Background The major complication of COVID-19 is hypoxaemic respiratory failure from capillary leak and alveolar oedema. Experimental and early clinical data suggest that the tyrosine-kinase inhibitor imatinib reverses pulmonary capillary leak. Methods This randomised, double-blind, placebo-controlled, clinical trial was done at 13 academic and non-academic teaching hospitals in the Netherlands. Hospitalised patients (aged ≥18 years) with COVID-19, as confirmed by an RT-PCR test for SARS-CoV-2, requiring supplemental oxygen to maintain a peripheral oxygen saturation of greater than 94% were eligible. Patients were excluded if they had severe pre-existing pulmonary disease, had pre-existing heart failure, had undergone active treatment of a haematological or non-haematological malignancy in the previous 12 months, had cytopenia, or were receiving concomitant treatment with medication known to strongly interact with imatinib. Patients were randomly assigned (1:1) to receive either oral imatinib, given as a loading dose of 800 mg on day 0 followed by 400 mg daily on days 1–9, or placebo. Randomisation was done with a computer-based clinical data management platform with variable block sizes (containing two, four, or six patients), stratified by study site. The primary outcome was time to discontinuation of mechanical ventilation and supplemental oxygen for more than 48 consecutive hours, while being alive during a 28-day period. Secondary outcomes included safety, mortality at 28 days, and the need for invasive mechanical ventilation. All efficacy and safety analyses were done in all randomised patients who had received at least one dose of study medication (modified intention-to-treat population). This study is registered with the EU Clinical Trials Register (EudraCT 2020–001236–10). Findings Between March 31, 2020, and Jan 4, 2021, 805 patients were screened, of whom 400 were eligible and randomly assigned to the imatinib group (n=204) or the placebo group (n=196). A total of 385 (96%) patients (median age 64 years [IQR 56–73]) received at least one dose of study medication and were included in the modified intention-to-treat population. Time to discontinuation of ventilation and supplemental oxygen for more than 48 h was not significantly different between the two groups (unadjusted hazard ratio [HR] 0·95 [95% CI 0·76–1·20]). At day 28, 15 (8%) of 197 patients had died in the imatinib group compared with 27 (14%) of 188 patients in the placebo group (unadjusted HR 0·51 [0·27–0·95]). After adjusting for baseline imbalances between the two groups (sex, obesity, diabetes, and cardiovascular disease) the HR for mortality was 0·52 (95% CI 0·26–1·05). The HR for mechanical ventilation in the imatinib group compared with the placebo group was 1·07 (0·63–1·80; p=0·81). The median duration of invasive mechanical ventilation was 7 days (IQR 3–13) in the imatinib group compared with 12 days (6–20) in the placebo group (p=0·0080). 91 (46%) of 197 pa...

It is unknown what treatment goals patients and oncologists have before starting systemic treatment. In total, 266 patients with metastatic lung cancer and their prescribing oncologists (n [ 23) were included. Patients and oncologist set quality of life, life prolongation, decreased tumor, and cure as treatment goals, but concordances of treatment goals were low. Clear communication about treatment goals should be integrated into clinical care. Background: Metastatic lung cancer is an incurable disease that can be treated with systemic therapy. These treatments might prolong survival and reduce symptoms, but they may also cause serious adverse effects. We studied the treatment goals of patients with metastasized lung cancer and their oncologists before starting systemic therapy, concordance between patients' and oncologists' goals, and feasibility of these goals. Patients and Methods: This research was conducted between November 2016 and April 2018 in 1 academic and 5 nonacademic hospitals across the Netherlands. A total of 266 patients with metastatic lung cancer and their prescribing oncologists (n ¼ 23) filled out a questionnaire about their treatment goals and the estimated feasibility of these goals before treatment was started. Additional interviews were conducted with patients and oncologists. Results: Patients and oncologists reported quality of life (respectively, 45% and 72%), life prolongation (45% and 55%), decrease in tumor size (39% and 66%), and cure (19% and 2%) as treatment goals. The interviews showed that the latter appeared to be often as motivation to stay alive. Concordances between patients' and oncologists' treatment goals were low (ranging from 24% to 33%). Patients had slightly higher feasibility scores than oncologists (6.8 vs. 5.8 on a 10-point scale). Educational level, age, religious views, and performance status of patients were associated with treatment goals. Conclusion: Patients and oncologists set various goals for the treatment they receive/prescribe. Low concordance might exist because different goals are set or because the patient misunderstands something. Clear communication about treatment goals should be integrated into clinical care.

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