Active clinical trials for "Pneumonia"

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 administration of low-dose lung irradiation produces anti-inflammatory effects that will decrease the pulmonary inflammatory response. The present study will evaluate the efficacy of treatment with low-dose pulmonary radiotherapy added to standard support therapy, in hospitalized patients with respiratory symptoms due to COVID-19 pneumonia, who do not experience improvement with conventional medical therapy and are not subsidiaries of ICU

Colchicine acts upstream in the cytokines cascade by inhibiting the NLRP3 inflammasome while IL-6 receptor antagonists (tocilizumab) block the end result of the cytokines cascade. Hence, adding colchicine to tocilizumab with the aim of blocking the early and end products of the cytokines cascade, might reduce the risk of developing cytokine storm and hence the need for invasive mechanical ventilation and eventually death. Therefore, investigators aim to conduct an open-label randomized controlled trial to evaluate the efficacy and safety of adding colchicine to tocilizumab among patients with severe COVID-19 pneumonia in an attempt to reduce the rate of invasive mechanical ventilation and mortality. Investigators will include patients with severe COVID-19 pneumonia and already received tocilizumab according to local protocol. Enrolled patient will be then randomized in 1:1 to colchicine versus no colchicine. Patients will be followed up until discharge or for 30 days, whichever comes first. Data will be collected from electronic medical profiles. The primary efficacy outcome will be rate of invasive mechanical ventilation and will be determined using Cox proportional hazard model.

There is urgent need of an effective therapy for Covid-19. To date, the best treatment of SARS-CoV-2 infection is unknown. Baricitinib has been identified as potential treatment for 2019-nCoV acute respiratory disease, because of its immunomodulating and hypothesized antiviral activity. This is a multicenter randomized clinical trial that aims to evaluate the efficacy and safety of baricitinib in patients with SARS-CoV2 pneumonia. Patients will be randomized to receive or not baricitinib as adjunctive therapy. All patients will continue to receive the ongoing standard therapy: chloroquine/idrossichloroquine and low-molecular weight heparin (LMWH) eventually associated with ritonavir/lopinavir or darunavir/ritonavir will be allowed for all included patients. The primary endpoint measure is the efficacy of baricitinib in reducing the number of patients requiring invasive ventilation after 7 and 14 days of treatment. Secondary endpoints will be mortality rates and toxicity of baricitinib.

Mortality of COVID-19 pneumonia with acute respiratory distress syndrome (ARDS) is extremely high in preliminary reports amounting to 50-60%. Duration of mechanical ventilation in these patients appears to exceed standard duration of mechanical ventilation in non-COVID-19 ARDS patients, suggesting that COVID-19 patients may be particularly at risk for ventilator-induced lung injury. Treatment of COVID-19 ARDS patients is to date mainly supportive with protective mechanical ventilation (ventilation with low tidal volume (VT) i.e. 6 ml/kg of predicted body weight (PBW) and plateau pressure control below 30 cm H2O). Mechanical ventilation with VT reduction below 6 ml/kg PBW in ARDS may reduce alveolar strain, driving pressure and hence ventilator-induced lung injury. Investigators recently performed a multicenter pilot study on 34 moderately severe to severe ARDS patients. This study demonstrated that ultraprotective ventilation with ultra-low VT (≤4.2 ml/kg PBW) without extracorporeal circulation may be applied in approximately 2/3 of the patients, with a 4 cmH2O median reduction in driving pressure, at the price of transient episodes of severe acidosis in approximately 1/3 of the patients. Investigators hypothesized that ultraprotective ventilation without extracorporeal circulation may reduce the mortality at day-90 and increase the number of days free from mechanical ventilation (VFD) at day-60, as compared to protective ventilation.

