Mechanical Performances of an Integrate Micropump. Application in Electrophoresys
Florina Ravariu, Cristian Ravariu, Oana Tatiana Nedelcu, Florin Babarada, Elena C. Manea, Cecilia Podaru
Abstract
Florina Ravariu, Cristian Ravariu, Oana Tatiana Nedelcu, Florin Babarada, Elena C. Manea, Cecilia Podaru
Abstract
Due to the success of the Si technology in the micro electro mechanical systems MEMS - manufacturing, a lot of integrated micropumps were recently developed. The main structures don't have movable parts, like input/output valves, because they can be easily destroyed during the operation. This paper presents an integrated pump with diffuser and nozzle ducts. The silicon membrane of micropump is actuated by a PZT layer, using the reverse piezoelectric effect. Coventor simulations confirm the micropump functionality. The entire MEMS structure could perform two roles: (1) ensures the liquid flow through the micropump chamber or (2) serves to separate the negative positive ions contained in a carrier bioliquid. Some simulations results aid to design the micropump for a possible application electrophoresis. However, the main aim of this paper was to simulate the mechanical stress produced by an electrical stimulus in a complex MEMS structure
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Due to the success of the Si technology in the micro electro mechanical systems MEMS - manufacturing, a lot of integrated micropumps were recently developed. The main structures don't have movable parts, like input/output valves, because they can be easily destroyed during the operation. This paper presents an integrated pump with diffuser and nozzle ducts. The silicon membrane of micropump is actuated by a PZT layer, using the reverse piezoelectric effect. Coventor simulations confirm the micropump functionality. The entire MEMS structure could perform two roles: (1) ensures the liquid flow through the micropump chamber or (2) serves to separate the negative positive ions contained in a carrier bioliquid. Some simulations results aid to design the micropump for a possible application electrophoresis. However, the main aim of this paper was to simulate the mechanical stress produced by an electrical stimulus in a complex MEMS structure
Key concepts: Micropump, Microelectromechanical systems, Nozzle, Diffuser (optics), Materials science, Piezoelectricity, Mechanical engineering, Microfluidics