Paper published to ScholarWorks@UTEP 1 May 2022 https://scholarworks.utep.edu/cgi/viewcontent.cgi?article=4468&context=open_etd
by Tanya Fosdal | May 1, 2022 | research papers
Low-cost additive manufacturing refers to the use of affordable technologies and materials to produce 3D-printed components. This approach is particularly beneficial for industries looking to reduce costs while maintaining quality, making it an attractive option for startups and small businesses.
For example, the implementation of low-cost filament options allows for experimentation and prototyping without the significant financial burden associated with traditional manufacturing methods. This democratization of technology enables broader access to innovative solutions across various sectors.
Polymer electrolyte fuel cells (PEFCs) are a type of fuel cell that utilizes a polymer membrane as an electrolyte. They are widely recognized for their efficiency and environmental benefits, making them suitable for various applications, including transportation and stationary power generation.
Recent advancements in 3D printing technology have allowed for the production of PEFC components with complex geometries that enhance performance. For instance, custom-designed flow fields can optimize the distribution of reactants, significantly improving the overall efficiency of the fuel cell system.
The research paper authored by Tanya Fosdal provides an in-depth analysis of the suitability of low-cost additive manufacturing techniques for producing components of polymer electrolyte fuel cells. It highlights the potential benefits and challenges associated with these manufacturing methods.
Key findings suggest that while there are initial hurdles in material compatibility and production consistency, the long-term advantages include reduced costs and increased innovation in design. This research serves as a foundational reference for further exploration into the integration of 3D printing in fuel cell technology.
The landscape of 3D printing and fuel cell technology is rapidly evolving, with ongoing research focusing on enhancing material properties and production techniques. Future trends indicate a shift towards more sustainable practices, such as the use of bio-based materials for 3D printing.
Moreover, advancements in digital manufacturing are expected to streamline processes, making it easier to produce complex components that meet the stringent requirements of fuel cell applications. This evolution will likely lead to greater adoption of 3D printing across various industries, further solidifying its role in the future of energy solutions.