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  1. Muscle atrophy derived from excessive proteolysis is a hallmark of numerous disease conditions. Accordingly, the negative consequences of skeletal muscle protein breakdown often overshadow the critical nature ...

    Authors: Ryan A. V. Bell, Mohammad Al-Khalaf and Lynn A. Megeney
    Citation: Skeletal Muscle 2016 6:16

    The Erratum to this article has been published in Skeletal Muscle 2016 6:19

  2. Myostatin (Mstn) is a negative regulator of muscle growth whose inhibition promotes muscle growth and regeneration. Dystrophin-deficient mdx mice in which myostatin is knocked out or inhibited postnatally have a ...

    Authors: Joe N. Kornegay, Daniel J. Bogan, Janet R. Bogan, Jennifer L. Dow, Jiahui Wang, Zheng Fan, Naili Liu, Leigh C. Warsing, Robert W. Grange, Mihye Ahn, Cynthia J. Balog-Alvarez, Steven W. Cotten, Monte S. Willis, Candice Brinkmeyer-Langford, Hongtu Zhu, Joe Palandra…
    Citation: Skeletal Muscle 2016 6:14
  3. Diabetes is the seventh leading cause of death in the USA, and disruption of circadian rhythms is gaining recognition as a contributing factor to disease prevalence. This disease is characterized by hyperglyce...

    Authors: Brianna D. Harfmann, Elizabeth A. Schroder, Maureen T. Kachman, Brian A. Hodge, Xiping Zhang and Karyn A. Esser
    Citation: Skeletal Muscle 2016 6:12
  4. The mammalian target of rapamycin complex 1 (mTORC1) is a central node in a network of signaling pathways controlling cell growth and survival. This multiprotein complex integrates external signals and affects...

    Authors: Maitea Guridi, Barbara Kupr, Klaas Romanino, Shuo Lin, Denis Falcetta, Lionel Tintignac and Markus A. Rüegg
    Citation: Skeletal Muscle 2016 6:13
  5. Extracellular stimuli induce gene expression responses through intracellular signaling mediators. The p38 signaling pathway is a paradigm of the mitogen-activated protein kinase (MAPK) family that, although or...

    Authors: Jessica Segalés, Abul B. M. M. K. Islam, Roshan Kumar, Qi-Cai Liu, Pedro Sousa-Victor, F. Jeffrey Dilworth, Esteban Ballestar, Eusebio Perdiguero and Pura Muñoz-Cánoves
    Citation: Skeletal Muscle 2016 6:9
  6. Hypoxia exposure is known to induce an alteration in skeletal muscle fiber-type distribution mediated by hypoxia-inducible factor (HIF)-α. The downstream pathway of HIF-α leading to fiber-type shift, however, ...

    Authors: Junchul Shin, Aki Nunomiya, Yasuo Kitajima, Takashi Dan, Toshio Miyata and Ryoichi Nagatomi
    Citation: Skeletal Muscle 2016 6:5
  7. Studies of the pathogenic mechanisms underlying human myopathies and muscular dystrophies often require animal models, but models of some human diseases are not yet available. Methods to promote the engraftmen...

    Authors: Paraskevi Sakellariou, Andrea O’Neill, Amber L. Mueller, Guido Stadler, Woodring E. Wright, Joseph A. Roche and Robert J. Bloch
    Citation: Skeletal Muscle 2016 6:4
  8. The defective glycosylation of α-dystroglycan is associated with a group of muscular dystrophies that are collectively referred to as the secondary dystroglycanopathies. Mutations in the gene encoding fukutin-...

    Authors: Jihee Kim, Mark Hopkinson, Manoli Kavishwar, Marta Fernandez-Fuente and Susan Carol Brown
    Citation: Skeletal Muscle 2016 6:3
  9. Low mitochondrial content and oxidative capacity are well-established features of locomotor muscle dysfunction, a prevalent and debilitating systemic occurrence in patients with chronic obstructive pulmonary d...

    Authors: Yana Konokhova, Sally Spendiff, R. Thomas Jagoe, Sudhakar Aare, Sophia Kapchinsky, Norah J. MacMillan, Paul Rozakis, Martin Picard, Mylène Aubertin-Leheudre, Charlotte H. Pion, Jean Bourbeau, Russell T. Hepple and Tanja Taivassalo
    Citation: Skeletal Muscle 2016 6:10
  10. Most cultured enzymatically dissociated adult myofibers exhibit spatially uniform (UNI) contractile responses and Ca2+ transients over the entire myofiber in response to electric field stimuli of either polarity ...

