dose for a total of 5 days (HC-A group) or Hydrochloroquine+ placebo (HC group) or placebo + placebo (C-group) in addition to best standard of care, which may evolve during the trial period but will not differ between groups. Objective: To test the hypothesis that early administration of combination therapy slows disease progression and improves mechanical-ventilation free survival. Outcomes: Primary outcome: Composite percentage of patients alive and not on end-of-life pathway who are free of mechanical ventilation at day 14. Secondary outcomes: Composite percentage of patients alive and not on end-of-life pathway who are free of mechanical ventilation at day 14 in the subgroup of patients without the need of mechanical ventilation at baseline. ICU-LOS D28 and D 90 mortality (in hospital) Tertiary (exploratory) outcomes: Viral load at D7 of study enrolment (No of viral RNA copies/ml of blood), proportion of patients alive and rtPCR negative from nasal swab at D14, Difference of FiO2 requirement and respiratory system compliance between day 0 and 7. Randomization: In 1:1:1 ratio and stratified according to study centre and patients age (cut-off 70 years) Blinding (masking): Patients, treating clinicians, outcome assessors and data analyst will be blinded to study treatment allocation. Unblinded study pharmacist or research nurse will prepare investigational products.
Description: Composite percentage of patients alive and not on end-of-life pathway who are free of mechanical ventilation at day 14.
Measure: Proportion of alive patients free off mechanical ventilation Time: 14 days after enrolmentDescription: Composite percentage of patients alive and not on end-of-life pathway who are free of mechanical ventilation at day 14 in the subgroup of patients without the need of mechanical ventilation at baseline.
Measure: Proportion of patients who avoided the need of mechanical ventilation Time: 14 daysDescription: Length of stay in intensive care unit
Measure: ICU LOS Time: 28 daysDescription: Proportion of patients who died by day 28
Measure: Mortality28 Time: 28 daysDescription: Proportion of patients who died by day 90
Measure: Mortality90 Time: 90 daysEvaluate HACOR socre utility and efficacy in predicting NIV and/or CPAP failure in patients with COVID-19 associated respiratory failure. Propose adaptations to HACOR score based on the "state of art" of COVID-19
Description: Analyze if HACOR score is effective in predicting nonivasive ventilation failure in COVID-19 associated respiratory failure
Measure: HACOR score efficacy Time: 1 hour after initation of CPAP or NIVDescription: Analyze the role of possible variables to be added to HACOR score in order to improve efficay in COVID-19 patients
Measure: HACOR score addaptation Time: 1 - 2 weeksCOVID-19 is a respiratory illness caused by SARS-CoV-2 with a range of symptoms from mild, self-limiting respiratory tract infections to severe progressive pneumonia, multiorgan dysfunction and death. A portion of individuals with COVID-19 experience life-threatening hypoxia requiring supplemental oxygen and mechanical ventilation. Management of hypoxia in this population is complicated by contraindication of non-invasive ventilation and limitations in access to mechanical ventilation and critical care staff given the clinical burden of disease. Positional therapy is readily deployable and may ultimately be used to treat COVID-19 related respiratory failure in resources limited settings; and, it has been demonstrated to improve oxygenation and is easy to implement in the clinical setting. The overall goal of this randomized controlled trial is to establish the feasibility of performing a randomized trial using a simple, minimally invasive positional therapy approach to improve hypoxia and reduce progression to mechanical ventilation. The objectives are to examine the effectiveness and feasibility of maintaining an inclined position in patients with confirmed or suspected COVID-19 associated hypoxemic respiratory failure. The investigators hypothesize that (1) oxyhemoglobin saturation will improve with therapy, (2) participants will tolerate and adhere to the intervention, and that (3) participants who adhere to positional therapy will have reduced rates of mechanical ventilation at 72 hours. If successful, this feasibility trial will demonstrate that a simple, readily deployed nocturnal postural maneuver is well tolerated and reverses underlying defects in ventilation and oxygenation due to COVID-19. It will also inform the design of a pivotal Phase III trial with estimates of sample sizes for clinically relevant outcomes.
Description: Number of participants needing mechanical ventilation over total number of participants per arm.
Measure: Incidence of Mechanical Ventilation Time: 72 hoursDescription: Number of participants with supplemental oxygen requirements.
Measure: Number of participants with supplemental oxygen requirements Time: 72 hoursDescription: Mean oxyhemoglobin saturation (percentage) measured over a 24-hour period.
Measure: Mean oxyhemoglobin saturation Time: At 24, 48 and 72 hoursDescription: Mean oxyhemoglobin saturation (percentage) measured over an 8-hour period (between 10pm and 6am).
Measure: Mean Nocturnal Oxyhemoglobin Saturation Time: Measured between 10pm and 6am daily, up to 72 hoursDescription: Heart Rate (beats per minute) on Routine Vital Sign Assessment.
Measure: Heart Rate Time: At 10, 24, 48 and 72 hoursDescription: Respiratory Rate (cycles per minute) on Routine Vital Sign Assessment.
Measure: Respiratory Rate Time: At 10, 24, 48 and 72 hoursDescription: Percentage of time participants stay in the assigned position will be used to determine adherence.
Measure: Percentage of time in the assigned position Time: 72 hoursDescription: Mean oxyhemoglobin saturation (percentage) during final 7 minutes in a position.
Measure: Acute change in oxyhemoglobin saturation Time: During the final 7 minutes at each position, up to 72 hoursThe main manifestation of COVID-19 is acute hypoxemic respiratory failure (AHRF). In patients with AHRF, the need for invasive mechanical ventilation is associated with high mortality. Two hypotheses will be tested in this study. The first hypothesis is the benefit of corticosteroid therapy on severe COVID-19 infection admitted in ICU in terms of survival. The second hypothesis is that, in the subset of patients free of mechanical ventilation at admission, either Continuous Positive Airway Pressure (CPAP) or High-Flow Nasal Oxygen (HFNO) allows to reduce intubation rate safely during COVID-19 related acute hypoxemic respiratory failure.
Description: The time-to-death from all causes within the first 60 days after randomization.
Measure: The time-to-death from all causes Time: day-60Description: the time to need for mechanical ventilation (MV), as defined by any of the 3 criteria for intubation within the first 28 days after randomization.
Measure: The time to need for mechanical ventilation (MV) Time: day-28.Description: The cycle threshold for SARS-CoV-2 PCR at baseline, day 7 and day 10 in samples of the same origin (preferably subglottic i.e. bronchoalveolar lavage or tracheal aspiration, otherwise nasopharyngeal swab)
Measure: The viral load in the respiratory tract Time: day-10Description: Proportion of patients with at least one episode of any healthcare-associated infection between randomization and D28
Measure: Number of patient with at least one episode of healthcare-associated infections Time: day-28Description: To compare the exposition to mechanical ventilation
Measure: Number of days alive without mechanical ventilation Time: day-28Description: Changes in SOFA (Sepsis-related Organ Failure Assessment) score. (min = 0 for normal status max = 24 for worse status)
Measure: Measure of SOFA score Time: day-28Description: to compare the exposition to renal replacement therapy
Measure: Number of days alive without renal replacement therapy Time: day-28Description: To compare the lengths of ICU
Measure: Lengths of ICU-stay Time: day-60Description: To compare the lengths of hospital-stay
Measure: Lengths of hospital-stay Time: day-60Description: Proportion of patients with severe hypoxemia, which is defined as an oxygen saturation of less than 80% during the same interval during the interval between induction and 2 minutes after tracheal intubation
Measure: Number of patients with severe hypoxemia, Time: day 60Description: Proportion of patients with cardiac arrest within 1 hour after intubation
Measure: Number of patients with cardiac arrest within 1 hour after intubation Time: day 60The purpose of this national, multicenter service review is to determine and compare ventilation management in COVID-19 patients in the Netherlands, and to determine whether certain ventilation settings have an independent association with duration of ventilation. In every adult invasively ventilated COVID-19 patient from a participating ICU, granular ventilator settings and parameters will be collected from start of invasive ventilation for up to 72 hours. Follow up is until ICU and hospital discharge, and until day 90. The primary outcome includes main ventilator settings (including tidal volume, airway pressures, oxygen fraction and respiratory rate). Secondary endpoints are ventilator-free days and alive at day 28 (VFD-28); duration of mechanical ventilation; use of prone positioning and recruitment maneuvers; duration of ICU and hospital stay; incidence of kidney injury; and ICU, hospital, 28-day and 90-day mortality.
Description: time between start invasive ventilation and successful extubation in survivors
Measure: Duration of ventilation in survivors; Time: Until 28 days from initiation of mechanical ventilationDescription: Time between admission and discharge ICU or death in ICU
Measure: Duration of ICU stay Time: Until 28 days from initiation of mechanical ventilationDescription: Time between admission and discharge from hospital or death in hospital
Measure: Duration of hospital stay Time: Until 28 days from initiation of mechanical ventilationDescription: Any death during ICU stay
Measure: ICU mortality Time: Until 28 days from initiation of mechanical ventilationDescription: Any death during hospital stay
Measure: Hospital mortality Time: Until 28 days from initiation of mechanical ventilationThe purpose of the study is to evaluate an effectiveness of the drug Dalargin for the prevention and treatment of severe pulmonary complications symptoms associated with severe and critical coronavirus infection cases (SARS COVID19, expanded as Severe acute respiratory syndrome Cоrona Virus Disease 2019 ). Test drug that will be administered to patients are: - Dalargin, solution for inhalation administration, - Dalargin, solution for intravenous and intramuscular administration.
Description: Estimated by Polymerase chain reaction (PCR)
Measure: The change of viral load in patients with SARS-COVID-19. Time: Upon patient inclusion in the study, after 96 hours and on the 10day;Description: Assessed through the entire patient participation in the study
Measure: The frequency of development of Acute Respiratory Distress Syndrome (ADRS) Time: up to 10 daysDescription: The number of days a patient is hospitalized
Measure: Duration of hospitalization Time: up to 10 daysDescription: Early mortality from all causes will be estimated
Measure: The frequency of early mortality Time: up to 30 daysDescription: Late mortality from all causes will be estimated
Measure: The frequency of late mortality Time: up to 90 daysDescription: Clinical status at the time of completion of participation in the study will be estimated based upon the following criteria: Death; Hospitalization is extended, on invasive mechanical ventilation of the lungs with extracorporeal membrane oxygenation; Hospitalization extended, on non-invasive ventilation; Hospitalization is extended, needs additional oxygen; Hospitalization is extended, additional oxygen is not required; Discharged.
Measure: Clinical status at the time of completion of participation in the study Time: an average of 10 daysStudy of the effectiveness and safety of the drug Mefloquine, tablets 250 mg, produced by FSUE "SPC" Farmzaschita " FMBA of Russia (Russia), in comparison with the drug Hydroxychloroquine, tablets 200 mg, for the treatment of patients with coronavirus infection, in the "off-label" mode, to make a decision on the possibility of expanding the indications for use.
Description: The number of patients with development of respiratory failure requiring transfer to the ICU.
Measure: 1st primary endpoint for group 1 Time: up to 10 daysDescription: The period of clinical recovery.
Measure: 2nd primary endpoint for group 1 Time: up to 10 daysDescription: The period of clinical recovery.
Measure: 1st primary endpoint for group 2 Time: up to 10 daysDescription: Frequency of fatal outcomes associated with coronavirus infection disease (COVID19)
Measure: 2nd primary endpoint for group 2 Time: through study completion, an average of 3 monthsDescription: A change in viral load by conducting PCR assay through different timeframes
Measure: 1st secondary endpoint for group 1 Time: on days 5 and 10Description: Frequency of clinical cure on day 10 from the start of therapy
Measure: 2nd secondary endpoint for group 1 Time: on day 10Description: The retention time of the reaction temperature from the start of the treatment.
Measure: 3d secondary endpoint for group 1 Time: up to 10 daysDescription: Concentration of C-reactive protein in blood plasma.
Measure: 4th secondary endpoint for group 1 Time: up to 10 daysDescription: Respiratory index.
Measure: 5th secondary endpoint for group 1 Time: up to 10 daysDescription: Frequency appearance unwanted phenomena and serious unwanted phenomena
Measure: 6th secondary endpoint for group 1 Time: up to 10 daysDescription: A change in viral load by conducting PCR assay through different timeframes
Measure: 1st secondary endpoint for group 2 Time: on days 5 and 10Description: Respiratory index.
Measure: 2nd secondary endpoint for group 2 Time: up to 10 daysDescription: The retention time of the reaction temperature from the start of treatment.
Measure: 3d secondary endpoint for group 2 Time: up to 10 daysDescription: Concentration of C-reactive protein in blood plasma.
Measure: 4th secondary endpoint for group 2 Time: up to 10 daysDescription: Number of patients required transition to alternative therapy schedule
Measure: 5th secondary endpoint for group 2 Time: up to 10 daysDescription: Frequency of adverse events and serious adverse events
Measure: 6th secondary endpoint for group 2 Time: up to 10 daysProne positioning (PP) is an effective first-line intervention to treat moderate-severe acute respiratory distress syndrome (ARDS) patients receiving invasive mechanical ventilation, as it improves gas exchanges and lowers mortality.The use of PP in awake self-ventilating patients with (e.g. COVID-19 induced) ARDS could improve gas exchange and reduce the need for invasive mechanical ventilation, but has not been studied outside of case series.The investigators will conduct a randomized controlled study of patients with COVID-19 induced respiratory failure to determine if prone positioning reduces the need for mechanical ventilation compared to standard management.
Description: A measure of effect of awake prone positioning in reducing requirement for invasive mechanical ventilation.
Measure: The effect of prone positioning on requirement for invasive mechanical ventilation in patients with COVID 19 induced respiratory failure. Time: Up to 28 days post randomisationDescription: Total time spent in prone and supine position as recorded by nurse
Measure: Length of time tolerating prone positioning Time: Daily during intervention up to 28 days post randomisationDescription: Measure of change in oxygenation before intervention
Measure: PaO2/FiO2 measured before prone positioning Time: Immediately before interventionDescription: Measure of change in oxygenation following intervention
Measure: PaO2/FiO2 ratio after 1 hours of prone positioning Time: During interventionDescription: Measure of change in oxygenation using pulse oximetry before intervention where ABG not available
Measure: SpO2/FiO2 ratio measured before prone positioning Time: Immediately before interventionDescription: Measure of change in oxygenation before intervention where ABG not available
Measure: SpO2/FiO2 ratio after 1 hours of prone positioning Time: During InterventionDescription: Escalation of ventilatory support
Measure: Number requiring increase in ventilatory assistance (CPAP+BIPAP+IMV etc) Time: Up to 28 days post randomisationDescription: Measure of work of breathing in COVID-19 based on Oxygen Delivery Device, Oxygen Saturation and respiratory rate and accessory muscle use with 0-3 Mild, 4-6 Moderate and 7-10 Severe
Measure: Work of breathing assessment (Respiratory distress scale) Time: Immediately before and during interventionDescription: Substudy examining use of bioimpedance as a surrogate measure of lung edema following prone positioning
Measure: Changes in bioimpedance measures of lung edema in patients in PP Time: During interventionDescription: Rescue awake prone positioning in control patients in response to hypoxia
Measure: Use of awake prone positioning as a rescue intervention in control patients Time: Up to 28 days post randomisationCOVID-19's mechanism to enter the cell is initiated by its interaction with its cellular receptor, the angiotensin-converting enzyme. As a result of this union, a clathrin-mediated endocytosis process begins. This route is one of the therapeutic targets for which available drugs are being investigated in order to treat COVID-19 infection. This is one of the mechanisms blocked by drugs like ruxolitinib and chloroquine. Various drugs approved for clinical use that block the clathrin-mediated endocytosis pathway have been explored. It has been found that the best in vitro and in vivo results were obtained with statins, which also allowed generating a greater potent adaptive immune response. Therefore, statins and specifically simvastatin make it possible to block the entry process used by COVID-19, block inflammation by various mechanisms and increase the adaptive immune response. All of these processes are desirable in patients infected with COVID-19. Statins have been proposed to have beneficial effects in patients infected with MERS-COV, another coronavirus similar to COVID-19, but there have been no randomized studies supporting the use of statins in patients with COVID-19 infection. In this project we propose the combined use of one of these drugs, ruxolitinib with simvastatin, looking for a synergistic effect in the inhibition of viral entry and in the anti-inflammatory effect.
Description: Patients achieving a grade 5 or higher of the WHO 7-point ordinal scale of severity categorization for COVID at day 7 from randomization.
Measure: Percentage of patients who develop severe respiratory failure. Time: 7 daysDescription: Patients achieving a grade 5 or higher of the WHO 7-point ordinal scale of severity categorization for COVID at day 14 from randomization.
Measure: Percentage of patients who develop severe respiratory failure. Time: 14 daysDescription: Time from ICU admision to ICU discharge.
Measure: Length of ICU stay. Time: 28 daysDescription: Time from hospital admision to hospital discharge.
Measure: Length of hospital stay Time: 28 daysDescription: Percentage of patients alive at 6 months
Measure: Survival rate at 6 months Time: 6 monthsDescription: Percentage of patients alive at 12 months
Measure: Survival rate at 12 months Time: 12 monthsDescription: Percentage of patients who died from any cause 28 days after inclusion in the study
Measure: Survival rate at 28 days Time: 28 daysDescription: Percentage of patients with each AE by grade in relation with total number of treated patients
Measure: Percentage of patients with each AE by grade Time: 28 daysDescription: Percentage of patients who discontinued due to AEs in relation with total number of treated patients
Measure: Percentage of patients who discontinued due to AEs Time: 28 daysThe objective of the study is to evaluate the efficacy of helmet NIV in reducing the duration of invasive mechanical ventilation in order to minimize ventilator needs during the COVID-19 pandemic.
Description: duration of mechanical ventilation via endotracheal tube
Measure: ventilator days Time: up to 4 weeksDescription: number of days admitted to the ICU
Measure: Intensive care unit (ICU) length of stay Time: up to 6 weeksDescription: number of patients requiring endotracheal intubation after extubation
Measure: need for re-intubation Time: up to 6 weeksDescription: number of days spent in hospital during enrollment hospitalization
Measure: hospital length of stay Time: up to 6 weeksDescription: death from any cause during hospitalization time of enrollment
Measure: hospital mortality Time: up to 6 weeksDescription: death from any cause 90 day, 1year
Measure: long term mortality Time: up to 1 yearDescription: including ventilator associated pneumonia, GI hemorrhage, DVT/PE, sacral decubitus ulcer, delirium, ICU acquired weakness
Measure: ICU related complications Time: up to 6 weeksDescription: measure the location (home, rehabilitation center, nursing home)
Measure: discharge location Time: up to 90 daysDescription: days alive and institution free
Measure: health care utilization Time: up to 6 weeksDescription: ultrasound measurement at end expiration: enrollment, pre extubation, post extubation
Measure: diaphragm ultrasound thickness Time: up to 6 weeksDescription: ultrasound measurement at end expiration and inspiration to calculate thickening fraction
Measure: diaphragm thickening fraction Time: up to 6 weeksThe current sars-cov-2 epidemic is responsible for severe respiratory infections leading to end-of-life situations. Dexmedetomidine may be indicated in mild to moderate sedation in palliative patients, due to its pharmacological characteristics. The hypothesis of this study is that Dexmedetomidine would allow effective and safe light sedation in patients with respiratory failure in palliative situations suffering from Covid-19 infection.
Description: Number of days of mild to moderate sedation induced by dexmedetomidine until death or change of molecule.
Measure: Efficacy of mild to moderate palliative sedation induced by Dexmedetomidine. Time: Day 30Description: Overall survival time in days from inclusion.
Measure: Overall survival of patients on Dexmedetomidine Time: Day 30Description: The daily effectiveness of Dexmedetomidine on pain assessed by the NCS-R scale (Nociception Coma Scale) : the score is between 0 and 9.
Measure: Daily analgesic effect of Dexmedetomidine Time: Day 30Description: Number of the various sedative molecules used in the subjects of the study in addition to Dexmedetomidine.
Measure: Other sedative pharmacological agents Time: Day 30Description: Daily dosage measurement in ug / kg / h of Dexmedetomidine necessary to obtain light to moderate sedation
Measure: Average dosage required for Dexmedetomidine to achieve mild to moderate sedation Time: Day 30This is an international, multicenter, parallel-group, randomized, double-blind, placebo controlled, study in hospitalized adult patients with COVID-19 in the US and other countries with high prevalence of COVID-19. The study is evaluating the effect of dapagliflozin 10 mg versus placebo, given once daily for 30 days in addition to background local standard of care therapy, in reducing disease progression, complications, and all-cause mortality.
