Abstract

Infections are one of the main concerns of our era due to antibiotic-resistant infections and the increasing costs in the health-care sector. Within this context, antimicrobial polymers present a great alternative to combat these problems since their mechanisms of action differ from those of antibiotics. Therefore, the microorganisms’ resistance to these polymeric materials is avoided. Antimicrobial polymers are not only applied in the health-care sector, they are also used in many other areas. This review presents different strategies that combine nanoscience and nanotechnology in the polymer world to combat contaminations from bacteria, fungi or algae. It focuses on the most relevant areas of application of these materials, viz. health, food, agriculture, and textiles.

Highlights

  • The terms nanoscience and nanotechnology are widely used to label a variety of products

  • LV-encapsulated PLGA NPs using 1% w/v mannitol were evaluated for their in vitro drug release profile and ex vivo transcorneal permeation [27]. Microbiological efficacy of this system was tested against S. aureus using the cup-plate method, revealing that the NPs were retained for longer times and drained out from the eye very slowly compared to the marketed formulation

  • In addition to incorporating antimicrobial agents in polymeric materials used for food packaging, those antimicrobial compounds can be directly used as additives in food and beverages

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Summary

Introduction

The terms nanoscience and nanotechnology are widely used to label a variety of products. Polymers possess highly desirable characteristics such as high strength or modulus to weight ratios (light weight but comparatively stiff and strong), toughness, resilience, resistance to corrosion and lack of conductivity (heat and electrical) among others, whilst being comparatively cheap. Many of these characteristics make them perfect candidates for their utilization in multiple applications; such as in biomedical devices, health care, food, agriculture, catalysis, electronics, environment, renewable energy or textiles [1]. The potency of such antimicrobial agents is directly proportional to their toxicity towards humans For this reason, the development of potent but non-toxic antimicrobial polymers is much needed and pursued.

Areas of Application
Health Care and Biomedical Devices
Drug Delivery
Wound Healing or Dressing
Sutures and Prosthesis
Dental Applications
Food-Packaging
Edible Films
Food Additives
Environmental Science
Antibiofouling
Water Purification
Air Purification
Fabrics
Findings
Conclusions and Future Development

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