Recycling hospital glass waste by crushing and incorporating into construction materials at Baptist hospital Mutengene.

Everett  Gwagsi; Jane Frank  Nalubega; Edith Akankwasa; Elizabeth  Okello; David Kavuma

doi:10.51168/sjhrafrica.v6i6.1605

Authors

Everett Gwagsi University of Manchester, UK
Jane Frank Nalubega Mildmay Institute of Health Sciences
Edith Akankwasa Mildmay Institute of Health Sciences.
Elizabeth Okello Mildmay Institute of Health Sciences.
David Kavuma Mildmay Institute of Health Sciences.

DOI:

https://doi.org/10.51168/sjhrafrica.v6i6.1605

Keywords:

Recycling hospital glass waste by crushing, Construction materials, Baptist hospital multigene

Abstract

Introduction

Hospital waste is any material, substance, or by-product that is discarded or no longer useful, which is generated during the diagnosis, treatment, or immunization of human beings or animals, as well as in research activities about medical care.

Project Design

The project design included a needs assessment, a feasibility study, the establishment of the collection system, and the crushing unit. Also, we have quality control, partnerships for the initiative, and the handling and transportation of materials. Monitoring and evaluation of the processes, compliance with regulations as well as a sustainability plan are indispensable in the project design. Another key aspect of this design and implementation strategy will be documentation and reporting. Intentionally engaging the community of health care workers who are the primary stakeholders, is central to the success of the project.

Project results

One of the noteworthy outcomes of the project was the innovative use of recycled glass aggregate in the creation of pavement tiles. These tiles, crafted from recycled materials, represent a sustainable and environmentally friendly alternative for hospital walkways. By repurposing glass waste into functional and aesthetically pleasing tiles, the hospital contributes to the beautification and enhancement of its infrastructure while simultaneously addressing waste management challenges. Throughout the project implementation phase, necessary records were maintained to track the quantity of glass waste processed and recycled. These records serve as a valuable resource for monitoring progress, evaluating the effectiveness of the recycling efforts, and informing future decision-making processes.

Conclusion

Recycling glass waste for the production of aggregate presents a many-sided solution to the challenges of waste management and sustainable construction.

Recommendations

The government and stakeholders should draft environmentally friendly policies concerning the recycling of non-biodegradable waste materials to ensure environmental safety.

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