Controls of hair follicle cycling.
@article{Stenn2001ControlsOH, title={Controls of hair follicle cycling.}, author={Kurt S. Stenn and Ralf Paus}, journal={Physiological reviews}, year={2001}, volume={81 1}, pages={ 449-494 } }
Nearly 50 years ago, Chase published a review of hair cycling in which he detailed hair growth in the mouse and integrated hair biology with the biology of his day. In this review we have used Chase as our model and tried to put the adult hair follicle growth cycle in perspective. We have tried to sketch the adult hair follicle cycle, as we know it today and what needs to be known. Above all, we hope that this work will serve as an introduction to basic biologists who are looking for a defined…
824 Citations
What controls hair follicle cycling?
- BiologyExperimental dermatology
- 1999
The following contributions are designed to stimulate the discussion of the chronobiological control system that cyclically drives the hair follicle through dramatic remodelling processes between phases of growth, regression, and relative resting.
Molecular biology of hair morphogenesis: development and cycling.
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- 2003
The data are summarized demonstrating that regulation of hair follicle development in the embryo and control ofhair follicle growth during postnatal life are highly conserved and both require involvement of similar molecular mechanisms.
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- BiologyStem cells and development
- 2012
Recent advances in the understanding of the molecular signals underlying hair follicles morphogenesis and regeneration are reviewed, with a focus on the initiation of the primary hair follicle structure placode.
The dermal sheath: An emerging component of the hair follicle stem cell niche
- BiologyExperimental dermatology
- 2020
The murine pelage DS is defined in comparison with human DS and recent work that highlights the emergent importance of the DS in the hair follicle SC niche is discussed, and potential therapeutic applications for the DS are examined in hair regeneration and wound healing.
In search of the "hair cycle clock": a guided tour.
- BiologyDifferentiation; research in biological diversity
- 2004
Basic background information and key concepts that one needs to keep in mind when exploring the enigmatic "hair cycle clock"(HCC) are sketched, and competing models of the HCC are summarized.
Plasticity and cytokinetic dynamics of the hair follicle mesenchyme: implications for hair growth control.
- BiologyThe Journal of investigative dermatology
- 2003
The hair follicle mesenchyme exhibits significant hair cycle-associated plasticity, and modulation of these cell interchanges is likely to be important during clinically importanthair follicle transformations, e.g. vellus-to-terminal and terminal- to-vellus during androgenetic alopecia.
Human hair follicle organ culture: theory, application and perspectives
- BiologyExperimental dermatology
- 2015
The guide closes by pointing out how serum‐free HFOC can be utilised optimally to obtain previously inaccessible insights into human HF biology and pathology that are of interest to experimental dermatologists, geneticists, developmental biologists and (neuro‐) endocrinologists alike.
622 References
What controls hair follicle cycling?
- BiologyExperimental dermatology
- 1999
The following contributions are designed to stimulate the discussion of the chronobiological control system that cyclically drives the hair follicle through dramatic remodelling processes between phases of growth, regression, and relative resting.
Human hair growth in vitro: a model for the study of hair follicle biology.
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Molecules of the cycling hair follicle--a tabulated review.
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The fate of hair follicle melanocytes during the hair growth cycle.
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- 1999
Historically, it has been proposed that hair bulb melanocytes adopt a self-perpetuating, catagen-resistant strategy of de-differentiation during hair follicle regression and re- differentiation upon entry into a new anagen phase; however, this explanation remains problematic in the absence of evidence for de- Differentiation/re-differentiated plasticity in most nonmalignant cell systems.
Hair cycle stage of the mouse vibrissa follicle determines subsequent fiber growth and follicle behavior in vitro.
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The establishment of culture models representative of all aspects of in vivo hair follicle behavior is an important goal for theoretic and analytic studies. Rodent vibrissa follicles have regular,…
Chronobiology of the hair follicle: hunting the " hair cycle clock".
- BiologyThe journal of investigative dermatology. Symposium proceedings
- 1999
It is suggested here that the HCC may be driven by autonomous, cell cycle-coupled secretory activities of the HF mesenchyme, namely by changes in the G0/G1-associated secretion of "papilla morphogens" by dermal papilla fibroblasts, to encourage the proposition of novel, comprehensive HCC theories.
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- 1994
The expression of bcl-2, a protooncogene associated with apoptosis control, is sought in the cycling follicle of the adult mouse and the action of this apoptosis-inhibiting molecule should serve to elucidate the dynamics of follicular cycling.
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The importance of this model to hair follicle biology is demonstrated by the observations that TGF-beta 1 has a negative growth-regulatory effect on hair follicles in vitro and that EGF mimics the in vivo depilatory effects that have been reported in sheep and mice.
A comprehensive guide for the accurate classification of murine hair follicles in distinct hair cycle stages.
- BiologyThe Journal of investigative dermatology
- 2001
This guide should become a useful tool when screening new mouse mutants or mice treated with pharmaceuticals for discrete morphologic abnormalities of hair follicle cycling in a highly reproducible, easily applicable, and quantifiable manner.
Cells within the bulge region of mouse hair follicle transiently proliferate during early anagen: heterogeneity and functional differences of various hair cycles.
- BiologyDifferentiation; research in biological diversity
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The results of tritiated thymidine-labeling of DNA-synthesizing cells and colcemid-arrest of mitotic figures on the skins of 20-23 and 75-80 day old SENCAR mice, when the follicles entered the anagen phase of the 2nd and 3rd hair cycles, indicate that the normally slow-cycling bulge cells indeed undergo transient proliferation during early anagen.