    Authors: Erick O. Hernández-Ochoa, Camilo Vanegas, Shama R. Iyer, Richard M. Lovering and Martin F. Schneider
    Citation: Skeletal Muscle 2016 6:6
  11. Human genetic disorders and transgenic mouse models have shown that mitochondrial DNA (mtDNA) mutations and telomere dysfunction instigate the aging process. Epidemiological...

    Authors: Adeel Safdar, Konstantin Khrapko, James M. Flynn, Ayesha Saleem, Michael De Lisio, Adam P. W. Johnston, Yevgenya Kratysberg, Imtiaz A. Samjoo, Yu Kitaoka, Daniel I. Ogborn, Jonathan P. Little, Sandeep Raha, Gianni Parise, Mahmood Akhtar, Bart P. Hettinga, Glenn C. Rowe…
    Citation: Skeletal Muscle 2016 6:7

    The Retraction Note to this article has been published in Skeletal Muscle 2021 11:8

  12. Misexpression of the double homeodomain transcription factor DUX4 results in facioscapulohumeral muscular dystrophy (FSHD). A DNA-binding consensus with two tandem TAAT motifs based on chromatin IP peaks has b...

    Authors: Yu Zhang, John K. Lee, Erik A. Toso, Joslynn S. Lee, Si Ho Choi, Matthew Slattery, Hideki Aihara and Michael Kyba
    Citation: Skeletal Muscle 2016 6:8
  13. Abnormal branched myofibers within skeletal muscles are commonly found in diverse animal models of muscular dystrophy as well as in patients. Branched myofibers from dystrophic mice are more susceptible to bre...

    Authors: Christophe Pichavant, Thomas J. Burkholder and Grace K. Pavlath
    Citation: Skeletal Muscle 2016 6:2
  14. Skeletal muscle has a remarkable capacity to regenerate by virtue of its resident stem cells (satellite cells). This capacity declines with aging, although whether this is due to extrinsic changes in the envir...

    Authors: Andrew S. Brack and Pura Muñoz-Cánoves
    Citation: Skeletal Muscle 2016 6:1
  15. Anoctamin 5 (ANO5) is a member of a conserved gene family (TMEM16), which codes for proteins predicted to have eight transmembrane domains and putative Ca2+-activated chloride channel (CaCC) activity. It was rece...

    Authors: Jing Xu, Mona El Refaey, Li Xu, Lixia Zhao, Yandi Gao, Kyle Floyd, Tallib Karaze, Paul M. L. Janssen and Renzhi Han
    Citation: Skeletal Muscle 2015 5:43
  16. Adult skeletal muscle adapts to functional needs, maintaining consistent numbers of myonuclei and stem cells. Although resident muscle stem cells or satellite cells are required for muscle growth and repair, i...

    Authors: Bradley Pawlikowski, Crystal Pulliam, Nicole Dalla Betta, Gabrielle Kardon and Bradley B. Olwin
    Citation: Skeletal Muscle 2015 5:42
  17. Duchenne muscular dystrophy (DMD) is caused by mutations in the dystrophin gene. The immune inflammatory response also contributes to disease progression in DMD patients. In a previous study, we demonstrated h...

    Authors: Fernanda Pinto-Mariz, Luciana Rodrigues Carvalho, Alexandra Prufer De Queiroz Campos Araujo, Wallace De Mello, Márcia Gonçalves Ribeiro, Maria Do Carmo Soares Alves Cunha, Pedro Hernan Cabello, Ingo Riederer, Elisa Negroni, Isabelle Desguerre, Mariana Veras, Erica Yada, Yves Allenbach, Olivier Benveniste, Thomas Voit, Vincent Mouly…
    Citation: Skeletal Muscle 2015 5:45
  18. Obese adults are prone to develop metabolic and cardiovascular diseases. Furthermore, over-weight expectant mothers give birth to large babies who also have increased likelihood of developing metabolic and car...

    Authors: Antonios Matsakas, Domenick A. Prosdocimo, Robert Mitchell, Henry Collins-Hooper, Natasa Giallourou, Jonathan R. Swann, Paul Potter, Thomas Epting, Mukesh K. Jain and Ketan Patel
    Citation: Skeletal Muscle 2015 5:38
  19. The mammalian esophageal musculature is unique in that it makes a transition from smooth to skeletal muscle, with most of this process occurring after birth. In order to better understand the mechanisms that c...

