Work

Harnessing nanoscale innovations for enhanced healing of diabetic foot ulcers

Year: 2024

Type: article

Abstract: In this article, we explore the transformative potential of nanomaterials in managing diabetic foot ulcers (DFUs), a significant complication affecting millions of individuals globally. These chronic wounds pose substantial challenges in diabetes care, often leading to severe infections and amputations. We emphasize that traditional treatment modalities are insufficient, thereby necessitating innovative approaches. Nanomaterials, characterized by unique physicochemical properties at the nanoscale, enhance biological interactions, facilitating accelerated healing, and targeted drug delivery. We discuss various applications of nanomaterials, from their intrinsic antimicrobial capabilities—exemplified by silver nanoparticles—to their role in promoting cell proliferation and migration critical for effective tissue repair. Furthermore, we highlight their capacity for controlled drug release and improved oxygen supply, both vital for optimal wound healing. This comprehensive review delineates the steps required for integrating nanomaterials into clinical practice, stressing the importance of thorough research, formulation, regulatory approval, and personalized treatment strategies. By leveraging these advanced materials, we assert that significant advancements in DFU management can be achieved, improving patient outcomes and quality of life. Our findings underscore the necessity for ongoing research aimed at optimizing the application of nanomaterials in wound care, thereby paving the way for innovative, evidence-based practices that address the complex challenges inherent in diabetic foot ulcer treatment. • Nanomaterials show promise in transforming diabetic foot ulcer management. • Chronic wounds in diabetes pose challenges leading to infections and amputations. • Unique properties of nanomaterials accelerate healing and enhance drug delivery. • Silver nanoparticles provide intrinsic antimicrobial capabilities for wound care. • Continued research is vital for integrating nanomaterials into clinical practices.

Source: Endocrine and Metabolic Science

DOI: 10.1016/j.endmts.2024.100210

Author: Marwan Al-Raeei

Institutions: International University for Science and Technology, Damascus University

Language: English

Topic: Wound Healing and Treatments

Subfield: Rehabilitation

Field: Medicine

Domain: Health Sciences

SDG: Good health and well-being

Open Access status: gold

Estimated APC paid: $2,540