Effective fiber hypertrophy in satellite cell-depleted skeletal muscle

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Items 301–400 of 615

1. Heat Shock Transcription Factor 1-Deficiency Attenuates Overloading-Associated Hypertrophy of Mouse Soleus Muscle
   Tomoyuki Koya, Sono Nishizawa, Yoshitaka Ohno, Ayumi Goto, Akihiro Ikuta, Miho Suzuki, Tomotaka Ohira, Tatsuro Egawa, Akira Nakai, Takao Sugiura et al. · 2013 · PLoS ONE
2. Massage increases satellite cell number independent of the age‐associated alterations in sarcolemma permeability
   Emily R. Hunt, Amy L. Confides, Sarah M. Abshire, Esther E. Dupont‐Versteegden, Timothy A. Butterfield · 2019 · Physiological Reports
3. Cyclin-Dependent Kinase 1 Is Essential for Muscle Regeneration and Overload Muscle Fiber Hypertrophy
   Yutaka Kobayashi, Tomoyuki N. Tanaka, Mieradilli Mulati, Hiroki Ochi, Shingo Sato, Philipp Kaldis, Toshitaka Yoshii, Atsushi Okawa, Hiroyuki Inose · 2020 · Frontiers in Cell and Developmental Biology
4. Effect of mechanistic/mammalian target of rapamycin complex 1 on mitochondrial dynamics during skeletal muscle hypertrophy
   Kazuki Uemichi, Takanaga Shirai, Hideto Hanakita, Tohru Takemasa · 2021 · Physiological Reports
5. High Intensity Training May Reverse the Fiber Type Specific Decline in Myogenic Stem Cells in Multiple Sclerosis Patients
   Jean Farup, Ulrik Dalgas, Charly Keytsman, Bert O. Eijnde, Inez Wens · 2016 · Frontiers in Physiology
6. The myonuclear domain is not maintained in skeletal muscle during either atrophy or programmed cell death
   Lawrence M. Schwartz, Christine K. Brown, Kevin McLaughlin, Wendy A. Smith, Carol Bigelow · 2016 · American Journal of Physiology-Cell Physiology
7. The Role of Supporting Cell Populations in Satellite Cell Mediated Muscle Repair
   Amanda L. Johnson, Michael Kamal, G. Parise · 2023 · Cells
8. Regulation of Skeletal Muscle Development and Disease by microRNAs
   Ning Liu, Rhonda Bassel‐Duby · 2014 · Results and problems in cell differentiation
9. Omega-3 supplementation during unilateral resistance exercise training in older women: A within subject and double-blind placebo-controlled trial
   Matthew S. Brook, U.S.U. Din, Janelle Tarum, Anna Selby, Jonathan Iain Quinlan, Joseph J. Bass, Nima Gharahdaghi, Catherine Boereboom, Haitham Abdulla, Martino Vladimiro Franchi et al. · 2021 · Clinical Nutrition ESPEN
10. Skeletal muscle properties show collagen organization and immune cell content are associated with resistance exercise response heterogeneity in older persons
    Douglas E. Long, Bailey D. Peck, Kaleen M. Lavin, Cory M. Dungan, Kate Kosmac, S. Craig Tuggle, Marcas M. Bamman, Philip A. Kern, Charlotte A. Peterson · 2022 · Journal of Applied Physiology
11. An apparent lack of effect of satellite cell depletion on hypertrophy could be due to methodological limitations. Response to ‘Methodological issues limit interpretation of negative effects of satellite cell depletion on adult muscle hypertrophy’
    Ingrid Marie Egner, Jo C. Bruusgaard, Kristian Gundersen · 2017 · Development
12. Postnatal tendon growth and remodeling require platelet-derived growth factor receptor signaling
    Kristoffer B. Sugg, James F. Markworth, Nathaniel P. Disser, Andrew M. Rizzi, Jeffrey R Talarek, Dylan C. Sarver, Susan V. Brooks, Christopher L. Mendias · 2017 · American Journal of Physiology-Cell Physiology
13. Loss of Ptpn11 (Shp2) drives satellite cells into quiescence
    Joscha Griger, Robin Schneider, Ines Lahmann, V. Schoewel, Charles Keller, Simone Spuler, Marc Nazaré, Carmen Birchmeier · 2017 · eLife
14. Depletion of Pax7+ satellite cells does not affect diaphragm adaptations to running in young or aged mice
    Kevin A. Murach, Amy L. Confides, Angel Ho, Janna Renee Jackson, Lina S. Ghazala, Charlotte A. Peterson, Esther E. Dupont‐Versteegden · 2017 · The Journal of Physiology
15. Evidence of myomiR regulation of the pentose phosphate pathway during mechanical load‐induced hypertrophy
    Taylor R. Valentino, Vandré C. Figueiredo, Christopher Brooks Mobley, John Joseph McCarthy, Ivan J. Vechetti · 2021 · Physiological Reports
16. 5-Fluorouracil disrupts skeletal muscle immune cells and impairs skeletal muscle repair and remodeling
    Brandon N. VanderVeen, Thomas D. Cardaci, Sarah S. Madero, Sierra J. McDonald, Brooke M. Bullard, Robert L. Price, James A. Carson, Daping Fan, E. Angela Murphy · 2022 · Journal of Applied Physiology
