Quantification of Perfusion Modes in Terms of Surplus Hemodynamic Energy Levels in a Simulated Pediatric CPB Model

The objective of this investigation was to compare pulsatile versus nonpulsatile perfusion modes in terms of surplus hemodynamic energy (SHE) levels during cardiopulmonary bypass (CPB) in a simulated neonatal model.The extracorporeal circuit consisted of a Jostra HL-20 heart-lung machine (for both p...

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Veröffentlicht in:ASAIO journal (1992) 2006-11, Vol.52 (6), p.712-717
Hauptverfasser: Ündar, Akif, Ji, Bingyang, Lukic, Branka, Zapanta, Conrad M, Kunselman, Allen R, Reibson, John D, Weiss, William J, Rosenberg, Gerson, Myers, John L
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container_end_page 717
container_issue 6
container_start_page 712
container_title ASAIO journal (1992)
container_volume 52
creator Ündar, Akif
Ji, Bingyang
Lukic, Branka
Zapanta, Conrad M
Kunselman, Allen R
Reibson, John D
Weiss, William J
Rosenberg, Gerson
Myers, John L
description The objective of this investigation was to compare pulsatile versus nonpulsatile perfusion modes in terms of surplus hemodynamic energy (SHE) levels during cardiopulmonary bypass (CPB) in a simulated neonatal model.The extracorporeal circuit consisted of a Jostra HL-20 heart-lung machine (for both pulsatile and nonpulsatile modes of perfusion), a Capiox Baby RX hollow-fiber membrane oxygenator, a Capiox pediatric arterial filter, 5 feet of arterial tubing and 6 feet of venous tubing with a quarter-inch diameter. The circuit was primed with a lactated Ringers solution. The systemic resistance of a pseudo-patient (mean weight, 3 kg) was simulated by placing a clamp at the end of the arterial line. The pseudo-patient was subjected to five pump flow rates in the 400 to 800 ml/min range. During pulsatile perfusion, the pump rate was kept constant at 120 bpm. Pressure waveforms were recorded at the preoxygenator, postoxygenator, and preaortic cannula sites. SHE was calculated by use of the following formula {SHE (ergs/cm) = 1,332 [((∫ fpdt) / (∫ fdt)) – Mean Arterial Pressure]} (f = pump flow and p = pressure). A total of 60 experiments were performed (n = 6 for nonpulsatile and n = 6 for pulsatile) at each of the five flow rates. A linear mixed-effects model, which accounts for the correlation among repeated measurements, was fit to the data to assess differences in SHE between flows, pumps, and sites. The Tukey multiple comparison procedure was used to adjust p values for post hoc pairwise comparisons.With a pump flow rate of 400 ml/min, pulsatile flow generated significantly higher surplus hemodynamic energy levels at the preoxygenator site (23,421 ± 2,068 ergs/cm vs. 4,154 ± 331 ergs/cm, p < 0.0001), the postoxygenator site (18,784 ± 1,557 ergs/cm vs. 3,383 ± 317 ergs/cm, p < 0.0001), and the precannula site (6,324 ± 772 ergs/cm vs. 1,320 ± 91 ergs/cm, p < 0.0001), compared with the nonpulsatile group. Pulsatile flow produced higher SHE levels at all other pump flow rates.The Jostra HL-20 roller pump generated significantly higher SHE levels in the pulsatile mode when compared with the nonpulsatile mode at all five pump flow rates.
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source MEDLINE; Journals@Ovid LWW Legacy Archive; Journals@Ovid Complete; EZB-FREE-00999 freely available EZB journals
subjects Blood Flow Velocity
Blood Pressure
Cardiopulmonary Bypass - instrumentation
Cardiopulmonary Bypass - methods
Energy Metabolism
Humans
In Vitro Techniques
Infant, Newborn
Models, Cardiovascular
Pulsatile Flow
title Quantification of Perfusion Modes in Terms of Surplus Hemodynamic Energy Levels in a Simulated Pediatric CPB Model
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