scholarly journals Coronary perfusion pressure in a pig model of prolonged cardiac arrest treated by different modes of venoarterial extracorporeal membrane oxygenation and intraaortic balloon counterpulsation

Critical Care ◽  
2012 ◽  
Vol 16 (S1) ◽  
Author(s):  
J Bělohlávek ◽  
M Mlcek ◽  
M Huptych ◽  
S Havranek ◽  
P Ostadal ◽  
...  
Keyword(s):  
Cardiac Arrest ◽  
Extracorporeal Membrane Oxygenation ◽  
Perfusion Pressure ◽  
Coronary Perfusion Pressure ◽  
Pig Model ◽  
Coronary Perfusion ◽  
Intraaortic Balloon ◽  
Venoarterial Extracorporeal Membrane Oxygenation ◽  
Intraaortic Balloon Counterpulsation ◽  
Balloon Counterpulsation

scholarly journals Cardiac arrest complicating cardiogenic shock: from pathophysiological insights to Impella-assisted cardiopulmonary resuscitation in a pheochromocytoma-induced Takotsubo cardiomyopathy—a case report

2021 ◽  
Vol 5 (3) ◽  
Author(s):  
Filippo Zilio ◽  
Simone Muraglia ◽  
Roberto Bonmassari
Keyword(s):  
Cardiac Arrest ◽  
Cardiopulmonary Resuscitation ◽  
Left Ventricle ◽  
Cardiogenic Shock ◽  
Takotsubo Cardiomyopathy ◽  
Perfusion Pressure ◽  
Coronary Perfusion Pressure ◽  
Left Ventricular ◽  
Coronary Perfusion ◽  
Refractory Cardiac Arrest

Abstract Background A ‘catecholamine storm’ in a case of pheochromocytoma can lead to a transient left ventricular dysfunction similar to Takotsubo cardiomyopathy. A cardiogenic shock can thus develop, with high left ventricular end-diastolic pressure and a reduction in coronary perfusion pressure. This scenario can ultimately lead to a cardiac arrest, in which unloading the left ventricle with a peripheral left ventricular assist device (Impella®) could help in achieving the return of spontaneous circulation (ROSC). Case summary A patient affected by Takotsubo cardiomyopathy caused by a pheochromocytoma presented with cardiogenic shock that finally evolved into refractory cardiac arrest. Cardiopulmonary resuscitation was performed but ROSC was achieved only after Impella® placement. Discussion In the clinical scenario of Takotsubo cardiomyopathy due to pheochromocytoma, when cardiogenic shock develops treatment is difficult because exogenous catecholamines, required to maintain organ perfusion, could exacerbate hypertension and deteriorate the cardiomyopathy. Moreover, as the coronary perfusion pressure is critically reduced, refractory cardiac arrest could develop. Although veno-arterial extra-corporeal membrane oxygenation (va-ECMO) has been advocated as the treatment of choice for in-hospital refractory cardiac arrest, in the presence of left ventricular overload a device like Impella®, which carries fewer complications as compared to ECMO, could be effective in obtaining the ROSC by unloading the left ventricle.

Cardiac Arrest and Resuscitation

2015 ◽  
Author(s):  
Charles N. Pozner ◽  
Jennifer L Martindale
Keyword(s):  
Cardiac Arrest ◽  
Ventricular Arrhythmias ◽  
Perfusion Pressure ◽  
Pulseless Electrical Activity ◽  
Coronary Perfusion Pressure ◽  
Spontaneous Circulation ◽  
Coronary Perfusion ◽  
Chest Compressions ◽  
Cardiac Resuscitation ◽  
Neurologic Function

The most effective treatment for cardiac arrest is the administration of high-quality chest compressions and early defibrillation; once spontaneous circulation is restored, post–cardiac arrest care is essential to support full return of neurologic function. This review summarizes the pathophysiology, stabilization and assessment, diagnosis and treatment, and disposition and outcomes of cardiac arrest and resuscitation. Figures show the foundations of cardiac resuscitation, ventricular arrhythmias, coronary perfusion pressure as a function of time, an algorithm for initial treatment of cardiac arrest, sample capnographs, and the electrocardiographic appearance of varying degrees of hyperkalemia. Tables include components of suboptimal cardiac resuscitation and corrective actions, recommended doses of medications commonly used in cardiac resuscitation, causes of pulseless electrical activity/asystolic arrest to consider, immediate post–return of spontaneous circulation checklist, and resuscitation goals during post–cardiac arrest care. This review contains 6 highly rendered figures, 5 tables, and 142 references.