17. Does an NSAID a day keep satellite cells at bay?
    Abigail Louise Mackey · 2013 · Journal of Applied Physiology
18. Automatic Myonuclear Detection in Isolated Single Muscle Fibers Using Robust Ellipse Fitting and Sparse Representation
    Hai Su, Fuyong Xing, Jonah Dan Lee, Charlotte A. Peterson, Lin Yang · 2014 · IEEE Transactions on Computational Biology and Bioinformatics
19. Satellite cell response to erythropoietin treatment and endurance training in healthy young men
    Andrea Hoedt, Britt Christensen, Birgitte Nellemann, Ulla Ramer Mikkelsen, Mette Hansen, Peter Schjerling, Jean Farup · 2015 · The Journal of Physiology
20. Type 2 diabetes causes skeletal muscle atrophy but does not impair resistance training‐mediated myonuclear accretion and muscle mass gain in rats
    Satoru Ato, Kohei Kido, Koji Sato, Satoshi Fujita · 2019 · Experimental Physiology
21. A myogenic precursor cell that could contribute to regeneration in zebrafish and its similarity to the satellite cell
    Ashley L. Siegel, David Gurevich, Peter David Currie · 2013 · FEBS Journal
22. Fibroblast growth factor 6 regulates sizing of the muscle stem cell pool
    William Zofkie, Sheryl M. Southard, Thomas W Braun, Christoph Lepper · 2021 · Stem Cell Reports
23. Coordinated Regulation of Myonuclear DNA Methylation, mRNA, and miRNA Levels Associates With the Metabolic Response to Rapid Synergist Ablation-Induced Skeletal Muscle Hypertrophy in Female Mice
    Ahmed Ismaeel, Nicholas T. Thomas, Mariah McCashland, Ivan J. Vechetti, Sebastian Edman, Johanna T. Lanner, Vandré C. Figueiredo, Christopher S. Fry, John Joseph McCarthy, Yuan Wen et al. · 2023 · Function
24. Substrate elasticity affects bovine satellite cell activation kinetics in vitro
    M. R. Lapin, John Michael Gonzalez, Sally Johnson · 2013 · Journal of Animal Science
25. Matrix metalloproteinase-2 plays a critical role in overload induced skeletal muscle hypertrophy
    Zhang Qia · 2014 · Muscles Ligaments and Tendons Journal
26. Testosterone and trenbolone enanthate increase mature myostatin protein expression despite increasing skeletal muscle hypertrophy and satellite cell number in rodent muscle
    Vincent James Dalbo, Michael D. Roberts, Christopher Brooks Mobley, Christopher Garrett Ballmann, Wesley C. Kephart, Carlton D. Fox, V. A. Santucci, Christine F. Conover, Luke A. Beggs, Alexander Balaez et al. · 2016 · Andrologia
27. Molecular regulation of satellite cells via intercellular signaling
    Chung-Ju Yeh, Kristina Marie Sattler, Christoph Lepper · 2023 · Gene
28. Skeletal Muscle Cells Express ICAM-1 after Muscle Overload and ICAM-1 Contributes to the Ensuing Hypertrophic Response
    Christopher L. Dearth, Qingnian Goh, Joseph S. Marino, Peter A. Cicinelli, María José Torres‐Palsa, Philippe Pierre, Randall G. Worth, Francis X. Pizza · 2013 · PLoS ONE
29. Mature IGF-I excels in promoting functional muscle recovery from disuse atrophy compared with pro-IGF-IA
    Soo-Hyun Park, Becky K. Brisson, Min Liu, Janelle M. Spinazzola, Elisabeth R. Barton · 2013 · Journal of Applied Physiology
30. Deficiency of heat shock transcription factor 1 suppresses heat stress‐associated increase in slow soleus muscle mass of mice
    Yoshitaka Ohno, Tatsuro Egawa, Sho YOKOYAMA, Akira Nakai, Takahiro Sugiura, Yoshinobu Ohira, T. Yoshioka, Katsumasa Goto · 2015 · Acta Physiologica
31. Barx2 and Pax7 Regulate Axin2 Expression in Myoblasts by Interaction with β-Catenin and Chromatin Remodelling
    Julie-Ann Hulin, Thi Diem Tran Nguyen, Shuang Cui, Shashikanth Marri, Ruth T. Yu, Michael Downes, Ronald M. Evans, Helen P. Makarenkova, Robyn Meech · 2016 · Stem Cells
