Differential myogenicity of satellite cells isolated from extensor digitorum longus (EDL) and soleus rat muscles revealed in vitro. 1998

C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
Laboratoire de Recherche sur la croissance cellulaire, la réparation et la régénération tissulaires (CRRET), URA 1813 groupe Myogénèse et R-eg-en-eration Musculaire (MYREM), Univ. Paris, Paris, France.

Following muscle damage, fast- and slow-contracting fibers regenerate, owing to the activation of their satellite cells. In rats, crush-induced regeneration of extensor digitorum longus (EDL, a fast muscle) and soleus (a slow muscle) present different characteristics, suggesting that intrinsic differences exist among their satellite cells. An in vitro comparative study of the proliferation and differentiation capacities of satellite cells isolated from these muscles is presented there. We observed several differences between soleus and EDL satellite cell cultures plated at high density on gelatin-coated dishes. Soleus satellite cells proliferated more actively and fused into myotubes less efficiently than EDL cells. The rate of muscular creatine kinase enzyme appeared slightly lower in soleus than in EDL cultures at day 11 after plating, when many myotubes were formed, although the levels of muscular creatine kinase mRNA were similar in both cultures. In addition, soleus cultures expressed higher levels of MyoD and myogenin mRNA and of MyoD protein than EDL satellite cell cultures at day 12. A clonal analysis was also carried out on both cell populations in order to determine if distinct lineage features could be detected among satellite cells derived from EDL and soleus muscles. When plated on gelatin at clonal density, cells from both muscles yielded clones within 2 weeks, which stemmed from 3-15 mitotic cycles and were classified into three classes according to their sizes. Myotubes resulting from spontaneous fusion of cells from the progeny of one single cell were seen regardless of the clone size in the standard culture medium we used. The proportion of clones showing myotubes in each class depended on the muscle origin of the cells and was greater in EDL- than in soleus-cell cultures. In addition, soleus cells were shown to improve their differentiation capacity upon changes in the culture condition. Indeed, the proportions of clones showing myotubes, or of cells fusing into myotubes in clones, were increased by treatments with a myotube-conditioned medium, with phorbol ester, and by growth on extra-cellular matrix components (Matrigel). These results, showing differences among satellite cells from fast and slow muscles, might be of importance to muscle repair after trauma and in pathological situations.

UI MeSH Term Description Entries
D007700 Kinetics The rate dynamics in chemical or physical systems.
D008297 Male Males
D012038 Regeneration The physiological renewal, repair, or replacement of tissue. Endogenous Regeneration,Regeneration, Endogenous,Regenerations
D002454 Cell Differentiation Progressive restriction of the developmental potential and increasing specialization of function that leads to the formation of specialized cells, tissues, and organs. Differentiation, Cell,Cell Differentiations,Differentiations, Cell
D002455 Cell Division The fission of a CELL. It includes CYTOKINESIS, when the CYTOPLASM of a cell is divided, and CELL NUCLEUS DIVISION. M Phase,Cell Division Phase,Cell Divisions,Division Phase, Cell,Division, Cell,Divisions, Cell,M Phases,Phase, Cell Division,Phase, M,Phases, M
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
D003402 Creatine Kinase A transferase that catalyzes formation of PHOSPHOCREATINE from ATP + CREATINE. The reaction stores ATP energy as phosphocreatine. Three cytoplasmic ISOENZYMES have been identified in human tissues: the MM type from SKELETAL MUSCLE, the MB type from myocardial tissue and the BB type from nervous tissue as well as a mitochondrial isoenzyme. Macro-creatine kinase refers to creatine kinase complexed with other serum proteins. Creatine Phosphokinase,ADP Phosphocreatine Phosphotransferase,ATP Creatine Phosphotransferase,Macro-Creatine Kinase,Creatine Phosphotransferase, ATP,Kinase, Creatine,Macro Creatine Kinase,Phosphocreatine Phosphotransferase, ADP,Phosphokinase, Creatine,Phosphotransferase, ADP Phosphocreatine,Phosphotransferase, ATP Creatine
D003893 Desmin An intermediate filament protein found predominantly in smooth, skeletal, and cardiac muscle cells. Localized at the Z line. MW 50,000 to 55,000 is species dependent. Skeletin
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D012333 RNA, Messenger RNA sequences that serve as templates for protein synthesis. Bacterial mRNAs are generally primary transcripts in that they do not require post-transcriptional processing. Eukaryotic mRNA is synthesized in the nucleus and must be exported to the cytoplasm for translation. Most eukaryotic mRNAs have a sequence of polyadenylic acid at the 3' end, referred to as the poly(A) tail. The function of this tail is not known for certain, but it may play a role in the export of mature mRNA from the nucleus as well as in helping stabilize some mRNA molecules by retarding their degradation in the cytoplasm. Messenger RNA,Messenger RNA, Polyadenylated,Poly(A) Tail,Poly(A)+ RNA,Poly(A)+ mRNA,RNA, Messenger, Polyadenylated,RNA, Polyadenylated,mRNA,mRNA, Non-Polyadenylated,mRNA, Polyadenylated,Non-Polyadenylated mRNA,Poly(A) RNA,Polyadenylated mRNA,Non Polyadenylated mRNA,Polyadenylated Messenger RNA,Polyadenylated RNA,RNA, Polyadenylated Messenger,mRNA, Non Polyadenylated

Related Publications

C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
January 1997, Acta anatomica,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
July 1978, Developmental biology,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
September 2011, Investigacion clinica,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
April 1984, The Anatomical record,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
March 1992, Microvascular research,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
June 1980, The Australian journal of experimental biology and medical science,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
December 1980, Developmental biology,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
January 1987, Muscle & nerve,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
March 1996, The Journal of endocrinology,
C Lagord, and L Soulet, and S Bonavaud, and Y Bassaglia, and C Rey, and G Barlovatz-Meimon, and J Gautron, and I Martelly
August 1990, The American journal of physiology,
Copied contents to your clipboard!