PuSH - Publikationsserver des Helmholtz Zentrums München

Chadha, Y. ; Khurana, A. ; Schmoller, K.M.

Eukaryotic cell size regulation and its implications for cellular function and dysfunction.

Physiol. Rev. 104, 1679-1717 (2024)
Verlagsversion DOI PMC
Open Access Gold (Paid Option)
Creative Commons Lizenzvertrag
Depending on cell type, environmental inputs, and disease, the cells in the human body can have widely different sizes. In recent years, it became clear that cell size is a major regulator of cell function. However, we are only beginning to understand how optimization of cell function determines a given cell's optimal size. Here, we review currently known size control strategies of eukaryotic cells, and the intricate link of cell size to intracellular biomolecular scaling, organelle homeostasis and cell cycle progression. We detail the cell size dependent regulation of early development and the impact of cell size on cell differentiation. Given the importance of cell size for normal cellular physiology, cell size control must account for changing environmental conditions. We describe how cells sense environmental stimuli, such as nutrient availability, and accordingly adapt their size by regulating cell growth and cell cycle progression. Moreover, we discuss the correlation of pathological states with misregulation of cell size, and how for a long time, this was considered a downstream consequence of cellular dysfunction. We review newer studies that reveal a reversed causality, with misregulated cell size leading to pathophysiological phenotypes such as senescence and aging. In summary, we highlight important roles of cell size in cellular function and dysfunction, which could have major implications for both diagnostics and treatment in the clinic.
Altmetric
Weitere Metriken?
[➜Einloggen]
Zusatzinfos bearbeiten [➜Einloggen]
Publikationstyp Artikel: Journalartikel
Dokumenttyp Review
Korrespondenzautor
Schlagwörter Cell Cycle ; Cell Growth ; Cell Size ; Organelle Homeostasis ; Protein Homeostasis; Major Developmental Transition; Early Xenopus-embryos; Fission Yeast; Gene-expression; Budding-yeast; Protein-kinase; Rna-synthesis; Growth-rate; Saccharomyces-cerevisiae; Substrate Stiffness
ISSN (print) / ISBN 0031-9333
e-ISSN 1522-1210
Zeitschrift Physiological Reviews
Quellenangaben Band: 104, Heft: 4, Seiten: 1679-1717 Artikelnummer: , Supplement: ,
Verlag American Physiological Society
Verlagsort 6120 Executive Blvd, Suite 600, Rockville, Md, United States
Nichtpatentliteratur Publikationen
Begutachtungsstatus Peer reviewed
Institut(e) Institute of Functional Epigenetics (IFE)
Förderungen Human Frontier Science Program (HFSP)