32. The regulation of stem cell aging by Wnt signaling.
    Shin Fujimaki, Tamami Wakabayashi, Tohru Takemasa, Makoto Asashima, Tomoko Kuwabara · 2015 · PubMed
33. Translational Signalling, Atrogenic and Myogenic Gene Expression during Unloading and Reloading of Skeletal Muscle in Myostatin-Deficient Mice
    Heather K. Smith, Kenneth G. Matthews, Jenny M. Oldham, Ferenc Jeanplong, Shelley J. Falconer, James J. Bass, Mônica Senna Salerno, Jeremy Bracegirdle, Christopher D. McMahon · 2014 · PLoS ONE
34. NOX4 inhibition promotes the remodeling of dystrophic muscle
    David W. Hammers · 2022 · JCI Insight
35. Intercellular adhesion molecule-1 expression by skeletal muscle cells augments myogenesis
    Qingnian Goh, Christopher L. Dearth, Jacob T. Corbett, Philippe Pierre, Deborah N. Chadee, Francis X. Pizza · 2014 · Experimental Cell Research
36. Metabolic responses of juvenile GIFT strain of Nile tilapia ( Oreochromis niloticus ) to dietary L‐tryptophan supplementation
    Elangovan Prabu, Nathan Felix, Arumugam Uma, Baboonsundaram Ahilan, Cheryl Antony · 2020 · Aquaculture Nutrition
37. Cysteine mutations cause defective tyrosine phosphorylation in MEGF10 myopathy
    Satomi Mitsuhashi, Hiroaki Mitsuhashi, Matthew S. Alexander, Hiroyuki Sugimoto, Peter B. Kang · 2013 · FEBS Letters
38. The importance of serial sarcomere addition for muscle function and the impact of aging
    Avery Hinks, Thomas James Hawke, Martino Vladimiro Franchi, Geoffrey A. Power · 2023 · Journal of Applied Physiology
39. The roles of miRNAs in adult skeletal muscle satellite cells
    Pieter Jan Koopmans, Ahmed Ismaeel, Katarzyna Goljanek‐Whysall, Kevin A. Murach · 2023 · Free Radical Biology and Medicine
40. Early-Phase Satellite Cell and Myonuclear Domain Adaptations to Slow-Speed vs. Traditional Resistance Training Programs
    Jennifer R. Herman-Montemayor, Robert S. Hikida, Robert S. Staron · 2015 · The Journal of Strength and Conditioning Research
41. Inducible satellite cell depletion attenuates skeletal muscle regrowth following a scald‐burn injury
    Celeste C. Finnerty, Colleen F. McKenna, Lauren A Cambias, Camille R. Brightwell, Anesh Prasai, Ye Wang, Amina El Ayadi, David Newcomb Herndon, Oscar E Suman-Vejas, Christopher S. Fry · 2017 · The Journal of Physiology
42. The acute response of pericytes to muscle-damaging eccentric contraction and protein supplementation in human skeletal muscle
    Michael De Lisio, Jean Farup, Richard A Sukiennik, Nicole Clevenger, Julian Nallabelli, Brett Nelson, Kelly Ryan, Stine Klejs Rahbek, Frank Vincenzo de Paoli, Kristian Vissing et al. · 2015 · Journal of Applied Physiology
43. Satellite cell function, intramuscular inflammation and exercise in chronic kidney disease
    Tom F O’Sullivan, Alice Caroline Smith, Emma L Watson · 2018 · Clinical Kidney Journal
44. Resistance exercise: a mighty tool that adapts, destroys, rebuilds and modulates the molecular and structural environment of skeletal muscle
    Käthe Bersiner, So‐Young Park, Kirill Schaaf, Woo‐Hwi Yang, Christian Theis, Daniel Jacko, Sebastian Gehlert · 2023 · Physical Activity and Nutrition
45. From skeletal muscle damage and regeneration to the hypertrophy induced by exercise: What is the role of different macrophages subsets?
