Effective fiber hypertrophy in satellite cell-depleted skeletal muscle

McCarthy, John J., Mula, Jyothi, Miyazaki, Mitsunori, Erfani, Rod, Garrison, Kelcye, Farooqui, Amreen B., Srikuea, Ratchakrit, Lawson, Benjamin A. +7 more·2011·Development

Cited by (615)

Items 501–600 of 615

  1. Skeletal muscle ribosome analysis: A comparison of common assay methods and utilization of a novel RiboAb antibody cocktail
    Joshua S. Godwin, John Max Michel, Christopher Brooks Mobley, Gustavo A. Nader, Michael D. Roberts · 2025 · Physiological Reports
  2. Muscle Growth, Repair and Preservation
    Robert M. Erskine, Hans Degens · 2013 · Elsevier eBooks
  3. Participation of Mesenchymal Stromal Cells in Muscle Tissue Regeneration
    Olga V. Payushina, E. I. Domaratskaya, О. Н. Шевелева · 2019 · Biology Bulletin Reviews
  4. Fast and slow myofiber nuclei, satellite cells, and size distribution with lifelong endurance exercise in men and women
    Cristhian F. Montenegro, Chad M. Skiles, Dillon J. Kuszmaul, Aaron Gouw, Kiril Minchev, Toby L. Chambers, Ulrika Raue, Todd A. Trappe, Scott W. Trappe · 2024 · Physiological Reports
  5. Responses of skeletal muscle to mechanical stimuli in female rats following and during muscle disuse atrophy
    Alexander B. Sklivas, Zachary R. Hettinger, Sarah Rose, Alessandra Mantuano, Amy L. Confides, Sandra Rigsby, Frederick F. Peelor, Benjamin F. Miller, Timothy A. Butterfield, Esther E. Dupont‐Versteegden · 2025 · Journal of Applied Physiology
  6. CELLULAR AND MOLECULAR MECHANISMS OF MUSCLE REGENERATION
    Rizwan Qaisar · 2021 · Khyber Medical University Journal
  7. Regeneration of Musculoskeletal Tissues
    David L. Stocum · 2012 · Elsevier eBooks
  8. Resistance exercise and mechanical overload upregulate vimentin for skeletal muscle remodeling
    Joshua S. Godwin, John Max Michel, Cleiton Augusto Libardi, Andreas N. Kavazis, Christopher S. Fry, Andrew D. Frugé, Mariah McCashland, Ivan J. Vechetti, John Joseph McCarthy, Christopher Brooks Mobley et al. · 2025 · American Journal of Physiology-Cell Physiology
  9. Displaced myonuclei are attributable to both resident myonuclear migration and stem cell fusion during mechanical loading in adult skeletal muscle
    Nathan Serrano, Pieter Jan Koopmans, Kevin A. Murach · 2025 · Skeletal Muscle
  10. Flow Cytometer Analyses, Isolation, and Staining of Murine Muscle Satellite Cells
    Manami Kubota, Lidan Zhang, So‐ichiro Fukada · 2023 · Methods in molecular biology
  11. Chromatin organization of muscle stem cell
    Philina Santarelli, Valentina Rosti, Maria Vivo, Chiara Lanzuolo · 2024 · Current topics in developmental biology/Current Topics in Developmental Biology
  12. Daily blood flow restriction does not affect muscle fiber capillarization and satellite cell content during 2 wk of bed rest in healthy young men
    Thorben Aussieker, Cas J. Fuchs, Antoine H. G. Zorenc, Lex B. Verdijk, Luc J. C. van Loon, Tim Snijders · 2025 · Journal of Applied Physiology