Description: Respiratory decompensation (e.g., invasive or non-invasive mechanical ventilation) New or worsening congestive HF Requirement for vasopressor therapy and/or inotropic or mechanical circulatory support Ventricular tachycardia or fibrillation lasting at least 30 seconds and/or associated with hemodynamic instability or pulseless electrical activity, or resuscitated cardiac arrest Initiation of renal replacement therapy
Measure: Time to first occurrence of either death from any cause or new/worsened organ dysfunction through 30 days of follow up, defined as at least one of the following: Time: Randomization through Day 30Description: Time to death from any cause Time to new/worsened organ dysfunction (as defined in the primary outcome measure) Clinical status at Day 30 for patients still hospitalized and without any worsening organ dysfunction (using points 3 to 5 of a 7-point ordinal scale) Time to hospital discharge
Measure: Hierarchical composite outcome measures including time to death from any cause, time to new/worsened organ dysfunction, clinical status at day 30 and time to hospital discharge Time: Randomization through Day 30Description: Time to hospital discharge
Measure: Time to hospital discharge Time: Randomization through Day 30Description: Total number of days alive, out of hospital, and/or free from mechanical ventilation
Measure: Total number of days alive, out of hospital, and/or free from mechanical ventilation Time: Randomization through Day 30Description: Total number of days alive, not in the ICU, and free from mechanical ventilation (as defined in the primary outcome measure)
Measure: Total number of days alive, not in the ICU, and free from mechanical ventilation (as defined in the primary outcome measure) Time: Randomization through Day 30Description: Time to death from any cause
Measure: Time to death from any cause Time: Randomization through Day 30Description: Time to new/worsened organ dysfunction
Measure: Time to new/worsened organ dysfunction Time: Randomization through Day 30Description: Time to acute kidney injury (defined as doubling of s-Creatinine compared to baseline)
Measure: Time to acute kidney injury (defined as doubling of s-Creatinine compared to baseline) Time: Randomization through Day 30The study aims to investigate the efficacy of extracorporeal CO2 removal for correction of hypercapnia in coronavirus disease 19 (COVID-19)-associated acute respiratory distress syndrome
Description: Delta partial pressure of carbon dioxide change during ECCO2R treatment
Measure: Delta change in arterial partial pressure of carbon dioxide during ECCO2R treatment Time: Up to 72 hoursDescription: Epinephrine and norepinephrine dose, mcg/kg/min
Measure: Change in vasopressor use during ECCO2R Time: Up to 72 hoursDescription: Assessment of changes in tidal volume
Measure: Assessment of changes in tidal volume during ECCO2R Time: Up to 72 hoursDescription: Assessment of changes in pH
Measure: Assessment of changes in pH during ECCO2R Time: Up to 72 hoursDescription: Assessment of changes in Positive End-Expiratory Pressure
Measure: Assessment of changes in Positive End-Expiratory Pressure during ECCO2R Time: Up to 72 hoursDescription: Adverse events directly related to ECCO2R are infection at the catheter site, hemorrhage at the cannulation site, air entry in the circuit.
Measure: Number of participants with adverse events directly related to ECCO2R Time: Up to 72 hoursDescription: Adverse events directly related to ECCO2R are clotting of the circuit.
Measure: Rate of technical adverse events related to ECCO2R Time: Up to 72 hoursDescription: Delta change in delta venous partial pressure of carbon dioxide before and after ECCO2R membrane
Measure: Delta change in venous partial pressure of carbon dioxide before and after ECCO2R membrane Time: Up to 72 hoursThis study will assess the feasibility of administering multiple doses of convalescent plasma (from people who have recovered form SARS-CoV-2) to Covid-19 positive patients in the Intensive Care Unit receiving mechanical ventilation. Donor plasma will not be obtained under this protocol, but all plasma used will follow FDA guidelines for Investigational COVID-19 Convalescent Plasma use. Patients may receive single or double plasma units infused on days 0, 3, and 6. This decision may be based on availability of blood plasma. The primary objective of this study is feasibility. Feasibility will be assessed based on the proportion of subjects who consent and receive at least one dose of convalescent plasma. The study will be declared 'feasible' if at least 80% of subjects who consent receive at least one dose. The secondary study endpoint is overall survival at day 60 after first dose of convalescent plasma. Respiratory status and overall clinical status will be reviewed during follow up on days 14, 28, and 60.
Description: Feasibility of administering convalescent plasma to patients in the ICU who are intubated and mechanically ventilated due to COVID-19-induced respiratory failure will be assessed based on the proportion of subjects who consent and receive at least one dose of CP. The study will be declared 'feasible' if at least 80% of subjects who consent receive at least one dose.
Measure: Proportion of subjects who consent to the study and receive at least one dose of convalescent plasma. Time: 60 daysDescription: Overall survival (days, until Day 60). This will be quantified as number of trial patients alive at Day 60 after first dose of CP / total number of patients who received at least one dose of CP.
Measure: Overall survival of patients in the ICU receiving at least once dose of convalescent plasma for Covid-19-induced respiratory failure. Time: 60 daysThe aim of the present study is to examine the inflammatory response in the pulmonary compartment and blood of critically ill patients admitted to the ICU with COVID-19.
Description: Total white blood cells, neutrocytes, lymphocytes, and monocytes in bronchoalveolar lavage fluid and blood
Measure: White blood cell counts Time: Day 0 (subsequent to study inclusion in the ICU)Description: Total white blood cells, neutrocytes, lymphocytes, and monocytes in bronchoalveolar lavage fluid and blood
Measure: White blood cell counts Time: Day 7Description: Cell populations and subpopulations evaluated by 10 colored flow cytometry (B cells, T cells, TCR subsets, Tregs/Th17, dendritic cells, myeloid cells and neutrophils) in bronchoalveolar lavage fluid and blood
Measure: Lymphocyte populations Time: Day 0 (subsequent to study inclusion in the ICU)Description: Cell populations and subpopulations evaluated by 10 colored flow cytometry (B cells, T cells, TCR subsets, Tregs/Th17, dendritic cells, myeloid cells and neutrophils) in bronchoalveolar lavage fluid and blood
Measure: Lymphocyte populations Time: Day 7Description: Multiplex assay for measuring cytokines in bronchoalveolar lavage fluid and plasma (e.g. IL-1-beta, IL-1RA, IL-2, IL-6, IL-8, IL-10, IL-17, IL-18, IL-33, IL-35, TGF-beta, TNF-alpha, HMGB1)
Measure: Cytokines Time: Day 0 (subsequent to study inclusion in the ICU)Description: Multiplex assay for measuring cytokines in bronchoalveolar lavage fluid and plasma (e.g. IL-1-beta, IL-1RA, IL-2, IL-6, IL-8, IL-10, IL-17, IL-18, IL-33, IL-35, TGF-beta, TNF-alpha, HMGB1)
Measure: Cytokines Time: Day 7Description: MBL, ficolin-1, ficolin-2, ficolin-3, and MASPs in bronchoalveolar lavage fluid and plasma
Measure: Lectin complement pathway Time: Day 0 (subsequent to study inclusion in the ICU)Description: MBL, ficolin-1, ficolin-2, ficolin-3, and MASPs in bronchoalveolar lavage fluid and plasma
Measure: Lectin complement pathway Time: Day 7Description: Growth of pathogenic microorganisms in body fluids (e.g. urine, blood, bronchoalveolar lavage fluid)
Measure: Microorganisms Time: Up to 12 weeksDescription: Respiratory filmarray PCR for testing for pathogens
Measure: Respiratory pathogens Time: Day 0 (subsequent to study inclusion in the ICU)Description: Respiratory filmarray PCR for testing for pathogens
Measure: Respiratory pathogens Time: Day 7Description: 16S ribosomal RNA (rRNA) and 18S rRNA PCR for bacterial or fungal pathogen identification in bronchoalveolar lavage fluid
Measure: Ribosomal RNA in the airways Time: Day 0 (subsequent to study inclusion in the ICU)Description: 16S ribosomal RNA (rRNA) and 18S rRNA PCR for bacterial or fungal pathogen identification in bronchoalveolar lavage fluid
Measure: Ribosomal RNA in the airways Time: Day 7Description: Semiquant PCR of SARS-CoV-2 in bronchoalveolar lavage fluid
Measure: Levels of SARS-CoV-2 in the airways Time: Day 0 (subsequent to study inclusion in the ICU)Description: Semiquant PCR of SARS-CoV-2 in bronchoalveolar lavage fluid
Measure: Levels of SARS-CoV-2 in the airways Time: Day 7Description: ICU mortality
Measure: Mortality Time: Up to 6 monthsDescription: In hospital mortality
Measure: Mortality II Time: Up to 6 monthsDescription: C-reactive protein, procalcitonin, ferritin
Measure: Blood markers of inflammation Time: Daily assessment in the ICU up to 12 weeksDescription: Platelets, creatinine, urea, sodium, potassium, D-dimer, lactate dehydrogenase, bilirubin, lactate
Measure: Blood markers of organ dysfunction Time: Daily assessment in the ICU up to 12 weeksDescription: Number of participants with unilateral infiltrates or bilateral infiltrates and/or air bronchogram
Measure: Infiltrates on conventional chest x-ray Time: Up to 12 weeksDuring Covid-19 pandemic many patients require mechanical ventilation due to disastrous impact of SARS-CoV-2 on lungs. In several countries there is a shortage of ICU beds and ventilators. Critically ill patients are treated outside ICUs. Doctors are facing ethical dilemmas who they should treat with ventilation, who should receive ventilator and who should but will not. In ICUs or step down units or in nursery homes there are also patients beyond hope treated - very often they are dependent on mechanical ventilation. Some attempts to invent a device that could replace complex machines in patients with anticipated poor outcome have been made. Ventil was used in clinical scenarios for separate lung ventilation with good effect. As a flow divider it has a potential to ventilate 2 patients at the same time. In the study Ventil will ventilate one patient and instead of the second there will be an artificial lung. Tidal volumes, minute ventilation, PEEP set and final will be checked. Ppeak, Pmean, Pplat, Cdyn, airway resistance, EtCO2, Sat O2, HR, SAP, DAP will be monitored every 2 hrs, as well as blood-gas analysis (every 8 hrs).
Description: Ventil will be removed from the patient-ventilator circiuit in case of episodes of desaturation <90% (in pts without COPD) without reversibel reason; need for FiO2 increase by 10%; need for switch to other than CMV mode of ventillation need for neuromucular blockade or for deepen sedation because of assynchrony between patient and venilator cummulation of CO2>45 mm Hg (in pts without COPD) not responding to the increase of minute ventilation for 30 minutes; if Pplat >30 cmH2O; in case of new haemodynamic disturbances that cannot be explaned by other reasons; in case of increase or decrease of BP by 20%; increase or decrease of HR by 20%; in case of occurence of clinically important heart rhythm disturbances
Measure: Number of cases in which it was necessary to stop using Ventil and to step- back to ventilation without this flow divider Time: 48 hoursThis study uses the AirGo band to monitor changes in tidal ventilation in spontaneously breathing patients with COVID-19 associated respiratory failure. It aims to recognize patterns of ventilation associated with worsening respiratory failure in this patient population. If successful, this study will lead to the development of new robust methods for real-time, continuous monitoring of respiratory function in patients with respiratory failure. In turn, such monitoring methods may enable improvements in the medical management of respiratory failure and timing of interventions.
Description: Progression of respiratory failure to require endotracheal intubation (and mechanical ventilation)
Measure: Endotracheal intubation during present hospitalization, recorded through chart review Time: Up to three weeksDescription: Maintenance of SpO2 >=90% on no or low flow supplemental oxygen (=< 1 liter by nasal cannula or CPAP, or return of supplemental oxygen to baseline if required supplemental O2 for another indication, prior to onset of COVID-19 infection)
Measure: Improvement in hypoxemia as indicated by oxygen saturation and requirement for supplemental oxygen, recorded through chart review Time: Up to three weeksDescription: Patient or care provider may request removal of the band for any reason prior to the patient reaching the outcome
Measure: Premature need for removal of the band, recorded through investigator report Time: Up to three weeksDescription: Death from any cause while in the hospital
Measure: In-hospital mortality, recorded through chart review Time: Up to 24 weeksIn the SAVE study patients with lower respiratory tract infection with severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) at high risk for progression to serious respiratory failure will be detected using the suPAR biomarker. They will begin early treatment with anakinra in the effort to prevent progression in serious respiratory failure. Also due to the potential co-existing immunodysfunction in the context of SARS-CoV-2 infection patients will also receive trimethoprim/sulfamethoxazole as part of chemoprophylaxis.
Description: The primary study endpoint is the ratio of patients who will not develop serious respiratory failure SRF until day 14. Patients dying before study visit of day 14 are considered non-achieving the primary endpoint.
Measure: The ratio of patients who will not develop serious respiratory failure (SRF) Time: Visit study day 14Description: Evaluation of clinical data (pO2/FiO2 and need of mechanical ventilation) between baseline and study visit day 14 will be compared with historical comparators from Hellenic Sepsis Study Group Database
Measure: Comparison of the rate of patients who will not develop serious respiratory failure (SRF) until day 14 with historical comparators from Hellenic Sepsis Study Group Database Time: Visit study day 14Description: Change of scoring for respiratory symptoms (evaluation of cough, chest pain, shortness of breath and sputum) in enrolled subjects between days 1 and 7
Measure: Change of scoring for respiratory symptoms in enrolled subjects between days 1 and 7 Time: Visit study day 1, visit study day 7Description: Change of scoring for respiratory symptoms (evaluation of cough, chest pain, shortness of breath and sputum) in enrolled subjects between days 1 and 14
Measure: Change of scoring for respiratory symptoms in enrolled subjects between days 1 and 14 Time: Visit study day 1, visit study day 14Description: Change of Sequential organ failure assessment (SOFA) score of enrolled subjects between days 1 and 7 (Sequential organ failure assessment range 0-24, high score associated with worst outcome)
Measure: Change of SOFA score in enrolled subjects between days 1 and 7 Time: Visit study day 1, visit study day 7Description: Change of Sequential organ failure assessment (SOFA) score of enrolled subjects between days 1 and 14 (Sequential organ failure assessment range 0-24, high score associated with worst outcome)
Measure: Change of Sequential organ failure assessment (SOFA) score in enrolled subjects between days 1 and 14 Time: Visit study day 1, visit study day 14Description: Change of cytokine stimulation from peripheral blood mononuclear cells of enrolled subjects will be compared between days 1 and 7
Measure: Change of cytokine production between days 1 and 7 Time: Visit study day 1, visit study day 7Description: Change of plasma inflammatory mediators measured levels will be compared between days 1 and 7
Measure: Change of plasma inflammatory mediators levels between days 1 and 7 Time: Visit study day 1, visit study day 7The COVID-19 outbreak is associated with a surge in ICU bed requirement and substantial mortality (estimated between 0.5% and 3.6%). Admission in the intensive care unit (ICU) and need for mechanical ventilation is reportedly associated with an estimated hospital mortality of more than 30%. Furthermore, the surge in ICU bed requirement is a worldwide-shared issue, leading to sub-optimal ICU management. In acute respiratory failure due to COVID-19-related pneumonia, vasoplegia with vascular enlargement inside the lung lesions and dilation of small vessels seen on chest CT scan largely account for severe hypoxemia whose physiological response is hyperventilation leading to hypocapnia. Almitrine, initially described to reduce intrapulmonary shunt by enhancement of hypoxic pulmonary vasoconstriction in combination with inhaled nitric oxide (iNO), redistributes pulmonary blood flow from shunt areas to lung units with normal ventilation/perfusion (VA/Q) ratio. Low dose of intravenous almitrine (2 µg.kg-1.min-1) alone also improves oxygenation (without combination with iNO) by selective pulmonary vasoconstriction of precapillary pulmonary arteries perfusing lung areas exposed to a hypoxic challenge with a slight increase in mean arterial pulmonary. Therefore, our hypothesis is that 5 days of low dose of almitrine therapy may improve the ventilation-perfusion (VA/Q) ratio at a relatively early stage of this specific lung disease and limit respiratory worsening and subsequent need for mechanical ventilation.
Description: Endotracheal intubation within 7 days after randomization Death will be considered as a failure (endotracheal intubation).
Measure: Rate of endotracheal intubation Time: 7 daysDescription: safety assessment: discontinuation rate of the treatment for arterial lactate more than 4 mmol/L, ALT/AST levels greater than 3 times the upper limit, and diagnosis of pulmonary arterial hypertension or acute cor pulmonale documented by echocardiography.
Measure: Discontinuation rate of the treatment Time: 28 daysThe global pandemic COVID-19 has overwhelmed the medical capacity to accommodate a large surge of patients with acute respiratory distress syndrome (ARDS). In the United States, the number of cases of COVID-19 ARDS is projected to exceed the number of available ventilators. Reports from China and Italy indicate that 22-64% of critically ill COVID-19 patients with ARDS will die. ARDS currently has no evidence-based treatments other than low tidal ventilation to limit mechanical stress on the lung and prone positioning. A new therapeutic approach capable of rapidly treating and attenuating ARDS secondary to COVID-19 is urgently needed. The dominant pathologic feature of viral-induced ARDS is fibrin accumulation in the microvasculature and airspaces. Substantial preclinical work suggests antifibrinolytic therapy attenuates infection provoked ARDS. In 2001, a phase I trial 7 demonstrated the urokinase and streptokinase were effective in patients with terminal ARDS, markedly improving oxygen delivery and reducing an expected mortality in that specific patient cohort from 100% to 70%. A more contemporary approach to thrombolytic therapy is tissue plasminogen activator (tPA) due to its higher efficacy of clot lysis with comparable bleeding risk 8. We therefore propose a phase IIa clinical trial with two intravenous (IV) tPA treatment arms and a control arm to test the efficacy and safety of IV tPA in improving respiratory function and oxygenation, and consequently, successful extubation, duration of mechanical ventilation and survival.
Description: Ideally, the PaO2/FiO2 will be measured with the patient in the same prone/supine position as in baseline, as change in positions may artificially reduce the improvement attributable to the study drug. However, given the pragmatic nature of the trial, the prone/supine position will be determined by the attending physician, in which case, we will use as an outcome the PaO2/FiO2 closest to the 48 hours obtained prior to the change in position as the outcome.
Measure: PaO2/FiO2 improvement from pre-to-post intervention Time: at 48 hours post randomizationDescription: Achievement of PaO2/FiO2 ≥ 200 or 50% increase in PaO2/FiO2 (whatever is lower)
Measure: Achievement of PaO2/FiO2 ≥ 200 or 50% increase in PaO2/FiO2 Time: at 48 hours post randomizationDescription: This score is based on seven clinical features (respiration rate, hypercapnic respiratory failure, any supplemental oxygen, temperature, systolic blood pressure, heart rate and level of consciousness) and determines the degree of illness of a patient and prompts critical care intervention.
Measure: National Early Warning Score 2 (NEWS2) Time: at 48 hours post randomizationDescription: The ordinal scale is an assessment of the clinical status as follows: 1) Death; 2) Hospitalized, on invasive mechanical ventilation or extracorporeal membrane oxygenation (ECMO); 3) Hospitalized, on non-invasive ventilation or high flow oxygen devices; 4) Hospitalized, requiring supplemental oxygen; 5) Hospitalized, not requiring supplemental oxygen - requiring ongoing medical care (COVID-19 related or otherwise); 6) Hospitalized, not requiring supplemental oxygen - no longer requires ongoing medical care; 7) Not hospitalized, limitation on activities and/or requiring home oxygen; 8) Not hospitalized, no limitations on activities. (combined items 7 and 8 as our study is limited to hospital).
Measure: National Institute of Allergy and Infectious Diseases (NIAID) ordinal scale Time: at 48 hours post randomizationDescription: 48 hour mortality for hospitalized patients
Measure: 48 hour in-hospital mortality Time: at 48 hours post randomizationDescription: 14 days mortality for hospitalized patients
Measure: 14 days in-hospital mortality Time: 14 days post randomizationDescription: 28 days mortality for hospitalized patients
Measure: 28 days in-hospital mortality Time: 28 days post randomizationDescription: ICU-free days will be calculated based on (28 - number of days spent in the ICU) formula
Measure: ICU-free days Time: 28 days of hospital stay or until hospital discharge (whichever comes first)Description: In-hospital coagulation-related events include bleeding, stroke, myocardial infarction and venous thromboembolism (VTE). In-hospital coagulation-related event-free (arterial and venous) days will be calculated based on (28 - number of days without coagulation-related event) formula.
Measure: In-hospital coagulation-related event-free (arterial and venous) days Time: 28 days of hospital stay or until hospital discharge (whichever comes first)Description: Ventilator-free days will be calculated based on (28 - number of days on mechanical ventilation) formula.
Measure: Ventilator-free days Time: 28 days of hospital stay or until hospital discharge (whichever comes first)Description: Calculated for patients who was on a mechanical ventilation any period of time during hospitalization. The extubation will be considered successful if no re-intubation occurred for more than 3 days have passed after the initial extubation.
Measure: Successful extubation Time: Day 4 after initial extubationDescription: Calculated for patients who was on paralytics at the time of randomization. The weaning will be considered successful if no paralytics were used for more than 3 days have passed after termination of paralytics.
Measure: Successful weaning from paralysis Time: Day 4 after initial termination of paralyticsDescription: Is counted for the patients who was alive at the time of discharge.
Measure: Survival to discharge Time: 28 days of hospital stay or until hospital discharge (whichever comes first)To characterize the ability of the D2000 Cartridge in combination with the Optia SPD Protocol to reduce the morbidity and mortality associated with SARS-CoV-2 infection in patients admitted to the ICU.
Description: Scale of 0-24 with a higher number indicating a worse outcome
Measure: Change in Sequential Organ Failure Assessment [SOFA] scores Time: Day 28The investigators hypothesize that those with respiratory failure due to COVID-19 will have different burdens of mental and physical disability than those with respiratory failure who do not have COVID-19. Detecting these potential differences will lay an important foundation for treating long term sequelae of respiratory failure in these two cohorts.
Description: SF-36 score
Measure: Quality of Life score Time: up to 12 months after dischargeDescription: Montreal Cognitive Assessment (MoCA) score
Measure: cognitive dysfunction Time: up to 12 months after dischargeDescription: (FSS-ICU)
Measure: Functional Status Score Time: up to 12 months after dischargeDescription: MRC neuromuscular Assessment
Measure: Physical Disability Time: up to 12 months after dischargeDescription: Impact Event Score
Measure: Psychological Sequelae Time: up to 12 months after dischargeDescription: hospital anxiety and depression scale
Measure: hospital anxiety and depression Time: up to 12 months after dischargeDescription: including ventilator associated pneumonia, GI hemorrhage, Deep Vein Thrombosis (DVT) /Pulmonary Embolus (PE), sacral decubitus ulcer, delirium, ICU acquired weakness
Measure: ICU related complications Time: hospitalization up to 6 weeksDescription: measure the location (home, rehabilitation center, nursing home
Measure: hospital discharge location Time: hospital discharge up to 6 weeksDescription: number of days admitted to the ICU
Measure: lCU length of stay Time: hospitalization up to 6 weeksDescription: number of days admitted to the hospital
Measure: hospital length of stay Time: hospitalization up to 6 weeksProspective observational study aimed at analyzing the incidence, clinical characteristics and outcomes of COVID-19 in LT in Spain.
Severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) is the cause of the current pandemic of coronavirus disease (COVID-19) that can lead to respiratory failure requiring oxygen therapy. Some patients develop acute respiratory distress syndrome (ARDS) and may die despite intensive care therapy. Currently it is unknown a) how fast patients recover after being discharged from hospital and b) what underlying predictors may influence recovery.
Description: European Quality of Life - 5 Dimensions - 5 Levels Instrument (EQ-5D-5L). Scoring: Index ranges from 1 to <0, with lower scores indicating more limitations.
Measure: Health-related quality-of-life Time: 3 monthsDescription: Hospital Axiety and Depression Score (HADS). Scoring: Scores range from 0 to 42, with higher scores indicating more anxiety or depression symptoms.
Measure: Anxiety and depression Time: 3 monthsDescription: COPD Assessment Test (CAT). Scoring: Scores range from 0-40, with higher scores indicating more symptoms due to respiratory limitations.
Measure: Symptom burden Time: 3 monthsDescription: Forced expiratory volume in one second (FEV1) in liters and percent predicted.
Measure: Spirometry Time: 1 monthDescription: Forced vital capacity (FVC) in liters and percent predicted.
Measure: Spirometry Time: 1 monthAcute respiratory distress syndrome (ARDS) is a major complication among patients with severe disease. In a report of 138 patients with COVID-19, 20% developed ARDS at a median of 8 days after the onset of symptoms, with 12.3% of patients requiring mechanical ventilation. Efficacious therapies are desperately needed. Supportive care combined with intermittent prone positioning may improve outcomes. Prone positioning (PP) of patients with severe ARDS (when combined with other lung-protective ventilation strategies) is associated with a significant mortality benefit. In addition, PP for >12 hours in severe ARDS is strongly recommended by clinical practice guidelines. The aim of this study is to compare the outcomes of prone positioning versus usual care positioning in non-intubated patients hospitalized for COVID-19.
This is a compassionate use, proof of concept, phase IIb, prospective, interventional, pilot study in which the investigators will evaluate the effects of compassionate-use treatment with IV tirofiban 25 mcg/kg, associated with acetylsalicylic acid IV, clopidogrel PO and fondaparinux 2.5 mg s/c, in patients affected by severe respiratory failure in Covid-19 associated pneumonia who underwent treatment with continuous positive airway pressure (CPAP).
Description: Change in ratio between partial pressure of oxygen in arterial blood, measured by means of arterial blood gas analysis, and inspired oxygen fraction at baseline and after study treatment
Measure: P/F ratio Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Change in partial pressure of oxygen in arterial blood, measured by means of arterial blood gas analysis, at baseline and after study treatment
Measure: PaO2 difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Change in alveolar-arterial gradient of oxygen at baseline and after study treatment. Arterial alveolar gradient will be calculated using the following parameters derived from arterial blood gas analysis: partial pressure of oxygen in arterial blood and partial pressure of carbon dioxide in arterial blood.
Measure: A-a O2 difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Number of days on continuous positive end expiratory pressure (CPAP)
Measure: CPAP duration Time: From the first day of study drugs administration (T0) until day 7 post study drugs administrationDescription: Difference in intensity of the respiratory support (non invasive mechanical ventilation, CPAP, high flow nasal cannula (HFNC), Venturi Mask, nasal cannula, from higher to lower intensity, respectively) employed at baseline and at 72 and 168 hours after study treatment initiation
Measure: In-hospital change in intensity of the respiratory support Time: At baseline and 72 and 168 hours after treatment initiationDescription: Difference in partial pressure of carbon dioxide in arterial blood, measured by means of arterial blood gas analysis, at baseline and after study treatment
Measure: PaCO2 difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Difference in concentration of bicarbonate in arterial blood, measured by means of arterial blood gas analysis, at baseline and after study treatment
Measure: HCO3- difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Difference in concentration of lactate in arterial blood, measured by means of arterial blood gas analysis, at baseline and after study treatment
Measure: Lactate difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Difference in hemoglobin concentration in blood samples, measured by means of blood chemistry test, at baseline and after study treatment.
Measure: Hb difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Difference in platelet concentration in blood samples, measured by means of blood chemistry test, at baseline and after study treatment.
Measure: Plt difference Time: At baseline and 24, 48 and 168 hours after treatment initiationDescription: Any major or minor adverse effect occuring during and after the administration of the study drug (e.g. bleeding)
Measure: Adverse effects Time: From the first day of study drugs administration until day 30 post study drugs administrationPatients with the acute respiratory distress syndrome (ARDS) have markedly varied clinical presentations. Main characteristics of mechanically ventilated ARDS caused by COVID-19, and adherence to lung-protective ventilation strategies are not well known.
The COVID-19 pandemic has led to a potential shortage of life-saving mechanical ventilators. The purpose of this study is to determine whether a novel simpler to device, the automated bag-valve-mask (BVM) compressor, can be used to provide assisted ventilation temporarily to patients in need. This includes patients with COVID-19 lung infection and respiratory failure. If successful, this would increase the pool of total available ventilator hours to alleviate any shortage.
Description: Arterial oxygenation obtained as measured by noninvasive pulse oximetry and arterial blood gas.
Measure: Arterial oxygenation Time: Measurement 10 minutes after onset of initial period of automatic compressed ventilationsDescription: Arterial oxygenation obtained as measured by noninvasive pulse oximetry and arterial blood gas.
Measure: Arterial oxygenation Time: Measurement 20 minutes after onset of second period of automatic compressed ventilationsDescription: Expired carbon dioxide (CO2) pressure will be measured continuously with a monitor in the airway circuit.
Measure: Expired pressure of carbon dioxide. Time: 2 hour total study period.Description: The pressure (cm H2O) of inspired and expired air in the airway circuit while the subject is mechanically ventilated will be measured continuously using a Nico monitor.
Measure: Airway pressure Time: 2 hour total study period.Description: Subject heart rate (beats per minute) will be measured continuously using a telemetry monitor,
Measure: Heart rate Time: 2 hour total study period.Description: Subject blood pressure (mm Hg) will be measured episodically every 5 minutes using an automated arm cuff.
Measure: Blood pressure Time: 2 hour total study period.Description: The flow (L/min) of inspired and expired air in the airway circuit while the subject is mechanically ventilated will be measured continuously using a Nico monitor.
Measure: Airway flow Time: 2 hour total study period.Description: The subject will be followed clinically to assess for recovery and survival or death.
Measure: Mortality Time: Duration of hospitalization, up to 2 monthsWith the influx of patients suspected of Covid-19 and the limited number of hospital beds, there is a need for sensitive triage to detect patients at risk of pulmonary complications and therefore requiring hospitalization, but also specific triage to safely discharge patients without risk factors or signs of clinical or ultrasound severity. The use of pulmonary ultrasound in addition to clinical assessment seems appropriate. Indeed, it allows early detection of signs of pneumopathy which, in the current context, most often correspond to Covid-19. These signs include B-lines, which indicate interstitial pulmonary oedema, and an anfractuous and thickened pleural line, or even centimetric parenchymal condensations with a low level of pleural effusion. Conversely, the presence of a medium to large pleural effusion is not very suggestive of the diagnosis of Covid-19. In addition, a lung ultrasound score has been developed and validated to assess the severity of acute respiratory distress and predict the occurrence of acute respiratory distress syndrome. It is based on the performance of a 12-point (6 per hemi-thorax) pulmonary ultrasound with the collection of the presence of B-lines, condensation or pleural effusion. In the hands of a trained operator, this examination takes only a few minutes. The aim of the study is to develop a score based on clinical and ultrasound evidence to allow early and safer referral than that based on clinical evidence alone. To do this, the study will retrospectively collect clinical and lung ultrasound data from departments that use this technique on a daily basis.
Description: Multivariate model predictive of clinical worsening of respiratory impairment within 48 hours post-admission : intubation, oxygenotherapy, need of vasoactive drugs, worsening of state,age, gender, body surface, LUScore (pulmonary ultrasound), FiO2, need of ventral decubitus, risk factor (obesity, asthma...), time from the beginning of the first symptoms
Measure: Construction of a composite clinical-echo score (VIRUScore) predictive of risk of worsening respiratory impairment in COVID-19 adult patients admitted to the Emergency Department Time: 48 hours post-admissionDescription: Sensitivity, specificity, positive predictive value, negative predictive value of VIRUScore on risk of pulmonary aggravation
Measure: Evaluate the prognostic performance of the VIRUScore on the risk of pulmonary aggravation Time: 48 hours post-admissionDescription: Sensitivity, specificity, positive predictive value, negative predictive value of VIRUScore on the risk of severe pulmonary aggravation defined by resuscitation admission and/or death.
Measure: Evaluate the prognostic performance of the VIRUScore on the risk of severe pulmonary aggravation defined by resuscitation admission and/or death at D14 (sensitivity, specificity, positive predictive value, negative predictive value). Time: 14 days post-admissionDescription: Research of VIRUScore cut-off values maximizing the negative predictive value and construction of a decisional algorithm maximizing returns home and transfers to non-specialized hospitals or clinics without loss of individual chance.
Measure: Construction of a decisional algorithm for triage and management of COVID-19 patients. Time: 14 days post-admissionDescription: Search for "Ultrasound signature" (lung fields and/or severity of damage) associated with mild vs. moderate (oxygen therapy) vs. severe (resuscitation/death) clinical forms.
Measure: Search for "ultrasound signature" (lung fields and/or severity of involvement) associated with mild (return home) vs. moderate (oxygen therapy) vs. severe (resuscitation/death) clinical forms. Time: 14 days post-admissionDescription: Diagnostic concordance of the LUScore and CT score with the severity grades defined by the French Radiology Society
Measure: Evaluate the analytical concordance between the pulmonary ultrasound (LUScore) and the Gold-standard CT-scan (CT score) Time: 14 days post-admissionDescription: Predictive Score for Aggravation in Patients Returned Home
Measure: Construction of a score predictive of aggravation in the sub-population of patients returned home Time: 14 days post-admissionAcute respiratory failure (ARF) is a common condition and a common reason for urgent medical consultation. Assessing the extent of respiratory impairment is important to improve the management of patients with ARF. When Acute respiratory failure is caused by pathology of the pulmonary parenchyma, quantification of pulmonary radiographic involvement may be a component of the initial assessment of severity. This radiographic quantification would only be usable in clinical routine if it can be automated and provide a real-time result. The objective of this work is to assess the feasibility of an automated technique for quantifying radiological lung damage in situations of known or potential ARF.
Coronavirus disease 2019 (COVID-19) is an infectious disease caused by severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2). Lung failure is the main cause of death related to COVID-19 infection. The main objective of this study is to evaluate if Ibrutinib is safe and can reduce respiratory failure in participants with COVID-19 infection. Ibrutinib is an investigational drug being developed for the treatment of COVID-19. Participants are assigned 1 of 2 groups, called treatment arms. Each group receives a different treatment. There is a 1 in 2 chance that participants will be assigned to placebo. Around 46 adult participants with a diagnosis of COVID-19 will be enrolled at multiple sites in Unites States. Participants will receive oral doses of Ibrutinib or placebo capsules once daily for 4 weeks along with standard care. There may be higher treatment burden for participants in this trial compared to their standard of care. The effect of the treatment will be checked by medical assessments, blood tests, checking for side effects.
Description: Respiratory failure is defined by clinical diagnosis of respiratory failure and initiation of 1 of the following therapies: Endotracheal intubation and mechanical ventilation OR Extracorporeal membrane oxygenation OR high-flow nasal cannula oxygen delivery OR non-invasive positive pressure ventilation OR clinical diagnosis of respiratory failure with initiation of none of these measures only when clinical decision-making driven is driven solely by resource limitation.
Measure: Percentage of Participants Alive and Without Respiratory Failure Time: Day 28Description: WHO-8 is an 8 point ordinal scale for clinical improvement with scores ranging from 0 (uninfected) through 8 (Death).
Measure: Change in the World Health Organization (WHO)-8 Point Ordinal Scale From Baseline Time: Day 14Description: Time on supplemental oxygen imputed to the maximum number of days on study drug (28) for all points following the death of a participant.
Measure: Median Reduction in Days Spent on Supplemental Oxygen Time: Up to Day 28Description: Percentage of participants with mortality from any cause.
Measure: All-Cause Mortality Time: Up to Day 28Description: Respiratory failure is defined by clinical diagnosis of respiratory failure and initiation of 1 of the following therapies: Endotracheal intubation and mechanical ventilation OR Extracorporeal membrane oxygenation OR high-flow nasal cannula oxygen delivery OR non-invasive positive pressure ventilation OR clinical diagnosis of respiratory failure with initiation of none of these measures only when clinical decision-making driven is driven solely by resource limitation.
Measure: Percentage of Participants Experiencing Respiratory Failure or Death Time: Up to Day 28Description: Percentage of participants alive and not requiring mechanical ventilation.
Measure: Mechanical Ventilation-Free Survival Time: Up to Day 56Description: Defined as number of days from the first day of using mechanical ventilation to the last day of using mechanical ventilation.
Measure: Days on Mechanical Ventilation Time: Up to Day 56Description: The duration of hospitalization is defined as the time in days from the first day of hospitalized to the date of discharge or death.
Measure: Duration of hospitalization Time: Up to Day 56Description: Time to discharge is defined as the time in days from the first day of hospitalized to the date of discharge.
Measure: Time to Discharge Time: Up to Day 56Description: PaO2:FiO2 ratio is an index of respiratory distress.
Measure: Partial Pressure of Oxygen in Arterial Blood (PaO2) to Fraction of Inspired Oxygen (FiO2) Ratio Time: Up to Day 56Description: Oxygenation Index is a parameter of pulmonary function of participants.
Measure: Oxygenation Index Time: Up to Day 56Description: An adverse event (AE) is defined as any untoward medical occurrence in a patient or clinical investigation participant administered a pharmaceutical product which does not necessarily have a causal relationship with this treatment. The investigator assesses the relationship of each event to the use of study. A serious adverse event (SAE) is an event that results in death, is life-threatening, requires or prolongs hospitalization, results in a congenital anomaly, persistent or significant disability/incapacity or is an important medical event that, based on medical judgment, may jeopardize the participant and may require medical or surgical intervention to prevent any of the outcomes listed above. Treatment-emergent adverse events (TEAEs) are defined as any event that began or worsened in severity on or after the first dose of study drug.
Measure: Number of Participants With Adverse Events Time: Up to Day 56Description: Laboratory abnormalities will be analyzed according to National Cancer Institute (NCI) Common Terminology Criteria for Adverse Events (CTCAE) version 5.0.
Measure: Number of Participants With Abnormal Laboratory Findings Time: Up to Day 56The purpose of this study is to find out whether the study drug tocilizumab is an effective treatment for COVID-19 infection.
Description: The primary endpoint for this cohort is progression of respiratory failure (binary yes/no while hospitalized). Progression of respiratory failure will be defined as a sustained increase in oxygen requirement (FiO2) or need for intubation/mechanical ventilation.
Measure: Progression of respiratory failure or death Time: 14 daysThis is a protocol-driven observational study of lung ultrasound and focused echocardiography images obtained in the Emergency Department (ED) and Intensive Care Unit (ICU) settings as a part of existing standard of care. The objectives of this study are as follows: 1. To characterize various clinical and cardiopulmonary ultrasound findings and describe their relationship with the clinical course of patients with COVID-19 in the ED and ICU. 2. To describe, develop, and validate a prediction tool that can accurately predict the need for invasive mechanical ventilation (IMV) and acute respiratory failure in COVID-19 patients using clinical, laboratory, and ultrasound data.
Description: Number of patients requiring invasive mechanical ventilation and suffers from acute respiratory failure.
Measure: Patient requires invasive mechanical ventilation and suffers from acute respiratory failure. Time: 1 YearDescription: Number of patients that do not require hospitalization and is able to safely recover from COVID-19 at home.
Measure: Patient is discharged Time: 1 YearDescription: Number of patients that must be hospitalized to recover from COVID-19, but does not require invasive mechanical ventilation and may or may not suffer from some degree of acute respiratory failure.
Measure: Patient is hospitalized, but does not require mechanical ventilation through the duration of hospital stay. Time: 1 YearDescription: Any lung ultrasound findings including, but not limited to b-lines, a-lines, consolidations, pleural effusions and regularities. All of these findings are consolidated to a single score which will be the measure of the severity of lung ultrasound findings.
Measure: Lung ultrasound findings Time: 1 yearDescription: Any cardiac ultrasound findings including, but not limited to IVC status, pericardial effusions, LV EF (%), RV function. All of these findings are consolidated to a single score which will be the measure of the severity of cardiac ultrasound findings.
Measure: Cardiac ultrasound findings Time: 1 yearIn severe COVID-19 pulmonary failure, the profound hypoxemia is mainly related to pulmonary vasodilation with altered hypoxic pulmonary vasoconstriction (HPV). Besides prone positioning, other non-ventilatory strategies may reduce the intrapulmonary shunt. This study has investigated almitrine, a pharmacological option used in standard care to improve oxygenation. A case control series of mechanically ventilated confirmed COVID-19 patients was recorded. At stable ventilatory settings, consecutive patients received two doses of almitrine (4 and 12 mcg/kg/min) at 30-45 min interval each, and were compared to 7 "control" COVID-matched patients conventionally treated. The end-point was the reduction of intra-pulmonary shunt, with an increase in partial pressure of arterial oxygen (PaO2) and central venous oxygen saturation (ScvO2).
Description: Partial pressure of oxygen in arterial blood
Measure: Changes from baseline PaO2 (mmHg) Time: 45 minutes after almitrine infusionDescription: central venous oxygen saturation
Measure: Changes from baseline ScvO2 (%) Time: baseline and 45 minutes after almitrine infusionDescription: partial pressure of oxygen in arterial blood
Measure: Changes from baseline PaO2 (mmHg) Time: 8 hoursDescription: central venous oxygen saturation
Measure: Changes from baseline ScvO2 (%) Time: 8 hoursThe purpose of the COVIDNOCHE trial (HFNO versus CPAP Helmet Evaluation in COVID-19 Pneumonia) is to evaluate the comparative effectiveness of standard care non-invasive respiratory support (helmet CPAP versus HFNO) for acute hypoxemic respiratory failure from COVID-19 pneumonia on ventilator-free days (primary outcome) and other clinical outcomes measured up to 90 days.
Description: VFD is the number of days alive and free of mechanical ventilation in the first 28 days after study enrollment. Death before 28 days will be assigned a VFD equal to 0 to penalize non-survival. In cases of repeated intubation and extubation, periods free from invasive ventilation and lasting at least 24 consecutive hours will be calculated and summed. Timing of intubation and extubation will be captured in hours, and the number of hours a patient received invasive ventilation will be used to calculate duration of ventilation.
Measure: Ventilator-Free Days (VFD) Time: 28 daysDescription: Days spent in the ICU and hospital after time of enrollment
Measure: ICU and Hospital Length of Stay Time: 28 daysDescription: Incidence and time to intubation in days after the time of enrollment
Measure: Intubation Time: 28 daysDescription: Incidence of RRT after the time of enrollment
Measure: Renal Replacement Therapy (RRT) Time: 28 daysDescription: Death from any cause during after the time of enrollment
Measure: Mortality Time: 28 days, 90 daysThe study will assess the efficacy and safety of DFV890 for the treatment of SARS-Cov-2 infected patients with COVID-19 pneumonia and impaired respiratory function.
Description: The APACHE II ("Acute Physiology And Chronic Health Evaluation II") is a severity-of-disease classification system. An integer score from 0 to 71 is computed based on several measurements; higher scores correspond to more severe disease and a higher risk of death. Worst case imputation for death will be applied.
Measure: APACHE II severity of disease score on Day 15 or on the day of discharge (whichever is earlier) Time: up to Day 15Description: C-reactive protein (CRP) is a blood test marker for inflammation in the body. For a standard CRP test, a normal reading is less than 10 milligram per liter (mg/L). It will be analyzed on a log-scale fitting a repeated measures mixed model including treatment group, study day, the three stratification factors and log transformed baseline CRP as a covariate.
Measure: Serum C-reactive protein (CRP) levels Time: up to Day 29Description: Clinical status is measured with the 9-point ordinal scale. The scoring is - Uninfected patients have a score 0 (no clinical or virological evidence of infection). - Ambulatory patients (not in hospital or in hospital and ready for discharge) can have a score 1 (no limitation of activities) or 2 (limitation of activities). - Hospitalized patients with mild disease can have score 3 (no oxygen therapy defined as SpO2 ≥ 94% on room air) or 4 (oxygen by mask or nasal prongs). - Hospitalized patients with severe disease can have score 5 (non-invasive ventilation or high-flow oxygen), 6 (intubation and mechanical ventilation) or 7 (ventilation + additional organ support - pressors, RRT (renal replacement therapy), ECMO (extracorporeal membrane oxygenation)). - Patients who die have a score 8.
Measure: Clinical status over time Time: up to Day 29Description: Proportion of participants not requiring mechanical ventilation for survival.
Measure: Proportion of participants not requiring mechanical ventilation for survival. Time: Day 15, Day 29Description: Clinical status is measured with the 9-point ordinal scale. The scoring is - Uninfected patients have a score 0 (no clinical or virological evidence of infection). - Ambulatory patients (not in hospital or in hospital and ready for discharge) can have a score 1 (no limitation of activities) or 2 (limitation of activities). - Hospitalized patients with mild disease can have score 3 (no oxygen therapy defined as SpO2 ≥ 94% on room air) or 4 (oxygen by mask or nasal prongs). - Hospitalized patients with severe disease can have score 5 (non-invasive ventilation or high-flow oxygen), 6 (intubation and mechanical ventilation) or 7 (ventilation + additional organ support - pressors, RRT (renal replacement therapy), ECMO (extracorporeal membrane oxygenation)). - Patients who die have a score 8.
