光老化:对其刺激因素,并发症,生化变化和治疗干预的新见解

Harshit Shah , Shruti Rawal Mahajan
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引用次数: 21

摘要

人类经常受到太阳发出的紫外线辐射。长时间暴露在紫外线辐射下会引发一系列的病理生理事件,导致皮肤光损伤。光老化是皮肤黑色素瘤的主要诱因,在白皙皮肤人群中风险尤其高,大约80%到90%的欧洲和北美人群普遍存在皮肤光老化。重要的是,阳光照射导致的皮肤癌是新西兰最主要的癌症类型;每年大约有67,000个新病例被诊断为皮肤癌。事实上,与光老化相关的皮肤癌每年导致全球超过6.5万人死亡。受影响个体目前和即将面临的负担,促使我们需要进一步了解紫外线辐射导致皮肤癌发病机制的生化变化,以及未来预防和治疗相关皮肤疾病的治疗干预措施。暴露在紫外线辐射下,会产生活性氧、活性氮和炎症介质。它还会增加体内DNA的损伤。这些因素共同导致胶原蛋白的降解,最终导致皱纹的形成和血管生成,这是光老化的主要临床表现。此外,紫外线辐射导致朗格汉斯细胞、黑素细胞、角化细胞、成纤维细胞、胶原蛋白、基质金属蛋白酶组织抑制剂、各种内源性抗氧化剂的减少和各种细胞因子水平的升高。因此,通过了解光老化的分子机制,可以识别和发现新的治疗方法。
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Photoaging: New insights into its stimulators, complications, biochemical changes and therapeutic interventions

Human beings are constantly exposed to UV radiations emitted by sun. Prolonged exposure to UV radiations initiates a series of pathophysiological events that account for photodamage in skin. Photoaging is the major contributor of skin melanoma and risk is particularly seen higher in fair skin population, with approximately 80 to 90% of European and North American population prevalent to skin photoaging. Importantly, skin cancer due to sun exposure is the most leading type of cancer prevalent in New Zealand; with approximately 67,000 new cases diagnosed every year with skin cancer. In fact, photoaging-associated skin cancer accounts for more than 65,000 deaths worldwide every year. This current and impending burden of the affected individuals provokes the need for further insight into the biochemical changes that contribute to the pathogenesis of skin cancer due to UV radiations and future therapeutic interventions to prevent and treat the associated skin disorders. On exposure to UV radiation, there is the generation of reactive oxygen species, reactive nitrogen species and inflammatory mediators. It also increases DNA damage in the body. All these factors together lead to degradation of collagen, and finally results in formation of wrinkles and angiogenesis which are the major clinical manifestations of photoaging. Further, UV radiations cause decrease in Langerhans cell, melanocyte, keratinocytes, fibroblast, collagen, tissue inhibitor of matrix metalloproteinase, various endogenous antioxidants and increase in level of various cytokines. Therefore, by understanding the molecular mechanisms underlying photoaging, new therapeutic managements can be identified and discovered.

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