  13. No role of muscle satellite cells in hypertrophy: further evidence of a mistaken identity?
    Jonah Dan Lee, Nicholas A. Burd · 2012 · The Journal of Physiology
  14. Role of satellite cells in skeletal muscle plasticity: Beyond muscle regeneration
    Kotaro Tamura, Yasuro Furuichi, Yasuko Manabe, NOBUHARU L. FUJII · 2017 · The Journal of Physical Fitness and Sports Medicine
  15. Transcriptome dynamics during proliferation and differentiation of porcine primary satellite cells
    Jeanette H. Jensen, Lone Bruhn Madsen, Frank Panitz, Henrik Hornshøj, Rasmus O. Nielsen, Christian Bendixen, Niels Oksbjerg, Bo Thomsen · 2017 · Gene Reports
  16. Molecular Basis of Muscle Disease
    Ning Liu, Rhonda Bassel‐Duby · 2019 · Springer eBooks
  17. Combined effects of functional overload and denervation on skeletal muscle mass and its regulatory proteins in mice
    Kazuki Uemichi, Takanaga Shirai, Tohru Takemasa · 2023 · Physiological Reports
  18. Limitations of the Pax7-creER T2 transgene for driving deletion of Nf1 in adult mouse muscle
    Matthew A. Summers, Kathy Mikulec, Lauren Peacock, David Graham Little, Aaron Schindeler · 2017 · The International Journal of Developmental Biology
  19. The Pathogenesis of Physical Frailty and Sarcopenia
    Srinivasan Dasarathy · 2019 · Springer eBooks
  20. THE EFFECTS OF AEROBIC EXERCISE ON HUMAN SKELETAL MUSCLE ADAPTATIONS TO RESISTANCE EXERCISE
    Tommy R. Lundberg · 2014 · KTH Publication Database DiVA (KTH Royal Institute of Technology)
  21. The Age-Dependent Resident Myonuclear Multi-Omic Response to a Skeletal Muscle Hypertrophic Stimulus
    Pieter Jan Koopmans, Ronald G. Jones, Ana Regina Cabrera, Francielly Morena da Silva, Nicholas Perry Greene, John Joseph McCarthy, Ahmed Ismaeel, Yuan Wen, Kevin A. Murach · 2025 · bioRxiv (Cold Spring Harbor Laboratory)
  22. Skeletal Muscle Formation, Regeneration, and Recovery from Injury
    Christopher M. Myers · 2024 · Springer eBooks
  23. Vascular Endhothelial Growth Factor levels in medium-intensity versus low-intensity exercise with blood flow restriction in elderly women
    Nanda Aulya Ramadhan, Damayanti Tinduh, Nuniek Nugraheni, Imam Subadi, Inggar Narasinta, Soenarnatalina Melaniani · 2025 · Retos
  24. Time-of-day effects on muscle mitochondria following short-term ablation of satellite cells
    Ryan E. Kahn, Fawzan Dinnunhan, Guadalupe Meza, Richard L. Lieber, Orly Lacham‐Kaplan, John Alan Hawley, Sudarshan Dayanidhi · 2025 · Frontiers in Physiology
  25. Postnatal Pax7-expressing limb cells are multipotent and generate non-myogenic lineages that persist into adulthood
    Stamatia Gioftsidi, Takuto Hayashi, Sidy Fall, Sabrina Jagot, Matthieu Dos Santos, Fabien Le Grand, Frédéric Relaix, Philippos Mourikis · 2026 · Developmental Cell
  26. Microbiome-Based Precision Interventions in Type 2 Diabetes Mellitus: Mechanisms, Modulators, and Translational Opportunities
    Davini Clister, Qhelen Mayline Chandra, Ming-sheng Tan, Mega Carensia Gunawan, Aasia Bibi, Amer Ahmed, Marianne Bastian, Pornphimol Meesakul, Shugeng Cao, Bonglee Kim et al. · 2026 · Journal of Nutrition
  27. Myonuclear Dynamics After Skeletal Muscle Surgical Injury
    Micah Goeke, Nathan Serrano, Pieter Jan Koopmans, Kevin A. Murach · 2026 · The FASEB Journal
  28. Motor nerve terminal morphology with unloading and reloading of muscle in Procambarus clarkii