    Authors: Daisuke Chihara, Anthony I. Romer, C. Florian Bentzinger, Michael A. Rudnicki and Robert S. Krauss
    Citation: Skeletal Muscle 2015 5:39
  20. Systemic delivery of anti-sense oligonucleotides to Duchenne muscular dystrophy (DMD) patients to induce de novo dystrophin protein expression in muscle (exon skipping) is a promising therapy. Treatment with P...

    Authors: Maria Candida Vila, Margaret Benny Klimek, James S. Novak, Sree Rayavarapu, Kitipong Uaesoontrachoon, Jessica F. Boehler, Alyson A. Fiorillo, Marshall W. Hogarth, Aiping Zhang, Conner Shaughnessy, Heather Gordish-Dressman, Umar Burki, Volker Straub, Qi Long Lu, Terence A. Partridge, Kristy J. Brown…
    Citation: Skeletal Muscle 2015 5:44
  21. Satellite cells, or muscle stem cells, have been thought to be responsible for all muscle plasticity, but recent studies using genetically modified mouse models that allow for the conditional ablation of satel...

    Authors: Janna R. Jackson, Tyler J. Kirby, Christopher S. Fry, Robin L. Cooper, John J. McCarthy, Charlotte A. Peterson and Esther E. Dupont-Versteegden
    Citation: Skeletal Muscle 2015 5:41
  22. Duchenne muscular dystrophy (DMD) is a devastating X-linked recessive genetic myopathy. DMD physiopathology is still not fully understood and a prenatal onset is suspected but difficult to address.

    Authors: Emmanuelle Massouridès, Jérôme Polentes, Philippe-Emmanuel Mangeot, Virginie Mournetas, Juliette Nectoux, Nathalie Deburgrave, Patrick Nusbaum, France Leturcq, Linda Popplewell, George Dickson, Nicolas Wein, Kevin M. Flanigan, Marc Peschanski, Jamel Chelly and Christian Pinset
    Citation: Skeletal Muscle 2015 5:40
  23. Gene therapy strategies are promising therapeutic options for monogenic muscular dystrophies, with several currently underways. The adeno-associated viral (AAV) vector is among the most effective gene delivery...

    Authors: Muhammad Riaz, Yotam Raz, Elizabeth B. Moloney, Maaike van Putten, Yvonne D. Krom, Silvere M. van der Maarel, Joost Verhaagen and Vered Raz
    Citation: Skeletal Muscle 2015 5:37
  24. Satellite cells (SCs) are indispensable for muscle regeneration and repair; however, due to low frequency in primary muscle and loss of engraftment potential after ex vivo expansion, their use in cell therapy ...

    Authors: Antonio Filareto, Fabrizio Rinaldi, Robert W. Arpke, Radbod Darabi, Joseph J. Belanto, Erik A. Toso, Auston Z. Miller, James M. Ervasti, R. Scott McIvor, Michael Kyba and Rita CR Perlingeiro
    Citation: Skeletal Muscle 2015 5:36
  25. Mouse models of dysferlinopathies are valuable tools with which to investigate the pathomechanisms underlying these diseases and to test novel therapeutic strategies. One such mouse model is the Dysf ...

    Authors: Tatiana Wiktorowicz, Jochen Kinter, Kazuhiro Kobuke, Kevin P. Campbell and Michael Sinnreich
    Citation: Skeletal Muscle 2015 5:32
  26. Although high-throughput studies of gene expression have generated large amounts of data, most of which is freely available in public archives, the use of this valuable resource is limited by computational com...

    Authors: Jing Su, Carl Ekman, Nikolay Oskolkov, Leo Lahti, Kristoffer Ström, Alvis Brazma, Leif Groop, Johan Rung and Ola Hansson
    Citation: Skeletal Muscle 2015 5:35
  27. Loss of skeletal muscle mass and function in humans is associated with significant morbidity and mortality. The role of myostatin as a key negative regulator of skeletal muscle mass and function has supported ...

    Authors: Esther Latres, Jeffrey Pangilinan, Lawrence Miloscio, Roy Bauerlein, Erqian Na, Terra B. Potocky, Ying Huang, Mark Eckersdorff, Ashique Rafique, Jason Mastaitis, Calvin Lin, Andrew J. Murphy, George D. Yancopoulos, Jesper Gromada and Trevor Stitt
    Citation: Skeletal Muscle 2015 5:34
  28. Interleukin 15 (IL-15) is thought to be abundant in the skeletal muscle under steady state conditions based on RNA expression; however, the IL-15 RNA level may not reflect the protein level due to post-transcr...

