Physiotherapy in chest disease

1980 ◽  
Vol 18 (8) ◽  
pp. 29-31

Physiotherapy is given to patients with chest disease in the hope of aiding the removal of secretions, improving respiratory function and increasing general mobility. Evaluating physiotherapy is difficult and until recently few attempts have been made to do so. This article considers the use of postural drainage, chest percussion and vibration, intermittent positive pressure breathing, forced expiration technique, breathing exercises and general exercises for some common chest conditions.

1991 ◽  
Vol 47 (4) ◽  
pp. 63-67
Author(s):  
C. J. Eales ◽  
A. Shapiro ◽  
D. Edelman ◽  
D. Cohen

Much research has been done on IPPB and to date little evidence has been provided to support the use of this modality. Our study was designed to investigate the ventilation pattern produced by IPPB with deep breathing compared to deep breathing only in patients who have had suspected pulmonary emboli. Ventilation images of the lungs obtained through the inhalation of the radio-active gas Krypton were used for this comparison. Twenty-three subjects were randomly assigned to one of two groups. Group A comprised 12 subjects who received the radio-active gas via IPPB. The 11 subjects in group B received the radio-active gas via the routine circuit, while doing diaphragmatic breathing.The data were analysed using the Mann-Whitney U-test. It was shown that in patients with suspected pulmonary emboli there is no evidence that IPPB would increase alveolar ventilation more than deep breathing exercises would.


CHEST Journal ◽  
1986 ◽  
Vol 90 (4) ◽  
pp. 546-552 ◽  
Author(s):  
F. Dennis McCool ◽  
Raymond F. Mayewski ◽  
David S. Shayne ◽  
Charles J. Gibson ◽  
Robert C. Griggs ◽  
...  

2013 ◽  
Vol 70 (1) ◽  
pp. 9-15
Author(s):  
Maja Surbatovic ◽  
Zoran Vesic ◽  
Dragan Djordjevic ◽  
Sonja Radakovic ◽  
Snjezana Zeba ◽  
...  

Background/Aim: Laparoscopic cholecystectomy is considered to be the gold standard for laparoscopic surgical procedures. In ASA III patients with concomitant respiratory diseases, however, creation of pneumoperitoneum and the position of patients during surgery exert additional negative effect on intraoperative respiratory function, thus making a higher challenge for the anesthesiologist than for the surgeon. The aim of this study was to compare the effect of intermittent positive pressure ventilation (IPPV) and pressure controlled ventilation (PCV) during general anesthesia on respiratory function in ASA III patients submitted to laparoscopic cholecystectomy. Methods. The study included 60 patients randomized into two groups depending on the mode of ventilation: IPPV or PCV. Respiratory volume (VT), peak inspiratory pressure (PIP), compliance (C), end-tidal CO2 pressure (PETCO2), oxygen saturation (SpO2), partial pressures of O2, CO2 (PaO2 and PaCO2) and pH of arterial blood were recorded within four time intervals. Results. There were no statistically significant differences in VT, SpO2, PaO2, PaCO2 and pH values neither within nor between the two groups. In time interval t1 there were no statistically significant differences in PIP, C, PETCO2 values between the IPPV and the PCV group. But, in the next three time intervals there was a difference in PIP, C, and PETCO2 values between the two groups which ranged from statistically significant to highly significant; PIP was lower, C and PETCO2 were higher in the PCV group. Conclusion. Pressure controlled ventilation better maintains stability regarding intraoperative ventilatory parameters in ASA III patients with concomitant respiratory diseases during laparoscopic cholecystectomy.


2020 ◽  
Vol 4 (1) ◽  
pp. 137-138
Author(s):  
Syed Alamadar Hussein ◽  
◽  
Raheela Kanwal ◽  
Huma Balqias ◽  
Usman Farooq ◽  
...  