    Ann S. Cooper, Robin Lewis Cooper, Andrew F.M. Johnstone · 2013 · Journal of Crustacean Biology
  29. Intrinsic transient tracheal occlusion training and myogenic remodeling of rodent parasternal intercostal fibers
    Barbara K. Smith, Sunita Mathur, Fan Ye, A. Daniel Martin, Sara Attia Truelson, Krista Vandenborne, Paul Wesley Davenport · 2014 · The Journal of Rehabilitation Research and Development
  30. Is Sarcomere Lattice Geometry Optimal? Analysis of Several Potential Virtual Polygon Cross‐Sectional Patterns for Actin and Myosin Myofilaments in Muscle
    Gordon R. Kepner · 2014 · The Anatomical Record
  31. Gene and Cell Therapies for Muscular Dystrophies
    Sara Benedetti, Giulio Cossu, Francesco Saverio Tedesco · 2015 · CRC Press eBooks
  32. Skeletal Muscle-Resident Pericyte Responses to Conditions of Use and Disuse
    Michael Munroe, Svyatoslav Dvoretskiy, Marni D. Boppart · 2021 · Stem cell biology and regenerative medicine
  33. Role of muscle stem cells in sarcopenia
    Ryo Fujita · 2021 · Elsevier eBooks
  34. Molecular exercise physiology
    Marius Meinhold, Henning Wackerhage · 2023 · Oxford University Press eBooks
  35. Impact of Eccentric Exercise Interventions with Small and Large Ranges of Motion on Rat Skeletal Muscle Tissue and Muscle Force Production
    Ryoya Oga, Koki Nakagawa, Yi‐Chen Chen, Yoshihiro Nita, Hiroyuki Tamaki · 2024 · International Journal of Molecular Sciences
  36. Effect of spermidine intake on overload‐induced skeletal muscle hypertrophy in male mice
    Tomohiro Iwata, Takanaga Shirai, Riku Tanimura, Ryoto Iwai, Tohru Takemasa · 2025 · Physiological Reports
  37. Anpassung an Krafttraining
    Henning Wackerhage, Stefan Oesen, Marlene Hofmann, Harald Tschan · 2017 · Springer eBooks
  38. The Role of Inflammatory Pathways in Development, Growth, and Metabolism of Skeletal Muscle in IUGR Offspring; Blood Gene Expression of Inflammatory Factors as Novel Biomarkers for Assessing Stress and Wellbeing in Exotic Species.
    Robert J Posont · 2019 · Lincoln (University of Nebraska)
  39. Mechano-Physiological Modeling to Probe the Role of Satellite Cells and Fibroblasts in Cerebral Palsy Muscle Degeneration
    Stephanie Khuu, Kelley M Virgilio, Justin W. Fernandez, G. Handsfield · 2019 · Lecture notes in computational vision and biomechanics
  40. Satellite cell content and muscle regeneration in a mouse model of NAFLD
    Tolulope Peter Saliu, Thanutchaporn Kumrungsee, Koji Mitsumoto, Siyi Chen, Noriyuki Yanaka · 2021 · Nutrition
  41. Overview of Cell Types Capable of Contributing to Skeletal Muscle Repair and Regeneration
    Johanna Prüller, Peter S. Zammit · 2020 · Springer eBooks
  42. Molecular exercise physiology
    Henning Wackerhage, J. M. Smith, Darren Wisniewski · 2017 · Oxford University Press eBooks
  43. Biomechanical Properties and Mechanotransduction of Skeletal Muscles as The Basis for The Use of Myofascial Osteopathic Techniques
    Новосельцев Святослав Валерьевич, A. G. Reshetnikov, V. D. Vyunov, T. R. Suleymanov, Anastasia Nefedova, P. G. Solomatov, S. I. Taranenko, A. M. Kryazheva, V. Moskvicheva · 2023 · International Journal of Membrane Science and Technology
  44. TEMPORAL PATTERN OF TYPE II FIBRE-SPECIFIC SATELLITE CELL EXPANSION TO EXERCISE CORRELATES WITH HUMAN MUSCLE HYPERTROPHY: POTENTIAL ROLE FOR MYOSTATIN
    Leeann M. Bellamy · 2012 · MacSphere (McMaster University)
