Literature DB >> 32797408

Principles of Ice-Free Cryopreservation by Vitrification.

Gregory M Fahy1, Brian Wowk2.   

Abstract

Vitrification is an alternative to cryopreservation by freezing that enables hydrated living cells to be cooled to cryogenic temperatures in the absence of ice. Vitrification simplifies and frequently improves cryopreservation because it eliminates mechanical injury from ice, eliminates the need to find optimal cooling and warming rates, eliminates the importance of differing optimal cooling and warming rates for cells in mixed cell type populations, eliminates the need to find a frequently imperfect compromise between solution effects injury and intracellular ice formation, and can enable chilling injury to be "outrun" by using rapid cooling without a risk of intracellular ice formation. On the other hand, vitrification requires much higher concentrations of cryoprotectants than cryopreservation by freezing, which introduces greater risks of both osmotic damage and cryoprotectant toxicity. Fortunately, a large number of remedies for the latter problem have been discovered over the past 35 years, and osmotic damage can in most cases be eliminated or adequately controlled by paying careful attention to cryoprotectant introduction and washout techniques. Vitrification therefore has the potential to enable the superior and convenient cryopreservation of a wide range of biological systems (including molecules, cells, tissues, organs, and even some whole organisms), and it is also increasingly recognized as a successful strategy for surviving harsh environmental conditions in nature. But the potential of vitrification is sometimes limited by an insufficient understanding of the complex physical and biological principles involved, and therefore a better understanding may not only help to improve present outcomes but may also point the way to new strategies that may be yet more successful in the future. This chapter accordingly describes the basic principles of vitrification and indicates the broad potential biological relevance of this alternative method of cryopreservation.

Entities:  

Keywords:  Biobanking; Chilling injury; Cryopreservation; Cryoprotectant toxicity; Cryoprotective agents; Devitrification; Freezing; Glass transition; Glassy state; Intracellular ice formation; Optimal cooling rate; Organ preservation; Osmotic limits; Protein denaturation; Recrystallization; Vitrification

Mesh:

Substances:

Year:  2021        PMID: 32797408     DOI: 10.1007/978-1-0716-0783-1_2

Source DB:  PubMed          Journal:  Methods Mol Biol        ISSN: 1064-3745


  232 in total

1.  Cryopreservation of organs by vitrification: perspectives and recent advances.

Authors:  Gregory M Fahy; Brian Wowk; Jun Wu; John Phan; Chris Rasch; Alice Chang; Eric Zendejas
Journal:  Cryobiology       Date:  2004-04       Impact factor: 2.487

2.  Physical and biological aspects of renal vitrification.

Authors:  Gregory M Fahy; Brian Wowk; Roberto Pagotan; Alice Chang; John Phan; Bruce Thomson; Laura Phan
Journal:  Organogenesis       Date:  2009-07       Impact factor: 2.500

Review 3.  Thermodynamic aspects of vitrification.

Authors:  Brian Wowk
Journal:  Cryobiology       Date:  2009-06-16       Impact factor: 2.487

4.  Investigating variables and mechanisms that influence protein integrity in low water content amorphous carbohydrate matrices.

Authors:  Jane F Povey; Natalia Perez-Moral; Timothy R Noel; Roger Parker; Mark J Howard; C Mark Smales
Journal:  Biotechnol Prog       Date:  2009 Sep-Oct

5.  High-temperature tolerance in anhydrobiotic tardigrades is limited by glass transition.

Authors:  S Hengherr; M R Worland; A Reuner; F Brümmer; R O Schill
Journal:  Physiol Biochem Zool       Date:  2009 Nov-Dec       Impact factor: 2.247

Review 6.  Principles of cryopreservation by vitrification.

Authors:  Gregory M Fahy; Brian Wowk
Journal:  Methods Mol Biol       Date:  2015

Review 7.  How sugars protect proteins in the solid state and during drying (review): Mechanisms of stabilization in relation to stress conditions.

Authors:  Maarten A Mensink; Henderik W Frijlink; Kees van der Voort Maarschalk; Wouter L J Hinrichs
Journal:  Eur J Pharm Biopharm       Date:  2017-02-09       Impact factor: 5.571

8.  Electron microscope study of erythrocytes in rapidly cooled suspensions containing various concentrations of glycerol.

Authors:  G Rapatz; B Luyet
Journal:  Biodynamica       Date:  1968

Review 9.  Cryopreservation of complex systems: the missing link in the regenerative medicine supply chain.

Authors:  Gregory M Fahy; Brian Wowk; Jun Wu
Journal:  Rejuvenation Res       Date:  2006       Impact factor: 4.663

10.  Vitrification is essential for anhydrobiosis in an African chironomid, Polypedilum vanderplanki.

Authors:  Minoru Sakurai; Takao Furuki; Ken-Ichi Akao; Daisuke Tanaka; Yuichi Nakahara; Takahiro Kikawada; Masahiko Watanabe; Takashi Okuda
Journal:  Proc Natl Acad Sci U S A       Date:  2008-03-24       Impact factor: 11.205

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  7 in total

Review 1.  Natural Cryoprotective and Cytoprotective Agents in Cryopreservation: A Focus on Melatonin.

Authors:  Giada Marcantonini; Desirée Bartolini; Linda Zatini; Stefania Costa; Massimiliano Passerini; Mario Rende; Giovanni Luca; Giuseppe Basta; Giuseppe Murdolo; Riccardo Calafiore; Francesco Galli
Journal:  Molecules       Date:  2022-05-19       Impact factor: 4.927

2.  Small-molecule fulvic acid with strong hydration ability for non-vitreous cellular cryopreservation.

Authors:  Guoying Bai; Jinhao Hu; Sijia Qin; Zipeng Qi; Hening Zhuang; Fude Sun; Youhua Lu; Shenglin Jin; Dong Gao; Jianjun Wang
Journal:  iScience       Date:  2022-05-18

Review 3.  Towards a method for cryopreservation of mosquito vectors of human pathogens.

Authors:  Emily N Gallichotte; Karen M Dobos; Gregory D Ebel; Mary Hagedorn; Jason L Rasgon; Jason H Richardson; Timothy T Stedman; Jennifer P Barfield
Journal:  Cryobiology       Date:  2021-02-05       Impact factor: 2.487

Review 4.  Winter is coming: the future of cryopreservation.

Authors:  Sanja Bojic; Alex Murray; Roman Bauer; João Pedro de Magalhães; Barry L Bentley; Ralf Spindler; Piotr Pawlik; José L Cordeiro
Journal:  BMC Biol       Date:  2021-03-24       Impact factor: 7.431

5.  Development of a Vitrification Preservation Process for Bioengineered Epithelial Constructs.

Authors:  Lia H Campbell; Kelvin G M Brockbank
Journal:  Cells       Date:  2022-03-25       Impact factor: 6.600

6.  Ice Control during Cryopreservation of Heart Valves and Maintenance of Post-Warming Cell Viability.

Authors:  Kelvin G M Brockbank; John C Bischof; Zhenzhen Chen; Elizabeth D Greene; Zhe Gao; Lia H Campbell
Journal:  Cells       Date:  2022-06-07       Impact factor: 7.666

Review 7.  Improving the ischemia-reperfusion injury in vascularized composite allotransplantation: Clinical experience and experimental implications.

Authors:  Jiqiang He; Umar Zeb Khan; Liming Qing; Panfeng Wu; Juyu Tang
Journal:  Front Immunol       Date:  2022-09-16       Impact factor: 8.786

  7 in total

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