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基于能量的方法和基于纳米载体的黄褐斑治疗方法。

Energy-Based Methods and Nanocarrier-Based Approaches for Melasma Treatment.

作者信息

Kheirieh Amiremad, Kheirieh Amirhessam, Mahdavi Zahra, Halvani Ali Mohammad, Bagheri Amir Mohammad, Nassirli Hooriyeh, Golmohammadzadeh Shiva, Malaekeh-Nikouei Bizhan

机构信息

Department of Pharmaceutics, School of Pharmacy, Mashhad University of Medical Sciences, Mashhad, Iran.

Clinical Research Development Unit, Bahar Hospital, Shahroud University of Medical Sciences, Shahroud, Iran.

出版信息

Adv Pharm Bull. 2024 Dec 30;14(4):759-793. doi: 10.34172/apb.42794. Epub 2024 Sep 15.

Abstract

PURPOSE

Melasma is a persistent skin condition caused by excessive melanin production, particularly affecting women's quality of life. It can result from various factors like sun exposure, genetics, hormones, medications, or inflammation. Effective melasma treatment requires products that can deeply penetrate the skin. The outermost skin layer, known as the stratum corneum (SC), plays a crucial role in delivering topical and transdermal drugs. Researchers have developed numerous strategies to enhance skin permeability and drug efficacy.

METHODS

This review delves into energy-based techniques and nanocarrier systems for treating melasma, specifically focusing on improving drug delivery to the viable epidermis (EP) while overcoming the SC barrier.

RESULTS

Physical methods offer benefits such as enhanced skin penetration but come with drawbacks like frequent visits, high costs, and the need for specialized equipment and skilled operators. Microneedle patches are gaining attention as a convenient physical treatment option for delivering multiple medications effectively, offering targeted delivery and minimal side effects. Nanocarrier systems like transferosomes demonstrate promise in enhancing skin penetration for treating melasma and skin hyperpigmentation. While they offer advantages such as high drug entrapment and improved bioavailability, challenges like stability issues and scalability hinder their widespread adoption.

CONCLUSION

Energy-based techniques enhance drug penetration but can lead to scarring and burns, while dissolvable micro-needles offer a convenient and effective alternative. Nano-drug carriers, like nanostructured lipid carriers (NLCs) and transferosomes, show promise for improved skin drug delivery with their flexible structures and enhanced penetration capabilities, yet further clinical research is needed for definitive conclusions.

摘要

目的

黄褐斑是一种由黑色素生成过多引起的持续性皮肤疾病,尤其会影响女性的生活质量。它可能由多种因素导致,如阳光照射、遗传、激素、药物或炎症。有效的黄褐斑治疗需要能够深入渗透皮肤的产品。最外层皮肤,即角质层(SC),在局部和透皮给药中起着关键作用。研究人员已经开发出多种策略来提高皮肤渗透性和药物疗效。

方法

本综述深入探讨用于治疗黄褐斑的基于能量的技术和纳米载体系统,特别关注在克服角质层屏障的同时改善药物向活表皮(EP)的递送。

结果

物理方法具有增强皮肤渗透等优点,但也存在缺点,如就诊频繁、成本高以及需要专业设备和熟练操作人员。微针贴片作为一种方便的物理治疗选择,可有效递送多种药物,实现靶向递送且副作用最小,正受到关注。脂质体等纳米载体系统在增强皮肤渗透以治疗黄褐斑和皮肤色素沉着方面显示出前景。虽然它们具有高载药量和提高生物利用度等优点,但稳定性问题和可扩展性等挑战阻碍了它们的广泛应用。

结论

基于能量的技术可增强药物渗透,但可能导致疤痕和烧伤,而可溶解微针提供了一种方便有效的替代方案。纳米药物载体,如纳米结构脂质载体(NLCs)和脂质体,凭借其灵活的结构和增强的渗透能力,在改善皮肤药物递送方面显示出前景,但需要进一步的临床研究才能得出明确结论。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/59c9/11970496/b43e072152bd/apb-14-759-g001.jpg

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