    Authors: Po-Lin Huang, Mau-Sheng Hou, Szu-Wen Wang, Chin-Ling Chang, Yae-Huei Liou and Nan-Shih Liao
    Citation: Skeletal Muscle 2015 5:33
  29. Syntaxins are a family of membrane proteins involved in vesicle trafficking, such as synaptic vesicle exocytosis. Syntaxin 4 (Stx4) is expressed highly in skeletal muscle and plays a critical role in insulin-s...

    Authors: Miran Yoo, Bok-Geon Kim, Sang-Jin Lee, Hyeon-Ju Jeong, Jong Woo Park, Dong-Wan Seo, Yong Kee Kim, Hoi Young Lee, Jeung-Whan Han, Jong-Sun Kang and Gyu-Un Bae
    Citation: Skeletal Muscle 2015 5:28
  30. Merosin-deficient congenital muscular dystrophy type-1A (MDC1A) is characterized by progressive muscular dystrophy and dysmyelinating neuropathy caused by mutations of the α2 chain of laminin-211, the predomin...

    Authors: Teuta Domi, Emanuela Porrello, Daniele Velardo, Alessia Capotondo, Alessandra Biffi, Rossana Tonlorenzi, Stefano Amadio, Alessandro Ambrosi, Yuko Miyagoe-Suzuki, Shin’ichi Takeda, Markus A. Ruegg and Stefano Carlo Previtali
    Citation: Skeletal Muscle 2015 5:30
  31. Transport protein particle (TRAPP) is a multiprotein complex involved in endoplasmic reticulum-to-Golgi trafficking. Zebrafish with a mutation in the TRAPPC11 orthologue showed hepatomegaly with steatosis and def...

    Authors: Wen-Chen Liang, Wenhua Zhu, Satomi Mitsuhashi, Satoru Noguchi, Michael Sacher, Megumu Ogawa, Hsiang-Hung Shih, Yuh-Jyh Jong and Ichizo Nishino
    Citation: Skeletal Muscle 2015 5:29
  32. The plasma membranes of striated muscle cells are particularly susceptible to rupture as they endure significant mechanical stress and strain during muscle contraction, and studies have shown that defects in m...

    Authors: Kaitlin C. Lenhart, Thomas J. O’Neill IV, Zhaokang Cheng, Rachel Dee, Alexis R. Demonbreun, Jianbin Li, Xiao Xiao, Elizabeth M. McNally, Christopher P. Mack and Joan M. Taylor
    Citation: Skeletal Muscle 2015 5:27
  33. In skeletal muscle, intracellular Ca2+ is an important regulator of contraction as well as gene expression and metabolic processes. Because of the difficulties to obtain intact human muscle fibers, human myotubes...

    Authors: Karl Olsson, Arthur J. Cheng, Seher Alam, Mamdoh Al-Ameri, Eric Rullman, HÃ¥kan Westerblad, Johanna T. Lanner, Joseph D. Bruton and Thomas Gustafsson
    Citation: Skeletal Muscle 2015 5:26
  34. The hormone adiponectin (ApN) is decreased in the metabolic syndrome, where it plays a key pathogenic role. ApN also exerts some anti-inflammatory effects on skeletal muscles in mice exposed to acute or chroni...

    Authors: Michel Abou-Samra, Sophie Lecompte, Olivier Schakman, Laurence Noel, Marie C. Many, Philippe Gailly and Sonia M. Brichard
    Citation: Skeletal Muscle 2015 5:25
  35. Loss-of-function mutations in the dysferlin gene (DYSF) result in a family of muscle disorders known collectively as the dysferlinopathies. Dysferlin-deficient muscle is characterized by inflammatory foci and ...

    Authors: Tatiana V. Cohen, Gina M. Many, Bryan D. Fleming, Viola F. Gnocchi, Svetlana Ghimbovschi, David M. Mosser, Eric P. Hoffman and Terence A. Partridge
    Citation: Skeletal Muscle 2015 5:24
  36. Although excitation-contraction (EC) coupling in skeletal muscle relies on physical activation of the skeletal ryanodine receptor (RyR1) Ca2+ release channel by dihydropyridine receptors (DHPRs), the activation p...

    Authors: Robyn T. Rebbeck, Hermia Willemse, Linda Groom, Marco G. Casarotto, Philip G. Board, Nicole A. Beard, Robert T. Dirksen and Angela F. Dulhunty
    Citation: Skeletal Muscle 2015 5:23
  37. Developing skeletal muscles express unique myosin isoforms, including embryonic and neonatal myosin heavy chains, coded by the myosin heavy chain 3 (MYH3) and MYH8 genes, respectively, and myosin light chain 1 em...

