Potassium Channel Conductance: A Mechanism Affecting Hair Growth both In Vitro and In Vivo

The opening of intracellular potassium channels his been suggested as a mechanism regulating hair growth. Enhancing the flu of potassium ions is a mechanism shared by several structurally diverse antihypertensive agents including minoxidil sulfate (the active metabolite of minoxidil), pinacidil, P 1...

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Veröffentlicht in:Journal of investigative dermatology 1992-03, Vol.98 (3), p.315-319
Hauptverfasser: Buhl, Allen E, Waldon, Daniel J, Conrad, Steven J, Mulholland, Michael J, Shull, Kathy L, Kubicek, Marc F, Johnson, Garland A, Brunden, Marshall N, Stefanski, Kevin J, Stehle, Randall G, Gadwood, Robert C, Kamdar, Bharat V, Thomasco, Lisa M, Schostarez, Heinrich J, Schwartz, Theresa M, Diani, Arthur R
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container_end_page 319
container_issue 3
container_start_page 315
container_title Journal of investigative dermatology
container_volume 98
creator Buhl, Allen E
Waldon, Daniel J
Conrad, Steven J
Mulholland, Michael J
Shull, Kathy L
Kubicek, Marc F
Johnson, Garland A
Brunden, Marshall N
Stefanski, Kevin J
Stehle, Randall G
Gadwood, Robert C
Kamdar, Bharat V
Thomasco, Lisa M
Schostarez, Heinrich J
Schwartz, Theresa M
Diani, Arthur R
description The opening of intracellular potassium channels his been suggested as a mechanism regulating hair growth. Enhancing the flu of potassium ions is a mechanism shared by several structurally diverse antihypertensive agents including minoxidil sulfate (the active metabolite of minoxidil), pinacidil, P 1075 (a potent pinacidil analog) RP-49 356, diazoxide, cromakalim, and nicorandil. Of these drugs minoxidil, pinacidil, and diazoxide have been reported to elicit hypertrichosis in humans, This potassium channel hypertrichosis was examined by testing these drugs for effects on hair growth o h in vitro and in vivo. For the in vitro studies, mouse vibrissae follicles were cultured for 3 d with drug and the effect on hair growth were measured by metabolic labeling. All drugs, except diazoxide, ecchanged cysteine incorporation o the hair shafts of the cultured vibrissae. Diazoxide was in vivo by measuring hair growth effects in balding strumptail macaque monkeys. The drugs were administered topically to defined sites on balding scalps once per day for 4- 5 months and the amount of hair grown was determined by monthly measurements of shaved hair weight. Three of the drugs produced significant increases in hair weight whereas, the RP – 49, 356 had no effect. These studies provide correlative evidence that the opening of potassium channels is an important regulatory mechanism for hair growth. This provides the impetus for further studies on this potentially important mechanism affecting hair biology.
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Enhancing the flu of potassium ions is a mechanism shared by several structurally diverse antihypertensive agents including minoxidil sulfate (the active metabolite of minoxidil), pinacidil, P 1075 (a potent pinacidil analog) RP-49 356, diazoxide, cromakalim, and nicorandil. Of these drugs minoxidil, pinacidil, and diazoxide have been reported to elicit hypertrichosis in humans, This potassium channel hypertrichosis was examined by testing these drugs for effects on hair growth o h in vitro and in vivo. For the in vitro studies, mouse vibrissae follicles were cultured for 3 d with drug and the effect on hair growth were measured by metabolic labeling. All drugs, except diazoxide, ecchanged cysteine incorporation o the hair shafts of the cultured vibrissae. Diazoxide was in vivo by measuring hair growth effects in balding strumptail macaque monkeys. 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subjects Animals
Benzopyrans - pharmacology
Biological and medical sciences
Cells, Cultured
Cromakalim
Fundamental and applied biological sciences. Psychology
Hair - growth & development
Mice
Mice, Inbred C3H
Mice, Inbred C57BL
Minoxidil - pharmacology
Potassium Channels - physiology
Pyrroles - pharmacology
Vertebrates: skin, associated glands, phaneres, light organs, various exocrine glands (salt gland, uropygial gland...), adipose tissue, connective tissue
title Potassium Channel Conductance: A Mechanism Affecting Hair Growth both In Vitro and In Vivo
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