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Ivermectin, Aspirin, Dexamethasone and Enoxaparin as Treatment of Covid 19

Evaluation of Ivermectin, Aspirin, Dexamethasone and Enoxaparin as Treatment of covid19

Status
Completed
Phases
Unknown
Study type
Observational
Source
ClinicalTrials.gov
Registry ID
NCT04425863
Acronym
IDEA
Enrollment
167
Registered
2020-06-11
Start date
2020-05-01
Completion date
2020-08-30
Last updated
2020-10-19

For informational purposes only — not medical advice. Sourced from public registries and may not reflect the latest updates. Terms

Conditions

Severe Acute Respiratory Syndrome, Ventilation Pneumonitis

Keywords

COVID 19 IVERMECTIN ASPIRIN DEXAMETASONE ENOXAPARIN

Brief summary

The associated use of Ivermectin, aspirin, dexamethasone, and enoxaparin (in different combinations and doses) will reduce the impact of COVID infection 19, the need of admission to the intensive care unit, and mortality.

Detailed description

Between 30 and 50% of patients who contract COVID 19 will be asymptomatic or oligosymptomatic. This fact will not give rise to the consult, and will directly affect a notorious sub-registration of the cases. The second, even more disturbing, premise is that these patients are as contagious as the moderate and severe cases. The virus incubation period has been calculated at 5.1 days (95% CI, 4.5 to 5.8 days), and 97.5% of patients are said to have symptoms at 11 days (95% CI 8.2 to 15.6 days). A mortality of 5.7% has been calculated. The average COVID patient presents with fever (78%), cough (60-79%) and myalgias or fatigue (35.8 to 44%). 55% develop dyspnea, which appears on average 8 days after the onset of symptoms. To the manifestations expressed above, the presence of bilateral conjunctival injection should be added, without associated secretions, hypogeusia, skin rash and hyposmia. Diagnostic confirmation is made through laboratory studies, which can be performed on a wide variety of biological samples. Bronchoalveolar lavage samples showed the highest sensitivity (93%), followed by sputum samples (72%), nasal swabs (63%), fiberoptic brush biopsy (46%), pharyngeal swabs (32%), feces ( 29%) and, finally, blood (1%). A sensitivity of 91% is reported in saliva samples. Evidence suggests that a subgroup of patients with severe forms of COVID 19 may have cytokine storm syndrome. Therefore, we recommend the identification and treatment of hyperinflammation using existing approved therapies with proven safety profiles to address the immediate need to reduce increasing mortality (see Therapeutic Proposal). Secondary hemophagocytic lymphohistiocytosis (SHLH) is a poorly recognized hyperinflammatory syndrome characterized by fatal and fulminant hypercytokinemia with multiple organ failure. In adults, SHLH is most often triggered by viral infections, and occurs in 3.7-4.3% of sepsis cases. The cardinal features of sHLH include constant fever, cytopenias, and hyperferritinemia; Pulmonary involvement (including ARDS) occurs in approximately 50% of patients. A cytokine profile that resembles sHLH is associated with the severity of COVID-19 disease, characterized by an increase in interleukin (IL) -2, IL-7, granulocyte colony stimulating factor, protein 10 inducible by interferon-γ, monocyte chemoattractant protein, macrophage inflammatory protein 1-α and tumor necrosis factor-α. Mortality predictors from a recent multicenter retrospective study of 150 confirmed cases of COVID-19 in Wuhan, China included elevated ferritin (mean 1297.6 ng / ml in non-survivors versus 614.0 ng / ml in survivors; p \<0.001) and IL-6 (p \<0.0001), suggesting that mortality could be due to viral hyperinflammation. However, cases have been reported where tissue and organ involvement has been found whose concentration of ACE receptors is very dissimilar (myocardium, brain). In all of them, the common denominator was small vessel thrombosis, as seen in entities such as Catastrophic Antiphospholidic Syndrome. Currently the Virchow triad factors have been narrowed down in more detail: Circulatory stasis: abnormalities of hemorrheology and turbulence in vascular bifurcations and stenotic regions. Injury to the vascular wall: abnormalities in the endothelium, such as atherosclerosis and associated vascular inflammation. Hypercoagulable state: abnormalities in the coagulation and fibrinolytic pathways and in platelet function associated with an increased risk of VTE and other cardiovascular diseases (such as coronary artery disease \[CPA\], heart failure and stroke in patients with AF). All lead to a state of hypercoagulability, which could explain the formation of microthrombosis in different locations, as has been repeatedly reported in patients with COVID 19. BASES OF THE