Measure: Proportion of participants with at least one-point improvement from baseline in clinical status Time: Baseline, Day 15, Day 29The study is a prospective, randomized, controlled investigation designed for comparison of two groups for the reduction of respiratory distress in a CoViD-19 population, using gammaCore Sapphire (nVNS) plus standard of care (active) vs. standard of care alone (SoC), the control group. The gammaCore® (nVNS) treatments will be used acutely and prophylactically. The active and control groups will be diseased and severity matched. The primary objective is to reduce initiation of mechanical ventilation in patients with CoViD-19 compared to the control group. Secondary objectives are to evaluate cytokine trends/prevent cytokine storms, evaluate supplemental oxygen requirements, decrease mortality of CoViD-19 patients and to delay the onset of mechanical ventilation.
Description: measure the change (in hours) between the control group and treatment group
Measure: change in initiation of mechanical ventilation in patients with CoViD-19 compared to the control group. Time: From the time of randomization until the time of initiation of mechanical ventilation, assessed up to day of discharge or death, whichever occurs first, assessed up to 3 monthsDescription: measure the changes in the serum/plasma concentrations of TH1 and TH2-type cytokines
Measure: evaluate cytokine trends Time: From the time of initial blood draw until the time of final blood draw, assessed up to date of mechanical ventilation, death, or discharge from hospital, whichever occurs first,assessed up to 3 monthsDescription: compare the difference in oxygen requirements (liters/min) between the control group and active group for patients admitted to the hospital for CoViD-19.
Measure: evaluate supplemental oxygen requirements Time: From the time of randomization, assessed up to time of mechanical ventilation, day of discharge or death, whichever occurs first,assessed up to 3 monthsDescription: measure the change (in hours) to death between control group and treatment group
Measure: decrease mortality of CoViD-19 patients Time: From the time or randomization until the date of death from any cause, assessed up to day of discharge or death,assessed up to 3 monthsDescription: measure the change (in hours) to time of mechanical ventilation between control group and treatment group
Measure: delay onset of ventilation Time: From the time of randomization until the time of initiation of mechanical ventilation, assessed up to day of discharge or death, whichever occurs first,assessed up to 3 monthsThe study will assess the efficacy and safety of MAS825 for the treatment of SARS-CoV-2 infected patients with COVID-19 pneumonia and impaired respiratory function
Description: The APACHE II ("Acute Physiology And Chronic Health Evaluation II") is a severity-of-disease classification system. An integer score from 0 to 71 is computed based on several measurements; higher scores correspond to more severe disease and a higher risk of death. Worst case imputation for death will be applied.
Measure: APACHE II severity of disease score on Day 15 or on day of discharge (whichever is earlier) Time: Up to 15 daysDescription: C-reactive protein (CRP) is a blood test marker for inflammation in the body. For a standard CRP test, a normal reading is less than 10 milligram per liter (mg/L). It will be analyzed on a logscale fitting a repeated measures mixed model including treatment group, study day, the three stratification factors and log transformed baseline CRP as a covariate.
Measure: Serum C-reactive protein (CRP levels) Time: Up to 15 daysDescription: Ferritin is a blood test marker for inflammation in the body. For a standard Ferritin test, a normal reading is less than 300 micrograms per liter (μg/L). It will be analyzed on a logscale fitting a repeated measures mixed model including treatment group, study day, the three stratification factors and log transformed baseline Ferritin as a covariate.
Measure: Ferritin levels Time: Up to 15 daysDescription: Proportion of participants without the need for invasive mechanical ventilation for survival.
Measure: Proportion of participants without the need for invasive mechanical ventilation Time: Day 15, Day 29Description: Clinical status is measured with the 9-point ordinal scale. The scoring is - Uninfected patients have a score 0 (no clinical or virological evidence of infection). - Ambulatory patients (not in hospital or in hospital and ready for discharge) can have a score 1 (no limitation of activities) or 2 (limitation of activities). -Hospitalized patients with mild disease can have score 3 (no oxygen therapy defined as SpO2 ≥ 94% on room air) or 4 (oxygen by mask or nasal prongs). - Hospitalized patients with severe disease can have score 5 (noninvasive ventilation or highflow oxygen), 6 (intubation and mechanical ventilation) or 7 (ventilation + additional organ support - pressors, RRT (renal replacement therapy), ECMO (extracorporeal membrane oxygenation)). - Patients who die have a score 8.
Measure: Proportion of participants with at least one level improvement in clinical status Time: Day 15, Day 29Description: Clinical status is measured with the 9-point ordinal scale. The scoring is - Uninfected patients have a score 0 (no clinical or virological evidence of infection). - Ambulatory patients (not in hospital or in hospital and ready for discharge) can have a score 1 (no limitation of activities) or 2 (limitation of activities). -Hospitalized patients with mild disease can have score 3 (no oxygen therapy defined as SpO2 ≥ 94% on room air) or 4 (oxygen by mask or nasal prongs). - Hospitalized patients with severe disease can have score 5 (noninvasive ventilation or highflow oxygen), 6 (intubation and mechanical ventilation) or 7 (ventilation + additional organ support - pressors, RRT (renal replacement therapy), ECMO (extracorporeal membrane oxygenation)). - Patients who die have a score 8.
Measure: Clinical status over time Time: Up to 15 daysThe study is a randomized controlled, open-label trial comparing subcutaneous Zilucoplan® with standard of care to standard of care alone. In the active group, Zilucoplan® will be administered subcutaneously once daily for 14 days or till discharge from the hospital, whichever comes first. The hypothesis of the proposed intervention is that Zilucoplan® (complement C5 inhibitor) has profound effects on inhibiting acute lung injury post COVID-19, and can promote lung repair mechanisms, that lead to a 25% improvement in lung oxygenation parameters. This hypothesis is based on experiments performed in mice showing that C5a blockade can prevent mortality and prevent ARDS in mice with post-viral acute lung injury. Eligible patients include patients with confirmed COVID-19 infection suffering from hypoxic respiratory failure defined as O2 saturation below 93% on minimal 2l/min O2 therapy and/or ratio PaO2/FiO2 below 350.
Description: defined by Pa02/FiO2 ratio while breathing room air, P(Aa)O2 gradient and a/A pO2 ratio
Measure: Mean change in oxygenation Time: at predose, day 6 and day 15 (or at discharge, whichever comes first)Description: defined by Pa02/FiO2 ratio while breathing room air, P(Aa)O2 gradient and a/A pO2 ratio
Measure: Median change in oxygenation Time: at predose, day 6 and day 15 (or at discharge, whichever comes first)Description: 6-point ordinal scale defined as Death Hospitalized, on invasive mechanical ventilation or ECMO; Hospitalized, on non-invasive ventilation Hospitalized, requiring supplemental oxygen Hospitalized, not requiring supplemental oxygen Not hospitalized
Measure: mean change in 6-point ordinal scale change Time: between day 1 and respectively day 6, day 15 (or discharge, whichever comes first) and day 28 (by phone call).Description: defined as independence from supplemental oxygen
Measure: Time since randomization until improvement in oxygenation Time: during hospital admission (up to 28 days)Description: defined as SpO2 < 93% breathing room air or the dependence on supplemental oxygen
Measure: Number of days with hypoxia Time: during hospital admission (up to 28 days)Description: defined as 37.1°C or more
Measure: Number of days with fever Time: during hospital admission (up to 28 days)Description: SOFA score: 0 (best) - 24 (worse)
Measure: Mean change of SOFA score between day 1 and day 6 (or on discharge, whichever is first) Time: day 1, day 6 or on discharge, whichever is firstDescription: SOFA score: 0 (best) - 24 (worse)
Measure: Mean change of SOFA score between day 1 and day 15 or on discharge, whichever is first) Time: day 1, day 15 or on discharge, whichever is firstDescription: 6-point ordinal scale: Death Hospitalized, on invasive mechanical ventilation or ECMO; Hospitalized, on non-invasive ventilation or high flow oxygen devices; Hospitalized, requiring supplemental oxygen Hospitalized, not requiring supplemental oxygen Not hospitalized
Measure: Percentage of patients reporting each severity rating on a 6-point ordinal scale at randomization, day 6 and 15 (or discharge, whichever comes first) and day 28 (phone call) Time: day 1, day 6, day 15 (or discharge, whichever comes first)Description: 6-point ordinal scale: Death Hospitalized, on invasive mechanical ventilation or ECMO; Hospitalized, on non-invasive ventilation or high flow oxygen devices; Hospitalized, requiring supplemental oxygen Hospitalized, not requiring supplemental oxygen Not hospitalized
Measure: 6-point Ordinal Scale at 6 and 15 days (or discharge whichever comes first) and day 28 (phone call), in relation to serum D-dimers and complement C5a levels at randomization Time: day 1, day 6, day 15 (or discharge, whichever comes first)Description: criteria-defined ARDS criteria-defined ARDS according to the adapted Berlin criteria as follow: within 1 week of a known Clinical insult or new or worsening respiratory symptoms bilateral infiltrates not supposed to be of cardiac origin or fluid overload PaO2/FiO2 < 300 mmHg
Measure: Time since randomization to progression to ARDS (Acute Respiratory Distress Syndrome) Time: during hospital admission (up to 28 days)In December 2019 in the city of Wuhan in China, a series of patients with unclear pneumonia was noticed, some of whom have died of it. In virological analyses of samples from the patients' deep respiratory tract, a novel coronavirus was isolated (SARS-CoV-2). The disease spread rapidly in the city of Wuhan at the beginning of 2020 and soon beyond in China and, in the coming weeks, around the world. Initial studies described numerous severe courses, particularly those associated with increased patient age and previous cardiovascular, metabolic and respiratory diseases. A small number of the particularly severely ill patients required not only highly invasive ventilation therapy but also extracorporeal membrane oxygenation (vv-ECMO) to supply the patient's blood with sufficient oxygen. Even under maximum intensive care treatment, a very high mortality rate of approximately 80-100% was observed in this patient group. In addition, high levels of interleukin-6 (IL-6) could be detected in the blood of these severely ill patients, which in turn were associated with poor outcome. From experience in the therapy of severely ill patients with severe infections and respiratory failure, we know that treatment with a CytoSorb® adsorber can lead to a reduction of the circulating pro- and anti-inflammatory cytokines and thus improve the course of the disease and the outcome of the patients. The aim of the study is to investigate the influence of extracorporeal cytokine adsorption on interleukin-6-levels and time to successful ECMO explantation under controlled conditions in patients with particularly severe COVID-19 disease requiring extracorporeal membrane oxygenation.
Description: measurement of IL-6 levels in patient blood after 72 hours of cytokine adsorption (in relation to level before initiation of cytokine adsorption)
Measure: IL-6 reduction by 75% or more after 72 hours as compared to the baseline measurement Time: 72 hoursDescription: time to successful ECMO-explantation within 30 days after randomization
Measure: time to successful ECMO-explantation Time: 30 daysDescription: Ventilator free days (VFD) in the first 30 days after randomization, where invasive mechanical ventilation (IMV), non-invasive ventilation (NIV) and ECMO are defined as ventilator days. VFD=0, if the patient dies in the first 30 days after randomization
Measure: Ventilator free days (VFD) Time: 30 daysDescription: Time to extubation from ventilation and explantation from ECMO. Death under ventilation and/or ECMO will be analyzed as a competing event. The time will be censored at the time of last visit for surviving patients under ventilation and/or ECMO.
Measure: Time to extubation from ventilation and explantation from ECMO Time: 30 daysDescription: Overall survival time, defined as time from randomization to death. The time will be censored at the time of last visit for surviving patients.
Measure: Overall survival time Time: 30 daysDescription: Days on intensive care unit (ICU)
Measure: Days on intensive care unit (ICU) Time: 30 daysDescription: Vasopressor dosage of adrenaline, noradrenaline, vasopressin, and dobutamine at 24, 48,72 h
Measure: Vasopressor dosage Time: 24, 48, 72 hoursDescription: Total fluid[ml] substitution and fluid balance [ml] at 24, 48, 72 h
Measure: Fluid substitution and fluid balance Time: 24, 48, 72 hoursDescription: Serum lactate at 24, 48, 72 h
Measure: Serum lactate Time: 24, 48, 72 hoursDescription: Urine output at 24, 48, 72 h
Measure: Urine output Time: 24, 48, 72 hoursDescription: Willebrand factor at 24, 48, 72 h
Measure: Willebrand factor Time: 24, 48, 72 hoursDescription: d-dimers at 24, 48, 72 h
Measure: d-dimers Time: 24, 48, 72 hoursDescription: interleukin-6 levels at 24, 48, 72 h
Measure: interleukin-6 levels Time: 24, 48, 72 hoursDescription: Sequential Organ Failure Assessment Score at 24, 48, 72 h (values from 6 to 24, where the higher values explain higher disease severity)
Measure: SOFA-Score Time: 24, 48, 72 hoursDescription: serious complications or malfunctions related to the CytoSorb device
Measure: serious adverse device effects Time: 30 daysDescription: unintended air in the ECMO system during operation of the device
Measure: adverse event of special interest: air in the ECMO system Time: 30 daysDescription: unintended blood-clotting in the ECMO system during operation of the device
Measure: adverse event of special interest: blood-clotting in the ECMO system Time: 30 daysDescription: major bleeding events
Measure: adverse event of special interest: bleeding complications Time: 30 daysNasal High Flow oxygen therapy (NHF) is commonly used as first line ventilatory support in patients with acute hypoxemic respiratory failure (AHRF). It's use has been initially limited in Covid-19 patients presenting with AHRF. The aim of the study is to describe the use of NHF in Covid-19-related AHRF and report the changes in the respiratory-oxygenation index (termed ROX index) over time in these patients.
Description: values of ROX index during ICU stay
Measure: Changes in ROX index Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: percentage of patients requiring intubation
Measure: NHF failure Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: level of flow used with NHF
Measure: NHF flow Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: level of inspired fraction in oxygen used with NHF
Measure: NHF inspired fraction in oxygen Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: level of pulse oxymetry during NHF therapy
Measure: oxygenation Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: respiratory rate during NHF therapy
Measure: respiratory status Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: defining the values of ROX index associated with intubation
Measure: prediction of intubation Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsDescription: defining the values of ROX index associated with NHF success (no intubation required)
Measure: prediction of NHF success Time: from date of NHF initiation until date of weaning from NHF or date of intubation whichever came first, assessed up to 2 monthsCoronavirus disease 2019 (COVID-19) is a disease caused by a novel coronavirus called SARS-CoV-2 (severe acute respiratory syndrome coronavirus 2). The most characteristic symptom of patients with COVID-19 is respiratory distress, leading to inability to sustain spontaneous breathing. In addition, patients with COVID-19 have dyspnea and respiratory muscle fatigue. Therefore, it is necessary to use strategies that minimize the impact of COVID-19 on the respiratory muscles, accelerating the ventilatory weaning process and optimizing the functional capacity of the involved muscles. Over the past years, evidence has shown the effectivity of photobiomodulation therapy (PBMT) combined with static magnetic field (sMF) (PBMT/sMF) in delaying muscle fatigue, decrease in markers of inflammatory damage and oxidative stress of skeletal muscle. These effects result in an improvement in the functional capacity of the irradiated muscles by PBMT/sMF. However, do date, there is a lack of evidence regarding the effects of PBMT/sMF on the respiratory muscles. Therefore, the irradiation of PBMT/sMF may result in improvement in the functional capacity of respiratory muscles in patients with COVID-19, accelerating the ventilatory weaning process of the patients intubated due to respiratory failure. In addition, the irradiation of PBMT/sMF may induce the increase of anti-inflammatory mediators' activity in patients with COVID-19. Thus, the aim of this project is to investigate the effects of PBMT/sMF on respiratory muscles of patients admitted to the Intensive Care Unit (ICU) with COVID-19 using invasive mechanical ventilation.
Description: Number of days hospitalized in the ICU until discharge or death.
Measure: Time until discharge Time: From date of randomization until the date of discharge or date of death from any cause, whichever came first, assessed up to 20 days.Description: Rate of how many people survived and were discharged and how many died.
Measure: Survival rate Time: From date of randomization until the date of discharge or date of death from any cause, whichever came first, assessed up to 20 days.Description: Diaphragm thickness will be measured by ultrasound.
Measure: Diaphragm muscle function Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Platelet count will be measured by blood test.
Measure: Platelet count Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Leukogram will be measured by blood test.
Measure: Leukogram Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Erythrogram will be measured by blood test.
Measure: Erythrogram Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: C-reactive protein will be measured by blood test.
Measure: C-reactive protein Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: D-dimer will be measured by blood test.
Measure: D-dimer Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Immunoglobulin G will be measured by blood test.
Measure: Immunoglobulin G Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Immunoglobulin M will be measured by blood test.
Measure: Immunoglobulin M Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: The levels of PEEP will be measured using a mechanical ventilator.
Measure: Levels of positive end-expiratory pressure (PEEP) Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: The levels of FiO2 will be measured using a mechanical ventilator.
Measure: Fraction of inspired oxygen (FiO2) Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: PO2 will be measured by arterial blood gas analysis.
Measure: Arterial partial pressure of oxygen (PO2) Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: PO2/FiO2 ratio will be measured by arterial blood gas analysis.
Measure: Arterial partial pressure of oxygen (PO2)/Fraction of inspired oxygen (FiO2) ratio Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Levels of TNF-α will be measured by blood test.
Measure: Levels of tumor necrosis factor-α (TNF-α) Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Description: Levels of vitamin D will be measured by blood test.
Measure: Levels of vitamin D Time: 10 days after randomization and in the last test before discharge or death from any cause, whichever came first, assessed up to 20 days.Ophthalmologic damages secondary to COVID-19 coronavirus infection are little described. The ocular involvement is probably multiple, ranging from pathologies of the anterior segment such as conjunctivitis and anterior uveitis to disorders that threaten vision such as retinitis or optic neuropathy. On the other hand, in addition to this impairment, when patients are hospitalized for acute respiratory failure, complications related to possible resuscitation, medication prescriptions, positioning and oxygenation. COVID-19 itself, has several components: - An apoptotic action of the viral attack which will generate cellular destruction, whether pulmonary, cardiac or renal or maybe ocular - A secondary autoimmune action with the development of major vascular inflammation, possibly reaching the retinal, choroidal, and optic nerve vessels. A secondary "hyper" inflammatory syndrome with flashing hypercytokinemia and multi-organ decompensation is described in 3,7% to 4 ,3% of severe cases. - A thromboembolic action
Description: Multimodal ophthalmologic imaging
Measure: Description of the ophthalmological problems observed Time: 6 months after discharge of hospitalizationAim. The emerging outbreak of coronavirus disease 2019 (COVID-19) caused by the severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) continues to spread worldwide. Beside the prescription of some promising drugs as chloroquine, azithromycin, antivirals (lopinavir/ritonavir, darunavir/cobicistat) and immunomodulating agents (steroids, tocilizumab), in our patients with mild to moderate pneumonia due to SARS-CoV-2 we planned a randomize study to evaluate, respect the best available therapy (BAT), the use of autohemotherapy treatement with an oxygen/ozone (O3) gaseous mixture as adjuvant therapy. Design. Multicentric, randomized study. Participants. Clinical presentations are based upon clinical phenotypes identified by the Italian Society of Emergency and Urgency Medicine (SIMEU - Società Italiana di Medicina di Emergenza-Urgenza) and patients that meet criteria of phenotypes 2 to 4 were treat with best available therapy (BAT), and randomized to receive or not O3-autohemotherapy. Main outcome measures. The end-point were the time of respiratory improvement and earlier weaning from oxygen support: these parameters were included in the SIMEU clinical phenotypes classification.
Description: Evaluation of ABG paramethers the day after the last blood ozonization procedure (Day 3)
Measure: Time of respiratory improvement and earlier weaning from oxygen support Time: 3 daysDescription: Evaluation of ABG paramethers the one week after the last blood ozonization procedure (Day 10)
Measure: The time of respiratory improvement and earlier weaning from oxygen support Time: 10 daysDescription: Asse the lenghth of hospital stay in the two arms
Measure: Assessment of the length of hospitalization Time: up to 90 daysDescription: Asse the lenghth of ICU stay in the two arms
Measure: Assessment of the length of Intensive Care Unit (ICU) stay Time: up to 90 daysDescription: improving, worsening or stability of the chest imaging (chest CT, Chest XR and/or Point-of-Care Ultrasound) finding in the two arms
Measure: Improvment in chest imaging finding Time: 10 daysDescription: Evaluation of plasmatic cytochine (IL-6, lymphocyte typing for CD4, CD3, CD8, HLA-DR, CD45) response in the two arms
Measure: Improvment in cytokine release syndrome Time: 10 daysA randomized, double-blind, placebo-controlled Phase 2/3 study to evaluate the safety and efficacy of DSTAT in patients with Acute Lung Injury (ALI) due to COVID-19. This study is designed to determine if DSTAT can accelerate recovery and prevent progression to mechanical ventilation in patients severely affected by COVID-19.
