Literature DB >> 24410575

GMP cryopreservation of large volumes of cells for regenerative medicine: active control of the freezing process.

Isobel Massie1, Clare Selden, Humphrey Hodgson, Barry Fuller, Stephanie Gibbons, G John Morris.   

Abstract

Cryopreservation protocols are increasingly required in regenerative medicine applications but must deliver functional products at clinical scale and comply with Good Manufacturing Process (GMP). While GMP cryopreservation is achievable on a small scale using a Stirling cryocooler-based controlled rate freezer (CRF) (EF600), successful large-scale GMP cryopreservation is more challenging due to heat transfer issues and control of ice nucleation, both complex events that impact success. We have developed a large-scale cryocooler-based CRF (VIA Freeze) that can process larger volumes and have evaluated it using alginate-encapsulated liver cell (HepG2) spheroids (ELS). It is anticipated that ELS will comprise the cellular component of a bioartificial liver and will be required in volumes of ∼2 L for clinical use. Sample temperatures and Stirling cryocooler power consumption was recorded throughout cooling runs for both small (500 μL) and large (200 mL) volume samples. ELS recoveries were assessed using viability (FDA/PI staining with image analysis), cell number (nuclei count), and function (protein secretion), along with cryoscanning electron microscopy and freeze substitution techniques to identify possible injury mechanisms. Slow cooling profiles were successfully applied to samples in both the EF600 and the VIA Freeze, and a number of cooling and warming profiles were evaluated. An optimized cooling protocol with a nonlinear cooling profile from ice nucleation to -60°C was implemented in both the EF600 and VIA Freeze. In the VIA Freeze the nucleation of ice is detected by the control software, allowing both noninvasive detection of the nucleation event for quality control purposes and the potential to modify the cooling profile following ice nucleation in an active manner. When processing 200 mL of ELS in the VIA Freeze-viabilities at 93.4% ± 7.4%, viable cell numbers at 14.3 ± 1.7 million nuclei/mL alginate, and protein secretion at 10.5 ± 1.7 μg/mL/24 h were obtained which, compared well with control ELS (viability -98.1% ± 0.9%; viable cell numbers -18.3 ± 1.0 million nuclei/mL alginate; and protein secretion -18.7 ± 1.8 μg/mL/24 h). Large volume GMP cryopreservation of ELS is possible with good functional recovery using the VIA Freeze and may also be applied to other regenerative medicine applications.

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Year:  2014        PMID: 24410575      PMCID: PMC4152792          DOI: 10.1089/ten.TEC.2013.0571

Source DB:  PubMed          Journal:  Tissue Eng Part C Methods        ISSN: 1937-3384            Impact factor:   3.056


  29 in total

1.  Characterization of cell-banking parameters for the cryopreservation of mammalian cell lines in 100-mL cryobags.

Authors:  Rüdiger Heidemann; Svenja Lünse; Doan Tran; Chun Zhang
Journal:  Biotechnol Prog       Date:  2010 Jul-Aug

Review 2.  Cryopreservation of red blood cells and platelets.

Authors:  Andreas Sputtek
Journal:  Methods Mol Biol       Date:  2007

3.  Thermal expansion of blood vessels in low cryogenic temperatures, Part II: Vitrification with VS55, DP6, and 7.05 M DMSO.

Authors:  Jorge L Jimenez Rios; Yoed Rabin
Journal:  Cryobiology       Date:  2006-02-20       Impact factor: 2.487

Review 4.  Risk of contamination of germplasm during cryopreservation and cryobanking in IVF units.

Authors:  A Bielanski; G Vajta
Journal:  Hum Reprod       Date:  2009-06-26       Impact factor: 6.918

5.  Cryopreservation of encapsulated liver spheroids for a bioartificial liver: reducing latent cryoinjury using an ice nucleating agent.

Authors:  Isobel Massie; Clare Selden; Humphrey Hodgson; Barry Fuller
Journal:  Tissue Eng Part C Methods       Date:  2011-04-20       Impact factor: 3.056

6.  Liquid nitrogen freezers: a potential source of microbial contamination of hematopoietic stem cell components.

Authors:  D Fountain; M Ralston; N Higgins; J B Gorlin; L Uhl; C Wheeler; J H Antin; W H Churchill; R J Benjamin
Journal:  Transfusion       Date:  1997-06       Impact factor: 3.157

Review 7.  Controlled ice nucleation in cryopreservation--a review.