PROPOSED THERAPEUTICS They rest on four pillars: Ivermectin, Aspirin, Dexamentasone and Enoxaparin. IVERMECTIN Ivermectin is a broad-spectrum antiparasitic, with vermicidal and ectoparasiticidal properties. It was discovered and marketed for animal use in the early 1980s. Approved in 1997 by the FDA for single-dose strongyllidiasis of 200 mcg / kg and crusted scabies (Scabies Norway) in patients with AIDS at a dose of 200 mcg / kg, every week for 2 weeks. In Argentina, it has been available for human use for almost 20 years. But, much more recently, its viricidal effects have been compiled on different varieties of flavivirus, dengue, Zica, Chikunguña, etc. Ivermectin has been reported to be a SARS-CoV-2 inhibitor. This activity is believed to be due to the dependence of many different RNA viruses on IMPα / β1 during infection. These reports suggested that the inhibitory activity of ivermectin nuclear transport may be effective against SARS-CoV-2, since they demonstrate that ivermectin has antiviral action against the clinical isolate of SARS-CoV-2 in vitro, with a single dose capable to control viral replication in 24-48 hours. in vitro. Although in vitro studies have used doses that -extrapolated to those recommended in the treatment of ectoparasitosis in humans- might seem high, the truth is that studies carried out in healthy volunteers, more than two decades ago, proved that the usual doses they can be increased tenfold, without significant side and / or adverse effects. ASPIRIN Aspirin is the common name for acetylsalicylic acid. The chemical production is based on the salicylic acid obtained by synthesis. Its most common uses and for what it was first used was as an analgesic (for pain), antipyretic (to lower fever) and anti-inflammatory. It is classified as a non-steroidal anti-inflammatory drug (NSAID). In 1989 the first large study was published that proved that Aspirin reduces cardiovascular risk, acting as an antiplatelet agent. These were low-dose Aspirin, and the risk of myocardial infarction was found to decrease by 44% when the previously named dose of Aspirin was administered. HEPARIN AND ENOXAPARIN Heparins are injectable anticoagulant substances. A distinction should be made between standard heparin or unfractionated heparin (HNF) and low molecular weight heparins (LMWH). HNF is made up of a heterogeneous mixture of polysaccharide chains of variable length. LMWHs are the result of fragmentation of HNF by different methods to achieve products with lower and more homogeneous molecular weights. They are also made up of a mixture of polysaccharide chains and their average molecular weight is much lower. The antithrombotic and anticoagulant activity of HNF is related to the ability to inhibit factor Xa and factor IIa respectively. LMWHs have less inhibitory activity to thrombin or factor IIa but maintain the same potency with respect to factor Xa, so it is expected that they present a lower risk of bleeding but the same antithrombotic activity. CORTICOSTEROIDS Systemic corticosteroids are powerful anti-inflammatory and immunosuppressive agents. They can be administered intravenously, intramuscularly, orally, intralesionally, and topically. Its side effects increase with high, long and frequent doses. Corticosteroids are drugs frequently used in various clinical situations, because they are powerful anti-inflammatories and immunomodulators. Glucocorticoids passively diffuse through the cell membrane, then join soluble receptor proteins in the cytoplasm. They are used, among others, for the treatment of some rheumatic diseases. A separate case, well known but not studied in the current contingency, is acute adrenal insufficiency. CURRENT IDEA TRIAL Based on the precedent data, we started a Clinical Trial based on the above-mentioned four drugs, on a gradual scale, and according the severity of each case. In order to determine the dose and combination, we developed our own Severity Score. INTERPRETATION: Mild cases Only minor criteria findings Moderate cases 3 major crit. findings, or 2 major + 2 minor Severe cases 4 major crit. Findings or 3 major + 2/3 minor Based on the previous criteria, we used the following combinations and doses: DISEASE SEVERITY Firm Suspicious Case or Confirmed case 24 mg orally at a dose of 200 ug / kg in a single dose, to be repeated a week later Aspirin 250 mg orally Moderate clinical stage 36 mg orally at a dose of 400 ug / kg in a single dose, to be repeated a week later Dexamethasone 4 mg/day (parenteral) Aspirin 250 mg orally Low Flow Washed Oxygen or Oxygen Concentrator Severe case with bilateral pneumonia 48 mg via gastric cannulae, to be repeated a week later Dexamethasone 4 mg/day (parenteral) Enoxaparin100 UI/kg (1 mg/kg) Mechanical Ventilation