Description: Alive and free of invasive mechanical ventilation
Measure: Proportion of participants who are alive and free of invasive mechanical ventilation Time: Through Day 28Description: Time to all-cause mortality
Measure: All-cause mortality Time: Through Day 28The containment associated with the VIDOC-19 pandemic creates an unprecedented societal situation of physical and social isolation. Our hypothesis is that in patients with chronic diseases, confinement leads to changes in health behaviours, adherence to pharmacological treatment, lifestyle rules and increased psychosocial stress with an increased risk of deterioration in their health status in the short, medium and long term. Some messages about the additional risk/danger associated with taking certain drugs in the event of COVID disease have been widely disseminated in the media since March 17, 2020, the date on which containment began in France. This is the case, for example, for corticosteroids, non-steroidal anti-inflammatory drugs but also for converting enzyme inhibitors (ACE inhibitors) and angiotensin II receptor antagonists (ARBs2). These four major classes of drugs are widely prescribed in patients with chronic diseases, diseases specifically selected in our study (corticosteroids: haematological malignancies, multiple sclerosis, Horton's disease; ACE inhibitors/ARAs2: heart failure, chronic coronary artery disease). Aspirin used at low doses as an anti-platelet agent in coronary patients as a secondary prophylaxis after a myocardial infarction can be stopped by some patients who consider aspirin to be a non-steroidal anti-inflammatory drug. Discontinuation of this antiplatelet agent, which must be taken for life after an infarction, exposes the patient to a major risk of a new cardiovascular event. The current difficulty of access to care due to travel restrictions (a theoretical limit in the context of French confinement but a priori very real), the impossibility of consulting overloaded doctors, or the cancellation of medical appointments, medical and surgical procedures due to the reorganization of our hospital and private health system to better manage COVID-19 patients also increases the risk of worsening the health status of chronic patients who by definition require regular medical monitoring. Eight Burgundian cohorts of patients with chronic diseases (chronic coronary artery disease, heart failure, multiple sclerosis, Horton's disease, AMD, haemopathic malignancy, chronic respiratory failure (idiopathic fibrosis, PAH) haemophilia cohort) will study the health impact of the containment related to the COVID-19 pandemic.
Description: increase in dose, decrease in dose, discontinuation or no change for each drug class)
Measure: % adherence to each pharmacological class Time: during the period from 20 April 2020 to 7 May 2020Description: (mortality, hospitalizations and relevant criteria for each pathology all related to the chronic disease)
Measure: number of occurrence of medical events at 1 year Time: throughout the study for 12 monthsDescription: Smoking/Smoking/sweetening, Alcohol consumption/recovery, Decreased physical activity, Weight change
Measure: Expressed in %: Non-pharmacological treatment/lifestyle: Time: during the period from 20 April 2020 to 7 May 2020Prone position (PP) has been proved to be effective in severe ARDS patients. On the other hand, High flow nasal cannula (HFNC) may prevent intubation in hypoxemic Acute respiratory failure (ARF) patients. Our hypothesis is that the combination of PP and HFNC in patients with COVID19 induced ARDS may decrease the need of mechanical ventilation. Primary outcome: Therapeutic failure within 28 days of randomization (death or intubation). Secondary outcomes: to analyze PP feasibility and safety in HFNC patients and to analyze effectiveness in terms of oxygenation. Methods: multicentric randomized study including patients with COVID19 induced ARDS supported with HFNC. Experimental group will received HFNC and PP whereas observation group will received standard care. Optimization of non-invasive respiratory management of COVID19 induced ARDS patients may decrease the need of invasive mechanical ventilation and subsequently ICU and hospital length of stay.
Description: Therapeutic failure: death or intubation
Measure: Therapeutic failure death or intubation Time: 28 days within randomizationDescription: Comfort measurement using a visual-analog scale. Presence of complications related with prone position and the use of high-flow nasal cannula: Skin ulcers. Intravascular lines displacement HFNC related events (hot air feeling, nasal lesions)
Measure: Feasibility and safety of prone position in HFNC patients Time: 28 days within randomizationDescription: Evolution of the oxygenation (SpO2/FiO2) in prone position. Efficacy Length of HFNC therapy Length of ICU stay Length of mechanical ventilation (in those who require intubation) ICU and hospital mortality
Measure: Efficacy of prone position in HFNC patients Time: 28 days within randomizationThe aim of the present study is to examine whether cerebral oxygenation could be a more useful parameter than peripheral oxygen saturation to guide clinical titration of permissive hypoxemia in COVID-19 ARDS patients
Description: Cardiovascular and pulmonary optimization: Step 0 = Baseline, Step 1 = Derecruitment, Step 2 = Recruitment, Step 3 = Norepinephrine challenge, Step 4 = FiO2 increase, Step 5 = FiO2 decrease, Step 6 = Baseline 2
Measure: Changes in cerebral oxygenation (ScO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in peripheral oxygen saturation (SatO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in systolic arterial pressure (SAP) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in diastolic arterial pressure (DAP) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in mean arterial pressure (MAP) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in heart rate (HR) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in stroke volume (SV) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in cardiac output (CO) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in systemic vascular resistance (SVR) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in peripheral perfussion index (PPI) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in pH during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in PaO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in PaCO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in arterial saturation (SaO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in PvO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in PvCO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in mixed venous saturation (SvO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in lacatate during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in hemoglobine concentration (Hb) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Changes in muscular oxygenation (SmO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and peripheral oxygen saturation (SatO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and systemic arterial pressure (SAP) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and diastolic arterial pressure (DAP) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and mean arterial pressure (MAP) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and stroke volume (SV) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and heart rate (HR) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and cardiac output (CO) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and systemic vascular resistance (SVR) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and peripheral perfussion index (PPI) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and pH during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and PaO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and PaCO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and arterial saturation (SaO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and PvO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and PvCO2 during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and mixed venous saturation (SvO2) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and lactate during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and hemoglobine concentration (Hb) during cardiovascular and pulmonary optimization Time: 1 hourDescription: Cardiovascular and pulmonary optimization as described above
Measure: Association between cerebral oxygenation (ScO2) and muscular oxygenation (SmO2) during cardiovascular and pulmonary optimization Time: 1 hourA phase 2/3, randomized, double blind, placebo-controlled study to evaluate the efficacy and the safety of ABX464 in treating inflammation and preventing acute respiratory failure in patients aged ≥65 and patients aged ≥18 with at least one additional risk factor who are infected with SARS-CoV-2 (the MiR-AGE study).
Description: 7-point ordinal scale is defined as Not hospitalized, no limitations on activities; Not hospitalized, limitation on activities; Hospitalized, not requiring supplemental oxygen; Hospitalized, requiring supplemental oxygen; Hospitalized, on non-invasive ventilation or high flow oxygen devices; Hospitalized, on invasive mechanical ventilation or ECMO; Death
Measure: Percentage of patients reporting each severity rating on a 7-point ordinal scale Time: 28-day treatment periodDescription: Nasopharyngeal sample and/or in blood
Measure: SARS-CoV-2 viral load Time: at each study visit during the 28-day treatment periodThe novel SARS-CoV-2 virus has quickly spread worldwide, with substantial morbidity and mortality. There is very limited understanding of the short- and longer-term inflammatory/immunological and clinical course. However, the investigators expect survivors from severe COVID-19 to experience persistent functional impairments, as demonstrated in prior studies of patients with acute respiratory distress syndrome (ARDS) and other acute viral illnesses. Notably, however, few studies have ever investigated the biologic mechanisms underlying these functional impairments. Understanding these features of COVID-19 will improve the ability to design acute therapies and recovery-focused interventions. To address these knowledge gaps, the investigators propose a two-center, 225 patient longitudinal prospective cohort study of hospitalized COVID-19 patients with acute respiratory failure. Researchers will perform an in-depth evaluation of inflammatory/immunological biomarkers, and physical, pulmonary, and neuropsychological clinical outcomes during hospitalization, and over 3-, 6-, and 12-month follow-up.
Description: Exercise capacity
Measure: Six minute walk distance (6MWD) Time: 3 months after hospital admissionDescription: Exercise capacity
Measure: Six minute walk distance (6MWD) Time: 6 months, 12 months after hospital admissionDescription: Symptoms of anxiety and depression. Both anxiety and depression subscales are scored from 0-21, with higher scores indicating more symptoms.
Measure: Hospital Anxiety and Depression Scale (HADS) Time: 3 months, 6 months, 12 months after hospital admissionDescription: Health-related quality of life. The EQ-5D-5L is scored from 0-100, with a higher score indicating better health status.
Measure: EuroQol Group standardized measure of health status (EQ-5D-5L) Time: 3 months, 6 months, 12 months after hospital admissionDescription: Mental and Cognitive Functioning. The MoCA-BLIND is scored from 1-22, with higher scores indicating better cognitive function.
Measure: MoCA-BLIND Time: 3 months, 6 months, 12 months after hospital admissionDescription: Health Care Utilization
Measure: Health Care Utilization Survey (HUS) Time: 3 months, 6 months, 12 months after hospital admissionDescription: Mortality
Measure: Death Time: 3 months, 6 months, 12 months after hospital admissionDescription: The maximum volume of gas expired when the patient exhales as forcefully and rapidly as possible after a maximal inspiration. Obtained by spirometry.
Measure: Forced vital capacity (FVC) Time: 3 months, 6 months, 12 months after hospital admissionDescription: Measure of the volume expired over the first second of an FVC maneuver. Obtained by spirometry
Measure: Forced expiratory volume in 1 second (FEV1) Time: 3 months, 6 months, 12 months after hospital admissionDescription: Gait speed
Measure: 4-meter timed walk Time: 3 months, 6 months, 12 months after hospital admissionDescription: Measured by cell staining and flow cytometry. PBMC differentiation/ activation/exhaustion status will be determined by multicolor flow cytometry staining with human monoclonal antibodies.
Measure: Peripheral blood mononuclear cell type: CD4+ T cells (#cells/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Measured by cell staining and flow cytometry. PBMC differentiation/ activation/exhaustion status will be determined by multicolor flow cytometry staining with human monoclonal antibodies.
Measure: Peripheral blood mononuclear cell type: CD8+ T cells (#cells/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Measured by cell staining and flow cytometry. PBMC differentiation/ activation/exhaustion status will be determined by multicolor flow cytometry staining with human monoclonal antibodies.
Measure: Peripheral blood mononuclear cell type: B cells (#cells/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Measured by cell staining and flow cytometry. PBMC differentiation/ activation/exhaustion status will be determined by multicolor flow cytometry staining with human monoclonal antibodies.
Measure: Peripheral blood mononuclear cell type: NK cells (#cells/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Measured by cell staining and flow cytometry. PBMC differentiation/ activation/exhaustion status will be determined by multicolor flow cytometry staining with human monoclonal antibodies.
Measure: Peripheral blood mononuclear cell type: monocytes (#cells/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: C-Reactive Protein (CRP) (mg/l) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: Interleukin 6 (IL-6) (pg/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: Interleukin 8 (IL-8) (pg/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: Interferon gamma (IFNg) (pg/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: Interferon alpha (IFNa) (pg/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: Tumor necrosis factor alpha (TNFa) (pg/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionDescription: Biomarkers measured from plasma will be assayed using Luminex-based multiplex immunoassay.
Measure: Circulating markers of inflammation: Interleukin 1 beta (IL-1b) (pg/ml) Time: study days 1, 3, and 7; then 3 months, 6 months, 12 months after hospital admissionProne positioning is an established intervention in mechanically ventilated acute respiratory distress syndrome (ARDS) patients, with demonstrated reductions in mortality. Preliminary data suggest that awake proning in patients with COVID-19 treated with high-flow nasal oxygenation (HFNO) improves gas exchanges, and might be associated with a reduced need of mechanical ventilation, and reduced mortality. Further investigation in a formal randomized-controlled trial is need.
Description: Total time spent in prone position, as recorded by nursing or respiratory therapists
Measure: Time in prone position Time: Up to 28 days post randomizationDescription: Daily evolution of oxygenation
Measure: Oxygenation (SpO2/FiO2 ratio) Time: Until HFNC weaning, or up to 14 days after randomization, whichever is firstWe aim to investigate whether the use of Continuous Positive Airway Pressure using a Helmet device (Helmet CPAP) will increase the number of days alive and free of ventilator within 28 days compared to the use of a High Flow Nasal Cannula (HFNC) in patients admitted to Helsingborg Hospital, Sweden, suffering from COVID-19 and an acute hypoxic respiratory failure.
Description: Number of days alive and free of mechanical ventilation within 28 days. Patients who die within 28 days will be counted as 0 VFD. Time in ventilator will be counted in hours and rounded to whole days.
Measure: Ventilator-Free Days (VFD) Time: 28 daysDescription: Peripheral oxygen saturation divided by fraction of inspired oxygen
Measure: SpO2/FiO2-ratio Time: 1 hour after randomisationDescription: Visual scale (1-10)
Measure: Patient comfort Time: 24 hours after randomisationDescription: Min 0, Max 1
Measure: Frequency of endotracheal intubation Time: 28 daysDescription: Defined as pCO2 > 6 kPa in a venous blood gas. Min 0, Max ∞
Measure: Frequency of carbon dioxide rebreathing Time: 28 daysDescription: All-cause mortality. (180 days endpoint not in primary publication)
Measure: Days alive within Time: 28 days and 180 daysThis study is a prospective, phase II, multi-center, randomized, double-blind, placebo-controlled trial to evaluate the efficacy and safety of mavrilimumab in hospitalized patients with acute respiratory failure requiring oxygen supplementation in COVID- 19 pneumonia and a hyper-inflammatory status. The study will randomize patients to mavrilimumab or placebo, in addition to standard of care per local practice. The total trial duration will be 12 weeks after single mavrilimumab or placebo dose.
Description: Time to the absence of need for oxygen supplementation (time to first period of 24 hrs with a SpO2 of 94%) within day 14 of treatment, stated as Kaplan- Mayer estimates of the proportion of patients on room air at day 14 and median time to room air attainment in each arm
Measure: Reduction in the dependency on oxygen supplementation Time: within day 14 of treatmentDescription: Response is defined as a 7-point ordinal scale of 3 or less, i.e. no supplemental oxygen
Measure: Proportion of responders (using the WHO 7-point ordinal scale) Time: Day 7, 14, and 28Description: Time from date of randomization to the date with a 7-point ordinal scale of 3 or less, i.e. no supplemental oxygen
Measure: Time to response (using the WHO 7-point ordinal scale) Time: Within day 28 of interventionDescription: Proportion of patients with at least two-point improvement in clinical status
Measure: Proportion of improving patients (using the WHO 7-point ordinal scale) Time: At day 7, 14, and 28Description: Time to resolution of fever (for at least 48 hours) in absence of antipyretics, or discharge, whichever is sooner
Measure: Time to resolution of fever Time: Within day 28 of interventionDescription: COVID-19-related death
Measure: Reduction in case fatality Time: Within day 28 of interventionDescription: Proportion of hospitalized patients who died or required mechanical ventilation (WHO Categories 6 or 7)
Measure: Proportion of patient requiring mechanical ventilation/deaths Time: Within day 14 of interventionDescription: Change of the following serological markers over follow-up (C-reactive protein; Ferritin; D-Dimer)
Measure: Change in biochemical markers Time: Within day 28 of intervention or discharge -whatever comes firstDescription: Median changes of NEWS2 score from baseline
Measure: Median changes in the National Early Warning Score 2 (NEWS2) Time: At day 7, 14, and 28Description: Time to clinical improvement (as defined as a NEWS2 score of 2 or less maintained for at least 24 hours or discharge, whichever comes first)
Measure: Time to clinical improvement as evaluated with the National Early Warning Score 2 (NEWS2) Time: Within day 28 of intervention or discharge -whatever comes firstDescription: Variations from baseline to subsequent timepoints (when available) in terms of percentage of lung involvement, modifications in the normal parenchyma, ground glass opacities (GGO), crazy paving pattern,parenchymal consolidations, and evolution towards fibrosis.
Measure: Variations in radiological findings Time: Within day 28 of intervention or discharge -whatever comes firstDescription: Number of patients with treatment- related side effects (as assessed by Common Terminology Criteria for Adverse Event (CTCAE) v.5.0), serious adverse events, adverse events of special interest, clinically significant changes in laboratory measurements and vital signs
Measure: Incidence of Treatment-Emergent Adverse Events [Safety and Tolerability] Time: By day 84Description: To evaluate the primary and secondary endpoints in different subgroups of patients: mild respiratory failure: PaO2/FiO2 ≤ 300 and > 200 mmHg; moderate respiratory failure: PaO2/FiO2 ≤ 200 and > 100 mmHg
Measure: Clinical efficacy of mavrilimumab compared to the control arm by clinical severity Time: Within day 28 of interventionDescription: Median changes in serum IL-6
Measure: Changes in serum IL-6 (exploratory biomarker) Time: By day 84Description: Median changes in serum IL-1 receptor antagonist
Measure: Changes in serum IL-1RA (exploratory biomarker) Time: By day 84Description: Median changes in serum TNF-alpha
Measure: Changes in serum TNF-alpha (exploratory biomarker) Time: By day 84Description: Median variations in haemoglobin and leucocyte counts
Measure: Changes in CBC + differential (exploratory biomarker) Time: By day 84Description: Median titres od anti-SARS-CoV2 antibodies
Measure: Level of anti-SARS-CoV2 antibodies (exploratory biomarker) Time: By day 84Description: Proportion of patients with a positive swab for SARS-CoV2 by PCR
Measure: Virus eradication (exploratory biomarker) Time: By day 84Description: Proportion of patients who developed anti-drug antibodies
Measure: Anti-drug antibodies (exploratory biomarker) Time: By day 84This randomized, controlled trial will assess the efficacy and safety of pulsed iNO in subjects with COVID-19 who are hospitalized and require supplemental oxygen.
Description: As assessed per treating physician's discretion.
Measure: Incidence of treatment emergent adverse events Time: Up to 14 daysDescription: Incidence of hypoxemia and hypotension as assessed per treating physician's discretion.
Measure: Incidence of adverse events Time: Up to 6 hoursDescription: Incidence of increase to > 5% total methemoglobin as assessed by pulse oximetry.
Measure: Incidence of methemoglobinemia Time: Up to 14 daysDescription: Worsening respiratory status as defined by any one of the following: Implementation of High Flow Nasal Cannula (HFNC), non-rebreather mask, non-invasive ventilation, intubation and mechanical ventilation or need for intubation (in the event the patient is not intubated due to do not intubate (DNI) or do not resuscitate (DNR) status).
Measure: Number of participants with progression of respiratory failure Time: Up to 14 daysDescription: The number of days until hypoxemia is resolved as per treating physician assessment
Measure: Time until resolution of hypoxemia Time: Up to 14 daysDescription: Incidence of death during hospitalization and after discharge up to 28 days
Measure: Incidence of mortality Time: Up to 28 daysDescription: Number of days of hospitalization
Measure: Duration of hospitalization Time: Up to 28 daysThe purpose of this prospective, Phase 2, multicenter, blinded, randomized placebo controlled study is to demonstrate that early treatment with mavrilimumab prevents progression of respiratory failure in patients with severe COVID-19 pneumonia and clinical and biological features of hyper-inflammation.
Description: Number of subjects alive and off of oxygen
Measure: Proportion of subjects alive and off of oxygen at day 14 Time: Day 14Description: Number of subjects that are alive
Measure: Proportion of subjects alive at 28 days Time: Day 28Description: Number of subjects alive and without respiratory failure
Measure: Proportion of subjects alive and without respiratory failure at 28 days Time: Day 28This multicenter, randomized, double-blind, placebo-controlled clinical trial will evaluate the efficacy and safety of intravenous Sodium Nitrite Injection for treatment of patients infected with COVID-19 who develop lung injury and require mechanical ventilation.
Description: Proportion of study subjects who are alive and free of respiratory failure at Day 28
Measure: Survival with Unassisted Breathing Time: Day 28Description: Number of days alive without mechanical ventilation from start of study through Day 28
Measure: Survival without Mechanical Ventilation Time: Day 28Description: Number of days alive and not in the intensive care unit from start of study through Day 28.
Measure: Survival without Intensive Care Time: Day 28Description: Number of days alive and not in hospital from start of study through Day 28.
Measure: Survival without Hospitalization Time: Day 28Description: Alive on Day 28 and no use of ECMO therapy any time between start of study and Day 28.
Measure: Survival without ECMO Time: Day 28Description: Alive on Day 28
Measure: Survival Time: Day 28Description: Oxygenation index (PaO2/FIO2) at Day 14
Measure: Lung Status Time: Day 14Description: Blood urea nitrogen (BUN) at Day 14
Measure: Kidney Status (1) Time: Day 14Description: Creatinine at Day 14
Measure: Kidney Status (2) Time: Day 14Description: Liver function tests (ALT and AST) at Day 14
Measure: Liver Status Time: Day 14The purpose of this trial is to determine whether Prone Positioning (PP) improves outcomes for non-intubated hospitalized patients with hypoxemic respiratory failure due to COVID-19, who are not candidates for mechanical ventilation in the ICU. The investigators hypothesize that PP will reduce in-hospital mortality or discharge to hospice, compared with usual care for non-intubated patients with do-not-intubate goals of care with hypoxemic respiratory failure due to probable COVID-19.
Description: In-hospital mortality or discharge to hospice at Day 60.
Measure: Hospital mortality or discharge to hospice Time: 60 daysDescription: An Adverse Event (AE) is any unfavourable or other finding (including clinically significant laboratory tests), symptom or disease occurring during the during of the study, whether or not it is considered to be related to the medicinal (investigational) product, not explicitly classified elsewhere in this protocol, and whether or not it is expected. A Serious Adverse Event (AE) is any unfavourable medical finding (including clinically significant laboratory tests) at any dose that: Results in death (primary outcome) Is life threatening Results in persistent of significant disability or incapacity Requires in in-patient hospitalisation or prolongation of Hospitalisation
Measure: Adverse Events and Serious Adverse Events Time: 60 daysDescription: Change in SpO2 during each PP session (SpO2 in prone position - SpO2 prior to prone positioning). Clinicians will be asked to record this change for the first proning session per shift (for 12 hour shifts this will result in 2 proning sessions being documented per 24 hour period, and for 8 hour shifts this will result in 3 proning sessions being documented per 24 hour period).
Measure: Change in SpO2 Time: 60 daysDescription: Number of hospital free days in the 60 days after enrolment.
Measure: Hospital free days Time: 60 daysDescription: Admission to the Intensive Care Unit.
Measure: Admission to ICU Time: 60 daysDescription: Patient is intubated and requires mechanical ventilation.
Measure: Intubation and mechanical ventilation Time: 60 daysDescription: Patient requires non-invasive ventilation (NIV) or high-flow nasal oxygen (HFNO).