    Authors: Stefano Schiaffino, Alberto C. Rossi, Vika Smerdu, Leslie A. Leinwand and Carlo Reggiani
    Citation: Skeletal Muscle 2015 5:22
  38. Myostatin is a protein synthesized and secreted by skeletal muscle that negatively regulates muscle mass. The extent to which circulating myostatin levels change in the context of aging is controversial, large...

    Authors: H. Robert Bergen III, Joshua N. Farr, Patrick M. Vanderboom, Elizabeth J. Atkinson, Thomas A. White, Ravinder J. Singh, Sundeep Khosla and Nathan K. LeBrasseur
    Citation: Skeletal Muscle 2015 5:21
  39. In addition to the primary symptoms arising from inflamed joints, muscle weakness is prominent and frequent in patients with rheumatoid arthritis (RA). Here, we investigated the mechanisms of arthritis-induced...

    Authors: Takashi Yamada, Masami Abe, Jaesik Lee, Daisuke Tatebayashi, Koichi Himori, Keita Kanzaki, Masanobu Wada, Joseph D. Bruton, HÃ¥kan Westerblad and Johanna T. Lanner
    Citation: Skeletal Muscle 2015 5:20
  40. Skeletal muscle is a major contributor to whole-body metabolism as it serves as a depot for both glucose and amino acids, and is a highly metabolically active tissue. Within skeletal muscle exists an intrinsic...

    Authors: Brian A Hodge, Yuan Wen, Lance A Riley, Xiping Zhang, Jonathan H England, Brianna D Harfmann, Elizabeth A Schroder and Karyn A Esser
    Citation: Skeletal Muscle 2015 5:17
  41. Preclinical testing of potential therapies for Duchenne muscular dystrophy (DMD) is conducted predominantly of the mdx mouse. But lack of a detailed quantitative description of the pathology of this animal limits...

    Authors: William Duddy, Stephanie Duguez, Helen Johnston, Tatiana V Cohen, Aditi Phadke, Heather Gordish-Dressman, Kanneboyina Nagaraju, Viola Gnocchi, SiewHui Low and Terence Partridge
    Citation: Skeletal Muscle 2015 5:16
  42. Duchenne muscular dystrophy (DMD) is due to mutations in the gene coding for human DMD; DMD is characterized by progressive muscle degeneration, inflammation, fat accumulation, and fibrosis. The mdx mouse model o...

    Authors: Leonel Martinez, Natalia V Ermolova, Tomo-O Ishikawa, David B Stout, Harvey R Herschman and Melissa J Spencer
    Citation: Skeletal Muscle 2015 5:15
  43. Adult skeletal muscle regeneration is a highly orchestrated process involving the activation and proliferation of satellite cells, an adult skeletal muscle stem cell. Activated satellite cells generate a trans...

    Authors: Andrew E Jones, Feodor D Price, Fabien Le Grand, Vahab D Soleimani, Sarah A Dick, Lynn A Megeney and Michael A Rudnicki
    Citation: Skeletal Muscle 2015 5:14
  44. The X-linked recessive disease Duchenne muscular dystrophy (DMD) is caused by mutations in the gene encoding the protein dystrophin. Despite its large size, dystrophin is a highly stable protein, demonstrating...

    Authors: Jackie L McCourt, Katrina K Rhett, Michele A Jaeger, Joseph J Belanto, Dana M Talsness and James M Ervasti
    Citation: Skeletal Muscle 2015 5:13
  45. Nemaline myopathy (NM), the most common non-dystrophic congenital myopathy, is characterized by generalized skeletal muscle weakness, often from birth. To date, no therapy exists that enhances the contractile ...

    Authors: Josine M de Winter, Barbara Joureau, Vasco Sequeira, Nigel F Clarke, Jolanda van der Velden, Ger JM Stienen, Henk Granzier, Alan H Beggs and Coen AC Ottenheijm
    Citation: Skeletal Muscle 2015 5:12
  46. Muscle stem cell transplantation is a possible treatment for muscular dystrophy. In addition to the intrinsic properties of the stem cells, the local and systemic environment plays an important role in determi...

    Authors: Jinhong Meng, Maximilien Bencze, Rowan Asfahani, Francesco Muntoni and Jennifer E Morgan
    Citation: Skeletal Muscle 2015 5:11

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