Since the start of 2020, a COVID-19 emerged as a new strain of Coronavirus. Initially, it affected the population of Wuhan, China and after that it outspread all over the world and was declared as a pandemic by World Health Organization on 30th January, 2020.1 It has been identified that COVID-19 can cause mild illness including common cold to more severe condition known as acute respiratory distress syndrome (ARDS), if not treated promptly.2 While people of all ages are susceptible to COVID-19, those over 60 years of age and with cardiovascular diseases along with diabetes have even more chances of becoming seriously ill Whereas children seem to be less affected.3 Currently there is no pharmacological treatment, still some antiviral drugs have been proven to be helpful along with plasma transfusion in which plasma is extracted from the blood of patient who got recovered from COVID-19 an is transfused into the patient still suffering from the said disease.4 Symptoms of respiratory complications due to this disease influence the mind of a Physical Therapist (PT). Though after discussing the maneuvers of respiratory Physical Therapy with fellow professional colleagues as well as clinicians and practically applying it on respective relatives, friends and advice seekers after getting the informed consent from them; those who started to have initial symptoms of COVID-19 before being tested positive and then later got positive. It resulted in great ease for most of them to breathe and did not led to serious respiratory complications that include dyspnea and accumulation of thick and tenacious secretions inside the lungs, which ultimately is a precursor of pneumonia. Following were the PT interventions suggested to the patients showing acute symptoms; Steam inhalation, breathing exercises and postural drainage positions were inculcated in the treatment plan and guided respectively, steam inhalation therapy is normally advised to be used as primary care in acute respiratory diseases.5 It is most commonly used therapy at home and is inexpensive, moreover it promotes self-reliance in the patients; it is used therapeutically by inhaling steam through nose so that it reaches the respiratory system.6-8 Steam inhalation helps in loosening the mucus, it opens the nasal airway passages decreases mucosal inflammation and heat can prevent replication of viruses.9 It helps to relax muscles and relieves coughing by preventing excessive dryness in the mucosal membranes.10 Moreover, breathing exercises have been reported to have beneficial effects in improving symptoms and optimizing pulmonary function in patients. Breathing programs have been reported to have positive effects in alleviating symptoms and optimizing pulmonary function in patients.11 Breathing exercises aim to improve the individuals breathing pattern and increase in lung expansion, they also enhance the performance of respiratory muscles thus leading towards increase in functional residual capacity, and inspiratory reserve volume.12 Breathing exercises reduces breathlessness, increase exercise capacity and improve overall well-being of a person 13,14,15,16 The physiological effect of breathing exercises comprises of increase in intra-bronchial pressure thus preventing the collapse of bronchi and leading towards increase in inspiratory and expiratory flow rate.13,15 It act by stimulating the autonomic system thereby promoting relaxation and in return improves the physiological parameters.16 Furthermore, body positioning improves the efficiency and effectiveness of both primary and accessory muscles of breathing leading to ease in dyspnea and reduction in work of breathing.17 These positions improve the ventilation perfusion ratio and utilize the gravity to remove secretions.18 Positioning decrease the ventilation demand resulting in longer expiratory time thereby preventing hyperinflation and ultimately resolving dyspnea.19 As a healthcare professional and specially a Physical Therapist we would like to ask the imminent researchers to fill this gap by conducting different surveys and trials. Through our experience we’ve found that the manoeuvres we applied have been very effective and improved the overall outcome of the patients suffering from COVID -19.


PEDIATRICS ◽  
1966 ◽  
Vol 37 (4) ◽  
pp. 684-698
Author(s):  
Jerome Imburg ◽  
Thomas C. Hartney

Animal studies have shown that fluid enters the body via the lungs in sea-water and fresh-water drowning. In fresh-water drowning in dogs, there is marked and rapid hemodilution with death due to ventricular fibrillation in about 4 minutes. In sea-water drowning in dogs, there is hemoconcentration; the blood water is lost into the sea water in the lungs with bradycardia and death due to asystole in 6 to 8 minutes. Studies of human drowning victims show similar, but less striking, changes in hemodynamics. In human non-fatal submersion the problems are usually those produced by impaired pulmonary function and central nervous system damage due to hypoxia. Hemodilution and ventricular fibrillation have not been documented in human nonfatal submersion. Therapeutic measures may be divided into those of an immediate urgent nature to be employed at the accident scene: expired air resuscitation, which should be started on reaching the unconscious victim in the water, and external cardiac massage, when indicated. Later measures to be instituted in the hospital include: cardiac resuscitation, intermittent positive-pressure breathing, hypothermia, tracheostomy and tracheal tiolet, oxygen therapy, antibiotics, steroids, and intravenous fluids to correct defects in blood elements (hemoglobin, electrolytes, pH). Later, pulmonary function should be studied for impairment due to alveolar damage and fibrosis. Permanent neurologic sequellae may develop.


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