Interventions

DRUGIvermectin 5 MG/ML oral solution, Aspirin 250 mg tablets

24 mg oral Ivermectin on days 0 and 7 and 1 Aspirin tablet daily for 30 days. Outpatient treatment.

OTHERIvermectin 5 mg/mL oral solution, Dexamethasone 4-mg injection, Aspirin 250 mg tablets

36 mg oral Ivermectin on days 0 and 7; 1 daily injection of 4-mg Dexamethasone until discharge, 1 Aspirin tablet daily for 30 days. Inpatient treatment in ward care, including Low flow washed oxygen or oxygen concentrator

OTHERIvermectin 5 MG/ML oral solution, Dexamethasone 4-mg injection, Enoxaparin injection. Inpatient treatment with mechanical ventilation in ICU.

48 mg oral Ivermectin on days 0 and 7; 1 daily injection of 4-mg Dexamethasone until discharge, Enoxaparin 100 IU/kg (ca. 1 mg/kg) daily until transfer to ward care. Then continue with inpatient treatment in ward care.

Sponsors

Eurnekian Public Hospital
Lead SponsorOTHER

Study design

Observational model
COHORT
Time perspective
PROSPECTIVE

Eligibility

Sex/Gender
ALL
Age
5 Years to No maximum
Healthy volunteers
No

Inclusion criteria

patients with positive oral/nasal swabs

Exclusion criteria

Children under 5 years old Pregnant women Previous reports of allergy to any of the drugs used in the clinical trial

Design outcomes

Primary

MeasureTime frameDescription
Patients Who Improved Their Condition or Did Not Worsen it7 daysNumber of patients who did not go to a more severe stage of disease or die (i.e. they neither go from mild to moderate or severe, nor go from moderate to severe or die, if they had been already enrolled in a severe condition)
ICU-treated Patients After 2-week Treatment14 daysNumber of patients needing ICU-treatment including mechanical ventilation after 2-week treatment
Mortality30 daysPatients who died within 30 days after enrollment
Patients Needing Drug Dose Adjustment14 daysPatients who needed dose adjustment of any of the drugs involved in the treatment protocol
Adverse Events14 daysPatient presenting serious adverse events

Countries

Argentina

Participant flow

Recruitment details

Recruitment at Eurnekian Public Hospital

Participants by arm

ArmCount
Mild Cases
Patients diagnosed positive for COVID-19 and presenting only mild symptoms.
135
Moderate Cases
Patients diagnosed positive for COVID-19 and presenting either 3 severe symptoms or 2 severe symptoms + 2 mild symptoms
12
Severe Cases
Patients diagnosed positive for COVID-19 and presenting either 4 severe symptoms or 3 severe symptoms + not less than 2 mild symptoms or clinical symptoms of bilateral viral pneumonia
20
Total167

Withdrawals & dropouts

PeriodReasonFG000FG001FG002
Overall StudyDeath001

Baseline characteristics

CharacteristicMild CasesTotalSevere CasesModerate Cases
Age, Continuous55.7 years56.5 years59.7 years59.7 years
Ethnicity (NIH/OMB)
Hispanic or Latino
135 Participants167 Participants20 Participants12 Participants
Ethnicity (NIH/OMB)
Not Hispanic or Latino
0 Participants0 Participants0 Participants0 Participants
Ethnicity (NIH/OMB)
Unknown or Not Reported
0 Participants0 Participants0 Participants0 Participants
Race (NIH/OMB)
American Indian or Alaska Native
0 Participants0 Participants0 Participants0 Participants
Race (NIH/OMB)
Asian
0 Participants0 Participants0 Participants0 Participants
Race (NIH/OMB)
Black or African American
0 Participants0 Participants0 Participants0 Participants
Race (NIH/OMB)
More than one race
135 Participants167 Participants20 Participants12 Participants
Race (NIH/OMB)
Native Hawaiian or Other Pacific Islander
0 Participants0 Participants0 Participants0 Participants
Race (NIH/OMB)
Unknown or Not Reported
0 Participants0 Participants0 Participants0 Participants
Race (NIH/OMB)
White
0 Participants0 Participants0 Participants0 Participants
Region of Enrollment
Argentina
135 Participants167 Participants20 Participants12 Participants
Sex: Female, Male
Female
66 Participants84 Participants11 Participants7 Participants
Sex: Female, Male
Male
69 Participants83 Participants9 Participants5 Participants