In the current situation it is of great importance to discover a safe, cost-effective and available treatment strategy in order to limit the rapidly spreading SARS-Cov-2. Recent studies have shown that hydroxychloroquine could have a role in the treatment of infected patients. It is however not very likely that hydroxychloroquine alone could be adequate for treatment of Covid-19 disease. Effective therapy that prevents the virus entrance should contain at least TMPRSS2 inhibitor or a competitive inhibitor of viral ACE 2 binding. The use of bromhexine at the dose adequate to selectively inhibit the TMPRSS2, resulting in preventing of viral entrance via TMPRSS2-specific pathway, coud be an effective treatment of Covid-19. In our study we would like to explore the therapeutic potential of bromhexin and hydroxychloroquine in Covid-19 patients. Hypothesis Combined treatment with bromhexin and hydroxychloroquine shortens the course of disease in hospitalized Covid-19 patients compared to hydroxychloroquine alone. Combined treatment with bromhexin and hydroxychloroquine lowers the incidence of secundary pulmonary infections in hospitalized Covid-19 patients compared to hydroxychloroquine alone. Combined treatment with bromhexin and hydroxychloroquine decreases the need for ICU admission in hospitalized Covid-19 patients compared to hydroxychloroquine alone.

Low-dose radiotherapy treatment delivered to both lungs in patients with immune-related pneumonia following COVID-19 infection is backed up by biological and clinical bases that justify its use as a possible therapeutic option in these patients. This is a preliminary exploratory study (non-pharmacological interventional) to evaluate the feasibility and tolerability of low-dose radiotherapy treatment of SARS-Cov-2 immune-mediated pneumonia, for the subsequent implementation of a phase II study.This is a preliminary, monocentric, single-arm, interventional, non-pharmacological exploratory study. All enrolled patients will be treated with low-dose radiotherapy. Participants will undergo irradiation of the lungs, administered in a single fraction at the average prescription dose of 0.7 Gy (further details in the dedicated section).

Background: Based on data from the 2003 SARS-COVID pandemic, other serious lung infections, and patients with respiratory distress, it is estimated that 10-30% of patients with severe SARS-COVID-2 pneumonia may present as a sequel an organized pneumonia. The treatment of this complication is not well defined. The use of oral corticosteroids is mandatory to avoid a possible evolution to pulmonary fibrosis, however, the doses to be administered and the duration of treatment are unknown as there is no study specifically aimed at solving this doubt. Many authors advocate high-dose treatment regimens for a minimum of six months, as proposed for cryptogenic organized pneumonia. However, there is a question whether in non-idiopathic cases of organized pneumonia, less intense treatment could resolve the disease. Hypothesis: The use of a less intensive prednisone regimen may be sufficient for therapeutic control in patients with post-COVID-19 organizing pneumonia, in relation to the established standard regimen Simplicity of the procedures: The objective of the NORCOVID study is to identify the optimal treatment regimen with corticosteroids in post-COVID19 patients diagnosed with NO. Specifically, the primary objective of this multicenter randomized trial is to evaluate whether treatment with a less intensive regimen of corticosteroids produces a non-inferior therapeutic effect than the established control regimen. Secondary objectives are to evaluate the effect of treatment on secondary efficacy variables and on safety. DLCO, respiratory function tests, 6MWT test, need for rescue, radiological tests, complications, mortality and the WHO ordinal scale will be evaluated.

Community acquired pneumonia (CAP) is a common respiratory infection and is the main cause of ICU admission and death in adults. Because of most patients were treated empirically against suspected causative microorganism, it is important to assess the effectiveness of treatment after 3 days of anti-infective therapy. However, the criteria for treatment failure is lack of a clear-cut and validated definition from the CAP guidelines. Pneumonia severity scores is a wide-used severity rating system for treatment selection and outcome prediction for CAP. So far, the pneumonia severity scores only used once before the treatment started. Considering the pneumonia severity scores could reflect the severity of pneumonia, it is reasonable to assume that the change of pneumonia severity scores could reflect the patients' condition and the effectiveness of the treatment. This trail will be designed to validate the feasibility of assessing effectiveness of CAP treatment by using continuous pneumonia severity score.

The main aim of the study is to describe plasma pharmacokinetics (PK) and pulmonary diffusion of high-dose ceftobiprole (500 mg loading dose followed by 2.5 g under continuous infusion for 24h) for mechanically-ventilated adult patients with severe community-acquired pneumonia, using population PK modelling. The secondary aims are : A- To determine whether the pharmacokinetic / pharmacodynamic (PK/PD) targets can be achieved in the plasma and epithelial lining fluid with the recommended doses of ceftobiprole. B- To define the optimal dose regimen for ceftobiprole in this population. C- To evaluate clinical recovery (at Day 3 and Day 8) and microbiological recovery (at Day 3). D- To evaluate the clinical evolution. E- To evaluate the clinical and biological tolerance.