Hair Shaft Formation and Mitochondrial Bioenergetics: Combining Biology, Chemistry, and Physics.

IF 0.2 4区 医学 Q4 CHEMISTRY, APPLIED
Journal of cosmetic science Pub Date : 2018-09-01
Yi Shan Lim, Duane P Harland, Thomas L Dawson
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引用次数: 0

Abstract

Research into biological manipulation of hair "quality" has ebbed and waned but today is in a resurgence. Hair appearance is regulated by multiple intervention opportunities-adding more hairs; increasing hair "amount" by modulating shaft diameter or shape; or, in principle, by altering shaft physical properties by changing its synthesis. It is likely that improved benefits may be achieved by combining multiple areas-minimizing follicle loss and miniaturization, maximizing shaft production, and treating the existing shaft. A previously overlooked opportunity is follicle metabolism: building "better" hairs. Hair production is energy intensive, and it is known that follicle metabolism influences shaft diameter. Multiphoton microscopy enables metabolic investigation of live, growing, human, hair follicles. This allows definition of multiple "zones" with vastly different metabolism: proliferation-where keratinocytes proliferate and migrate into specialized layers; production-proliferation ceases, and synthesis and patterning begin; construction and elongation-the structural framework is seeded and cells extend to create the nascent fiber; and maturation-gradual hardening and transformation into mature shaft. Recent investigations into the transition from construction to maturation reinforce this as a key developmental threshold, where shaft production transforms from a biologically driven into a biochemically driven process. We now name this "Orwin's transition."

毛干形成和线粒体生物能量学:结合生物学、化学和物理学。
对头发“质量”的生物控制的研究曾一度衰落,但今天又重新兴起。头发的外观是由多种干预机会调节的——增加头发;通过调节轴的直径或形状来增加头发的“数量”;或者,原则上,通过改变其合成来改变轴的物理性质。通过结合多个方面,如最小化卵泡损失和微型化、最大化井筒产量和处理现有井筒,很可能获得更好的效果。一个以前被忽视的机会是毛囊代谢:生成“更好”的头发。头发的生产是能源密集型的,众所周知,毛囊代谢影响毛轴直径。多光子显微镜使代谢调查活的,生长的,人类,毛囊。这允许定义具有不同代谢的多个“区域”:增殖-角质形成细胞增殖并迁移到专门的层;生产增殖停止,合成和定型开始;结构和延伸——结构框架被播种,细胞延伸形成新生纤维;成熟-逐渐硬化,转变为成熟轴。最近对从构建到成熟过渡的研究表明,这是一个关键的发展门槛,井筒生产从生物驱动过程转变为生化驱动过程。我们现在称之为“奥温的转变”。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of cosmetic science
Journal of cosmetic science 工程技术-皮肤病学
CiteScore
0.90
自引率
0.00%
发文量
26
期刊介绍: The JOURNAL OF COSMETIC SCIENCE (JCS) publishes papers concerned with cosmetics, cosmetic products, fragrances, their formulation and their effects in skin care or in overall consumer well-being, as well as papers relating to the sciences underlying cosmetics, such as human skin physiology, color physics, physical chemistry of colloids and emulsions, or psychological effects of olfaction in humans. Papers of interest to the cosmetic industry and to the understanding of the cosmetic markets are also welcome for publication.
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