Literature DB >> 22627805

Improving piezoelectric cell printing accuracy and reliability through neutral buoyancy of suspensions.

Daljeet Chahal1, Ali Ahmadi, Karen C Cheung.   

Abstract

The sedimentation and aggregation of cells within inkjet printing systems has been hypothesized to negatively impact printer performance. The purpose of this study was to investigate this influence through the use of neutral buoyancy. Ficoll PM400 was used to create neutrally buoyant MCF-7 breast cancer cell suspensions, which were ejected using a piezoelectric drop-on-demand inkjet printing system. It was found that using a neutrally buoyant suspension greatly increased the reproducibility of consistent cell counts, and eliminated nozzle clogging. Moreover, the use of Ficoll PM400 was shown to not affect cellular viability. This is the first demonstration of such scale and accuracy achieved using a piezoelectric inkjet printing system for cellular dispensing.
Copyright © 2012 Wiley Periodicals, Inc.

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Year:  2012        PMID: 22627805     DOI: 10.1002/bit.24562

Source DB:  PubMed          Journal:  Biotechnol Bioeng        ISSN: 0006-3592            Impact factor:   4.530


  13 in total

1.  Cryoprotectant-free cryopreservation of mammalian cells by superflash freezing.

Authors:  Yoshitake Akiyama; Masato Shinose; Hiroki Watanabe; Shigeru Yamada; Yasunari Kanda
Journal:  Proc Natl Acad Sci U S A       Date:  2019-04-01       Impact factor: 11.205

Review 2.  Current Trends on Medical and Pharmaceutical Applications of Inkjet Printing Technology.

Authors:  Nicolaos Scoutaris; Steven Ross; Dennis Douroumis
Journal:  Pharm Res       Date:  2016-05-12       Impact factor: 4.200

3.  Bioprinting of Cartilage and Skin Tissue Analogs Utilizing a Novel Passive Mixing Unit Technique for Bioink Precellularization.

Authors:  Patrick Scott Thayer; Linnea Stridh Orrhult; Héctor Martínez
Journal:  J Vis Exp       Date:  2018-01-03       Impact factor: 1.355

4.  Template-Enabled Biofabrication of Thick 3D Tissues with Patterned Perfusable Macrochannels.

Authors:  Elham Davoodi; Hossein Montazerian; Masoud Zhianmanesh; Reza Abbasgholizadeh; Reihaneh Haghniaz; Avijit Baidya; Homeyra Pourmohammadali; Nasim Annabi; Paul S Weiss; Ehsan Toyserkani; Ali Khademhosseini
Journal:  Adv Healthc Mater       Date:  2022-01-12       Impact factor: 9.933

5.  Direct-write bioprinting of cell-laden methacrylated gelatin hydrogels.

Authors:  Luiz E Bertassoni; Juliana C Cardoso; Vijayan Manoharan; Ana L Cristino; Nupura S Bhise; Wesleyan A Araujo; Pinar Zorlutuna; Nihal E Vrana; Amir M Ghaemmaghami; Mehmet R Dokmeci; Ali Khademhosseini
Journal:  Biofabrication       Date:  2014-04-03       Impact factor: 9.954

Review 6.  Developments with 3D bioprinting for novel drug discovery.

Authors:  Aishwarya Satpathy; Pallab Datta; Yang Wu; Bugra Ayan; Ertugrul Bayram; Ibrahim T Ozbolat
Journal:  Expert Opin Drug Discov       Date:  2018-11-01       Impact factor: 6.098

7.  Polyvinylpyrrolidone-Based Bio-Ink Improves Cell Viability and Homogeneity during Drop-On-Demand Printing.

Authors:  Wei Long Ng; Wai Yee Yeong; May Win Naing
Journal:  Materials (Basel)       Date:  2017-02-16       Impact factor: 3.623

8.  Development of a Disposable Single-Nozzle Printhead for 3D Bioprinting of Continuous Multi-Material Constructs.

Authors:  Tiffany Cameron; Emad Naseri; Ben MacCallum; Ali Ahmadi
Journal:  Micromachines (Basel)       Date:  2020-04-28       Impact factor: 2.891

Review 9.  Three-dimensional printing of the retina.

Authors:  Barbara Lorber; Wen-Kai Hsiao; Keith R Martin
Journal:  Curr Opin Ophthalmol       Date:  2016-05       Impact factor: 3.761

Review 10.  3D bioprinting for biomedical devices and tissue engineering: A review of recent trends and advances.

Authors:  Soroosh Derakhshanfar; Rene Mbeleck; Kaige Xu; Xingying Zhang; Wen Zhong; Malcolm Xing
Journal:  Bioact Mater       Date:  2018-02-20
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