View clinical trials related to Respiratory Insufficiency.
Filter by:Sleep disturbance is one of the most common complaints of patients admitted to ICU. Insufficient sleep in intensive care units may be associated with environmental reasons such as excessive light at night, loud warning sounds and mechanical ventilation alarms, as well as non-environmental factors, including the situation at the time of admission. Sleep assessment is subjective in nature, so it is difficult to perform in the ICU. Since communication with the patient is prevented, clear information about perceived rest and disturbing factors cannot be provided. For this reason, night rest is an issue that is often forgotten and ignored. This study applied a mixture of lavender, medicinal chamomile and neroli oil (in 20 ml of sweet almond oil; lavender oil 2 drops, medicinal chamomile 4 drops, neroli oil 6 drops) to patients who were monitored in intensive care on high-flow and oxygen, once a day for three days. This study will be conducted to determine the effect of aromatherapy massage applied for a total of 30 minutes on sleep quality.
Patients in the intensive care unit (ICU) experience physical and psychological discomfort, including pain. Anxiety is a condition frequently encountered in the ICU. The hospital environment, especially the ICU, is reported as a significant cause of anxiety for patients. Comfort is a holistic, subjective and multidimensional concept that is affected by physical, environmental, social and psycho-spiritual contexts and changes over time and space. Comfort in intensive care is often associated with pain relief and end-of-life care. Assessment tools have been developed to measure patient comfort in the ICU, including levels of pain, delirium, and sedation. This work; Patients who are monitored in intensive care under high-flow and oxygen are treated with a mixture of lavender, thyme and eucalyptus oil (20 ml; lavender oil 5 drops, thyme oil 4 drops, eucalyptus oil 3 drops and 20 ml almond oil) twice a day for three days. This study was conducted to determine the effect of aromatherapy massage applied for a total of 30 minutes on some physiological parameters, pain, anxiety and intensive care comfort of the patients.
During cardiopulmonary bypass (CPB), oxygenation of the patient on the pump can be left completely under pump control, or the lungs can be ventilated with low tidal volume to reduce atelectasis. In recent years, the concept of mechanical power has been used to determine the extent of ventilator-related lung damage. This concept of mechanical power, by which the energy transferred by the ventilator to the lungs can be calculated, will be measured at certain intervals in CPB surgery patients on the pump and compared between the two groups. The investigators aimed to investigate the effect of two different ventilation methods on mechanical power and its relationship with postoperative pulmonary complications.
Readmission to the intensive care unit (ICU) results in increased consumption of medical resources and costs, and has been proposed as a marker for quality of care. ICU readmission rates have been estimated at 4 to 14% and different risk factors have been proposed by various studies Readmitted patients mostly carry poor prognosis compared to newly admitted ones, in addition to the bad psychological impact for both patient and his family
Impaired respiratory function may occur after brain injury, and will progress to restricted respiratory dysfunction without early intervention. At present, there is a lack of effective treatment options for respiratory dysfunction. Repetitive Transcranial Magnetic Stimulation(rTMS) is a non-invasive, painless and non-invasive neuroregulatory technique. In healthy people, rTMS applied to the respiratory motor cortex induces a contralateral respiratory muscle response. However, whether rTMS can improve respiratory function in patients with brain injury remains unclear. gut microbiota can affect muscle function and mass, and animal experiments have shown that probiotics can increase skeletal muscle mass and grip strength in mice. On the other hand, studies have found that rTMS can improve the nutritional status of patients with vegetative state by regulating the structure of gut microbiota. However, it remains unclear whether rTMS can improve respiratory muscle function in patients with brain injury by regulating gut microbiota. Therefore, the investigators intend to apply rTMS to the respiratory motor cortex to observe whether rTMS can improve respiratory function and reduce the incidence of pneumonia in patients with brain injury, and to observe the role of gut microbiota in this process.
This research will study whether noninvasive ventilation (NIV) used to treat chronic respiratory insufficiency in patients with amyotrophic lateral sclerosis (ALS) can be initiated as successfully in the outpatient setting as in the conventional inpatient setting, and what the costs of these alternative initiation methods are.
