Literature DB >> 16297800

Improved viability and reduced apoptosis in sub-zero 21-hour preservation of transplanted rat hearts using anti-freeze proteins.

Gabriel Amir1, Boris Rubinsky, Sheick Yousif Basheer, Liana Horowitz, Leor Jonathan, Micha S Feinberg, Aram K Smolinsky, Jacob Lavee.   

Abstract

BACKGROUND: Freeze-tolerant fish survive sub-zero temperatures by non-colligatively lowering the freezing temperature of their body fluids using anti-freeze proteins (AFPs). We sought to evaluate and compare the effects of prolonged sub-zero cryopreservation of transplanted rat hearts using AFP I or AFP III.
METHODS: Two heterotopic rat heart transplantation protocols were used. In Protocol 1 (n = 104), hearts (n = 8/group) were preserved for 12, 18 and 24 hours in University of Wisconsin solution (UW) at 4 degrees C, UW at -1.3 degrees C, UW/AFP I at -1.3 degrees C and UW/AFP III at -1.3 degrees C, with and without nucleation. Post-operative evaluation consisted of visual viability scoring of the hearts after 60 minutes. Protocol 2 (n = 58) involved evaluation of 24-hour post-transplant viability, echocardiography (fractional shortening [FS], left ventricular end-systolic and -diastolic diameter [ESD, EDD] and anterior and posterior wall systolic and diastolic thickness [AWT-S, AWT-D, PWT-S, PWT-D]), TUNEL staining and electron microscopy (EM) findings for hearts preserved for 18, 21 and 24 hours in UW at 4 degrees C or UW/AFP III at -1.3 degrees C.
RESULTS: Hearts preserved in UW at -1.3 degrees C with nucleation froze and died. Three of 8 hearts preserved in UW at 4 degrees C for 24 hours died, whereas all hearts preserved at -1.3 degrees C survived. Hearts preserved in UW/AFP for 18 and 24 hours at -1.3 degrees C had superior viability scores compared with those in UW at 4 degrees C. Hearts in AFP III at -1.3 degrees C displayed greater AWT-S and AWT-D (3.5 +/- 0.2 vs 2.4 +/- 0.2, p < 0.05, and 3.5 +/- 0.2 vs 2.2 +/- 0.2, p < 0.05, respectively) after 18-hour preservation. In the 21-hour preservation group, AFP-treated hearts displayed improved echocardiographic systolic contraction indices, including: improved FS (27 +/- 3.7 vs 15 +/- 4, p = 0.04); diminished ESD (0.28 +/- 0.57 vs 0.47 +/- 0.6, p < 0.05); greater AWT-S (3.4 +/- 0.18 vs 2.8 +/- 0.2, p < 0.05); and fewer positively TUNEL-stained nuclei per specimen (35 +/- 14 vs 5.3 +/- 2.7, p = 0.04). Also, improved EM scores were noted compared with UW at 4 degrees C.
CONCLUSIONS: In prolonged sub-zero cryopreservation, AFPs protect the heart from freezing, improve survival and hemodynamics, and reduce apoptotic cell death.

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Year:  2005        PMID: 16297800     DOI: 10.1016/j.healun.2004.11.003

Source DB:  PubMed          Journal:  J Heart Lung Transplant        ISSN: 1053-2498            Impact factor:   10.247


  13 in total

Review 1.  A brief review of applications of antifreeze proteins in cryopreservation and metabolic genetic engineering.

Authors:  Aung Htay Naing; Chang Kil Kim
Journal:  3 Biotech       Date:  2019-08-12       Impact factor: 2.406

2.  Organ protective mechanisms common to extremes of physiology: a window through hibernation biology.

Authors:  Quintin J Quinones; Qing Ma; Zhiquan Zhang; Brian M Barnes; Mihai V Podgoreanu
Journal:  Integr Comp Biol       Date:  2014-05-21       Impact factor: 3.326

3.  Subzero 12-hour Nonfreezing Cryopreservation of Porcine Heart in a Variable Magnetic Field.

Authors:  Ryuta Seguchi; Go Watanabe; Hiroki Kato; Shojiro Yamaguchi
Journal:  Transplant Direct       Date:  2015-10-09

4.  Glomus tumors in neurofibromatosis type 1: genetic, functional, and clinical evidence of a novel association.

Authors:  Hilde Brems; Caroline Park; Ophélia Maertens; Alexander Pemov; Ludwine Messiaen; Ludwine Messia; Meena Upadhyaya; Kathleen Claes; Eline Beert; Kristel Peeters; Victor Mautner; Jennifer L Sloan; Lawrence Yao; Chyi-Chia Richard Lee; Raf Sciot; Luc De Smet; Eric Legius; Douglas R Stewart
Journal:  Cancer Res       Date:  2009-09-08       Impact factor: 12.701

5.  Hypothermic preservation of rat hearts using antifreeze glycoprotein.

Authors:  S Takago; I Matsumoto; H Kato; N Saito; H Ueda; K Iino; K Kimura; H Takemura
Journal:  Physiol Res       Date:  2020-11-25       Impact factor: 1.881

6.  Creating Anti-icing Surfaces via the Direct Immobilization of Antifreeze Proteins on Aluminum.

Authors:  Yunho Gwak; Ji-In Park; Minjae Kim; Hong Suk Kim; Myong Jong Kwon; Seung Jin Oh; Young-Pil Kim; EonSeon Jin
Journal:  Sci Rep       Date:  2015-07-08       Impact factor: 4.379

7.  Frostbite protection in mice expressing an antifreeze glycoprotein.

Authors:  Martin Heisig; Sarah Mattessich; Alison Rembisz; Ali Acar; Martin Shapiro; Carmen J Booth; Girish Neelakanta; Erol Fikrig
Journal:  PLoS One       Date:  2015-02-25       Impact factor: 3.240

8.  Ice Growth Inhibition in Antifreeze Polypeptide Solution by Short-Time Solution Preheating.

Authors:  Naoto Nishi; Takuya Miyamoto; Tomonori Waku; Naoki Tanaka; Yoshimichi Hagiwara
Journal:  PLoS One       Date:  2016-05-06       Impact factor: 3.240

9.  Balance between hydration enthalpy and entropy is important for ice binding surfaces in Antifreeze Proteins.

Authors:  Michael Schauperl; Maren Podewitz; Teresa S Ortner; Franz Waibl; Alexander Thoeny; Thomas Loerting; Klaus R Liedl
Journal:  Sci Rep       Date:  2017-09-19       Impact factor: 4.379

10.  Antifreeze Protein Supplementation During the Warming of Vitrified Bovine Ovarian Tissue Can Improve the Ovarian Tissue Quality After Xenotransplantation.

Authors:  Hyun Sun Kong; Yeon Hee Hong; Jaewang Lee; Hye Won Youm; Jung Ryeol Lee; Chang Suk Suh; Seok Hyun Kim
Journal:  Front Endocrinol (Lausanne)       Date:  2021-05-28       Impact factor: 5.555

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