Measure: Initiation of non-invasive ventilation (NIV) or high-flow nasal oxygen (HFNO). Time: 60 daysDescription: The number of oxygen-free days at Day 60 (censored at discharge).
Measure: Oxygen-free days Time: 60 daysDescription: Time from admission to all-cause in-hospital death.
Measure: In-hospital death (time) Time: 60 daysDescription: Death at 90 days.
Measure: Death at 90 days Time: 90 daysAccording to recent data, death rate is more than 20% for 75 years old hospitalized patients and older. In case of aggravation, according to the latest observations, if they are refused for mechanical ventilation in intensive care, their death rate could reach 60% even for patients without comorbidity. Apart from an increase in oxygen therapy, no specific treatment is currently proposed. The control of the inflammatory component seems to be a key element to be able to influence the patients' health evolution. Polyvalent intravenous immunoglobilins have immunomodulatory and anti-inflammatory properties with a favorable safety profile for these elderly patients and several clinical cases lead to positive impact in the caring for Covid patients. This study objective is evaluation of the efficacy of polyvalent IVIg in combination with the standard management of patients aged 75 and over with SARSCov2 infection with acute respiratory failure (saturation ≤ 95%) requiring oxygen therapy> 5 L / min (i.e. patients considered as moderate to severe ARDS according to the Berlin definition, Pa02 / Fi02≤200) and disqualified from a care in the ICU.
To determine whether the use of oxygen hoods as compared to conventional high-flow oxygen delivery systems, and the effects on oxygenation, mechanical ventilation and mortality rates in hypoxic patients with COVID-19.
Description: Continuous pulse oximetry monitoring
Measure: Oxygen saturation Time: 3/6/2020 - 5/1/2020Description: Intubation/mechanical Ventilation at any point during hospitalization.
Measure: In-hospital Intubation/Mechanical Ventilation Status Time: 3/6/2020 - 5/1/2020Description: In-hospital Mortality status
Measure: In-hospital Mortality Time: 3/6/2020 - 5/1/2020Description: Duration of hospitalization
Measure: Length of Hospitalization Time: 3/6/2020 - 5/1/2020The purpose of this study is to retrospectively review clinical data to determine whether awake proning improves oxygenation in spontaneously breathing patients with COVID-19 severe hypoxemic respiratory failure.
Description: SpO2 was measured by peripheral pulse oximetry.
Measure: Change in SpO2 Time: Before proning and 1 hour after initiation of the prone positionDescription: The mean risk difference in intubation rates for patients with SpO2 ≥95% vs. <95% 1 hour after initiation of the prone position was assessed.
Measure: Mean Risk Difference in Intubation Rates Time: Duration of hospitalization or up to 1 month from admissionThis research aims to investigate the role of daily measurement of urinary cell cycle arrest markers and other serum and urinary biomarkers to predict the development of acute kidney injury in critically ill patients with COVID-19 and acute respiratory disease.
Description: As defined by Kidney Diseases: Improving Global Outcome
Measure: Any stage of acute kidney injury Time: 7 daysDescription: Renal replacement therapy requirement at the clinicians' discretion
Measure: need for RRT in first 7 days Time: 7 daysDescription: ICU mortality
Measure: Mortality Time: 7 and 28 daysDescription: Duration
Measure: Duration of mechanical ventilation Time: 7 and 28 daysDescription: Duration
Measure: Duration of vasopressor support Time: 7 and 28 daysCritically ill covid-19 patients may require respiratory support including mechanical ventilation. After an initial period with an endotracheal tube, a tracheotomy is performed in order to reduce potential airway complications, reduce the need of sedation and facilitate the monitoring and recovery. The optimal timing of this surgical procedure is, however, still unknown. The aim of this randomized, controlled trial is to compare the outcome of early (within 7 days) vs late (after at least 10 days) tracheotomy in covid-19 patients. The need for mechanical ventilation, sedation, additional oxygen support, frequency of complications, duration at the ICU and mortality will be evaluated and compared.
Description: Number of days without mechanical ventilation
Measure: Mechanical ventilation Time: 28 daysDescription: Number of days at ICU
Measure: ICU stay Time: 28 daysDescription: Number of days with need of additional oxygen support
Measure: Oxygen support Time: 28 daysDescription: Number of days with the need of sedation
Measure: Sedation Time: 28 daysDescription: Various adverse events associated with the tracheotomy/tracheostomy
Measure: Adverse events Time: 28 daysDescription: Mortality
Measure: Mortality Time: 90 daysThe purpose of this trial is to investigate the efficacy and safety of continuous intravenous administration of low dose iloprost versus placebo for 72-hours, in 80 patients with COVID-19 suffering from respiratory failure. The study hypothesis is that iloprost may be beneficial as an endothelial rescue treatment as it is anticipated to deactivate the endothelium and restore vascular integrity in COVID-19 patients suffering from respiratory failure caused by endothelial breakdown, ultimately improving survival. Given that the pulmonary system, apart from the brain, is the most highly vascularized vital organ in the body, extensive endothelial damage is a central feature of acute respiratory distress syndrome (ARDS) with respiratory failure being the rationale for the current study COMBAT-COVID-19.
Description: Days alive without mechanical ventilation in the ICU within 28 days
Measure: Mechanical ventilation free days Time: Until ICU discharge, maximun 28 days after randomizationDescription: Vital status of the patient at day 28 and day 90
Measure: 28 and 90-day mortality Time: Day 28 and 90 after randomizationDescription: Mean daily modified SOFA score in the intensive care unit (scores for each of five systems range from 0 to 4, with higher scores indicating more severe dysfunction; range score 0-20).
Measure: Modified Sequential Organ Failure Assessment (SOFA) Time: Until ICU discharge, maximun 90 days after randomizationDescription: Days alive without vasopressor in the ICU within 28-and 90 days
Measure: Vasopressor free days Time: Until ICU discharge, maximun 90 days after randomizationDescription: Days without renal replacement in the ICU within 28 -and 90 days
Measure: Renal replacement free days Time: Until ICU discharge, maximun 90 days after randomizationDescription: Days alive without mechanical ventilation in the ICU within 90 days
Measure: Mechanical ventilation free days Time: Until ICU discharge, maximun 90 days after randomizationDescription: Numbers of serious adverse reactions within the first 7 days
Measure: Serious adverse reactions (SARs) Time: Until day 7 after randomizationDescription: Numbers of serious adverse events within the first 7 days
Measure: Serious adverse events (SAEs) Time: Until day 7 after randomizationSevere sepsis and septic shock are some of the leading causes of mortality in intensive care unit (ICU) admitted COVID-19 patients. The main cause of early mortality is the uncontrolled release of inflammatory mediators leading to cardiovascular failure. CytoSorb, a recently developed, highly biocompatible hemadsorption device has been tested, which can selectively remove inflammatory mediators from the circulation. This device is currently commercially available, and in Europe, it has been approved for clinical use. Based on experience to date, this adsorption technique may influence the immune function; removing inflammatory mediators from the blood may improve organ functions and even increase the chances of survival. CYTOAID is an observational, non-interventional study to assess the effectiveness of early cytokine adsorption therapy in critically ill patients who have been admitted to the ICU because of COVID-19 infection. Data on the applied therapy on COVID-19 patients in ICU will be collected and analyzed. The patient's examination and therapy will be applied according to the current regulations at the clinics and the current professional standards. The study does not require any additional examination or intervention.
Description: Change in the PaO2/FiO2 ratio after CytoSorb therapy as compared to baseline
Measure: Change in the partial pressure of oxygen/fraction of inspired oxygen (PaO2/FiO2) ratio after CytoSorb therapy Time: 24 monthsDescription: Change in white blood cell count and c-reactive protein levels during treatment compared to the baseline
Measure: Change in inflammatory biomarker levels during treatment Time: 24 monthsDescription: measured by sequential organ failure assessment (SOFA/sub-SOFA) score during treatment assessed by the treating physician
Measure: change in organ function Time: 24 monthsDescription: given in days, assessed by the treating physician
Measure: length of stay in ICU Time: 24 monthsDescription: given in days, assessed by the treating physician
Measure: length of hospital stay Time: 24 monthsDescription: given in days, assessed by the treating physician
Measure: Duration of mechanical ventilation Time: 24 monthsDescription: given in days, assessed by the treating physician
Measure: Duration of vasopressor therapy Time: 24 monthsDescription: given in days, assessed by the treating physician
Measure: Duration of renal replacement therapy Time: 24 monthsDescription: assessed by the treating physician
Measure: Occurrence of critical illness polyneuropathy and/or myopathy Time: 24 monthsDescription: Number of patients progressing to the need for ECMO assessed by the treating physician
Measure: need for extracorporeal membrane oxygenation (ECMO) Time: 24 monthsDescription: The financial demand of the treatment of COVID-19 infection spent on each patient will be calculated by a healthcare economist after the trial is completed.
Measure: cost calculation Time: 24 monthsDescription: Number of patients with device-related adverse and serious adverse events assessed by the treating physician
Measure: device-related adverse and serious adverse events Time: 24 monthsDescription: Number of patients, who died during their hospital stay, assessed by the treating physician
Measure: In-hospital mortality Time: 24 monthscoronavirus disease 2019 related pneumonia is causing acute respiratory failure and this is the most common reason for ICU admission. We have several different way for respiratory support. HFNC is one of the new technics for oxygen support. Our main purpose to observe the effect of HFNC on coronavirus disease 2019 patients' ICU stay and mortality.
Description: the mortality rate of patients
Measure: short term mortality Time: in 28 days.Description: means the stay day of patients in intensive care unit
Measure: icu stay Time: up to 28 daysDescription: partial oxygen pressure, partial carbon dioxide pressure . both measured in mmhg
Measure: blood gases Time: at the admission time and 24th hourPatients with COVID-19 and hypoxaemic respiratory failure and admitted to the intensive care unit (ICU) are treated with supplementary oxygen as a standard. However, quality of quantity evidence regarding this practise is low. The aim of the HOT-COVID trial is to evaluate the benefits and harms of two targets of partial pressure of oxygen in arterial blood (PaO2) in guiding the oxygen therapy in acutely ill adult COVID-19 patients with hypoxaemic respiratory failure at ICU admission.
Description: Percentage of days alive and free from mechanical ventilation, circulatory support and renal replacement therapy
Measure: Days alive without organ support Time: Within 90 daysDescription: All-cause mortality 90 days after randomisation
Measure: 90-days mortality Time: 90 daysDescription: Percentage of days alive out of the hospital
Measure: Days alive out of the hospital Time: Within 90 daysDescription: Serious adverse events are defined as new episode of shock and new episodes of ischaemic events including myocardial or intestinal ischaemia or ischaemic stroke
Measure: Number of patients with one or more serious adverse events Time: Until ICU discharge, maximum 90 daysDescription: All-cause mortality 1 year after randomisation
Measure: 1-year mortality Time: 1 yearDescription: EQ-5D-5L 1-year after randomisation
Measure: Quality of life assessement using the EuroQoL EQ-5D-5L telephone interview Time: 1 yearDescription: RBANS score 1 year after randomisation at selected sites. The overall RBANS global cognition score, as well as each cognitive domain score, range from 40 to 160 with 100 ± 15 being the age-adjusted mean ± standard deviation. Higher scores indicate better performance.
Measure: Cognitive function 1-year after randomisation as assessed using the Repeatable Battery for the Assessment of Neuropsychological Status (RBANS) score in selected sites Time: 1 yearDescription: Carbon monoxide diffusion capacity (DLCO) 1 year after randomisation at selected sites.
Measure: Carbon monoxide diffusion capacity Time: 1 yearDescription: Cost-effectiveness versus cost-minimisation analyses after completion of the trial, based on the primary outcome.
Measure: A health economic analysis Time: 90 daysthe purpose of this study to evaluate the effect of early awake PP (prone position)application on oxygenation and intubation requirement in patients with acute respiratory failure due to coronavirus disease 2019 pneumonia.
Description: the duration of icu stay day
Measure: intensive care unit stay Time: up to 28 daysDescription: mortality percent
Measure: short term mortality Time: up to 28 daysDescription: partial oxygen pressure: mmhg , partial carbondiocsit pressure mmhg
Measure: blood gases Time: up to 24 hoursTo date no specific treatment has been proven to be effective for Severe Acute Respiratory Syndrome Coronavirus 2 (SARS-Cov-2) infection. It is possible that convalescent plasma that contains antibodies to SARS-Cov-2 might be effective against the progression of infection. Promising results have been shown by preliminary data from China cases. The investigators planned to compare effectiveness of adding COVID-19 convalescent plasma to standard therapy protocol (STP) versus adding plasma donated in pre-COVID era versus STP alone in patient with COVID-19 within 5 days from the onset of respiratory distress. STP at enrolment is the best evidence based therapy approved for treatment of COVID patients by regional Health system emergency committee.
Description: Proportion of patients alive 30 days after randomization
Measure: 30-days survival Time: 30 days after randomizationDescription: Cumulative incidence of mechanical ventilation or death
Measure: Ventilator free survival Time: 30 days after randomizationDescription: Probability of being alive at 6 months after randomization
Measure: 6-months survival Time: 6 months after randomizationDescription: Proportion of patients developing any serious medical or procedure related complications
Measure: Incidence of complications Time: Within 12 monthsDescription: Proportion of days spent in ICU on the total length of hospital stay
Measure: Days in intensive care units (ICU) Time: From date of randomization until the date of discharge or date of death from any cause, whichever came first, assessed up to 12 monthsDescription: Proportion of patients showing seroconversion to Immunoglobulin G (IgG) anti-SARS-Cov-2
Measure: Positivity for Immunoglobulin G to SARS-Cov-2 Time: On day 0, 2, 4, 6,10,14, 21, 28 after randomization and at date of discharge or death from any cause, whichever came first, assessed up to 12 monthsDescription: Proportion of patients showing viral clearance by Reverse Transcriptase Polymerase Chain Reaction (RT-PCR) on plasma and respiratory tract samples
Measure: Clearance of viral load Time: On day 0, 2, 4, 6,10,14, 21, 28 after randomization and at date of discharge or death from any cause, whichever came first, assessed up to 12 monthsDescription: Variations in SOFA Score (range 0-24; higher score mean a worse outcome)
Measure: Sequential Organ Failure Assessment (SOFA) score Time: On day 0, 2, 4, 6, 10, 14, 28 after randomization and at date of discharge or death from any cause, whichever came first, assessed up to 12 monthsDescription: Proportion of patients needing introduction of new drug or discontinuation of drug from standard therapy protocol
Measure: Any variation from Standard Therapy Protocol Time: From date of randomization until the date of discharge or date of death from any cause, whichever came first, assessed daily up to 2 monthsIn this study, the investigator examined epidemiological and demographic characteristics, risk factors and 28-day mortality of patients admitted to the intensive care unit with the diagnosis of coronavirus disease 2019 pneumonia.
Description: mortality rate
Measure: mortality Time: up to 28 daysDescription: Patients' age, gender, BMI, medical history
Measure: demographic characteristics Time: up to 28 daysThis is a multicenter, randomized, double-blind, parallel group study to investigate the efficacy of PB1046 by improving the clinical outcomes and increasing days alive and free of respiratory failure in hospitalized COVID-19 patients at high risk for rapid clinical deterioration, acute respiratory distress syndrome (ARDS) and death. The study will enroll approximately 210 hospitalized COVID-19 patients who require urgent decision-making and treatment at approximately 20 centers in the United States.
Description: PaO2:FiO2 ratio is the ratio of partial pressure of arterial oxygen to percentage of inspired oxygen
Measure: Development of ARDS (PaO2:FiO2 ratio < 300 mm Hg) during hospitalization Time: Any time point between injection initiation and Day 28Description: Composite of: Total hospital days, Total ICU days, Total days of ventilator use, Total days of ECMO, Total days of invasive hemodynamic monitoring, Total days of mechanical circulatory support, Total days of inotropic or vasopressor therapy
Measure: Reduction in hospital resource utilization defined as a composite of:total days: in hospital, in ICU, on ventilator, on ECMO, with invasive hemodynamic monitoring, with mechanical circulatory support, and with inotropic or vasopressor therapy Time: 28 daysVibroacoustic pulmonary therapy in patients with COVID19 is believed to have a positive effect on oxygen status and a decrease in the duration of respiratory failure
Description: Regression of respiratory failure under the influence of vibroacoustic therapy
Measure: Recovery respiratory fail Time: 5-7 daysAcute respiratory distress syndrome (ARDS) is a type of respiratory failure characterized by the rapid onset of widespread inflammation in the lungs. ARDS is thought to be the main cause of respiratory failure in COVID-19 patients. Research is still ongoing to further elucidate the different ARDS subtypes that may exist in COVID-19. It is crucial to find new targets for treatment and support of COVID-19 patients with respiratory failure.
Description: change in oxygen saturation and PaO2/FiO2 ratio by 20% on day 6 compared to baseline values prior to Iloprost initiation.
Measure: change in oxygenation parameters Time: 5 daysDescription: likelihood to require intubation in the cohort treated with Iloprost
Measure: Rates of endotracheal intubation Time: 28 daysDescription: in days in the cohort treated with Iloprost
Measure: Invasive ventilation duration Time: 28 daysDescription: in days in the cohort treated with Iloprost
Measure: ICU length of stay Time: 28 daysDescription: in days in the cohort treated with Iloprost
Measure: Hospital Length of stay Time: 28 daysDescription: likelihood to require proning in the cohort treated with Iloprost
Measure: Rates of proning therapy Time: 28 daysDescription: likelihood to require ECMO cannulation in the cohort treated with Iloprost
Measure: Rates of ECMO cannulation Time: 28 daysDescription: likelihood to die of any cause within 28 days of initial hospital presentation
Measure: Mortality Time: 28 daysThis Phase 2 Randomized Placebo Controlled Trial will determine if administering nebulized Dornase Alpha (rhDNase) to COVID-19 patients with respiratory failure is safe and will reduce 28-day mortality.
Description: All Cause Mortality at 28 days
Measure: Mortality at 28 days Time: 28 days after enrollmentDescription: To assess the effect of Pulmozyme® on the severity of respiratory failure, systemic inflammatory response, and multi-organ failure.
Measure: Systemic Therapeutic Response Time: 5 days after enrollmentDescription: Proportion of patients alive and free of invasive mechanical ventilation at 28 days invasive mechanical ventilation at 28 days
Measure: Respiratory Response Time: 28 daysDescription: Proportion of patients alive and discharged from the ICU at 28 days discharged from the ICU at 28 days
Measure: Legnth of ICU Stay Time: 28 daysDescription: Proportion of patients alive and discharged from the hospital at 28 days
Measure: Legnth of Hospital Stay Time: 28 daysDescription: Alive, respiratory failure-free days at 28 days
Measure: Respiratory Response Time: 28 daysDescription: Pulmonary Function Ratio at 5 days
Measure: Pulmonary Function Time: 5 daysData on respiratory mechanics and gas exchange in acute respiratory failure in COVID-19 patients is limited. Knowledge of respiratory mechanics and gas exchange in COVID-19 can lead to different selection of mechanical ventilation strategy, reduce ventilator-associated lung injury and improve outcomes. The objective of the study is to evaluate the respiratory mechanics, lung recruitability and gas exchange in COVID-19 -associated acute respiratory failure during the whole course of mechanical ventilation - invasive or non-invasive.
Description: Positive end-expiratory pressure (PEEP) selection at minimum level with maximum static compliance and the highest peripheral capillary oxygen saturation over fraction of inspired oxygen (SpO2/FiO2)
Measure: Optimum positive end-expiratory pressure (PEEP) level Time: On day 1 during mechanical ventilationDescription: Positive end-expiratory pressure (PEEP) selection at minimum level with maximum static compliance and the highest peripheral capillary oxygen saturation over fraction of inspired oxygen (SpO2/FiO2)
Measure: Optimum positive end-expiratory pressure (PEEP) level Time: On day 7 during mechanical ventilationDescription: Peripheral capillary oxygen saturation (SpO2) change from 90% after recruitment maneuver (doubled tidal volume for 15 respiratory cycles) - if peripheral capillary oxygen saturation (SpO2) after recruitment maneuver more than 95%-recruitable
Measure: Number of patients with recruitable lung Time: On day 1 during mechanical ventilationDescription: Peripheral capillary oxygen saturation (SpO2) change from 90% after recruitment maneuver (doubled tidal volume for 15 respiratory cycles) - if peripheral capillary oxygen saturation (SpO2) after recruitment maneuver more than 95%-recruitable
Measure: Number of patients with recruitable lung Time: On day 7 during mechanical ventilationDescription: Calculation of the alveolar dead space using end-tidal carbon dioxide measurement and arterial carbon dioxide tension measurement
Measure: Change in alveolar dead space Time: On day 1, 3, 5, 7, 10, 14, 21 during mechanical ventilationDescription: Measurement of plethysmogram variability before and during recruitment maneuver
Measure: Change in plethysmogram variability during recruitment maneuver Time: On day 1, 3, 5, 7, 10, 14, 21 during mechanical ventilationDescription: Calculation of the arterial partial oxygen tension to inspiratory oxygen fraction (PaO2/FiO2) ratio using arterial oxygen tension measurement
Measure: Change in arterial partial oxygen tension to inspiratory oxygen fraction (PaO2/FiO2) ratio Time: On day 1, 3, 5, 7, 10, 14, 21 during mechanical ventilationDescription: Positive end-expiratory pressure (PEEP) selection at minimum level with maximum static compliance and the highest peripheral capillary oxygen saturation over fraction of inspired oxygen (SpO2/FiO2)
Measure: Optimum positive end-expiratory pressure (PEEP) level Time: On day 3, 5, 10, 14, 21 during mechanical ventilationDescription: Driving pressure calculation at different positive end-expiratory pressure (PEEP) levels (8, 10, 12, 14)
Measure: Change in driving pressure with different positive end-expiratory pressure (PEEP) levels Time: On day 1, 3, 5, 7, 10, 14, 21 during mechanical ventilationThis is a research study to see how safe and effective decidual stromal cells are in treating patients with respiratory failure (breathing problem where not enough oxygen is passed from the lungs into the blood) caused by COVID-19.