Acute respiratory failure represents a frequent cause of admission to intensive care units (ICUs). In the absence of tailored interventions, it poses an imminent threat to patients' lives. Most patients admitted in ICU undergo fluid expansion to enhance oxygen delivery and preserve cellular function. This practice is grounded in the concept of " preload responsiveness ". However, the accrual of positive fluid balance resulting from fluid administration is now acknowledged as an autonomous risk factor for mortality. Consequently, preload unresponsiveness assumes a pathological character, potentially indicative of fluid overload or right ventricular dysfunction, both deleterious conditions linked to unfavorable outcomes. Maintaining patients in a preload-responsive state may be interesting to limit fluid expansion and the need of invasive mechanical ventilation. The objective of this prospective observational study is to evaluate the prognostic significance of preload responsiveness in patients admitted to the ICU with hypoxemic, non-hypercapnic respiratory failure. - Main objective: To evaluate the association between fluid responsiveness, assessed by the inferior vena cava collapsibility index (cIVC) with trans-thoracic echocardiography within the initial 48 hours post-ICU admission, and mortality or the need for invasive mechanical ventilation by day 28 in patients admitted to the ICU for hypoxemic, non-hypercapnic acute respiratory failure. - Secondary objectives: To evaluate the association between fluid responsiveness and mortality at day 28 and day 90, the need of invasive mechanical ventilation, and the number of days free from organ support (vasopressors, mechanical ventilation and renal replacement therapy) by day 28. Upon receipt of both oral and written information, patients will provide non-objection to participate in the study. This prospective single-center study has obtained approval from the Regional Ethics Committee of Ile de France III approval (No. 2022-A02813-40).
Even though nutrition is a fundamental component of Intensive care unit (ICU) therapy, critically ill patients are frequently malnourished, a factor well known for its strong association with a higher risk of complications, prolonged ICU/hospital length of stay, and greater ICU readmission and mortality rates. Noninvasive ventilation (NIV) use has increased considerably over the past twenty years, making this supportive technique a keystone of acute respiratory failure (ARF) treatment. In this setting, respiratory support is provided through an interface, usually a mask or a helmet, that frequently represents an important obstacle to nutrition delivery, making oral intake impossible and posing the necessity to start enteral (EN) or parenteral nutrition (PN). Moreover, while critical care guidelines regarding nutritional management of patients receiving mechanical ventilation (MV) are well established, data and recommendations about the appropriate nutritional support to patients in NIV are still very limited. Due to this limited data, we want to describe characteristics and nutritional management of patients undergoing NIV in ICU, and to evaluate the difference between the mean caloric and protein intake of these patients and the recommended caloric and protein target for critically ill patients. Secondarily, we want to evaluate the difference of the caloric and protein intake among groups of patients undergoing different nutritional modality and to assess potential associations of the nutritional characteristics with patient outcomes.
The purpose of the study is to determine whether SBCT is a useful tool for diagnosing the main form of failure respiratory acute and to define the SBCT limit associated with insufficiency respiratory in this population, the requirement for NIV or invasive ventilation. Furthermore, the correlation with the most common scores and indices used in the emergency room will be studied, such as: HACOR, MEW, REMS SCORE, ROS, CURB-65, qSOFA, SEVERITY INDEX OF PNEUMONIA, GWTG HF, LUNG ULTRASOUND SCORE, SINGLE BREATH COUNT
Hypothesis Treatment with HFNC and OptiflowTM+Duet can significantly reduce PaCO2 and normalize pH in patients with COPD exacerbation and acute hypercapnic failure, compared to HFNC with OptiflowTM. Treatment with High flow and OptiflowTM+Duet in patients with COPD exacerbation and acute hypercapnic failure is well tolerated. Aims To investigate the effect of HFNC in combination with either OptiflowTM or OptiflowTM+Duet nasal cannula on PaCO2 levels and pH in patients with COPD exacerbation and acute hypercapnic failure and compare the results of treatment with the two different nasal cannulas. To describe adherence to treatment with high flow and either OptiflowTM or OptiflowTM+Duet nasal cannula. Methods Study design The study will be carried out as a prospective, multicenter, randomized controlled trial. - Patients COPD and acute hypercapnic who do not tolerate NIV-treatment will be treated with HFNC for respiratory support. Patients will be randomized to either OptiflowTM /OptiflowTM+Duet nasal cannulas ("Fisher & Paykel Healthcare", Auckland, New Zealand) - HFNC treatment with allocated nasal cannula, flow 40-60 (prescribed by the responsible clinician) will be initiated, titration of FiO2 till target SO2 is reached (as prescribed by the responsible clinician or by default 88-92%). Maximal flow and target saturation should be reached within 1.5 hours of initiation. - Arterial puncture (registering pH, PaO2, PaCO2, HCO3, SaO2 and Base Excess) will be drawn at baseline and repeated after two hours (±30 minutes and after flow and FiO2 have been stable for 30 minutes) and at termination of the HFNC. - Patients will remain in study till it is decided by the treating physician to terminate HFNC-treatment. Patients who are candidates for invasive ventilations will be excluded from the study if the arterial blood gasses further deteriorate after initiation of HFNC.