In VitroandEx VivoModels for Functional Testing of Therapeutic Anti-scarring Drug Targets in Keloids

瘢痕疙瘩 医学 疾病 离体 动物模型 临床试验 生物信息学 体内 皮肤病科 病理 生物 生物技术 内分泌学
作者
Jyoti Sharma,Maribanyana Lebeko,Elvis B. Kidzeru,Nonhlanhla P. Khumalo,Ardeshir Bayat
出处
期刊:Advances in wound care [Mary Ann Liebert]
卷期号:8 (12): 655-670 被引量:12
标识
DOI:10.1089/wound.2019.1040
摘要

Significance: Keloids are benign fibro-proliferative raised dermal lesions that spread beyond the original borders of the wound, continue to grow, rarely regress, and are the most common in pigmented individuals after an abnormal wound healing response. The current treatment failure and respective challenges involved highlighting the underlying issue that the etiopathogenesis of keloids is still not well understood. Disease models are required to better understand the disease pathogenesis. It is not possible to establish keloids in animals because of the uniqueness of this disease to human skin. To address this challenge, along these lines, non-animal reproducible models are vital in investigating molecular mechanisms of keloid pathogenesis and therapeutics development. Recent Advances: Various non-animal models have been developed to better understand the molecular mechanisms involved in keloid scarring and aid in identifying and evaluating the therapeutic potential of novel drug candidates. In this scenario, the current review aims at describing in vitro monocultures, co-cultures, organotypic cultures, and ex vivo whole skin keloid tissue organ culture models. Critical Issues and Future Directions: Current treatment options for keloids are far from securing a cure or preventing disease recurrence. Identifying universally accepted effective therapy for keloids has been hampered by the absence of appropriate disease model systems. Animal models do not accurately mimic the disease, thus non-animal model systems are pivotal in keloid research. The use of these models is essential not only for a better understanding of disease biology but also for identifying and evaluating novel drug targets.
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