Authors:  G John Morris; Elizabeth Acton
Journal:  Cryobiology       Date:  2012-12-12       Impact factor: 2.487

8.  The effect of cooling rate and warming rate on the packing effect in human erythrocytes frozen and thawed in the presence of 2 M glycerol.

Authors:  D E Pegg; M P Diaper; H L Skaer; C J Hunt
Journal:  Cryobiology       Date:  1984-10       Impact factor: 2.487

9.  Membrane permeability parameters for freezing of stallion sperm as determined by Fourier transform infrared spectroscopy.

Authors:  Harriëtte Oldenhof; Katharina Friedel; Harald Sieme; Birgit Glasmacher; Willem F Wolkers
Journal:  Cryobiology       Date:  2010-06-08       Impact factor: 2.487

10.  Alginate-encapsulated HepG2 cells in a fluidized bed bioreactor maintain function in human liver failure plasma.

Authors:  Sam M Coward; Cécile Legallais; Bertrand David; Michael Thomas; Ying Foo; Demetra Mavri-Damelin; Humphrey J Hodgson; Clare Selden
Journal:  Artif Organs       Date:  2009-12       Impact factor: 3.094

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  25 in total

Review 1.  Industrializing engineered autologous T cells as medicines for solid tumours.

Authors:  Cedrik M Britten; Aiman Shalabi; Axel Hoos
Journal:  Nat Rev Drug Discov       Date:  2021-04-08       Impact factor: 84.694

Review 2.  Chemical approaches to cryopreservation.

Authors:  Kathryn A Murray; Matthew I Gibson
Journal:  Nat Rev Chem       Date:  2022-07-18       Impact factor: 34.571

3.  The role of structural order in heterogeneous ice nucleation.

Authors:  Gabriele C Sosso; Prerna Sudera; Anna T Backes; Thomas F Whale; Janine Fröhlich-Nowoisky; Mischa Bonn; Angelos Michaelides; Ellen H G Backus
Journal:  Chem Sci       Date:  2022-04-08       Impact factor: 9.969

Review 4.  Cryopreservation of Tissue-Engineered Scaffold-Based Constructs: from Concept to Reality.

Authors:  Irina Arutyunyan; Andrey Elchaninov; Gennady Sukhikh; Timur Fatkhudinov
Journal:  Stem Cell Rev Rep       Date:  2021-11-10       Impact factor: 6.692

5.  Cell density, dimethylsulfoxide concentration and needle gauge affect hydrogel-induced bone marrow mesenchymal stromal cell viability.

Authors:  Xia Chen; Alexander G Foote; Susan L Thibeault
Journal:  Cytotherapy       Date:  2017-10-03       Impact factor: 5.414

6.  A Method to Efficiently Cryopreserve Mammalian Cells on Paper Platforms.

Authors:  Muhammedin Deliorman; Pavithra Sukumar; Roaa Alnemari; Mohammad A Qasaimeh
Journal:  Bio Protoc       Date:  2020-09-20

7.  Isolation of intact extracellular vesicles from cryopreserved samples.

Authors:  Shannon N Tessier; Lauren D Bookstaver; Cindy Angpraseuth; Cleo J Stannard; Beatriz Marques; Uyen K Ho; Alona Muzikansky; Berent Aldikacti; Eduardo Reátegui; Daniel C Rabe; Mehmet Toner; Shannon L Stott
Journal:  PLoS One       Date:  2021-05-13       Impact factor: 3.240

8.  Sand-mediated ice seeding enables serum-free low-cryoprotectant cryopreservation of human induced pluripotent stem cells.

Authors:  Bin Jiang; Weijie Li; Samantha Stewart; Wenquan Ou; Baolin Liu; Pierre Comizzoli; Xiaoming He
Journal:  Bioact Mater       Date:  2021-04-30

9.  A scale down process for the development of large volume cryopreservation.

Authors:  Peter Kilbride; G John Morris; Stuart Milne; Barry Fuller; Jeremy Skepper; Clare Selden
Journal:  Cryobiology       Date:  2014-09-16       Impact factor: 2.487

Review 10.  Microtissues in Cardiovascular Medicine: Regenerative Potential Based on a 3D Microenvironment.

Authors:  Julia Günter; Petra Wolint; Annina Bopp; Julia Steiger; Elena Cambria; Simon P Hoerstrup; Maximilian Y Emmert
Journal:  Stem Cells Int       Date:  2016-03-17       Impact factor: 5.443

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