This paper discusses a case study of a process that provides a holistic design experience by integrating two independent project modules of an undergraduate degree programme. The project proposed by an external party involves the design, manufacture and testing of a scaled prototype for microfluidics applications. The systematic and integrated approach described in the same format as the students’ project report resulted in a novel gearless Wankel-like pump that provided visual results that compare well with the external party’s numerical studies.
LeeCYChangCLWangYN. Microfluidic mixing: a review. Int J Mol Sci2011; 12: 3263–3287. DOI: 10.3390/ijms12053263.
2.
Wan S, Leong J, Ba T, et al. Numerical characterization of the performance of fluid pumps based on a Wankel geometry. J Fluids 2014; 2014: Article ID 241010, http://dx.doi.org/10.1155/2014/241010.
Walther DC and Pisano AP. MEMS rotary engine power system: project overview and recent results. In: SEM annual conference & exposition on experimental and applied mechanics—exploring the frontiers of experimental mechanics, Charlotte, NC, 2–4 June 2003.
5.
LeeCHJiangKCJinP. Design and fabrication of micro Wankel engine using MEMS technology. Microelectron Eng2004; 73–74: 529–534.
MontiesJRDionIHavlikP. Cora rotary pump for implantable left ventricular assist device: biomaterial aspects. Artif Organs1997; 21: 730–734.
8.
Leemhuis RS and Soedel W. Kinematics of Wankel compressors (or engines) by way of vector loops. Proceedings of 1976 Compressor Technology Conference, West Lafayette, IN, Purdue University, 5 July 2015, pp. 443–446.
9.
Ning A, Cheong A, Rahsid bin Mohd Seth M, et al. Design and development of a novel Wankel mixing pump device. Project for Industry Report, MDME Programme, Newcastle University, 2014.
10.
Ning A. Design and development of a novel Wankel mixing pump device: performance assessment. Final Year Project Report, MDME Programme, Newcastle University, 2015.
