Circulation, Vol 74, 1407-1415, Copyright © 1986 by American Heart Association
HR Halperin, AD Guerci, N Chandra, A Herskowitz, JE Tsitlik, RA Niskanen, E Wurmb and ML Weisfeldt
Myocardial and cerebral blood flow can be generated during cardiac arrest
by techniques that manipulate intrathoracic pressure. Augmentation of
intrathoracic pressure by high-pressure ventilation simultaneous with
compression of the chest in dogs has been shown to produce higher flows to
the heart and brain, but has limited usefulness because of the requirement
for endotracheal intubation and complex devices. A system was developed
that can produce high intrathoracic pressure without simultaneous
ventilation by use of a pneumatically cycled vest placed around the thorax
(vest cardiopulmonary resuscitation [CPR]). The system was first tested in
a short-term study of the maximum achievable flows during arrest. Peak vest
pressures up to 380 mm Hg were used on eight 21 to 30 kg dogs after
induction of ventricular fibrillation and administration of epinephrine.
Microsphere- determined myocardial blood flow was 108 +/- 17 ml/min/100 g
(100 +/- 16% of prearrest flow) and cerebral flow was 51 +/- 12 ml/min/100
g (165 +/- 39% of prearrest). Severe lung or liver trauma was noted in
three of eight dogs. If peak vest pressure was limited to 280 mm Hg,
however, severe trauma was no longer observed. A study of the hemodynamics
during and survival from prolonged resuscitation was then performed on
three groups of seven dogs. Vest CPR was compared with manual CPR with
either conventional (300 newtons) or high (430 newtons) sternal force.
After induction of ventricular fibrillation, each technique was performed
for 26 min. Defibrillation was then performed.(ABSTRACT TRUNCATED AT 250
WORDS)
ARTICLES
Vest inflation without simultaneous ventilation during cardiac arrest in dogs: improved survival from prolonged cardiopulmonary resuscitation
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