Background: Patients with COVID-19 have a range of clinical spectrum from asymptomatic infection, mild illness, moderate infection requiring supplemental oxygen and severe infection requiring intensive care support. High flow nasal cannula (HFNC) oxygen therapy and noninvasive ventilation (NIV) may offer respiratory support to patients with COVID-19 complicated by acute hypoxemic respiratory failure if conventional oxygen therapy (COT) fails to maintain satisfactory oxygenation but whether these respiratory therapies would lead to airborne viral transmission is unknown. Aims: This study examines whether SARS-2 virus can be detected in small particles in the hospital isolation rooms in patients who receive a) HFNC, b) NIV via oronasal masks and c) conventional nasal cannula for respiratory failure. Method: A field test to be performed at the Prince of Wales hospital ward 12C single bed isolation room with 12 air changes/hr on patients (n=5 for each category of respiratory therapy) with confirmed COVID-19 who require treatment for respiratory failure with a) HFNC up to 60L/min, b) NIV via oronasal masks and c) conventional nasal cannula up to 5L/min of oxygen. While the patient is on respiratory support, we would position 3 stationary devices in the isolation room (one next to each side of the bed and another at the end of the bed) of the patient with confirmed COVID-19 infection, and sample the air for four hours continuously. Results & implications: If air sampling RTPCR and viral culture is positive, this would objectively confirm that HFNC and NIV require airborne precaution by healthcare workers during application.
Description: quantitative RTPCR from air samples
Measure: detection of viral RNA from one or more participants' air samples Time: within 4 hours after starting respiratory therapyDescription: quantitative RTPCR from upper airway swab
Measure: the nasopharyngeal flocked swab and throat swab viral load (log10 copies/mL) Time: up to 2 weeksPatients with Critical COVID-19 and respiratory failure who are ineligible for enrollment in NCT04311697, who live more than 50 miles from an existing collaborating research center, or who are already hospitalized and cannot safely be transferred to a collaborating research facility may be considered for expanded access by the sponsor. Treating physicians must complete FDA Form 3396 and receive a letter of authorization from NeuroRx, along with local IRB authorization. Please refer to FDA guidance for Individual Patient Expanded Access https://www.fda.gov/media/91160/download
The latest epidemiological data published from Chine reports that up to 30% of hospital-admitted patients required admission to intensive care units (ICU). The cause for ICU admission for most patients is very severe respiratory failure; 80% of the patients present with severe acute respiratory distress syndrome (SARS) that requires protective mechanical ventilation. Five percent of patients with SARS require extracorporeal circulation (ECMO) techniques. Global mortality data has been thus far reported in different individual publications from China. Without accounting for those patients still admitted to hospital, bona fide information (from a hospital in Wuhan) received by the PI of this project estimates that mortality of hospitalized patients is more than 10%. Evidently, mortality is concentrated in patients admitted to the ICU and those patients who require mechanical ventilation and present with SARS. As data in China was globally reported, risk factors and prognosis of patients with and without SARS who require mechanical ventilation are not definitively known. The efficacy of different treatments administered empirically or based on small, observation studies is also not known. With many still admitted at the time of publication, a recent study in JAMA about 1500 patients admitted to the ICU in the region of Lombardy (Italy) reported a crude mortality rate of 25%. The data published until the current date is merely observational, prospective or retrospective. Data has not been recorded by analysis performed with artificial intelligence (machine learning) in order to report much more personalized results. Furthermore, as it concerns patients admitted to the ICU who survive, respiratory and cardiovascular consequences, as well as quality of living are completely unknown. The study further aims to investigate quality of life and different respiratory and cardiovascular outcomes at 6 months, as well as crude mortality within 1 year after discharge of patients with COVID-19 who survive following ICU admission. Lastly, with the objective to help personalize treatment in accordance with altered biological pathways in each patient, two types of studies will be performed: 1) epigenetics and 2) predictive enrichment of biomarkers in plasma. Hypothesis - A significant percentage of patients (20%) admitted to the hospital with COVID-19 infection is expected to require ICU admission, and need mechanical ventilation (80%) and, in a minor percentage (5%), ECMO. - Patients who survive an acute episode during ICU hospitalization will have a yearly accumulated mortality of 40%. Those who then survive will have respiratory consequences, cardiovascular complications and poor quality of life (6 months).
Description: People who died after one year of follow up
Measure: One year mortality Time: At 12 months of ICU admissionDescription: People who died after one year of follow up
Measure: Six month mortality Time: At 6 month of ICU admissionThe purpose of this prospective, Phase 2, multicenter, blinded, randomized placebo controlled study is to demonstrate that early treatment with mavrilimumab prevents progression of respiratory failure in patients with severe COVID-19 pneumonia and clinical and biological features of hyper-inflammation.
Description: Number of subjects alive and off of oxygen
Measure: Proportion of subjects alive and off of oxygen at day 14 Time: 14 daysDescription: Number of subjects alive and without respiratory failure
Measure: Proportion of subjects alive and without respiratory failure at 28 days Time: 28 daysThis is a randomized, randomized controlled trial to investigate the efficacy and safety of Neurokinin-1 Receptor (NK-1R) 80 mg orally given daily to treat cytokine storm causing inflammatory lung injury and respiratory failure associated with severe or critical COVID-19 infection. NK-1R is the receptor of Substance P (SP) and responsible for its functionality. Here, we propose that SP via its tachykinin receptor, NK-1R may cause inflammation in Covid-19 infection. It may initiate the cytokine storming via binding to its receptor NK-1 and many inflammatory mediators are released. If SP release is reduced by NK-1R antagonist, it may control the cytokine storming and hence the hyper-responsiveness of the respiratory tract through reduction in cytokine storming It may serve as the treatment strategy for Covid-19 infected patients. Patients fulfilling the inclusion criteria will be enrolled after giving consent. They wll be randomized to treatment with either NK-1R antagonist or placebo in addition to Dexamethasone as a standard treatment given to both groups for Covid-19 infection as per the protocol at the treating hospital. Inflammatory lab markers as detailed should be collected once per day in the morning, preferably at the same time every morning. All enrolled participants will have whole blood collected for whole genome sequencing.
The number of COVID-19 cases has been growing exponentially, so that the industrialized economies are facing a significant shortage in the number of ventilators available to meet the demands imposed by the disease. Noninvasive ventilatory support can be valuable for certain patients, avoiding tracheal intubation and its complications. However, non-invasive techniques have a high potential to generate aerosols during their implementation, especially when masks are used in which it is virtually impossible to completely prevent air leakage and the dispersion of aerosols with viral particles. In this context, a helmet-like interface system with complete sealing and respiratory isolation of the patient's head can allow the application of ventilatory support without intubation and with safety and comfort for healthcare professionals and patients. This type of device is not accessible in Brazil, nor is it available for immediate import, requiring the development of a national product. Meanwhile, a task force under the coordination of the School of Public Health (ESP) and Fundação Cearense de Apoio à Pesquisa (FUNCAP), with support from SENAI / FIEC and the Federal Universities of Ceará (UFC) and the University of Fortaleza (UNIFOR) advanced in the development of a prototype and accessory system capable of providing airway pressurization through a helmet-type interface, which was called the Elmo System.
Description: Usability test with the description of the identified problems of the main basic skills necessary for the correct handling of the non-invasive respiratory device (ELMO), through realistic simulations, severity scale and usability.
Measure: Usability tests of the Elmo system using Euristic usability principles Time: One week after all testsDescription: To evaluate the effectiveness of the Elmo system in the supportive treatment of patients with hypoxemic respiratory failure caused by COVID-19 through peripheral oxygen saturation (%) before, during and after the application of Elmo.
Measure: Evaluation of the effectiveness of the ELMO system using physiological parameters Time: One week after all testsDescription: To evaluate the effectiveness of the Elmo system in the supportive treatment of patients with hypoxemic respiratory failure caused by COVID-19 through respiratory rate (irpm) before, during and after the application of Elmo.
Measure: Evaluation of the effectiveness of the ELMO system using physiological parameters Time: One week after all testsDescription: To evaluate the effectiveness of the Elmo system in the supportive treatment of patients with hypoxemic respiratory failure caused by COVID-19 through heart rate before, during and after the application of Elmo.
Measure: Evaluation of the effectiveness of the ELMO system using physiological parameters Time: One week after all testsDescription: To evaluate the effectiveness of the Elmo system in the supportive treatment of patients with hypoxemic respiratory failure caused by COVID-19 through blood pressure before, during and after the application of Elmo.
Measure: Evaluation of the effectiveness of the ELMO system using physiological parameters Time: One week after all testsDescription: To evaluate the effectiveness of the Elmo system in the supportive treatment of patients with hypoxemic respiratory failure caused by COVID-19 through CO2 measurement at the end of exhalation (mmHg) before, during and after the application of Elmo.
Measure: Evaluation of the effectiveness of the ELMO system using physiological parameters Time: One week after all testsThe QUICK study main aim is to assess the predictive value at Day 1, of a model built on lung ultrasound (LUS) and clinical data, both recorded at hospital admission of COVID-19 patients.
Description: Area Under the Curve (AUC) of a predictive model at 24h from hospital admission (Favorable vs Unfavorable), built on LUS (12 thoracic regions) and clinical (Q-SOFA, SpiO2/FiO2) data recorded at hospital admission.
Measure: Area Under the Curve (AUC) of a predictive model built on LUS and clinical (Q-SOFA, SpiO2/FiO2) data Time: Day 1Description: Area Under the Curve (AUC) of a predictive model at 24h from hospital admission (Favorable vs Unfavorable), built on CT scan and clinical (Q-SOFA, SpiO2/FiO2) data recorded at hospital admission.
Measure: Area Under the Curve (AUC) of a predictive model built on CT scan and clinical (Q-SOFA, SpiO2/FiO2) data Time: Day 1Description: mortality
Measure: mortality Time: Day 28Coronavirus disease 2019 (COVID-19) is a novel infectious disease caused by severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2). This syndrome has been associated with high mortality, estimated to be about 1.7% of all infected in the US, though in those who develop acute respiratory distress syndrome (ARDS) in the context of the infection, mortality rates appear to be much higher, perhaps up to 70%. To avoid transmission of the virus, patient isolation has become the standard of care, with many hospitals eliminating visitors of any type, and particularly eliminating visitation to patients infected with COVID-19. These necessary, but restrictive, measures add stress to the ICU and particularly to the family members who are not only left with fear, but also many unanswered questions. In contrast to the Society of Critical Care Guidelines (SCCM) which recommend family engagement in the ICU and recent data from this study team which suggests engaging families in end-of-life situations reduces symptoms of Post-Traumatic Stress Disorder (PTSD) in family members, family members are now unable to say good-bye and unable to provide support to their loved-one throughout the process of the patients' ICU stay. The study hypothesizes is that these restrictive visiting regulations will increase rates of Post-intensive care syndrome- family (PICS-F) which includes symptoms of PTSD, depression, and anxiety and aim to evaluate for factors that either exacerbate these symptoms or protect from them.
Description: Using Impact of Events Scale-Revised-6 , family members will be screened for symptoms of PTSD. Scale returns scores of 0-24, with higher scores indicating more likely to have symptoms of PTSD
Measure: Symptoms of Post-Traumatic Stress Disorder (PTSD) Time: 90-120 days after admission of patient to the ICUDescription: Using the Hospital Anxiety and Depression Score, family members will be screened for symptoms of anxiety. The HADS anxiety scale is scored between 0 and 21, with higher scores indicating more likely to have symptoms of anxiety
Measure: Symptoms of Anxiety Time: 90-120 days after admission of patient to the ICUDescription: Using the Hospital Anxiety and Depression Score, family members will be screened for symptoms of Depression. The HADS depression scale is scored between 0 and 21, with higher scores indicating more likely to have symptoms of depression
Measure: Symptoms of Depression Time: 90-120 days after admission of patient to the ICUDescription: Using preselected questions from the Family Satisfaction in the ICU-27 questionnaire, we will survey families to evaluate their satisfaction with communication and decision making. Higher scores will indicate more satisfication
Measure: Family Satisfaction with Communication and Decision Making Time: 90-120 days after admission of patient to the ICUStudy hypothesis: Non-invasive positive pressure ventilation delivered by helmet will reduce 28-day all-cause mortality in patients with suspected or confirmed severe COVID-19 pneumonia and acute hypoxemic respiratory failure
Description: all cause mortality
Measure: 28-day all-cause mortality Time: 28 days from randomizationDescription: endotracheal intubation
Measure: Requirement for endotracheal intubation within 28 days Time: 28 days from randomizationDescription: ICU death
Measure: ICU mortality Time: 180 days from randomizationDescription: hospital death
Measure: Hospital mortality Time: 180 days from randomizationDescription: days not in ICU
Measure: ICU free days at day 28 Time: 28 days from randomizationDescription: days without ventilator support
Measure: Ventilator free days at day 28 Time: 28 days from randomizationDescription: days without renal replacement therapy received
Measure: Renal replacement therapy free days at day 28 Time: 28 days from randomizationDescription: days without vasopressor support
Measure: Vasopressor free days at day 28 Time: 28 days from randomizationDescription: presence of pressure ulcers
Measure: Skin pressure ulcers Time: 28 days from randomizationDescription: tolerance to intervention
Measure: Tolerance of helmet (>1-hour use) Time: 28 days from randomizationDescription: vital status
Measure: 180-day mortality Time: 180 days from randomizationDescription: The descriptive system comprises five dimensions: mobility, self-care, usual activities, pain/discomfort and anxiety/depression. Each dimension has 5 levels: no problems, slight problems, moderate problems, severe problems and extreme problems.
Measure: 180-day 5-level EQ-5D version Time: 180 days from randomizationThis study assesses the clinical effectiveness of mammalian target of rapamycin (mTOR) inhibition with rapamycin in minimizing or decreasing the severity of acute lung injury/acute respiratory distress syndrome (ALI/ARDS) in participants infected with mild to moderate COVID-19 virus.
Description: The proportion of participants who survive without respiratory failure
Measure: Survival rate Time: 4 weeksDescription: The WHO ordinal scale is a measure of clinical improvement using a scale score of 0-8, where 0 indicates a better outcome and 8 indicates death: Uninfected, no clinical oor virological evidence of infection 0 Ambulatory, no limitation of activities 1 Ambulatory, limitation of activities 2 Hospitalized Mild disease, no oxygen therapy 3 Hospitalized mild disease, oxygen by mask or nasal prongs 4 Hospitalized Severe Disease, non-invasive ventilation 5 Hospitalized severe disease, intubation and mechanical ventilation 6 Hospitalized severe disease, ventilation+organ support 7 Death 8
Measure: Change in Clinical Status assessed by the World Health Organization (WHO) scale Time: Baseline to 4 weeksDescription: An ordinal scale for clinical improvement scored from 1 to 8, where 1 represents death and 8 represents recovery to discharge from hospital with no limitation on activities: Death (1) Hospitalized, on invasive mechanical ventilation of extracorporeal membrane oxygenation (ECMO) (2) Hospitalized, on non-invasive ventilation or high flow oxygen devices (3) Hospitalized, requiring supplemental oxygen (4) Hospitalized, not requiring supplemental oxygen or ongoing medical care (6) Not hospitalized, limitation on activities &/or requiring supplemental home oxygen (7) Not hospitalized, no limitation on activities (8)
Measure: Change in Clinical Status assessed by the National Institute of Allergy and Infectious Disease (NIAID) scale Time: Baseline to 4 weeksDescription: Total number of deaths during the study period
Measure: All cause mortality Time: 4 weeksDescription: Number of days on ECMO
Measure: Duration of ECMO Time: Up to 4 weeksDescription: Number of days participants are on supplemental oxygen
Measure: Duration of supplemental oxygen Time: Up to 4 weeksDescription: Days of hospitalization
Measure: Length of hospital stay Time: Up to 4 weeksDescription: Number of days until there is a negative response to the reverse transcriptase-polymerase chain reaction test (RT-PCR)
Measure: Length of time to SARS-CoV2 negativity Time: Up to 4 weeksThe purpose of this prospective, Phase 2, multicenter, blinded, randomized placebo controlled study is to demonstrate that early treatment with mavrilimumab prevents progression of respiratory failure in patients with severe COVID-19 pneumonia and clinical and biological features of hyper-inflammation.
Description: Proportion of subjects alive and off oxygen at day14
Measure: Primary Outcome Measure: Time: Day 14Description: Proportion of subjects alive and without respiratory failure at 28 days
Measure: Secondary Outcome Measures: Time: 28 daysThis is a placebo-controlled, double blind, randomized, Phase II dose escalation study intended to evaluate the potential safety and efficacy of tenecteplase for the treatment of COVID-19 associated respiratory failure. The hypothesis is that administration of the drug, in conjunction with heparin anticoagulation, will improve patients' clinical outcomes.
Description: The number of patients free of respiratory failure defined as not requiring high flow nasal cannula, non-rebreather, noninvasive positive pressure ventilation, or mechanical ventilation at 28 days
Measure: Number of participants free of respiratory failure Time: 28 DaysDescription: Safety as assessed by number of occurrences of intracranial bleeding or major bleeding
Measure: Number of occurrences of bleeding Time: 28 daysDescription: Respiratory failure-free defined as not requiring high flow nasal cannula, non-rebreather, noninvasive positive pressure ventilation, or mechanical ventilation
Measure: Number of respiratory failure-free days Time: 28 daysDescription: The P/F ratio equals the arterial pO2 ("P") from the ABG divided by the FIO2 ("F") - the fraction (percent) of inspired oxygen that the patient is receiving expressed as a decimal (40% oxygen = FIO2 of 0.40).
Measure: P/F ratio at 24 hours Time: 24 hoursDescription: The P/F ratio equals the arterial pO2 ("P") from the ABG divided by the FIO2 ("F") - the fraction (percent) of inspired oxygen that the patient is receiving expressed as a decimal (40% oxygen = FIO2 of 0.40).
Measure: P/F ratio at 72 hours Time: 72 hoursRationale: The renin-angiotensin-aldosterone system (RAAS) dysregulation may play a central role in the pathophysiology of Severe Acute Respiratory Syndrome Coronavirus 2 (SARS-CoV-2) infection associated acute lung injury (ALI) / acute respiratory distress syndrome (ARDS). In the RAAS, Angiotensin I (Ang I) is converted to angiotensin II (Ang II) by angiotensin converting enzyme (ACE). Ang II mediates vasoconstrictive, pro-inflammatory and pro-oxidative effects through agonism at Ang II type 1 receptor (AT1R). ACE2 converts Ang II to angiotensin 1-7 (Ang1-7), which finally binds to Mas receptor (MasR) and mediates many beneficial actions, including vasodilation and anti-inflammatory, anti-oxidant and antiapoptotic effects. ACE2, a homologue of ACE, is an integral cell membrane protein with a catalytic domain on the extracellular surface exposed to vasoactive peptides. SARS-CoV-2 penetrates the cell through ACE2, and the increase of this receptor (due to the use of ACE inhibitors or angiotensin receptor blockers [ARBs]) may facilitate SARS-CoV-2 infection, which might increase the risk of developing severe and fatal SARS-CoV-2 infection. However, through upregulation of ACE2, ACE inhibitors/ARBs can exert anti-inflammatory and antioxidative effects, which may be beneficial in preventing ALI and ARDS. Objective: To evaluate the effectiveness and safety of telmisartan in respiratory failure due to COVID-19. Study design: This is an open label, phase 2 clinical trial. Study population: Adult hospitalized SARS-CoV-2-infected patients (n=60). Intervention: The active-treatment arm will receive telmisartan 40 mg daily and the control arm will receive standard care. Treatment duration will be 14 days or up to hospital discharge <14 days or occurrence of the primary endpoint if <14 days. Main study endpoint: The primary study endpoint is the occurrence within 14 days of randomization of either: 1) Mechanical ventilation or 2) Death.
Description: Death is defined as all-cause mortality
Measure: Death Time: Within 30 daysDescription: Occurrence of mechanical ventilation
Measure: Mechanical ventilation Time: Within 14 daysDescription: Defined as a 50% decline in estimated glomerular filtration rate relative to baseline, or decrease of >30 ml/min/1.73m2 and to a value below 60 ml/min/1.73m2
Measure: Occurrence of acute kidney injury Time: Within 14 daysDescription: Incidence of episodes of blood pressure less than 90 mm Hg systolic or 60 mm Hg diastolic
Measure: Incidence of hypotension Time: Within 14 daysDescription: Outcome reported as the number of participants in each arm requiring the use of vasopressors for hypotension
Measure: Incidence of hypotension requiring vasopressors Time: Within 14 daysDescription: Outcome reported as the number of participants in each arm who experience sepsis, defined as the presence of at least 2 of the following clinical criteria together (qSOFA score): respiratory rate of 22/min or greater, altered mentation, or systolic blood pressure of 100 mm Hg or less
Measure: Incidence of Sepsis Time: Within 14 daysDescription: Hospital length of stay (days)
Measure: Hospital length of stay Time: Within 14 daysThe purpose of this study is to gather information to help doctors understand how Covid-19 affects the lungs in children.
