Open Student Projects

The identified methods for are: 1. Research and Analysis: Conduct an exhaustive review of existing membrane technologies, materials, and production techniques, with a specific focus on the challenges and constraints in low and middle-income areas. 2. Material Innovation and Development: Experiment with new polymers and composite materials that could enhance membrane performance while being cost-effective.This includes synthesizing and testing new materials in a laboratory setting. 3. Production Process Improvement: Refine production processes for better industrial scalability, considering environmental impacts and resource utilization. This involves adapting techniques for larger-scale machinery. 4. Laboratory Testing and Evaluation: Rigorously test the membranes for filtration effectiveness, longevity, and overall performance, encompassing both laboratory experiments and collaborations with external partners for comprehensive assessments. 5. Performance Testing and Optimization: Assess the membranes in real-world scenarios, focusing on their performance in different environmental conditions typical of low and middle-income areas. 6. Industrial Upscaling: Develop and optimize production strategies for industrial-scale manufacturing, maintaining high quality and cost-effectiveness. This includes process refinement and quality control for mass production. 7. Environmental and Economic Impact Assessment: Evaluate the environmental sustainability and economic viability of the new membrane technology, ensuring that it aligns with Openversum's mission and the targeted communities' needs. This master’s thesis presents an opportunity for significant contributions to sustainable water filtration technology, with a focus on addressing the critical needs of underserved populations. It offers a blend of material science, chemistry, mechanical engineering, and practical application in a global health context.

The thesis aims to refine and enhance Openversum's existing membrane technology, focusing on improving its efficiency and cost-effectiveness while tailoring it to the specific requirements of low and middle-income settings. This includes exploring new materials and production methods that are both financially viable and environmentally sustainable. The primary objective is to develop a membrane that not only meets high filtration standards but is also practical for mass production and distribution in the intended regions.

For more information, please contact Dr Olivier Gröninger at o.groeninger@openversum.com