Cellular and molecular regulation of muscle regeneration.

By Sophie B. P. Chargé, Michael A. Rudnicki. Physiological Reviews, 2004

2,723 citations recorded by the source corpus.

Subfields: Genetics, Molecular Biology, Surgery

View Paper: https://www.semanticscholar.org/paper/3c055c12018a5ece3b8751f0b437487b5a6eefb2

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In Genetics

1. P. Zammit
2. T. Partridge
3. J. Hawley
4. Olivier Pourquié
5. J. Chal
6. T. Rando
7. L. Meirelles
8. Vernon G. Coffey

In Molecular Biology

1. P. Zammit
2. T. Partridge
3. J. Chal
4. Olivier Pourquié
5. J. Hawley
6. T. Rando
7. J. Peake
8. Vernon G. Coffey

In Surgery

1. P. Zammit
2. T. Partridge
3. T. Rando
4. A. Caplan
5. Michael A. Rudnicki

Citations in the corpus

• Stem cells, ageing and the quest for immortality (2006, background): “Skeletal muscle satellite cells The primary skeletal muscle stem cell (the satellite cell) is quiescent in adult muscle, but is activated to proliferate and generate committed progeny in response to injury or diseas”
• Muscle Injuries (2005, background): “The latter seem to invade the site of injury, differentiate into satellite cells, and participate in the repair of the injured skeletal muscle.(29,46,94) As described previously, it seems that there are at least 3 different populations of satellite cells in the skeletal muscle.”
• The Skeletal Muscle Satellite Cell: The Stem Cell That Came in From the Cold (2006, background): “Somites then differentiate into dermomyotome and sclerotome, and mesodermal cells become specified as skeletal muscle precursors within the nascent myotome (Christ et al. 1975; Braun et al. 1992; Rudnicki et al. 1993).”
• Mesenchymal stem cells reside in virtually all post-natal organs and tissues (2006, background): “Examples include epithelial stem cells in epidermis and intestinal crypts (Slack, 2000), neural stem cells in the central nervous system (McKay, 1997) and satellite cells in muscle (Charge and Rudnicki, 2004).”
• The Molecular Bases of Training Adaptation (2007, background): “During the course of regeneration satellite cells first exit their quiescent state and proliferate until secondary molecular signals arrest the mitotic activity and initiate the differentiation of non-specialised cells to muscle precursor cells that migrate to the site of regeneration (Figure 1.15; ”
• Angiotensin II type 1 receptor blockade attenuates TGF-β–induced failure of muscle regeneration in multiple myopathic states (2007, neutral): “dtd" [ ]> Skeletal muscle has the ability to achieve rapid repair in response to injury or diseas”
• Exercise is the real polypill. (2013, background): “IGF-phosphatidylinositol 3-kinase (PI3K)-Akt signaling plays a central role in muscle regeneration (88, 372), inducing myokines with an essentially local action: insulin-like 6, which activates satellite cell activation (529); follistatin-like 1, which promotes endothelial function and revasculariza”
• The road to walking: What learning to walk tells us about development (2013, background): “Muscles are stimulated to grow by similar physical stress applied on a microscopic scale to muscle fi bers (Charge & Rudnicki, 2004).”
• Leucocytes, cytokines and satellite cells: what role do they play in muscle damage and regeneration following eccentric exercise? (2012, background): “Satellite cells serve this role as so-called stem cells of skeletal muscle or myogenic precursor cells during both skeletal muscle adaptation and regeneration (55,118).”
• Fibrosis and adipogenesis originate from a common mesenchymal progenitor in skeletal muscle (2011, background): “Muscle satellite cells are located beneath the basal lamina and begin to proliferate when muscle is damaged (Charge and Rudnicki, 2004).”
• Making muscle: skeletal myogenesis in vivo and in vitro (2017, background): “Insulin signaling has been shown to act with Wnt signaling to promote myogenesis and myoblast fusion (Charge and Rudnicki, 2004; van der Velden et al., 2006), while FGF signaling promotes myoblast proliferation while blocking differentiation (Itoh et al.”