  45. Depletion of resident muscle stem cells inhibits muscle fiber hypertrophy induced by lifelong physical activity
    Davis A. Englund, Kevin A. Murach, Cory M. Dungan, Vandré C. Figueiredo, Ivan J. Vechetti, Esther E. Dupont‐Versteegden, John Joseph McCarthy, Charlotte A. Peterson · 2019 · bioRxiv (Cold Spring Harbor Laboratory)
  46. Intrinsic and extrinsic factors collaborate to activate pharyngeal satellite cells without muscle injury
    Eunhye Kim, Yiming Zhang, Fang Wu, James Allen, Katherine E. Vest, Hyojung J. Choo · 2020 · bioRxiv (Cold Spring Harbor Laboratory)
  47. GLOBAL-SCALE ANALYSIS OF THE DYNAMIC TRANSCRIPTIONAL ADAPTATIONS WITHIN SKELETAL MUSCLE DURING HYPERTROPHIC GROWTH
    Tyler J. Kirby · 2015 · UKnowledge (University of Kentucky)
  48. Satellite cells in skeletal muscle atrophy and hypertrophy
    Tim Snijders · 2014
  49. Importance of Plasma Membrane Nanodomains in Skeletal Muscle Regeneration
    Beata Pająk, Arkadiusz Orzechowski · 2015 · InTech eBooks
  50. Correction: Impaired Adaptive Response to Mechanical Overloading in Dystrophic Skeletal Muscle
    Pierre Joanne, Christophe Hourdé, Julien Ochala, Yvain Caudéran, Fadia Medja, Alban Vignaud, Étienne Mouisel, Wahiba Hadj‐Saïd, Ludovic Arandel, Luis Garcı́a et al. · 2013 · PLoS ONE
  51. Skeletal muscle atrophy: the role of miRNAs; Atrofia do músculo esquelético: a função dos miRNAs
    Ricardo Soares · 2012
  52. The effect of nonhypertrophic stimuli on satellite cells
    Sophie Joanisse · 2016 · MacSphere (McMaster University)
  53. Plasticity of skeletal muscle and variability of myonuclear domain
    Minako Kawai, Hirofumi Miyata · 2013 · 体力科學
  54. The role of GSK-3 in myogenesis and recovery of atrophied muscle
    Nicky Pansters · 2015
  55. Aging of Muscle Stem Cells
    Bryon Robert McKay, Gianni Parise · 2015 · Springer eBooks
  56. Toward Regenerative Medicine for Muscular Dystrophies
    Akiyoshi Uezumi, So‐ichiro Fukada · 2016 · Springer eBooks
  57. Mechanical and metabolic stresses contribute to high force contraction signaling
    Jill A. Rahnert · 2012 · SMARTech Repository (Georgia Institute of Technology)
  58. Delineating the effects of aerobic training versus aerobic capacity on satellite cell behaviour in humans
    Kevin A. Murach · 2016 · The Journal of Physiology
  59. Skeletal muscle stem cell defects in burn‐induced cachexia
    Jean Farup, Alessio Torcinaro, Luca Madaro · 2016 · The Journal of Physiology
  60. The Effects of Resistance Wheel Running on Skeletal Muscle Function and Adaptation in C57BL/10SnJ Mice
    Gregory Robert Rodden · 2015 · VTechWorks (Virginia Tech)
  61. Green tea extract attenuates muscle loss and improves muscle function during
    Stephen E. Alway, Brian Bennett, Joseph Wilson, Justin E. Sperringer, Junaith, Sara Mohamed, Neilé K. Edens, Suzette L. Pereira · 2014
  62. Effects of d-aspartic acid on testosterone and training outcomes in a resistance trained population : findings from an acute dosing study, and a three-month training study
    Geoffrey W. Melville · 2016
  63. Dano muscular promove hipertrofia? A queda de um paradigma sustentada pela análise integrada da taxa de síntese proteica
    Felipe Damas · 2017
  64. Exploring an Impaired Sphingosine-1-Phosphate Response to Skeletal Muscle Damage in a Murine Model of Type 1 Diabetes Mellitus
    Michael Mallender · 2018 · Scholarship at UWindsor (University of Windsor)
