Biophysical stimulation for in vitro engineering of functional cardiac tissues. 2017

Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
Department of Chemical Engineering and Applied Chemistry, University of Toronto, Toronto, Canada.

Engineering functional cardiac tissues remains an ongoing significant challenge due to the complexity of the native environment. However, our growing understanding of key parameters of the in vivo cardiac microenvironment and our ability to replicate those parameters in vitro are resulting in the development of increasingly sophisticated models of engineered cardiac tissues (ECT). This review examines some of the most relevant parameters that may be applied in culture leading to higher fidelity cardiac tissue models. These include the biochemical composition of culture media and cardiac lineage specification, co-culture conditions, electrical and mechanical stimulation, and the application of hydrogels, various biomaterials, and scaffolds. The review will also summarize some of the recent functional human tissue models that have been developed for in vivo and in vitro applications. Ultimately, the creation of sophisticated ECT that replicate native structure and function will be instrumental in advancing cell-based therapeutics and in providing advanced models for drug discovery and testing.

UI MeSH Term Description Entries
D008955 Models, Cardiovascular Theoretical representations that simulate the behavior or activity of the cardiovascular system, processes, or phenomena; includes the use of mathematical equations, computers and other electronic equipment. Cardiovascular Model,Cardiovascular Models,Model, Cardiovascular
D009206 Myocardium The muscle tissue of the HEART. It is composed of striated, involuntary muscle cells (MYOCYTES, CARDIAC) connected to form the contractile pump to generate blood flow. Muscle, Cardiac,Muscle, Heart,Cardiac Muscle,Myocardia,Cardiac Muscles,Heart Muscle,Heart Muscles,Muscles, Cardiac,Muscles, Heart
D010812 Physical Stimulation Act of eliciting a response from a person or organism through physical contact. Stimulation, Physical,Physical Stimulations,Stimulations, Physical
D002478 Cells, Cultured Cells propagated in vitro in special media conducive to their growth. Cultured cells are used to study developmental, morphologic, metabolic, physiologic, and genetic processes, among others. Cultured Cells,Cell, Cultured,Cultured Cell
D004558 Electric Stimulation Use of electric potential or currents to elicit biological responses. Stimulation, Electric,Electrical Stimulation,Electric Stimulations,Electrical Stimulations,Stimulation, Electrical,Stimulations, Electric,Stimulations, Electrical
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D054457 Tissue Scaffolds Cell growth support structures composed of BIOCOMPATIBLE MATERIALS. They are specially designed solid support matrices for cell attachment in TISSUE ENGINEERING and GUIDED TISSUE REGENERATION uses. Tissue Scaffolding,Scaffold, Tissue,Scaffolding, Tissue,Scaffoldings, Tissue,Scaffolds, Tissue,Tissue Scaffold,Tissue Scaffoldings
D018920 Coculture Techniques A technique of culturing mixed cell types in vitro to allow their synergistic or antagonistic interactions, such as on CELL DIFFERENTIATION or APOPTOSIS. Coculture can be of different types of cells, tissues, or organs from normal or disease states. Cocultivation,Co-culture,Coculture,Co culture,Co-cultures,Cocultivations,Coculture Technique,Cocultures
D020100 Hydrogels Water swollen, rigid, 3-dimensional network of cross-linked, hydrophilic macromolecules, 20-95% water. They are used in paints, printing inks, foodstuffs, pharmaceuticals, and cosmetics. (Grant & Hackh's Chemical Dictionary, 5th ed) Hydrogel,In Situ Hydrogel,In Situ Hydrogels,Patterned Hydrogel,Patterned Hydrogels,Hydrogel, In Situ,Hydrogel, Patterned
D023822 Tissue Engineering Generating tissue in vitro for clinical applications, such as replacing wounded tissues or impaired organs. The use of TISSUE SCAFFOLDING enables the generation of complex multi-layered tissues and tissue structures. Engineering, Tissue

Related Publications

Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
August 2017, Tissue engineering. Part B, Reviews,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
June 2014, Biotechnology and bioengineering,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
August 2019, Current cardiology reports,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
March 2023, Bioengineering & translational medicine,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
August 2013, Tissue engineering. Part B, Reviews,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
October 2006, Current opinion in biotechnology,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
January 2008, Annual International Conference of the IEEE Engineering in Medicine and Biology Society. IEEE Engineering in Medicine and Biology Society. Annual International Conference,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
December 2020, Bioelectricity,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
July 2013, Journal of tissue engineering and regenerative medicine,
Anastasia Korolj, and Erika Yan Wang, and Robert A Civitarese, and Milica Radisic
February 2008, European cells & materials,
Copied contents to your clipboard!