| Category |
Dissertation |
Subject |
Engineering |
| University |
Brunel University London |
Module Title |
MSc Engineering Management Dissertation Proposal |
Section A – Proposal Outline for MSc Dissertations
Working Title:- Sustainability and environmental impact of the prosthetics industry
Aim:-
To learn more about the prosthetics industry's environmental impact and sustainabilityactivities. This includes looking at ways to cut carbon footprints, finding sustainable materials, and developingecofriendly methods that can help reduce environmental impact.
Objective:-
- Evaluate the methods used now: Examine the prosthetics industry's current environmental impact assessment techniques and sustainability strategies.
- Determine obstacles: Examine the obstacles and constraints preventing the prosthetics manufacturingindustry from implementing sustainable methods and obtaining environmentally friendlymaterials.
- Examine the materials: Compare the environmental effects of conventional materials withnewlydeveloped sustainable alternatives while examining the materials used in the production of prosthetics.
- Examine creative solutions: Examine and highlight cutting-edge methods and technologies beingdeveloped or put to use to improve sustainability and lessen the environmental impact of theprostheticsmanufacturing process.
- Make suggestions: Create doable suggestions that prosthetics industry stakeholders can implementtoimprove sustainability initiatives. Such proposals will have to address the huddle points, recommendation of green materials and more responsible production process.
Summary:-
Analysing the energy footprints and greening initiatives in prosthetics manufacturing discovers past, present, and future problems. The significance of swapping to eco-friendly options is corroboratedbythecritical analysis of materials. The environment is safeguarded, practices of sustainability are promoted, anddifficulties are taken into consideration in the recommendations. The question of sustainable prostheticsaddresses the requirements of those in need of them as well as promotes a more ecological wayof designingthem.
Benefits:-
- Environmental conservation: Through incorporating sustainable techniques, resources consumptioniseffectively reduced, misuse of waste is minimized as well as pollution rate is regulated. This contributesto the conservation of natural environments.
- Cost savings: These environmentally conscious approaches like energy-efficient manufacturingengineering and materials circularity may eventually yield to decreased longer-termrunningcosts.
- Improved public perception: Showing entities your devotion to sustainability may improveyourfirm’sreputation and draws in the nature conscious customers and investors.
- Regulatory compliance: Regime compliance related to environment sector holds the companylegallysound and risk free against the fines or penalties therefore company's reputation and financial stateissecured.
Section B:
Introduction:
On the one hand, prosthetics occupies the position of healthcare and technology integrationasan industry with a high level of mobility for amputees. Though, its environmental footprint isnow under sharp eyes. In making and throwing away the fake legs, processes suchasproduction and disposal often involve some materials that are harmful. This paper focusesonthe sustainability issues in the prosthetics sector as well as sets out some methodologiestotackle these environmental issues, which implies that prosthetic industry can be adjustedtoenvironmental responsibility.
Methodology:
Material Analysis:
- Make life cycle analysis of the common prosthetic materials such as plastics, metals, andcomposites.
- Assess the energy consumption and emissions which occur during mining, production, and manufacturing.
Design and Production:
- Explore the use of eco-design principles like modularity and recyclability in its designs.
- Invest the application of biodegradable materials and the possibility of creatingusingsustainable materials with 3D printing.
Waste Management:
- Analyse the ways of disposing prosthetic parts and their impact to the environment.
- Dive into recycling by the participation in programs and linking up withwastemanagement societies.
Stakeholder Engagement:
- Investigate this issue by interviewing manufacturers, healthcare providers, and endusersto have better insight on their views on sustainability.
- Discover what the barriers to implementing sustainable ways of working are andthebenefits of overcoming them with different possible approaches.
Case Studies:
- Research sustainable initiatives in the same sector, in order to identify successful examples and practices.
- Compare the prosthetics industry’s strategies with developments seen in other medical equipment industries.
Significance:
Green-minded prosthetics business is not only meeting the legal and environmental requirements but goes beyond and acts as leading the sustainability wave. The industrycanreduce its ecological load considerably and bring about work on disclosure andontechnologies that develop well-being of people not affecting environment by thewaysustainable practices are implemented. Such commitment to the sustainability model is not only indicative of but also an outcome of the ethical innovation popularized by themasssocial movement. To that end, the sector needs to take a broad standpoint that encompassespost-life management, the manufacturing techniques, and the material type that are themost environment-friendly. The final goal here is to find the balance between the things I needasan amputee and the environment thus, I as an amputee and technology can thrive togetherharmoniously with nature.
References:
- Kulkarni, P.G., Paudel, N., Magar, S., Santilli, M.F., Kashyap, S., Baranwal, A.K., Zamboni, P., Vasavada, P., Katiyar, A. and Singh, A.V., 2024. Overcoming challenges and innovationsinorthopedic prosthesis design: an interdisciplinary perspective. Biomedical Materials&Devices, 2(1), pp.58-69.
- Chadwell, A., Diment, L., Micó-Amigo, M., Morgado Ramírez, D.Z., Dickinson, A., Granat, M., Kenney, L., Kheng, S., Sobuh, M., Ssekitoleko, R. and Worsley, P., 2020. Technologyfor
monitoring everyday prosthesis use: a systematic review. Journal of neuroengineeringandrehabilitation, 17, pp.1-26.
- Asif, M., Tiwana, M.I., Khan, U.S., Qureshi, W.S., Iqbal, J., Rashid, N. and Naseer, N., 2021. Advancements, trends and future prospects of lower limb prosthesis. IEEEAccess, 9, pp.85956-85977.
- Cappucci, G.M., Pini, M., Neri, P., Marassi, M., Bassoli, E. and Ferrari, A.M., 2020. Environmental sustainability of orthopedic devices produced with powder bed fusion. Journal
of Industrial Ecology, 24(3), pp.681-694.
- Stenvall, E., Flodberg, G., Pettersson, H., Hellberg, K., Hermansson, L., Wallin, M. andYang, L., 2020. Additive manufacturing of prostheses using forest-basedcomposites. Bioengineering, 7(3), p.103.