    André Luis Araujo Minari, R. Thomatieli-Santos · 2021 · American Journal of Physiology. Regulatory Integrative and Comparative Physiology
46. State of Knowledge on Molecular Adaptations to Exercise in Humans: Historical Perspectives and Future Directions
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47. Schisandrae fructus enhances myogenic differentiation and inhibits atrophy through protein synthesis in human myotubes
    Cy Hyun Kim, Jin‐Hong Shin, Sung Hyun Hwang, Yung Hyun Choi, Dae‐Seong Kim, Cheol Kim · 2016 · International Journal of Nanomedicine
48. “Known Unknowns”: Current Questions in Muscle Satellite Cell Biology
    DDW Cornelison · 2017 · Current topics in developmental biology/Current Topics in Developmental Biology
49. Does a Reduced Number of Muscle Stem Cells Impair the Addition of Sarcomeres and Recovery from a Skeletal Muscle Contracture? A Transgenic Mouse Model
    Sudarshan Dayanidhi, Matthew C. Kinney, Peter B. Dykstra, Richard L. Lieber · 2020 · Clinical Orthopaedics and Related Research
50. Myofiber-specific TEAD1 overexpression drives satellite cell hyperplasia and counters pathological effects of dystrophin deficiency
    Sheryl M. Southard, Ju-Ryoung Kim, SiewHui Low, R. W. Tsika, Christoph Lepper · 2016 · eLife
51. Hox11-expressing interstitial cells contribute to adult skeletal muscle at homeostasis.
    Corey Flynn, P. V. Van Ginkel, Katharine A Hubert, Qingyuan Guo, S. Hrycaj, Aubrey E. McDermott, Angelo Madruga, Anna P. Miller, Deneen M. Wellik · 2023 · Development
52. Resistance Training Improves Hypertrophic and Mitochondrial Adaptation in Skeletal Muscle
    Yongcai Zhao, Yanyan Wu · 2023 · International Journal of Sports Medicine
53. Effects of dietary zinc (Zn) levels on growth performance, nutrient composition, muscle development, antioxidant and inflammatory responses in yellow catfish muscle
    Xuewen Xu, Chang-Chun Song, Xiao-Ying Tan, Chong-Chao Zhong, Zhi Luo · 2023 · Aquaculture Reports
54. Acute vs. chronic hypoxia: What are the consequences for skeletal muscle mass?
    Louise Deldicque, Marc Francaux · 2013
55. Dystrophic Changes in Extraocular Muscles after Gamma Irradiation in mdx:utrophin+/− Mice
    Abby A. McDonald, Matthew D. Kunz, Linda K. McLoon · 2014 · PLoS ONE
56. CXCL10 increases in human skeletal muscle following damage but is not necessary for muscle regeneration
    Michael R. Deyhle, Paul S. Hafen, Jacob Parmley, Coray N. Preece, Marissa Robison, Jacob R. Sorensen, Blake Jackson, Dennis L. Eggett, Chad R. Hancock, Robert D. Hyldahl · 2018 · Physiological Reports
57. The impact of skeletal muscle contraction on CD146+Lin− pericytes
    Svyatoslav Dvoretskiy, Koyal Garg, Michael Munroe, Yair Pincu, Ziad S. Mahmassani, Charlotte V. Coombs, Brent Blackwell, Gabriela Garcia, Garret Waterstradt, Isaac Lee et al. · 2019 · American Journal of Physiology-Cell Physiology
58. Consistent expression pattern of myogenic regulatory factors in whole muscle and isolated human muscle satellite cells after eccentric contractions in humans
    Joshua P. Nederveen, Stephen A. Fortino, Jeff M. Baker, Tim Snijders, Sophie Joanisse, Chris McGlory, Bryon Robert McKay, Dinesh Arun Kumbhare, Gianni Parise · 2019 · Journal of Applied Physiology
59. High-yield Skeletal Muscle Protein Recovery from TRIzol After RNA and DNA Extraction
    Yuan Wen, Ivan J. Vechetti, Taylor R. Valentino, John Joseph McCarthy · 2020 · BioTechniques
60. Dietary arginine requirement in diets of GIFT strain of Nile tilapia, Oreochromis niloticus : Effects on growth performance, whole‐body composition, growth‐related gene expression and haemato‐biochemical responses
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61. Coordinated regulation of skeletal muscle mass and metabolic plasticity during recovery from disuse
