Evaluation of the Growth Environment of a Hydrostatic Force Bioreactor for Preconditioning of Tissue−Engineered Constructs

Evaluation of the Growth Environment of a Hydrostatic Force Bioreactor for Preconditioning of Tissue−Engineered Constructs

Mostrar outras versões (1)

Detalhes bibliográficos
Principais autores:	Reinwald, Y, Leonard, K, Henstock, J, Whiteley, J, Osborne, J, Waters, S, Levesque, P, Haj, A
Formato:	Journal article
Publicado em:	2015

Registros relacionados

Evaluation of the Growth Environment of a Hydrostatic Force Bioreactor for Preconditioning of Tissue−Engineered Constructs
por: Reinwald, Y, et al.
Publicado em: (2014)

The influence of hydrostatic pressure on tissue engineered bone development
por: Whiteley, J, et al.
Publicado em: (2016)

The influence of bioreactor geometry and the mechanical environment on engineered tissues.
por: Osborne, J, et al.
Publicado em: (2010)

The Influence of Bioreactor Geometry and the Mechanical Environment on Engineered Tissues
por: Osborne, J, et al.
Publicado em: (2010)

The influence of bioreactor geometry and the mechanical environment on engineered tissues
por: Osborne, J, et al.
Publicado em: (2010)

Mathematical and computational modelling of tissue engineered bone in a hydrostatic bioreactor
por: Leonard, KHL
Publicado em: (2014)

The interplay between tissue growth and scaffold degradation in engineered tissue constructs
por: O’Dea, R, et al.
Publicado em: (2012)

The interplay between tissue growth and scaffold degradation in engineered tissue constructs.
por: O'Dea, R, et al.
Publicado em: (2013)

The interplay between tissue growth and scaffold degradation in engineered tissue constructs
por: O'Dea, R, et al.
Publicado em: (2012)

A multiphase model for tissue construct growth in a perfusion bioreactor.
por: O'Dea, R, et al.
Publicado em: (2010)

Mathematical modelling of cell layer growth in a hollow fibre bioreactor
por: Chapman, L, et al.
Publicado em: (2017)

A strategy to determine operating parameters in tissue engineering hollow fiber bioreactors.
por: Shipley, R, et al.
Publicado em: (2011)

Bioreactor systems for tissue engineering /
por: Kasper, Cornelia, et al.
Publicado em: (2009)

Preconditioning kernel matrices
por: Cutajar, K, et al.
Publicado em: (2016)

Optimising cell aggregate expansion in a perfused hollow fibre bioreactor via mathematical modelling
por: Chapman, L, et al.
Publicado em: (2014)

Design and construct a bioreactor for retinal pigment epithelium (RPE) tissue engineering
por: Neo, Chin Ding
Publicado em: (2015)

A Novel Pulsatile Bioreactor for Mechanical Stimulation of Tissue Engineered Cardiac Constructs
por: Günther Eissner, et al.
Publicado em: (2011-07-01)

In vitro Cartilage Regeneration Regulated by a Hydrostatic Pressure Bioreactor Based on Hybrid Photocrosslinkable Hydrogels
por: Xintong Zhao, et al.
Publicado em: (2022-06-01)

Tissue growth in a rotating bioreactor. Part I: mechanical stability
por: Waters, S, et al.
Publicado em: (2006)

Fluid and mass transport modelling to drive the design of cell-packed hollow fibre bioreactors for tissue engineering applications.
por: Shipley, R, et al.
Publicado em: (2012)

A Pulsatile Bioreactor for Conditioning of Tissue-Engineered Cardiovascular Constructs under Endoscopic Visualization
por: Bassil Akra, et al.
Publicado em: (2012-07-01)

Mathematical modelling of fibre-enhanced perfusion inside a tissue-engineering bioreactor
por: Whittaker, R, et al.
Publicado em: (2009)

Mathematical modelling of fibre-enhanced perfusion inside a tissue-engineering bioreactor.
por: Whittaker, R, et al.
Publicado em: (2009)

Fabrication of Decellularized Engineered Extracellular Matrix through Bioreactor-Based Environment for Bone Tissue Engineering
por: Hanieh Nokhbatolfoghahaei, et al.
Publicado em: (2020-12-01)

Modular Bioreactor Design for Directed Tendon/Ligament Tissue Engineering
por: Axel J. Delakowski, et al.
Publicado em: (2022-03-01)

Multiphase modelling of the influence of fluid flow and chemical concentration on tissue growth in a hollow fibre membrane bioreactor.
por: Pearson, N, et al.
Publicado em: (2014)

Protocol for the Use of a Novel Bioreactor System for Hydrated Mechanical Testing, Strained Sterile Culture, and Force of Contraction Measurement of Tissue Engineered Muscle Constructs
por: Sarah M. Somers, et al.
Publicado em: (2021-04-01)

Simultaneous Hydrostatic and Compressive Loading System for Mimicking the Mechanical Environment of Living Cartilage Tissue
por: Minki Chang, et al.
Publicado em: (2023-08-01)

A multi-well bioreactor for cartilage tissue engineering experiments
por: Yann D. Ladner, et al.
Publicado em: (2023-07-01)

Cardiac tissue engineering : bioreactor cultivation parameters
por: Carrier, Rebecca Lyn, 1973-
Publicado em: (2005)

Development of an integrated tissue engineering bioreactor system for microvessel development in A 3D environment /
por: Mohd. Ramdan Mohd. Rofi, 1987-, author 541205, et al.
Publicado em: (2020)

Development of an integrated tissue engineering bioreactor system for microvessel development in a 3D environment /
por: Mohd. Ramdan Mohd. Rofi, 1987-, author 541205
Publicado em: (2020)

Introducing Textiles as Material of Construction of Ethanol Bioreactors
por: Osagie A. Osadolor, et al.
Publicado em: (2014-11-01)

Force-Bioreactor for Assessing Pharmacological Therapies for Mechanobiological Targets
por: Austin J. Scholp, et al.
Publicado em: (2022-07-01)

Application of Hydrostatic Knowledge in the Construction of Forming Tools
por: Moravec Ján
Publicado em: (2022-01-01)

Flow and nutrient transport problems in rotating bioreactor systems
por: Dalwadi, M, et al.
Publicado em: (2014)

Mathematical modelling of cell growth in tissue engineering bioreactors
por: Chapman, L
Publicado em: (2015)

Temporary Hydrostatic Splint Therapy and Its Effects on Occlusal Forces
por: Mante Kireilyte, et al.
Publicado em: (2024-06-01)

Performance of a flexible bioreactor for tendon tissue engineering
por: Dvorak, N
Publicado em: (2023)

Reflecting on Mechanical Functionalities in Bioreactors for Tissue Engineering Purposes
por: Muhammad Hanif Nadhif, et al.
Publicado em: (2020-11-01)