Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system

Decellularisation of skeletal muscle provides a system to study the interactions of myoblasts with muscle extracellular matrix (ECM). This study describes the efficient decellularisation of quadriceps muscle with the retention of matrix components and the use of this matrix for myoblast proliferatio...

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Main Authors: Chaturvedi, Vishal, Dye, Danielle, Kinnear, Bev, Van Kuppevelt, T., Grounds, M., Coombe, Deidre
Format: Journal Article
Published: Public Library of Science 2015
Online Access:http://hdl.handle.net/20.500.11937/6742
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author Chaturvedi, Vishal
Dye, Danielle
Kinnear, Bev
Van Kuppevelt, T.
Grounds, M.
Coombe, Deidre
author_facet Chaturvedi, Vishal
Dye, Danielle
Kinnear, Bev
Van Kuppevelt, T.
Grounds, M.
Coombe, Deidre
author_sort Chaturvedi, Vishal
building Curtin Institutional Repository
collection Online Access
description Decellularisation of skeletal muscle provides a system to study the interactions of myoblasts with muscle extracellular matrix (ECM). This study describes the efficient decellularisation of quadriceps muscle with the retention of matrix components and the use of this matrix for myoblast proliferation and differentiation under serum free culture conditions. Three decellularisation approaches were examined; the most effective was phospholipase A2 treatment, which removed cellular material while maximizing the retention of ECM components. Decellularised muscle matrices were then solubilized and used as substrates for C2C12 mouse myoblast serum free cultures. The muscle matrix supported myoblast proliferation and differentiation equally as well as collagen and fibronectin. Immunofluorescence analyses revealed that myoblasts seeded on muscle matrix and fibronectin differentiated to form long, well-aligned myotubes, while myoblasts seeded on collagen were less organized. qPCR analyses showed a time dependent increase in genes involved in skeletal muscle differentiation and suggested that muscle-derived matrix may stimulate an increased rate of differentiation compared to collagen and fibronectin. Decellularized whole muscle three-dimensional scaffolds also supported cell adhesion and spreading, with myoblasts aligning along specific tracts of matrix proteins within the scaffolds. Thus, under serum free conditions, intact acellular muscle matrices provided cues to direct myoblast adhesion and migration. In addition, myoblasts were shown to rapidly secrete and organise their own matrix glycoproteins to create a localized ECM microenvironment. This serum free culture system has revealed that the correct muscle ECM facilitates more rapid cell organisation and differentiation than single matrix glycoprotein substrates.
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spelling curtin-20.500.11937-67422017-09-13T14:34:28Z Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system Chaturvedi, Vishal Dye, Danielle Kinnear, Bev Van Kuppevelt, T. Grounds, M. Coombe, Deidre Decellularisation of skeletal muscle provides a system to study the interactions of myoblasts with muscle extracellular matrix (ECM). This study describes the efficient decellularisation of quadriceps muscle with the retention of matrix components and the use of this matrix for myoblast proliferation and differentiation under serum free culture conditions. Three decellularisation approaches were examined; the most effective was phospholipase A2 treatment, which removed cellular material while maximizing the retention of ECM components. Decellularised muscle matrices were then solubilized and used as substrates for C2C12 mouse myoblast serum free cultures. The muscle matrix supported myoblast proliferation and differentiation equally as well as collagen and fibronectin. Immunofluorescence analyses revealed that myoblasts seeded on muscle matrix and fibronectin differentiated to form long, well-aligned myotubes, while myoblasts seeded on collagen were less organized. qPCR analyses showed a time dependent increase in genes involved in skeletal muscle differentiation and suggested that muscle-derived matrix may stimulate an increased rate of differentiation compared to collagen and fibronectin. Decellularized whole muscle three-dimensional scaffolds also supported cell adhesion and spreading, with myoblasts aligning along specific tracts of matrix proteins within the scaffolds. Thus, under serum free conditions, intact acellular muscle matrices provided cues to direct myoblast adhesion and migration. In addition, myoblasts were shown to rapidly secrete and organise their own matrix glycoproteins to create a localized ECM microenvironment. This serum free culture system has revealed that the correct muscle ECM facilitates more rapid cell organisation and differentiation than single matrix glycoprotein substrates. 2015 Journal Article http://hdl.handle.net/20.500.11937/6742 10.1371/journal.pone.0127675 Public Library of Science fulltext
spellingShingle Chaturvedi, Vishal
Dye, Danielle
Kinnear, Bev
Van Kuppevelt, T.
Grounds, M.
Coombe, Deidre
Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
title Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
title_full Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
title_fullStr Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
title_full_unstemmed Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
title_short Interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
title_sort interactions between skeletal muscle myoblasts and their extracellular matrix revealed by a serum free culture system
url http://hdl.handle.net/20.500.11937/6742