    Anita E. M. Kneppers, Pieter A. Leermakers, Nicholas A.M. Pansters, Evelien M.P. Backx, Harry R. Gosker, Luc J. C. van Loon, Annemie M.W.J. Schols, RAMON C. J. LANGEN, Lex B. Verdijk · 2018 · The FASEB Journal
62. Exercise/Resistance Training and Muscle Stem Cells
    So‐ichiro Fukada, Ayasa Nakamura · 2021 · Endocrinology and Metabolism
63. Lin28a maintains a subset of adult muscle stem cells in an embryonic-like state
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64. Involvement of Transient Receptor Potential Cation Channel Vanilloid 1 (TRPV1) in Myoblast Fusion
    M. Kurosaka, Y. Ogura, T. Funabashi, T. Akema · 2016 · Journal of Cellular Physiology
65. Mechanical Overloading Increases Maximal Force and Reduces Fragility in Hind Limb Skeletal Muscle from Mdx Mouse
    Arnaud Ferry, Ara Parlakian, Pierre Joanne, Bodvael Fraysse, Takouhie Mgrditchian, Pauline Roy, Denis Furling, Gillian Sandra Butler-Browne, Onnik Agbulut · 2015 · American Journal Of Pathology
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67. Influence of DUX4 Expression in Facioscapulohumeral Muscular Dystrophy and Possible Treatments
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68. Skeletal Muscle Loading Changes its Regenerative Capacity
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69. Approach for semi-automated measurement of fiber diameter in murine and canine skeletal muscle
    Courtney R. Stevens, Josh Berenson, Michael Sledziona, Timothy P. Moore, Lynn Dong, Jonathan Cheetham · 2020 · PLoS ONE
70. Distinct Embryonic Origin and Injury Response of Resident Stem Cells in Craniofacial Muscles
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71. Satellite cell dynamics during skeletal muscle hypertrophy
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72. Neither myonuclear accretion nor a myonuclear domain size ceiling is a feature of the attenuated hypertrophic potential of aged human skeletal muscle
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73. Cytokine Mediated Control of Muscle Stem Cell Function
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74. CORP: Using transgenic mice to study skeletal muscle physiology
    Christopher Brooks Mobley, Ivan J. Vechetti, Taylor R. Valentino, John Joseph McCarthy · 2020 · Journal of Applied Physiology
75. MRTF‐A regulates myoblast commitment to differentiation by targeting PAX7 during muscle regeneration
    Ruhui Song, Shengnan Zhao, Yue Xu, Jian Hu, Shuangao Ke, Fan Li, Gaohui Tian, Xiao Zheng, Jiajun Li, Lixing Gu et al. · 2021 · Journal of Cellular and Molecular Medicine
76. Matrix metalloproteinase-2 plays a critical role in overload induced skeletal muscle hypertrophy
    Q. Zhang, Shivali Joshi, David H. Lovett, Bing Zhang, Sue C. Bodine, H.T. Kim, Xinke Liu · 2019 · Muscles Ligaments and Tendons Journal
77. Gene Networks during Skeletal Myogenesis
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78. Healthy skeletal muscle aging: The role of satellite cells, somatic mutations and exercise
    Irene Franco, Rodrigo Fernandez‐Gonzalo, Peter Vrtačnik, Tommy R. Lundberg, Maria Eriksson, Thomas P. Gustafsson · 2019 · International review of cytology
79. Sodium alginate supplementation modulates gut microbiota, health parameters, growth performance and growth‐related gene expression in Malaysian Mahseer Tor tambroides
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80. Emerging new tools to study and treat muscle pathologies: genetics and molecular mechanisms underlying skeletal muscle development, regeneration, and disease
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81. Sex Hormones and Satellite Cell Regulation in Women
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82. Intersections of Fibrodysplasia Ossificans Progressiva and Traumatic Heterotopic Ossification
