Skip to content
Open access

Advancing Biomedical Waste Management: Best Practices and Future Prospects

Sep 2026 · REST Journal on Advances in Mechanical Engineering · pp. 54 · 0 citations · 18 references

TL;DR

Sustainable approaches, including recycling, environmentally friendly non-incineration technologies, digital monitoring systems, and polyvinyl chloride-free materials, offer opportunities to reduce environmental impacts.

Abstract

Biomedical waste management (BMWM) is an essential component of healthcare systems, ensuring the safe, sustainable, and efficient handling of waste generated by healthcare facilities and research activities. Biomedical waste includes infectious, hazardous, and non-hazardous materials, such as used syringes, contaminated dressings, anatomical waste, chemical residues, and other potentially dangerous substances. Improper disposal poses significant threats to public health and the environment, including infectious disease transmission, resource contamination, and the release of toxic substances. Therefore, effective waste management strategies are necessary to minimize these risks. A comprehensive BMWM system involves waste generation, segregation, collection, transportation, treatment, and final disposal. Proper segregation prevents hazardous and non-hazardous waste from mixing, improving treatment efficiency and reducing operational risks. Treatment technologies, including autoclaving, incineration, chemical disinfection, and microwave irradiation, help destroy pathogens and reduce environmental contamination. The selection of appropriate methods depends on waste characteristics, available infrastructure, and regulatory requirements. Despite technological advancements, inadequate infrastructure, limited awareness, insufficient funding, and poor regulatory compliance remain major challenges, particularly in developing countries. Rapid urbanization and population growth further intensify these difficulties. The COVID-19 pandemic highlighted existing weaknesses through increased waste generation from personal protective equipment, diagnostic kits, and vaccination activities. Sustainable approaches, including recycling, environmentally friendly non-incineration technologies, digital monitoring systems, and polyvinyl chloride-free materials, offer opportunities to reduce environmental impacts.

Read PDF

Similar papers

Open access 2026

Reducing waste generation in pharmacies and biochemical laboratories: Professional duties and regulatory requirements

In conclusion, active collaboration between the scientific community and policymakers is essential to ensure that pharmaceutical progress does not compromise environmental integrity, and underline the relevance of exposure-based risk assessment for services and products of pharmacists and medical biochemists.

M. Ćurčić · 0 citations
Review Open access Sep 2026

Sustainable management of hospital waste in Iran: A review of evidence, implementation challenges, decontamination methods, and circular economy pathways

Waste from healthcare activities, especially its hazardous part, including infectious waste, sharps, chemicals, and pharmaceuticals, is considered one of the most important waste streams in terms of health, occupational, and environmental consequences. Improper management of these wastes can increase the risk of occupa...

S. Sadeghi, Mahan Sadeghiani, Kourosh Delpasand · 0 citations
Review Open access Sep 2026

Closing the Waste Loop: Recycling, Resource Recovery and the Environmental Health Consequences of Poor Waste Management

Rapid urbanization, industrialization, changing consumption patterns and population growth have substantially increased the generation and diversity of solid waste. When waste is inadequately segregated, recycled or treated, it becomes an important source of environmental pollution through particulate matter, gaseous p...

S. Aher, Pooja Saroj · 0 citations
Open access Sep 2026

Biomedical waste generation in a tertiary care hospital: Lessons for future waste management preparedness

The pandemic resulted in a substantial increase in biomedical waste (BMW) due to widespread use of personal protective equipment and disposable medical supplies. Effective management of this surge was essential to prevent secondary transmission and environmental risks. This study assessed the quantity, composition,...

Reema Kumari, K. Srivastava, Ginic Gupta et al. · 0 citations
Open access 2026

Rethinking medical waste management through the 3R approach

Medical waste management has become a critical sustainability challenge in developing countries due to increasing healthcare demand, inadequate waste treatment infrastructure, and weak regulatory implementation. Guided by circular economy theory, this study investigates the feasibility of adopting the 3R (Reduce, Reu...

Md. Shawan Uddin, M. Rana, Md. Mustaqim Roshid · 0 citations
Review Open access Sep 2026

Advances in Municipal Solid Waste Management in Nigeria: A Review

Municipal solid waste (MSW) are unwanted or undesirable products obtained from food-scraps, papers, plastics, electronic waste, metals, glass and other used materials from our day to day domestic, institutional and industrial activities which are discharged into the environment. However, as the global production of MSW...

C. O. Wosu · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.