Ultraviolet erythema: dose response and mediator diffusion

The earliest contribution made by Jan van der Leun to the field of photobiology was studying the mechanism of UV-induced erythema in human skin - a subject he chose for his PhD in the 1960s. His contribution to this topic encouraged us to continue this work and over a number of years in the 1980s an...

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Veröffentlicht in:Photochemical & photobiological sciences 2018, Vol.17 (12), p.1941-1945
Hauptverfasser: Diffey, Brian L, Farr, Peter M
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container_issue 12
container_start_page 1941
container_title Photochemical & photobiological sciences
container_volume 17
creator Diffey, Brian L
Farr, Peter M
description The earliest contribution made by Jan van der Leun to the field of photobiology was studying the mechanism of UV-induced erythema in human skin - a subject he chose for his PhD in the 1960s. His contribution to this topic encouraged us to continue this work and over a number of years in the 1980s and 1990s, we carried out several studies on quantitative aspects of UV erythema. A major part of Jan's thesis focused on diffusion processes in UV erythema and his observations led him to conclude that erythema induced by radiation with wavelengths of around 300 nm was due to the actions of a diffusing mediator arising in the epidermis, whereas radiation at shorter wavelengths around 254 nm, caused erythema by exerting a direct effect on the dermal blood vessels. By taking his data and combining them with our own studies on the dose response of UV erythema to radiation of different wavelengths, we were able to show that, contrary to Jan's conclusions, the mediator diffusion theory he developed did indeed predict that both UVB and UVC induced erythema could be explained by the action of diffusing mediators. The earliest contribution made by Jan van der Leun to the field of photobiology was studying the mechanism of UV-induced erythema in human skin - a subject he chose for his PhD in the 1960s.
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His contribution to this topic encouraged us to continue this work and over a number of years in the 1980s and 1990s, we carried out several studies on quantitative aspects of UV erythema. A major part of Jan's thesis focused on diffusion processes in UV erythema and his observations led him to conclude that erythema induced by radiation with wavelengths of around 300 nm was due to the actions of a diffusing mediator arising in the epidermis, whereas radiation at shorter wavelengths around 254 nm, caused erythema by exerting a direct effect on the dermal blood vessels. By taking his data and combining them with our own studies on the dose response of UV erythema to radiation of different wavelengths, we were able to show that, contrary to Jan's conclusions, the mediator diffusion theory he developed did indeed predict that both UVB and UVC induced erythema could be explained by the action of diffusing mediators. 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subjects Biochemistry
Biomaterials
Blood vessels
Chemistry
Diffusion
Diffusion theory
Dose-Response Relationship, Radiation
Epidermis
Erythema
Erythema - etiology
Erythema - metabolism
Humans
Models, Theoretical
Physical Chemistry
Plant Sciences
Skin
Skin - radiation effects
Ultraviolet radiation
Ultraviolet Rays - adverse effects
Wavelengths
title Ultraviolet erythema: dose response and mediator diffusion
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