Adverse events

Event typeEG000
affected / at risk
EG001
affected / at risk
EG002
affected / at risk
deaths
Total, all-cause mortality
0 / 1350 / 121 / 20
other
Total, other adverse events
0 / 1350 / 121 / 20
serious
Total, serious adverse events
0 / 1350 / 121 / 20

Outcome results

Primary

Adverse Events

Patient presenting serious adverse events

Time frame: 14 days

ArmMeasureValue (COUNT_OF_PARTICIPANTS)
Mild CasesAdverse Events0 Participants
Moderate CasesAdverse Events0 Participants
Severe CasesAdverse Events1 Participants
Primary

ICU-treated Patients After 2-week Treatment

Number of patients needing ICU-treatment including mechanical ventilation after 2-week treatment

Time frame: 14 days

ArmMeasureValue (COUNT_OF_PARTICIPANTS)
Mild CasesICU-treated Patients After 2-week Treatment0 Participants
Moderate CasesICU-treated Patients After 2-week Treatment0 Participants
Severe CasesICU-treated Patients After 2-week Treatment2 Participants
Primary

Mortality

Patients who died within 30 days after enrollment

Time frame: 30 days

ArmMeasureValue (COUNT_OF_PARTICIPANTS)
Mild CasesMortality0 Participants
Moderate CasesMortality0 Participants
Severe CasesMortality1 Participants
Comparison: A chi-squared test is used to find out whether there is a statistically significant decrease in mortality rate when the IDEA treatment protocol is used in hospitalized patients in comparison with other treatments in the same hospital in the same period of time (3 out of 12 inpatients died)p-value: 0.0246Chi-squared
Comparison: Overall mortality rate of patients treated according to IDEA protocol is compared by a chi-squared test against overall mortality rate in Argentina (the same region where the hospital is located). Data used for overall mortality in Argentina correspond to June 30th according to the website of the Ministry of Health of Argentinap-value: 0.0475Chi-squared
Comparison: A chi-square test was applied to compare the mortality rate of patients treated with IDEA protocol as compared with data published (26.84 %) in Bertsimas D, Lukin G, Mingardi L, Nohadani O, Orfanoudaki A, Stellato B et al. (2020), COVID-19 Mortality Risk Assessment: An International Multi-Center Study doi: 10.1101/2020.07.07.20148304p-value: 0.0025Chi-squared
Primary

Patients Needing Drug Dose Adjustment

Patients who needed dose adjustment of any of the drugs involved in the treatment protocol

Time frame: 14 days

ArmMeasureValue (COUNT_OF_PARTICIPANTS)
Mild CasesPatients Needing Drug Dose Adjustment0 Participants
Moderate CasesPatients Needing Drug Dose Adjustment0 Participants
Severe CasesPatients Needing Drug Dose Adjustment0 Participants
Primary

Patients Who Improved Their Condition or Did Not Worsen it

Number of patients who did not go to a more severe stage of disease or die (i.e. they neither go from mild to moderate or severe, nor go from moderate to severe or die, if they had been already enrolled in a severe condition)

Time frame: 7 days

ArmMeasureValue (COUNT_OF_PARTICIPANTS)
Mild CasesPatients Who Improved Their Condition or Did Not Worsen it135 Participants
Moderate CasesPatients Who Improved Their Condition or Did Not Worsen it12 Participants
Severe CasesPatients Who Improved Their Condition or Did Not Worsen it19 Participants

Source: ClinicalTrials.gov · Data processed: Feb 19, 2026