Current Methodologies for Inducing Aligned Myofibers in Tissue Constructs for Skeletal Muscle Tissue Regeneration

被引:2
作者
Sicherer, Sydnee T. [1 ]
Haque, Noor [1 ]
Parikh, Yash [1 ]
Grasman, Jonathan M. [1 ]
机构
[1] New Jersey Inst Technol, Dept Biomed Engn, Newark, NJ 07102 USA
基金
美国国家卫生研究院;
关键词
volumetric muscle loss; wound healing; tissue engineering; alignment; muscle; HEPATOCYTE GROWTH-FACTOR; IN-VITRO; MYOGENIC DIFFERENTIATION; REPAIR CONSTRUCT; SATELLITE CELLS; LOSS INJURY; MODEL; SCAFFOLDS; FIBRIN; IMPLANTATION;
D O I
10.1089/wound.2024.0111
中图分类号
R75 [皮肤病学与性病学];
学科分类号
100206 ;
摘要
Significance: Volumetric muscle loss (VML) results in the loss of large amounts of tissue that inhibits muscle regeneration. Existing therapies, such as autologous muscle transfer and physical therapy, are incapable of returning full function and force production to injured muscle.Recent Advances: Skeletal muscle tissue constructs may provide an alternative to existing therapies currently used to treat VML. Unlike autologous muscle transplants, muscle constructs can be cultured in vitro and are not reliant on intact muscle tissue. Skeletal muscle constructs can be generated from small muscle biopsies and could be used to generate skeletal muscle tissue constructs to replace injured tissues.Critical Issues: To serve as effective therapies, muscle constructs must be capable of generating contractile forces that can assist the function of host skeletal muscle. The contractile force of native muscle arises in part as a consequence of the highly aligned, bundled architecture of myofibers. Attempts to induce similar alignment include applications of tension/strain across hydrogels, inducing aligned architectures within scaffolds, casting tissues in straited molds, and 3D printing. While all these methods have demonstrated efficacy toward inducing myofiber alignment, the extent of myofiber alignment, tissue formation, and force production varies. This manusript critically reviews the advantages and limitations of these methods and specifically discusses their ability to impart mechanical and architectural cues to induce alignment within tissue constructs.Future Directions: As tissue-synthesizing techniques continue to improve, muscle constructs must include more cell types than simply myoblasts, such as the addition of neuronal and endothelial cells. Higher-level tissue organization is critical to the success of these constructs. Many of these technologies have yet to be implanted into host tissue to understand engraftment and how they can contribute to traumatic injury, and as such continued collaboration between surgeons and tissue engineers is necessary to ultimately result in clinical translation.
引用
收藏
页码:114 / 131
页数:18
相关论文
共 108 条
  • [91] An Acellular Biologic Scaffold Promotes Skeletal Muscle Formation in Mice and Humans with Volumetric Muscle Loss
    Sicari, Brian M.
    Rubin, J. Peter
    Dearth, Christopher L.
    Wolf, Matthew T.
    Ambrosio, Fabrisia
    Boninger, Michael
    Turner, Neill J.
    Weber, Douglas J.
    Simpson, Tyler W.
    Wyse, Aaron
    Brown, Elke H. P.
    Dziki, Jenna L.
    Fisher, Lee E.
    Brown, Spencer
    Badylak, Stephen F.
    [J]. SCIENCE TRANSLATIONAL MEDICINE, 2014, 6 (234)
  • [92] Recent Trends in Injury Models to Study Skeletal Muscle Regeneration and Repair
    Sicherer, Sydnee T.
    Venkatarama, Rashmi S.
    Grasman, Jonathan M.
    [J]. BIOENGINEERING-BASEL, 2020, 7 (03): : 1 - 11
  • [93] Cessation of cyclic stretch induces atrophy of C2C12 myotubes
    Soltow, Quinlyn A.
    Zeanah, Elizabeth H.
    Lira, Vitor A.
    Criswell, David S.
    [J]. BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS, 2013, 434 (02) : 316 - 321
  • [94] Myoblast maturity on aligned microfiber bundles at the onset of strain application impacts myogenic outcomes
    Somers, Sarah M.
    Zhang, Nicholas Y.
    Morrissette-McAlmon, Justin B. F.
    Tran, Kenny
    Mao, Hai-Quan
    Grayson, Warren L.
    [J]. ACTA BIOMATERIALIA, 2019, 94 : 232 - 242
  • [95] Triple growth factor delivery promotes functional bone regeneration following composite musculoskeletal trauma
    Subbiah, Ramesh
    Ruehle, Marissa A.
    Klosterhoff, Brett S.
    Lin, Angela S. P.
    Hettiaratchi, Marian H.
    Willett, Nick J.
    Bertassoni, Luiz E.
    Garcia, Andres J.
    Guldberg, Robert E.
    [J]. ACTA BIOMATERIALIA, 2021, 127 : 180 - 192
  • [96] Directionality of developing skeletal muscles is set by mechanical forces
    Sunadome, Kazunori
    Erickson, Alek G. G.
    Kah, Delf
    Fabry, Ben
    Adori, Csaba
    Kameneva, Polina
    Faure, Louis
    Kanatani, Shigeaki
    Kaucka, Marketa
    Ellstroem, Ivar Dehnisch
    Tesarova, Marketa
    Zikmund, Tomas
    Kaiser, Jozef
    Edwards, Steven
    Maki, Koichiro
    Adachi, Taiji
    Yamamoto, Takuya
    Fried, Kaj
    Adameyko, Igor
    [J]. NATURE COMMUNICATIONS, 2023, 14 (01)
  • [97] Engineered Human Muscle Tissue from Multilayered Aligned Myofiber Sheets for Studies of Muscle Physiology and Predicting Drug Response
    Takahashi, Hironobu
    Wakayama, Haruno
    Nagase, Kenichi
    Shimizu, Tatsuya
    [J]. SMALL METHODS, 2023, 7 (02):
  • [98] Release of hepatocyte growth factor from mechanically stretched skeletal muscle satellite cells and role of pH and nitric oxide
    Tatsumi, R
    Hattori, A
    Ikeuchi, Y
    Anderson, JE
    Allen, RE
    [J]. MOLECULAR BIOLOGY OF THE CELL, 2002, 13 (08) : 2909 - 2918
  • [99] Regeneration of skeletal muscle
    Turner, Neill J.
    Badylak, Stephen F.
    [J]. CELL AND TISSUE RESEARCH, 2012, 347 (03) : 759 - 774
  • [100] United States Bone and Joint Initiative, 2012, NUMBERS MUSCULOSKELE