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Biomedical subjects

R Aepli

Publications and source records attributed to R Aepli.

18 recordsLinked to original sources

[The role of respiratory physiotherapy in an intensive care unit].

In an intensive care unit an important role is assigned to respiratory physiotherapy. Its principal task is efficacious toilet of the bronchi by fluidifying the secretions, promoting their ungluing from the respiratory tree and facilitating their evacuation by cough or by aspiration with a catheter or bronchoscope. The technique comprises the inhalation of a secretolytic (e.g. Bisolvon, NaCl 9%) and, in the case of asthma, bronchospasmolytic (e.g. Ventoline) aerosol followed by breathing exercises. The other objectives of physiotherapy are to ensure a better distribution of inspired air, increase failing ventilation, ameliorate disturbed gas exchange, relax the contracted respiratory muscles and prevent bronchiolar collapse in emphysema during expiration. The field of application of respiratory physiotherapy is large; its purpose is prophylactic and therapeutic. The method is prophylactic in all patients confined to bed, where there is a risk of bronchial obstruction or ventilatory failure, especially in those with severe operation, traumatism or consciousness disorder. Physiotherapy has a therapeutic role in several, principally broncho-pulmonary diseases, such as asthma, obstructive emphysema, pneumonia, bronchiectasis, pulmonary abscess, atelectasis, and pulmonary and pleural fibrosis. Myocardial infarction and pulmonary embolism in the acute state, acute pulmonary edema, pneumothorax and pulmonary hemorrhage are contraindications for physiotherapy. If the method is to be effective the intensive care unit should have a specialized physiotherapist attached to it working there on a daily basis.

Bronchodilator Agents↗

[Proceedings: Indications and limitations of breathing gymnastics].

Chronic obstructive lung disease represents the most important field of application for respiratory physiotherapy. The technic comprises two successive stages: inhalation of a bronchospasmolytic and secretolytic aerosol (e.g. Alupent or Ventolin, diluted in tacholiquine or Bisolvon) followed by breathing exercises. These exercises are divided into three parts: respiratory movements such as diaphragmatic or abdominal breathing, drainage of bronchial secretions, and exercises to relax the muscles of the shoulders, the thorax and the skin, all these movements being executed in the rhythm of breathing. The effect of respiratory physiotherapy depends on the cooperation of the patient, the technic and the degree of severity of bronchiolar stenosis. The method is only successful in patients with slight to moderate bronchospasm; in those who suffer from dyspnea at rest it is usually ineffective. The prerequisite for success is longterm treatment. This means that the patient must continue to practice the acquired technique at home at least once a day. A description of the other indications for breathing exercises, such as bronchiectasis, chronic pneumonia, lung abscess, atelectasis, pleural fibrosis etc., is followed by a summary of the contraindications for the method.

Asthma↗

[Physiopathology of accidental drowning].

The first phase of accidental drowning begins with asphyxia, due to either laryngospasm (10-15 percent of cases) or water aspiration. The second phase is characterized by water and electrolyte changes in the blood. The physiopathological modifications caused by drowning in fresh water differ from those of drowning in sea water. The hypotonic fresh water quickly diffuses in the bloodstream. The consequences are, in many cases, hypervolemia with pulmonary edema, hemolysis, hyperkalemia with risk of ventricular fibrillation, diminution of hemoglobin, and a relative decrease in plasma concentration of Na, Cl, Ca, and albumin. Further, inactivation and washing out of the anti-atelectasis factor from the alveoli by fresh water facilitate the formation of atelectasis. In cases of accidental drowing in sea water the osmotic gradient is in inverse: the electrolytes of aspirated salt water diffuse in the circulation, whereas the blood serum and the plasma albumin pass into the alveoli. Acute pulmonary edema often follows these pathological changes. Hypovolemia with circulatory collapse, hemoconcentration with rise in hemoglobin, hematocrit, sodium, potassium and albumin, and, finally, an elevated risk of thromboembolism due to increased blood viscosity, represent further complications. On the other hand, ventricular fibrillation is rare, hemolysis is absent and atelectasis usually does not occur.

Accidents↗