Literature DB >> 786640

Review: artifical ventilation with positive end-expiratory pressure (PEEP). Historical background, terminology and patho-physiology.

D B Stokke.   

Abstract

CPPV (continuous positive pressure ventilation) is obviously superior to IPPV (intermittent positive pressure ventilation) for the treatment of patients with acute respiratory insufficiency (ARI) and results within a few minutes in a considerable increase in the oxygen transport. The principle is to add a positive end-expiratory plateau (PEEP) to IPPV, with a subsequent increase in FRC (functional residual capacity) resulting in re-opening in first and foremost the declive alveolae, which can then once again take part in the gas exchange and possibly re-commence the disrupted surfactant production. In this manner the ventilation/perfusion ratio in the diseases lungs is normalized and the intrapulmonary shunting of venous blood (Qs/Qt) will decrease. At the same time the dead space ventilation fraction (VD/VT) normalizes and the compliance of the lungs (CL) increases. The PEEP value, which results in a maximum oxygen transport, and the lowest dead space fraction, also appears to result in the greatest total static compliance (CT) and the greatest increase in mixed venous oxygen tension (PVO2); this value can be termed "optimal PEEP". The greater the FRC is, with an airway pressure = atmospheric pressure, the lower the PEEP value required in order to obtain maximum oxygen transport. If the optimal PEEP value is exceeded the oxygen transport will fall because of a falling Qt (cardiac output) due to a reduction in venous return. CT and PVO2 will fall and VD/VT will increase. Increasing hyperinflation of the alveolae will result in a rising danger of alveolar rupture. The critical use of CPPV treatment means that the lungs may be safeguarded against high oxygen percents. The mortality of newborn infants with RDS (respiratory distress syndrome) has fallen considerably after the general introduction of CPPV and CPAP (continuous positive airway pressures). The same appears to be the case with adults suffering from ARI (acute respiratory insufficiency).

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Year:  1976        PMID: 786640     DOI: 10.1007/bf01886120

Source DB:  PubMed          Journal:  Eur J Intensive Care Med        ISSN: 0340-0964


  48 in total

1.  Mortality prediction in adult respiratory insufficiency.

Authors:  R H Bartlett; A B Gazzaniga; A F Wilson; T Medley; N Wetmore
Journal:  Chest       Date:  1975-06       Impact factor: 9.410

2.  Use of Amsterdam infant ventilator for continuous positive pressure breathing.

Authors:  D Vidyasagar; R S Pildes; M R Salem
Journal:  Crit Care Med       Date:  1974 Mar-Apr       Impact factor: 7.598

3.  Continuous positive-pressure ventilation and portal flow in dogs with pulmonary edema.

Authors:  E E Johnson; J Hedley-Whyte
Journal:  J Appl Physiol       Date:  1972-09       Impact factor: 3.531

4.  Closing volume. Influence of extrabronchial factors.

Authors:  L H Andersen; G BO; G Sundström; B Wranne
Journal:  Scand J Clin Lab Invest       Date:  1974-09       Impact factor: 1.713

5.  Relationship of preoperative closing volume to functional residual capacity and alveolar-arterial oxygen difference during anesthesia with controlled ventilation.

Authors:  C S Weenig; S Pietak; R F Hickey; H B Fairley
Journal:  Anesthesiology       Date:  1974-07       Impact factor: 7.892

6.  Treatment of the idiopathic respiratory-distress syndrome with continuous positive airway pressure.

Authors:  G A Gregory; J A Kitterman; R H Phibbs; W H Tooley; W K Hamilton
Journal:  N Engl J Med       Date:  1971-06-17       Impact factor: 91.245

7.  The role of airway closure in postoperative hypoxaemia.

Authors:  J I Alexander; A A Spence; R K Parikh; B Stuart
Journal:  Br J Anaesth       Date:  1973-01       Impact factor: 9.166

8.  End-expiratory pressure in dogs with pulmonary edema breathing spontaneously.

Authors:  D F Lysons; F W Cheney
Journal:  Anesthesiology       Date:  1972-11       Impact factor: 7.892

9.  Airway closure, gas trapping, and the functional residual capacity during anesthesia.

Authors:  H F Don; W M Wahba; D B Craig
Journal:  Anesthesiology       Date:  1972-06       Impact factor: 7.892

10.  Regional distribution of ventilation and perfusion as a function of body position.

Authors:  K Kaneko; J Milic-Emili; M B Dolovich; A Dawson; D V Bates
Journal:  J Appl Physiol       Date:  1966-05       Impact factor: 3.531

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  5 in total

1.  The effects of PEEP on arterial oxygenation. An examination of some possible mechanisms.

Authors:  A Gilston
Journal:  Intensive Care Med       Date:  1977-12       Impact factor: 17.440

2.  D1/D2-dopamine receptor agonist dihydrexidine stimulates inspiratory motor output and depresses medullary expiratory neurons.

Authors:  Peter M Lalley
Journal:  Am J Physiol Regul Integr Comp Physiol       Date:  2009-03-11       Impact factor: 3.619

3.  Dose-response comparisons of five lung surfactant factor (LSF) preparations in an animal model of adult respiratory distress syndrome (ARDS).

Authors:  D Häfner; R Beume; U Kilian; G Krasznai; B Lachmann
Journal:  Br J Pharmacol       Date:  1995-06       Impact factor: 8.739

4.  [Early PEEP for improvement of prognosis in patients with acute respiratory insufficiency (author's transl)].

Authors:  L S Weilemann; H P Schuster; C J Schuster; C Rey; J Majdandzic
Journal:  Klin Wochenschr       Date:  1981-06-15

Review 5.  Postperfusion lung syndrome: physiopathology and therapeutic options.

Authors:  Shi-Min Yuan
Journal:  Rev Bras Cir Cardiovasc       Date:  2014 Jul-Sep
  5 in total

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