  65. Skeletal muscle mitochondrial clearance
    Leermakers · 2019
  66. Overview of Cell Types Capable of Contributing to Skeletal Muscle Repair and Regeneration
    Johanna Prüller, Peter S. Zammit · 2018 · Springer eBooks
  67. MicroRNAs em plasticidade muscular: efeitos da superexpressão do miR-29c na modulação da massa muscular esquelética.
    William José da Silva · 2019
  68. The effects of furosemide on equine skeletal muscle satellite cell myogenesis and metabolism in vitro
    Patricia J. Helsel · 2020 · VTechWorks (Virginia Tech)
  69. Small Molecule Mediated Intervention of NF-kB or TGF-β Signaling Reverses Age-Related Phenotypes in Satellite Cells and Enhances Muscle Repair
    Massimiliano Cerletti, Tata Nageswara Rao, Deepti A. Cole, John T. Moore, Tsu Tshen Chuang, Dave J. Becherer, Lauren R. Sheckler, Stephen A. Stimpson, Joshua J. Schroeder, Matthew A. Inlay et al. · 2018 · SSRN Electronic Journal
  70. Metabolic Impairment Occurs Without Changes in Physical Activity in Volumetric Muscle Loss
    Kyle A. Dalske · 2021 · University of Minnesota Digital Conservancy (University of Minnesota)
  71. Myosatellite Cells under Gravitational Unloading Conditions
    Natalia A. Vilchinskaya, Elizabeth A. Shenkman · 2021 · Journal of Evolutionary Biochemistry and Physiology
  72. Atrophie, croissance et fonction musculaire : l'impact des leucocytes et de la triade RANK/RANKL/OPG
    Nicolas A. Dumont · 2013 · Corpus Université Laval (Université Laval)
  73. Inflammatory signaling in skeletal muscle cell growth
    James F. Markworth · 2012
  74. Involvement of muscle stem cell in skeletal muscle hypertrophy induced by mechanical loading and drugs
    So‐ichiro Fukada · 2021 · Folia Pharmacologica Japonica
  75. Faculty Opinions recommendation of The impact of immune cells on the skeletal muscle microenvironment during cancer cachexia.
    Li Li Ji · 2021 · Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature
  76. Faculty Opinions recommendation of Myogenic Progenitor Cells Control Extracellular Matrix Production by Fibroblasts during Skeletal Muscle Hypertrophy.
    Brian Keith Kennedy, Shih‐Yin Tsai · 2020 · Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature
  77. Influência do treinamento de flexibilidade pré-treinamento de força nas adaptações neuromusculares
    Roberto Moriggi · 2016
  78. Faculty Opinions recommendation of Short-term calorie restriction enhances skeletal muscle stem cell function.
    Fabio M V Rossi, Ben Paylor · 2012 · Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature
  79. Faculty Opinions recommendation of Myogenic Progenitor Cells Control Extracellular Matrix Production by Fibroblasts during Skeletal Muscle Hypertrophy.
    Stuart M. Phillips · 2020 · Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature
  80. Muscle Growth, Repair, and Preservation
    Robert M. Erskine, Hans Degens · 2018 · Elsevier eBooks
  81. Faculty Opinions recommendation of Differential requirement for satellite cells during overload-induced muscle hypertrophy in growing versus mature mice.
    Stuart M. Phillips · 2020 · Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature
  82. Faculty Opinions recommendation of Sustained expression of HeyL is critical for the proliferation of muscle stem cells in overloaded muscle.
    Atsushi Asakura · 2019 · Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature
  83. Molecular Regulation of Skeletal Muscle Stem Cells
    Matthew J. Borok, Reem Bou Akar, Philippos Mourikis, Frédéric Relaix · 2022 · Elsevier eBooks
  84. Efeitos do exercício físico sobre o metabolismo oxidativo hepático e muscular em camundongos obesos e nocautes para adiponectina.
