Transit-Amplifying Cells in the Fast Lane from Stem Cells towards Differentiation

被引:38
|
作者
Rangel-Huerta, Emma [1 ]
Maldonado, Ernesto [1 ]
机构
[1] Univ Nacl Autonoma Mexico, EvoDevo Lab, Unidad Sistemas Arrecifales, Inst Ciencias Mar & Limnol, Puerto Morelos, Qroo, Mexico
关键词
HUMAN EPIDERMAL STEM; P63; PHOSPHORYLATION; WOUND REPAIR; GENOME-WIDE; EXPRESSION; DIVISIONS; PROLIFERATION; REGENERATION; DROSOPHILA; REVEALS;
D O I
10.1155/2017/7602951
中图分类号
Q813 [细胞工程];
学科分类号
摘要
Stem cells have a high potential to impact regenerative medicine. However, stem cells in adult tissues often proliferate at very slow rates. During development, stem cells may change first to a pluripotent and highly proliferative state, known as transit-amplifying cells. Recent advances in the identification and isolation of these undifferentiated and fast-dividing cells could bring new alternatives for cell-based transplants. The skin epidermis has been the target of necessary research about transit-amplifying cells; this work has mainly been performed in mammalian cells, but further work is being pursued in other vertebrate models, such as zebrafish. In this review, we present some insights about the molecular repertoire regulating the transition from stem cells to transit-amplifying cells or playing a role in the transitioning to fully differentiated cells, including gene expression profiles, cell cycle regulation, and cellular asymmetrical events. We also discuss the potential use of this knowledge in effective progenitor cell-based transplants in the treatment of skin injuries and chronic disease.
引用
收藏
页数:10
相关论文
共 50 条
  • [1] Beta-catenin can induce hair follicle stem cell differentiation into transit-amplifying cells through c-myc activation
    Shen, Qiong
    Yu, Weirong
    Fang, Yong
    Yao, Min
    Yang, Penggao
    TISSUE & CELL, 2017, 49 (01) : 28 - 34
  • [2] MicroRNA miR396 Regulates the Switch between Stem Cells and Transit-Amplifying Cells in Arabidopsis Roots
    Rodriguez, Ramiro E.
    Florencia Ercoli, Maria
    Manuel Debernardi, Juan
    Breakfield, NatalieW.
    Mecchia, Martin A.
    Sabatini, Martin
    Cools, Toon
    De Veylder, Lieven
    Benfey, Philip N.
    Palatnik, Javier F.
    PLANT CELL, 2015, 27 (12) : 3354 - 3366
  • [3] Interleukin 22 Expands Transit-Amplifying Cells While Depleting Lgr5+ Stem Cells via Inhibition of Wnt and Notch Signaling
    Zha, Juan-Min
    Li, Hua-Shan
    Lin, Qian
    Kuo, Wei-Ting
    Jiang, Zhi-Hui
    Tsai, Pei-Yun
    Ding, Ning
    Wu, Jia
    Xu, Shao-Fang
    Wang, Yi-Tang
    Pan, Jian
    Zhou, Xiu-Min
    Chen, Kai
    Tao, Min
    Odenwald, Matthew A.
    Tamura, Atsushi
    Tsukita, Sachiko
    Turner, Jerrold R.
    He, Wei-Qi
    CELLULAR AND MOLECULAR GASTROENTEROLOGY AND HEPATOLOGY, 2019, 7 (02): : 255 - 274
  • [4] The regulated elimination of transit-amplifying cells preserves tissue homeostasis during protein starvation in Drosophila testis
    Yang, Heiko
    Yamashita, Yukiko M.
    DEVELOPMENT, 2015, 142 (10): : 1756 - 1766
  • [5] Transit-Amplifying Cells Coordinate Changes in Intestinal Epithelial Cell-Type Composition
    Sanman, Laura E.
    Chen, Ina W.
    Bieber, Jake M.
    Steri, Veronica
    Trentesaux, Coralie
    Hann, Byron
    Klein, Ophir D.
    Wu, Lani F.
    Altschuler, Steven J.
    DEVELOPMENTAL CELL, 2021, 56 (03) : 356 - +
  • [6] A multipotent transit-amplifying neuroblast lineage in the central brain gives rise to optic lobe glial cells in Drosophila
    Viktorin, Gudrun
    Riebli, Nadia
    Reichert, Heinrich
    DEVELOPMENTAL BIOLOGY, 2013, 379 (02) : 182 - 194
  • [7] Connexin45 modulates the proliferation of transit-amplifying precursor cells in the mouse subventricular zone
    Khodosevich, Konstantin
    Zuccotti, Annalisa
    Kreuzberg, Maria M.
    Le Magueresse, Corentin
    Frank, Marina
    Willecke, Klaus
    Monyer, Hannah
    PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 2012, 109 (49) : 20107 - 20112
  • [8] Signaling Networks among Stem Cell Precursors, Transit-Amplifying Progenitors, and their Niche in Developing Hair Follicles
    Rezza, Amelie
    Wang, Zichen
    Sennett, Rachel
    Qiao, Wenlian
    Wang, Dongmei
    Heitman, Nicholas
    Mok, Ka Wai
    Clavel, Carlos
    Yi, Rui
    Zandstra, Peter
    Ma'ayan, Avi
    Rendl, Michael
    CELL REPORTS, 2016, 14 (12): : 3001 - 3018
  • [9] Hair follicles' transit-amplifying cells govern concurrent dermal adipocyte production through Sonic Hedgehog
    Zhang, Bing
    Tsai, Pai-Chi
    Gonzalez-Celeiro, Meryem
    Chung, Oliver
    Boumard, Benjamin
    Perdigoto, Carolina N.
    Ezhkova, Elena
    Hsu, Ya-Chieh
    GENES & DEVELOPMENT, 2016, 30 (20) : 2325 - 2338
  • [10] Regulation of Mesenchymal Stem to Transit-Amplifying Cell Transition in the Continuously Growing Mouse Incisor
    An, Zhengwen
    Akily, Basem
    Sabalic, Maja
    Zong, Guo
    Chai, Yang
    Sharpe, Paul T.
    CELL REPORTS, 2018, 23 (10): : 3102 - 3111