Description: Numerical data
Measure: Transpulmonary pressure Time: Through study complication, usually 2 weeksEvaluation of the efficacy and safety of Treatments for Patients Hospitalized for COVID-19 Infection without signs of acute respiratory failure, in Tunisia Multicentric Randomized Comparative Study
Description: The healing criteria are defined clinically as: disappearance of clinical signs of acute respiratory infection absence of fever
Measure: Evaluate the rate of patients cured at the end of the study. Time: 2 monthsDescription: A patient will be defined as pauci-symptomatic if presence: Light dry cough Discomfort, More or less : Headache, Muscle pain
Measure: Evaluate the rate of patients are pauci-symptomatic at the end of the study. Time: 2 monthsDescription: Patients require transfer to intensive care with the appearance of: Acute respiratory failure: PaO2 <60 mmHg in AA gold Signs of circulatory insufficiency: mottling, tachycardia, systolic BP ≤90mmHg or having dropped by 40 mmHg compared to base BP or Confusion or alteration of the state of consciousness
Measure: Evaluate the rate of patients with worsening clinical signs Time: 2 monthsAutomated quantification of the pulmonary volume impaired during acute respiratory failure could be helpful to assess patient severity during COVID-19 infection or perioperative medicine, for example. This study aim at assessing the correlation between the amount of radiologic pulmonary alteration and the clinical severity in two clinical situation : 1. SARS-CoV-2 infections 2. Postoperative hypoxemic acute respiratory failure
The investigators aim to achieve experts consensus on respiratory interventions in management of COVID-19 related acute respiratory failure (C-ARF).
Description: Survey Questionnaire containing seven point Likert scale and multiple choice questions.
Measure: Consensus using participating experts opinions. Time: 20 daysPatients are part of a family network. When any person in a family becomes critically unwell and requires the assistance of an Intensive Care Unit (ICU), this has an impact on all members of that family. COVID-19 changed visiting for all patients in hospitals across Scotland. It is not known what effect these restrictions will have on patients' recovery, nor do we understand the impact it may have on their relatives or staff caring for them. This study will look at the implications of the visiting restrictions as a consequence of the COVID-19 pandemic upon patients without COVID-19 who are in the cardiothoracic ICU. It will also explore the impact of these restrictions on them, their relatives and staff. This study will be carried out within a single specialised intensive care unit in Scotland using mixed methods. The first arm of this study will use retrospective data that is routinely collected in normal clinical practice. The investigators will compare patient outcomes prior to COVID-19 with outcomes following the implementation of COVID-19 visiting restrictions. The aim is to establish if the restrictions on visiting has an impact on the duration of delirium. Delirium is an acute mental confusion and is associated with longer hospital stays and worse outcomes in this patient group. The second arm of this study involves semi-structured interviews with patients, relatives and staff that will allow deeper exploration of the issues around current visiting policy. The interviews will last approximately 1 hour and will address these issues. They will then be transcribed word for word and analysed using grounded theory, meaning the theories will develop from the data as it is analysed.
Description: Number of days patient found to have delirium using the Confusion Assessment Method for the ICU (CAM-ICU)
Measure: Duration of delirium Time: From the date of admission to the Intensive Care Unit (ICU) until discharge from the ICU or death, whichever came first, up to 12 months.Description: CAM-ICU
Measure: Incidence of delirium Time: From the date of admission to the Intensive Care Unit (ICU) until discharge from the ICU or death, whichever came first, up to 12 months.Description: Days
Measure: Length of critical care stay Time: From the date of admission to the ICU until discharge from the ICU or death, whichever came first, up to 12 months.Description: Days
Measure: Length of hospital stay Time: From the date of admission to the hospital until discharge from the hospital or death, whichever came first, up to 12 months.Description: Days
Measure: Length of time ventilated Time: From the date of admission to the ICU until discharge from the ICU or death, whichever came first, up to 12 months.Description: Semi structured interviews
Measure: Exploring the experiences of patients, relatives and staff of the visitation restrictions during the COVID-19 pandemic Time: 18 monthsRecent observations have suggested a role of neutrophil extracellular traps (NETs) in the pathophysiology of severe COVID-19. The aim of the study is to assess efficacy and safety of aerosolized DNase I to remove NETs and decrease respiratory distress in patients with COVID-19.
Description: Number of Days to cessation of oxygen therapy after start of treatment
Measure: Time to cessation of oxygen therapy DNase I to that of placebo (NaCl, 0.9%) on time to cessation of oxygen therapy hospitalized patients with COVID-19 and respiratory dysfunction. Time: 28 daysDescription: Number of diseased patients up to 28 Days after start of treatment
Measure: 28-day mortality Time: 28 daysDescription: Number of Days alive and without ventilator treatment up to 28 Days after start of treatment
Measure: Number of Days alive and without ventilator treatment Time: 28 daysDescription: Number of Days alive and without high flow nasal oxygen treatment (Optiflow) up to 28 Days after start of treatment
Measure: Number of Days alive and without high flow nasal oxygen treatment (Optiflow) Time: 28 daysDescription: Number of Days alive and free of stay in the ICU up to 28 Days after start of treatment
Measure: Number of Days alive and free of stay in the ICU Time: 28 daysDescription: Number of Days alive and outside hospital up to 28 Days after start of treatment
Measure: Number of Days alive and outside hospital Time: 28 daysDescription: Number of Days alive and free of a new episode and with oxygen saturation ≤93% after primary endpoint has been met up to 28 Days after start of treatment
Measure: Number of Days alive and free of a new episode and with oxygen saturation ≤93% after primary endpoint has been met Time: 28 daysDescription: Number of Days alive and without need of supplemental oxygen up to 28 Days after start of treatment
Measure: Number of Days alive and without need of supplemental oxygen Time: 28 daysDescription: Number of patients with adverse reactions reported up to 28 Days after start of treatment
Measure: Number of patients with adverse reactions Time: 28 daysThe main manifestation of COVID-19 is acute hypoxemic respiratory failure (AHRF). In patients with AHRF, the need for invasive mechanical ventilation is associated with high mortality. Prone positioning (PP) is a recommended strategy for patients with moderate to severe acute respiratory distress syndrome (ARDS) undergoing invasive mechanical ventilation. Early PP combined with High Flow Oxygen Therapy may benefit spontaneous breathing patients with AHRF due to COVID-19 as recently reported in Jiangsu. Our hypothesis is that early PP combined with High Flow Oxygen Therapy in patients with AHRF due to COVID-19 improves oxygenation.
Description: Oxygenation will be evaluated by the [PaO2 / FiO2] ratio, measured at the beginning (baseline) and at the end of each 2h-sequence by arterial gasometry. The values of this ratio in PP and SP will be compared with each other.
Measure: [PaO2 / FiO2] ratio Time: 6 hoursDescription: ΔPeso (cm H2O): defined at each inspiratory cycle as the difference between the esophageal pressure at the end of expiration and at the end of inspiration.
Measure: ΔPeso measured using an esophageal balloon catheter Time: 6 hoursDescription: Capnometry measurements by breathing on a mouthpiece connected to an online analyzer. The measurements will be made on a 2 min recording (analysis of the curves over a period of 1 min) at the end of each sequence (PP or SP) and compared with each other.
Measure: Concentration of CO2 at the end of expiration (EtCO2, mmHg) Time: 6 hoursDescription: assessed by the visual analogue scale for dyspnea (collected at the beginning and at the end of each 2h sequence; the values at the end of each sequence will be compared with each other): 0 = no breathlessness to 10 = worst breathlessness possible
Measure: Intensity of dyspnea Time: 6 hoursDescription: measured by the visual analogue scale for pain (collected at the beginning and at the end of each 2h-sequence; the values at the end of each sequence will be compared with each other): 0 = no pain to 10 = worst pain possible
Measure: Tolerance of the technique Time: 6 hoursDescription: measured by the visual analogue scale for discomfort (collected at the beginning and at the end of each 2h-sequence; the values at the end of each sequence will be compared with each other): 0 = no discomfort to 10 = worst discomfort possible
Measure: Tolerance of the technique Time: 6 hoursDescription: Oxygen desaturation (SaO2 <90%), occurrence of hemodynamic instability (Systolic blood pressure <80 mmHg or heart rate >120 mmHg for >1 minute), accidental withdrawal of venous catheter central or peripheral, accidental withdrawal of arterial catheter, accidental withdrawal of urinary catheter.
Measure: The occurrence of side effects due to PP Time: 6 hoursBackground: There are no proven therapies specific for pulmonary dysfunction in patients with acute hypoxemic respiratory failure (AHRF) caused by infections (including Covid-19). The full spectrum of AHRF ranges from mild respiratory tract illness to severe pneumonia, acute respiratory distress syndrome (ARDS), multiorgan failure, and death. The efficacy of corticosteroids in AHRF and ARDS caused by infections remains controversial. Methods: This is a multicenter, randomized, controlled, open-label clinical trial testing dexamethasone in mechanically ventilated adult patients with established AHRF (including ARDS) caused by confirmed pulmonary or systemic infections, admitted in a network of Spanish ICUs. Eligible patients will be randomly assigned to receive dexamethasone: either 6 mg/d x 10 days or 20 mg/d x 5 days followed by 10 mg/d x 5 days. The primary outcome is 60-day mortality. The secondary outcome is the number of ventilator-free days at 28 days. All analyses will be done according to the intention-to-treat principle.
Description: All-cause mortality at 60 days after randomization
Measure: 60-day mortality Time: 60 daysDescription: Number of ventilator-free days (VFDs) at Day 28 (defined as days being alive and free from mechanical ventilation at day 28 after randomization. For patients ventilated 28 days or longer and for subjects who die, VFD is 0.
Measure: Ventilator-free days Time: 28 daysThis meta-trial is a prospective collaborative individual participant data meta-analysis of randomised controlled trials and early phase studies. Individual studies will take place in multiple countries, including Australia, Ireland, the USA, Spain and the UK. Mechanically ventilated patients with confirmed or strongly suspected SARS-CoV-2 infection, hypoxaemia and an acute pulmonary opacity in at least one lung quadrant on chest X-ray, will be randomised to nebulised heparin 25,000 Units every 6 hours or standard care (open label studies) or placebo (blinded placebo controlled studies) for up to 10 days while mechanically ventilated. All trials will collect a minimum core dataset. The primary outcome for the meta-trial is the hierarchical composite endpoint the Alive and Ventilator Free Score at day 28. Individual studies may have specific outcome measures in addition to the core set.
Description: Validated hierarchical composite endpoint, based on mortality and ventilator free days, which is less prone to favour a treatment with discordant effects on survival and days free of ventilation.
Measure: Alive and Ventilator Free Score Time: Day 28This study aims to determine if a strategy of recommending prone (on stomach) positioning of patients positive or suspected positive for coronavirus disease 2019 (COVID-19) requiring supplemental oxygen, but not mechanically ventilated, Is feasible in the inpatient setting. This study will be performed as a pragmatic pilot clinical trial to gain information relevant to the future conduct of a larger trial.
Description: Average oxygen saturation to fraction of inspired oxygen ratio
Measure: Average S/F ratio Time: 48 hours from eligibilityDescription: Time spent with oxygenation saturation to fraction of inspired oxygen ratio less than 315
Measure: Time spent with S/F ratio < 315 Time: 48 hours from eligibilityDescription: Highest level of supplemental oxygen required
Measure: Highest oxygen support Time: 48 hours from eligibilityDescription: Number of patients requiring ICU admission during study period
Measure: Number of patients requiring ICU admission during study period Time: 48 hours from eligibilityDescription: Number of patients requiring ICU admission during hospitalization
Measure: Number of patients requiring ICU admission during hospitalization Time: through study completion, Up to 30 daysDescription: Number of patients who die prior to hospital discharge
Measure: Number of patients experiencing who die prior to discharge Time: through study completion, Up to 30 daysDescription: Number of patients requiring intubation
Measure: Number of patients requiring intubation Time: 48 hours From eligibilityDescription: Number of days from hospital admission to discharge
Measure: Hospital length of stay Time: through study completion, Up to 30 daysThe main purpose of this study is to identify possible predictor factor of mortality in patients affected by COVID-19 with respiratory failure needing oxygen therapy or ventilatory support. In addiction the study aims to identify factors related to: predisposition to SARS-CoV2 viral infection, different symptoms, response to therapy, predisposition to complications related to the disease. To this end, the haemodynamic parameters and all imaging reports will be evaluated and clinical and laboratory tests as well as cellular and molecular analyzes will be performed in the analyzed patients. In addition, investigations will be carried out on the profile of the alveolar or nasal microbiota and, if possible, of the metabolic products, and estimates on antibody titers.
The principal objective of the CONFIDENT trial is to assess the efficacy of two units (400-500 mL in total) of convalescent plasma, as compared to Standard of Care (SoC), to reduce day-28 mortality in patients with SARS-CoV-2 pneumonia who require mechanical ventilation.
Description: dead or alive
Measure: Vital status Time: at day 28Description: dead or alive
Measure: day 90 mortality Time: at day 90Description: to assess the ventilator free days
Measure: number of ventilator-free days at day 28 Time: at day 28Description: to assess the number of renal replacement therapy free days
Measure: number of renal replacement therapy free days at day 28 Time: at day 28Description: to assess the number of vasopressors free-days
Measure: number of vasopressors free-days at day 28 Time: at day 28Description: to assess if ECMO was required
Measure: use of ECMO before day 28 Time: till day 28Description: to assess the value of SOFA score
Measure: value of the SOFA score at days 7, 14 and 28 Time: Day 1, 7, 14, 28Description: to assess the changes in SOFA scores (delta SOFA)
Measure: changes in SOFA scores (delta SOFA) over 7, 14 and 28 days Time: Day 7, 14 and 28 daysDescription: assessment of the SARS-CoV-2 viral load, expressed as cycle threshold, [2] in the tracheal aspirates (for intubated patients) or nasopharyngeal swabs (for extubated patients) at days 7, 14 and 28
Measure: assessment of the SARS-CoV-2 viral load Time: Days 7, 14 and 28Description: to assess the concentrations of C reactive protein (CRP)
Measure: blood C reactive protein (CRP) concentration Time: Days 7, 14 and 28Description: to assess the concentration of ferritin
Measure: ferritin concentration Time: Days 7, 14 and 28Description: to assess the count of lymphocyte
Measure: lymphocyte count Time: Days 7, 14 and 28Description: to assess the lenght of stay in the acute care
Measure: length of stay in the acute care hospital Time: through study completion, 1 yearDescription: to assess the location of the patient : acute care hospital, post acute care hospital, long-term residency, home
Measure: location of the patient Time: Day 90Description: to assess the Activity Day Living functional Min value: 0 = Low (patient very dependent) Max value: 6 = High (patient independent)
Measure: Katz Index of independence in Activity Day Living functional score Time: Day 90 and 365Description: to evaluate the anxiety-depression For each item 0-7 : Normal 8-10 : Bordeline abnormal (borderline case) 11-21 : Abnormal case
Measure: Hospital Anxiety and Depression Scale (HADS) Time: Day 90 and 365Description: The EQ-5D-5L is composed of - the EQ-5D-5L descriptive system and the EQ Visual Analogue scale (EQ VAS). The descriptive system comprises 5 dimensions (mobility, self care, usual activities, pain/discomfort, anxiety/depression). Each dimension has 5 levels: no problems, slight problems, moderate problems, severe problems, and extreme problems. Each level corresponds to 1-digit number expressing the level selected for that dimension. The EQ VAS corresponds to a 20 cm vertical, visual analogue scale raging from 'the best health you can imagine' to 'the worst health you can imagine'.
Measure: Quality of life scale EQ-5D-5L Time: Day 90 and 365Description: to assess the transfusion related adverse events
Measure: Transfusion related adverse events Time: till 28 daysPatients with coronavirus disease (COVID-19) and pneumonitis often have hypoxemic respiratory failure and a need of supplementary oxygen. Guidelines recommend controlled oxygen, for most patients with a recommended interval of SpO2 between 92 and 96 %. We aimed to determine if closed-loop control of oxygen was feasible in patients with COVID-19 and could maintain SpO2 in the specified interval.
Description: Time in SpO2 target of 92-96 %
Measure: Time in SpO2 target Time: 1 weekDescription: Time with SpO2 not more than 2 % outside target
Measure: Time with SpO2 not more than 2 % outside target Time: 1 weekDescription: Time with SpO2 more than 2 % outside target
Measure: Time with SpO2 more than 2 % outside target Time: 1 weekDescription: Time with SpO2 < 85 %
Measure: Time with SpO2 < 85 % Time: 1 weekContagious disease outbreaks, such as the coronavirus disease 2019 (COVID-19) outbreak, and associated restrictions to prevent spread can lead to negative psychological outcomes, including loneliness, depression, and anxiety, particularly in vulnerable populations at risk due to existing medical conditions. To date, no randomized controlled trials have tested interventions to reduce mental health consequences of contagious disease outbreaks. Systemic sclerosis (SSc; scleroderma) is a rare, chronic, autoimmune disease characterized by vasculopathy and excessive collagen production. Systemic Sclerosis can affect multiple organ systems, including the skin, lungs, gastrointestinal tract, and heart. Many people with scleroderma are at risk of serious complications from COVID-19 if infected due to lung involvement (> 40% have interstitial lung disease) and common use of immunosuppressant drugs. The objective of The Scleroderma Patient-centered Intervention Network COVID-19 Home-isolation Activities Together (SPIN-CHAT) Trial is to evaluate a videoconference-based intervention designed to improve symptoms of anxiety and other mental health outcomes among individuals with systemic sclerosis at risk of poor mental health during the COVID-19 pandemic. The trial is a pragmatic randomized controlled trial that will be conducted using an existing cohort of systemic sclerosis patients. We will use a partially nested design to reflect dependence between individuals in training groups but not in the waitlist control. The SPIN-CHAT Program includes activity engagement, education on strategies to support mental health, and mutual participant support.
Description: The PROMIS Anxiety 4a v1.0 is a 4 item scale that asks participants, in the past 7 days, how often: (1) "I felt fearful"; (2) "I found it hard to focus on anything other than my anxiety"; (3) "My worries overwhelmed me"; and (4) "I felt uneasy". Items are scored on a 5-point scale (range 1-5), and response options include "never", "rarely", "sometimes", "often", and "always". Higher scores represent more anxiety. PROMIS Anxiety 4a v1.0 has been validated in SSc.
Measure: Anxiety: Patient-Reported Outcomes Measurement Information System (PROMIS) Anxiety 4a v1.0 Time: 4-weeks post-randomizationDescription: The PROMIS Anxiety 4a v1.0 is a 4 item scale that asks participants, in the past 7 days, how often: (1) "I felt fearful"; (2) "I found it hard to focus on anything other than my anxiety"; (3) "My worries overwhelmed me"; and (4) "I felt uneasy". Items are scored on a 5-point scale (range 1-5), and response options include "never", "rarely", "sometimes", "often", and "always". Higher scores represent more anxiety. PROMIS Anxiety 4a v1.0 has been validated in SSc.
Measure: Anxiety: Patient-Reported Outcomes Measurement Information System (PROMIS) Anxiety 4a v1.0 Time: 10-weeks post-randomizationDescription: PHQ-8 items measure depressive symptoms over the last 2 weeks on a 4-point scale, ranging from 0 (not at all) to 3 (nearly every day) with higher scores (range 0 to 24) indicating more depressive symptoms. The PHQ-8 performs equivalently to the PHQ-9, which has been shown to be a valid measure of depressive symptoms in patients with scleroderma.
Measure: Depression symptoms: Patient Health Questionnaire (PHQ-8) Time: 4-weeks post-randomization, 10-weeks post-randomizationDescription: The 6-item ULS-6 is a short version of the 20-item ULS, which is designed to assess subjective feelings of loneliness and social isolation. Respondents indicate the degree to which feelings described in each item apply to them. Items are scored on a 4-point scale from 0 (never) to 3 (often); total scores range from 0 to 18.
Measure: Loneliness: University of California, Los Angeles (UCLA) Loneliness Scale (ULS-6) Time: 4-weeks post-randomization, 10-weeks post-randomizationDescription: The full MSBS is a 29-item measure of state boredom with items on five factors that load onto a single higher-order factor. The 8-item MSBS is a short version with scores that correlate very closely to scores from the full MSBS (r = 0.96) Item responses are on a 7-point Likert-type scale from 1 (strongly disagree) to 7 (strongly agree) and assess the degree to which each item reflects the respondant's experience currently. Total scores range from 8 to 56 with higher scores reflecting greater boredom.
Measure: Boredom: Multidimensional State Boredom Scale (MSBS-8) Time: 4-weeks post-randomization, 10-weeks post-randomizationDescription: The 4-item IPAQ-E is a short-form version of the full IPAQ designed to assess physical activity over the last week, including time spent sitting, walking, and in moderate and vigorous physical activity. Compared to other short-form versions of the IPAQ, the IPAQ-E has examples of exercise specific to older adults.
Measure: Physical activity: International Physical Activity Questionnaire - modified for the elderly (IPAQ-E) Time: 4-weeks post-randomization, 10-weeks post-randomizationDescription: Adverse Effects will be assessed by ongoing monitoring during the trial and by asking participants post-intervention to describe any adverse experiences or outcomes that may have occurred.
Measure: Adverse Effects Time: 4-weeks post-randomization, 10-weeks post-randomizationDescription: The COVID-19 Fears Questionnaire for Chronic Medical Conditions is a 10-item scale that ask participants to rate, on a typical day in the last week, how much they were afraid from "not at all" to "extremely" about aspects of COVID-19. Items are scored on a 5-point scale (range 1-5). Higher scores represent greater fear. The scale has been validated among people with scleroderma.
Measure: Fear: COVID-19 Fears Questionnaire for Chronic Medical Conditions Time: 4-weeks post-randomization, 10-weeks post-randomizationAlphabetical listing of all HPO terms. Navigate: Correlations Clinical Trials
Data processed on September 26, 2020.
An HTML report was created for each of the unique drugs, MeSH, and HPO terms associated with COVID-19 clinical trials. Each report contains a list of either the drug, the MeSH terms, or the HPO terms. All of the terms in a category are displayed on the left-hand side of the report to enable easy navigation, and the reports contain a list of correlated drugs, MeSH, and HPO terms. Further, all reports contain the details of the clinical trials in which the term is referenced. Every clinical trial report shows the mapped HPO and MeSH terms, which are also hyperlinked. Related HPO terms, with their associated genes, protein mutations, and SNPs are also referenced in the report.
Drug Reports MeSH Reports HPO Reports