REPEATED DOSES OF EPINEPHRINE DO NOT IMPROVE CORONARY PERFUSION PRESSURE AFTER 5 MIN CARDIAC ARREST IN PIGS

1999 ◽  
Vol 27 (Supplement) ◽  
pp. 45A
Author(s):  
Wilhelm Behringer ◽  
Michael Holzer ◽  
Fritz Sterz ◽  
Elisabeth Oschatz ◽  
Julia Kofler ◽  
...  
Keyword(s):  
Cardiac Arrest ◽  
Perfusion Pressure ◽  
Coronary Perfusion Pressure ◽  
Coronary Perfusion ◽  
Repeated Doses

scholarly journals Effect of pralidoxime on coronary perfusion pressure during cardiopulmonary resuscitation in a pig model

2019 ◽  
Vol 6 (3) ◽  
pp. 204-211 ◽  
Author(s):  
Yong Hun Jung ◽  
Dong Hyun Ryu ◽  
Kyung Woon Jeung ◽  
Joo-Young Na ◽  
Dong Hun Lee ◽  
...  
Keyword(s):  
Cardiopulmonary Resuscitation ◽  
Perfusion Pressure ◽  
Coronary Perfusion Pressure ◽  
Pig Model ◽  
Coronary Perfusion

Abstract 16154: Head and Shoulder Elevation Improves Cerebral Perfusion Pressure During Active Compression-decompression CPR and Conventional CPR in a Porcine Cardiac Arrest Model

Circulation ◽  
2015 ◽  
Vol 132 (suppl_3) ◽  
Author(s):  
Johanna C Moore ◽  
Ryu Hyun Ho ◽  
Michael Lick ◽  
Adamantios Tsangaris ◽  
Scott McKnite ◽  
...  
Keyword(s):  
Cardiac Arrest ◽  
Cerebral Perfusion Pressure ◽  
Cerebral Perfusion ◽  
Perfusion Pressure ◽  
Coronary Perfusion Pressure ◽  
Coronary Perfusion ◽  
Entire Body ◽  
Significant Difference ◽  
Group A ◽  
Group B

Background: Chest compressions during conventional cardiopulmonary resuscitation (C-CPR) increase arterial and venous pressures simultaneously, delivering bidirectional high pressure compression waves to the brain. It is possible that this may be detrimental neurologically and could be partially overcome by elevating the head during CPR. Previous animal study work using a tilt table has shown that a 30° head up position for the entire body during CPR significantly increases cerebral blood flow and cerebral perfusion pressure (CerPP) over a period of 5 minutes. We hypothesize that elevating the head and shoulders only will increase CerPP over a prolonged period of time with two different CPR techniques. Methods: Female farm pigs were sedated, intubated, anesthetized, and placed on a table designed to elevate the head and shoulders to 30°. After 8 min of untreated ventricular fibrillation and 2 min of automated C-CPR in the supine position, pigs were randomized to head up (HUP) or supine (SUP) CPR for 20 more min. In Group A, pigs were treated after 2 min of C-CPR with automated active compression decompression (ACD) CPR at 100 cycles/min plus an impedance threshold device (ITD), randomized to HUP (n=8) or SUP (n=8). In Group B, pigs were randomized after 2 min of C-CPR to treatment with HUP (n=7) or SUP (n=7) automated C-CPR. After 22 total min of CPR, defibrillation was performed. The primary outcome of the study was the comparison of CerPP at 22 min between HUP and SUP positions within each group. Results: After 22 min of CPR, CerPP (mmHg) was 39±7 with HUP versus 14±4 with SUP CPR (p=0.013) in Group A and 3.4±2.2 with HUP versus -6.3±2.6 with SUP CPR (p = 0.014) in Group B. There was no significant difference within groups for coronary perfusion pressure (CPP) after 22 min, but CPP trended higher with HUP in Group A (32.0 ± 4.9) versus SUP (18.8 ± 4.7)(p=0.072). The CPPs in Group B were 5.8 ± 1.1 with HUP versus 3.3±1.8 with SUP CPR, p=0.26). In Group A, 6/8 pigs were resuscitated in both positions where no pigs could be resuscitated in Group B. Conclusions: The HUP position using two different CPR techniques significantly improved CerPP over a prolonged period of time. This simple maneuver has the potential to improve neurological outcomes after cardiac arrest.

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