    Alexandre Roveratti Spagnol · 2022
  85. Severe skeletal disability and abnormal biochemical tests & disease review
    Saadi JS AlJadir · 2022 · Endocrinology&Metabolism International Journal
  86. NG2-positive pericytes regulate homeostatic maintenance of slow-type skeletal muscle with rapid myonuclear turnover
    Takamitsu Tatsukawa, Kohei Kano, Keiichi Nakajima, Takashi Yazawa, Ryoji Eguchi, Maki Kabara, Kiwamu Horiuchi, Taiki Hayasaka, Risa Matsuo, Naoyuki Hasebe et al. · 2023 · Research Square
  87. The role of satellite cell-derived TRIM28 in mechanical load- and injury-induced myogenesis
    Kuan‐Hung Lin, Jamie E. Hibbert, Jake L. Lemens, Melissa M. Torbey, Nathaniel D. Steinert, Philip M. Flejsierowicz, Kiley M. Melka, Marcos Lares, Vijayasaradhi Setaluri, Troy Alan Hornberger · 2023 · bioRxiv (Cold Spring Harbor Laboratory)
  88. Efficacy of in situ and ex situ Biofloc on Growth, Immune-physiological Responses, Nutrient Composition and Muscle Growth-related Gene Expression of Etroplus suratensis
    A. Jackqulinwino, Baboonsundaram Ahilan, Cheryl Antony, Pushparaj Chidambaram, Arumugam Uma, P. Ruby · 2024 · Indian Journal of Animal Research
  89. Efeito da associação entre a fotobiomodulação e o exercício em meio aquático no músculo gastrocnêmio de animais com dor neuropática
    Luara Caniato Araujo · 2024
  90. A tissue engineered human skeletal muscle model for use in exercise sciences
    Neil R. W. Martin · 2012 · University of Bedfordshire Repository (University of Bedfordshire)
  91. Additional file 1 of NG2-positive pericytes regulate homeostatic maintenance of slow-type skeletal muscle with rapid myonuclear turnover
    Takamitsu Tatsukawa, Kohei Kano, Nakajima, Kei-ichi, Yazawa, Takashi, Eguchi, Ryoji, Maki Kabara, Kiwamu Horiuchi, Taiki Hayasaka, Risa Matsuo, Hasebe, Naoyuki et al. · 2023 · Figshare
  92. Mechanisms of Skeletal Muscle Mass Regulation and Muscle Memory
    Kristian Gundersen, Jo C. Bruusgaard, Einar Eftestøl · 2026 · Acta Physiologica
  93. The contribution of skeletal muscle interstitial cells to myogenesis
    Fayez Issa, Frédéric Relaix, Joana Esteves de Lima · 2026 · Skeletal Muscle
  94. A modified mechanical overload model for inducing hypertrophy in slow- and fast-twitch skeletal muscles in mice
    Shuaibang Yuan, So‐ichiro Fukada, Takayuki Akimoto · 2026 · Biochemical and Biophysical Research Communications
  95. Microcirculation et croissance musculaire : rôle des péricytes dans la niche des cellules satellites musculaires.
    Enis Kostallari · 2014
  96. BMP signaling controls postnatal muscle development
    Amalia Stantzou · 2015 · theses.fr (ABES)
  97. Coordinating growth arrest and myogenesis in muscle stem cells : a molecular and cellular analysis
    Despoina Mademtzoglou · 2016 · theses.fr (ABES)
  98. Caractérisation moléculaire et cellulaire des précurseurs myogéniques du muscle hyperplasique de la truite
    Sabrina Jagot · 2018
  99. From skeletal muscle stem cells to tissue atlases : new tools to investigate and circumvent dissociation-induced stress
    Léo Machado · 2019 · theses.fr (ABES)
  100. Étude du rôle de RhoA dans la plasticité du muscle squelettique
    Chiara Noviello · 2020