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83. Regulation of muscle hypertrophy through granulin: Relayed communication among mesenchymal progenitors, macrophages, and satellite cells
    Lidan Zhang, Hayato Saito, Tatsuyoshi Higashimoto, Takayuki Kaji, Ayasa Nakamura, Kanako Iwamori, Ryoko Nagano, Daisuke Motooka, Daisuke Okuzaki, Akiyoshi Uezumi et al. · 2024 · Cell Reports
84. Inhibition of the Activin Receptor Type-2B Pathway Restores Regenerative Capacity in Satellite Cell-Depleted Skeletal Muscle
    Luigi Formicola, Alice Pannérec, Rosa Maria Correra, Barbara Gayraud-Morel, David Ollitrault, Vanessa Besson, Shahragim Tajbakhsh, Jennifer L. Lachey, Jasbir S. Seehra, Giovanna Marazzi et al. · 2018 · Frontiers in Physiology
85. Muscle atrophy and regeneration associated with behavioural loss and recovery of function after sciatic nerve crush
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86. Emphasizing Task-Specific Hypertrophy to Enhance Sequential Strength and Power Performance
    S. Kyle Travis, Ai Ishida, Christopher B. Taber, Andrew C. Fry, Michael Henry Stone · 2020 · Journal of Functional Morphology and Kinesiology
87. Role of PDK1 in skeletal muscle hypertrophy induced by mechanical load
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88. Translational Control of the Myogenic Program in Developing, Regenerating, and Diseased Skeletal Muscle
    Ryo Fujita, Colin G. Crist · 2017 · Current topics in developmental biology/Current Topics in Developmental Biology
89. Selective androgen receptor modulator, S42 has anabolic and anti-catabolic effects on cultured myotubes
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90. Impaired regenerative capacity contributes to skeletal muscle dysfunction in chronic obstructive pulmonary disease
    Ariel Jaitovich · 2022 · American Journal of Physiology-Cell Physiology
91. Post-natal muscle growth and protein turnover: a narrative review of current understanding
    D. J. Millward · 2023 · Nutrition Research Reviews
92. The effects of dietary β-guanidinopropionic acid on growth and muscle fiber development in juvenile red porgy, Pagrus pagrus
    Dalon P. White, Bradley L. Baumgarner, Wade O. Watanabe, Md. Shah Alam, Stephen T. Kinsey · 2017 · Comparative Biochemistry and Physiology Part B Biochemistry and Molecular Biology
93. Extracellular matrix remodelling is associated with muscle force increase in overloaded mouse plantaris muscle
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94. Fish Protein Promotes Skeletal Muscle Hypertrophy via the Akt/mTOR Signaling Pathways
    Mizuki Morisasa, Eriko Yoshida, Mina Fujitani, Keisuke Kimura, Kenji Uchida, Taro Kishida, Tsukasa Mori, Naoko Goto‐Inoue · 2022 · Journal of Nutritional Science and Vitaminology
95. Systemic IL-6 and Myoglobin Response to Three Different Resistance Exercise Intensities in Older Men
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96. Muscle regeneration and muscle stem cells in metabolic disease
    Jin D. Chung, Enzo R. Porrello, Gordon Stuart Lynch · 2024 · Free Radical Biology and Medicine
97. Contributions of Muscle-Resident Progenitor Cells to Homeostasis and Disease
    Devaveena Dey, David J. Goldhamer, Paul B. Yu · 2015 · Current Molecular Biology Reports
98. Fiber Type-Specific Satellite Cell Content in Cyclists Following Heavy Training with Carbohydrate and Carbohydrate-Protein Supplementation
    Alec I. McKenzie, Andrew C. D’Lugos, Michael John Saunders, Keith Gworek, Nicholas D. Luden · 2016 · Frontiers in Physiology
99. Myogenic Satellite Cells: Biological Milieu and Possible Clinical Applications
    Raed S. Said, Ayman Mustafa, Hasan A. Asfour, Emad I. Shaqour · 2016 · Pakistan Journal of Biological Sciences
100. Effect of endurance exercise duration on muscle hypertrophy induced by functional overload
     Takanaga Shirai, Tsubasa Obara, Tohru Takemasa · 2020 · FEBS Open Bio