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<p>Impaired wound healing, particularly in diabetic foot ulcers, presents critical challenges, including prolonged hospitalization, increased risk of amputation, and substantial healthcare costs. The intricate interplay of chronic inflammation, oxidative stress, and compromised tissue regeneration further complicates effective wound healing, necessitating advanced therapeutic strategies. Current treatments for diabetic wound healing often fail to comprehensively address the underlying pathophysiological mechanisms. The limitations in conventional therapies highlight the urgent need for innovative, nanoscience-based approaches that can enhance tissue regeneration and repair. This study investigates the potential of nanoscience-based strategies to improve tissue regeneration and repair in diabetic wound healing, with a particular emphasis on overcoming key manufacturing challenges. To address challenges such as scaling, agglomeration, and dispersion in nano-formulations, we developed and optimized novel nano-enabled therapeutic strategies. By integrating advanced nanotechnology and materials science, we aimed to enhance bioavailability, stability, and therapeutic efficacy. Our results demonstrate the following: (1) Optimized nano-formulations with superior stability, dispersion, and bioavailability. (2) Enhanced wound healing with improved wound closure rates and tissue regeneration in diabetic models. (3) Reduced infection risk, as our nano-formulations exhibited antimicrobial properties, creating a favorable healing environment. This study advances diabetic wound healing research by: (1) Resolving key manufacturing challenges in nano-enabled treatments. (2) Demonstrating the potential of nano-formulations in improving tissue repair. (3) Establishing a foundation for future research in nanoscience-based therapeutic interventions. Our study underscores the importance of overcoming manufacturing challenges for the successful clinical application of nano-enabled treatments. The optimized nano-formulations developed herein hold significant potential to enhance tissue regeneration and improve patient outcomes in diabetic wound healing.</p> Graphical Abstract <p></p>

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Nanoscience-Enabled Wound Healing: Overcoming Manufacturing Complications for Enhanced Therapeutics Outcomes

  • 期刊论文

  • 发表日期：

    2025年5月6日

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  • N. H. Vidyashree,
  • Prakash Goudanavar,
  • Nimbagal Raghavendra Naveen

摘要

Impaired wound healing, particularly in diabetic foot ulcers, presents critical challenges, including prolonged hospitalization, increased risk of amputation, and substantial healthcare costs. The intricate interplay of chronic inflammation, oxidative stress, and compromised tissue regeneration further complicates effective wound healing, necessitating advanced therapeutic strategies. Current treatments for diabetic wound healing often fail to comprehensively address the underlying pathophysiological mechanisms. The limitations in conventional therapies highlight the urgent need for innovative, nanoscience-based approaches that can enhance tissue regeneration and repair. This study investigates the potential of nanoscience-based strategies to improve tissue regeneration and repair in diabetic wound healing, with a particular emphasis on overcoming key manufacturing challenges. To address challenges such as scaling, agglomeration, and dispersion in nano-formulations, we developed and optimized novel nano-enabled therapeutic strategies. By integrating advanced nanotechnology and materials science, we aimed to enhance bioavailability, stability, and therapeutic efficacy. Our results demonstrate the following: (1) Optimized nano-formulations with superior stability, dispersion, and bioavailability. (2) Enhanced wound healing with improved wound closure rates and tissue regeneration in diabetic models. (3) Reduced infection risk, as our nano-formulations exhibited antimicrobial properties, creating a favorable healing environment. This study advances diabetic wound healing research by: (1) Resolving key manufacturing challenges in nano-enabled treatments. (2) Demonstrating the potential of nano-formulations in improving tissue repair. (3) Establishing a foundation for future research in nanoscience-based therapeutic interventions. Our study underscores the importance of overcoming manufacturing challenges for the successful clinical application of nano-enabled treatments. The optimized nano-formulations developed herein hold significant potential to enhance tissue regeneration and improve patient outcomes in diabetic wound healing.

Graphical Abstract