Active clinical trials for "Lung Diseases, Interstitial"

This is a prospective phase II study of Stereotactic Ablative Radiotherapy (SABR) in patients with Non-Small Cell Lung Cancer (NSCLC) and co-existent Interstitial Lung Disease (ILD), to determine oncologic and toxicity outcomes. Patients will be divided into 3 separate cohorts based on the ILD-GAP index.

A randomized, controlled pilot trial to evaluate the efficacy and safety of subcutaneous Abatacept in treating interstitial lung disease associated with the anti-synthetase syndrome.

This is a collaborative study between Icahn School of Medicine at Mount Sinai, Boehringer Ingelheim Pharmaceuticals and up to 9 other clinical centers across the US to determine the effect of nintedanib on slowing the rate of lung disease in patients who have been diagnosed with COVID-19, and have ongoing lung injury more than 30 days out from their diagnosis. Required one of the following after diagnosis with SARS-CoV-2: supplemental oxygen by nasal cannula, high flow oxygen, non invasive ventilation such as CPAP or BIPAP, or mechanical ventilation or a history of desaturation below 90%.

The purpose of this study is to assess multiple ascending doses of a new drug (BAY63-2521) given orally, to evaluate if it is safe and can help to improve the well-being, symptoms (e.g. disturbed breathing) and outcome of pulmonary hypertension associated with lung fibrosis. Patients living with pulmonary hypertension associated with interstitial lung disease have a risk of increased number of hospitalisations because of worsening of their condition. Until now there is no approved medication for this disease. The current treatment of pulmonary hypertension associated with interstitial lung disease consists: of oxygen and medical treatment with vasodilators, e.g. so-called Calcium-antagonists. Therefore, there is a need for new drugs in the treatment of pulmonary hypertension associated with interstitial lung disease.

This study in China is open to people with progressive lung fibrosis (chronic fibrosing ILDs with progressive phenotype) who are at least 18 years old. The purpose of this study is to find out whether a medicine called nintedanib helps people with progressive lung fibrosis. Participants are put into 2 groups randomly, which means by chance. 1 group gets nintedanib as capsules twice a day. The other group gets placebo as capsules twice a day. Placebo capsules look like nintedanib capsules but do not contain any medicine. Participants are in the study for about 1 year. During this time, they visit the study site about 10 times. At some visits, participants perform a lung function test. The doctors check whether study treatment can slow down the loss of lung function. The doctors also regularly check participants' health and take note of any unwanted effects.

The use of lung ultrasound is instrumental in the evaluation of many chest pathologies and its ability to detect pleuro-pulmonary pathology is widely accepted. However, the use of ultrasound to explore the state of the peripheral lung parenchyma, when the organ is still aerated, is a relatively new application. Horizontal and vertical artifacts are separate and distinct artifacts that can be seen during ultrasound examination of the lungs. While the practical role of lung ultrasound artifacts is accepted to detect and monitor many conditions, further research is needed for the physical interpretation of ultrasound artifacts. These artifacts are diagnostic signs, but we don't fully understand their origin. The artifactual information deriving from the surface acoustic interaction, beyond the pleural line, in the ultrasound images of the normally aerated and non-deflated lung, represents the final result of complex interactions of acoustic waves with a specific three-dimensional structure of the biological tissue. Thus, the umbrella term "vertical artifacts" oversimplifies many physical phenomena associated with a pathological pleural plane. There is growing evidence that vertical artifacts are caused by physiological and pathological changes in the superficial lung parenchyma. Therefore, the need emerges to explore the physical phenomena underlying the artifactual ultrasound information deriving from the surface acoustic interaction of ultrasound with the pleuro-pulmonary structures.

This pilot study wants to determine to which extent SPCCT allows obtaining images with improved quality and diagnostic confidence when compared to standard Dual Energy CT (DECT), both with and without contrast agent injection. Depending on the anatomical structures/organs to be visualized during CT examinations, different scanning protocols are performed with quite variable ionizing radiation doses. Therefore, in order to obtain the most extensive and representative results of the improvement in image quality between SPCCT and DECT that will be performed CT imaging on several body regions and structures, including diabetic foot, diabetic calcium coronary scoring, adrenal glands, coronary arteries, lung parenchyma, kidney stones, inner ear, brain and joints, earl/temporal bone, colorectal carcinosis.

The objective of our project is to find procedures and/or parameters to predict the diagnostic recovery (≥ 60% of the administered fluid volume) of bronchoalveolar lavage (BAL) fluid before bronchoscopy and to assess the impact of using non-invasive mechanical ventilation (NMV) or continuous positive airway pressure (CPAP) to achieve diagnostic recovery in patients with chronic obstructive pulmonary disease (COPD) and interstinal lungs disease for whom BAL performed during ordinary bronchoscopy turns out to be non-diagnostic.

The purpose of this multi-centered, NIH-sponsored study is to to develop an optimal protocol for using noninvasive 129Xe gas exchange MRI to detect changing disease activity in interstitial lung diseases (ILDs).

The main goal of this study is to develop a noninvasive signature for pulmonary vascular remodeling in Group 3 PH patients, using hyperpolarized 129Xe magnetic resonance imaging (129Xe MRI). Such a signature may identify Group 3 PH responders to PAH-specific therapies. PAH's unique 129Xe MRI signature has been shown in previous studies. Past studies have lacked a pathologic "ground truth" correlate of these signatures, which could be provided by comparing them with the pathology of lung explant tissue from patients who have undergone a lung transplant. This signature could be validated in a cohort of patients with Group 3 PH in future studies.