Projects related to GeroLAB and Gerotor Pumps
Innovative Magnetic Gear Minipump, Compact and
Hermetic, for applications in Microdosing
- Period: from 1st January 2014 to 31st December 2016
- Reference: DPI2013-42031-P
- Companies: AMES and INFRANOR MAVILOR
- Collaboration: Faculty
of Machine Design Fundamentals and Tribology, Mechanical Engineering Department
at Wroclaw University of Technology (Poland)
GeroMAG project references
- Gamez-Montero, PJ; Castilla, R; Buza, A; Khamashta, M; Codina, E. (2016), Numerical Study in a Mini Trochoidal-Gear Pump with Multi-Meshing Contact Points, BATH/ASME SYMPOSIUM ON FLUID POWER AND MOTION CONTROL, Paper No. FPMC2016-1723, DOI: 10.1115/FPMC2016-1723
- Raush, G; Gamez-Montero, PJ; Castilla, R; Codina, E. (2017), Experimental Study on the Impulsion Port of a Trochoidal Wheeled Pump, FLOW MEASUREMENT AND INSTRUMENTATION, 55, DOI: https://dx.doi.org/10.1016/j.flowmeasinst.2016.10.014
- Gamez-Montero, PJ; Castilla, R; Codina, E. (2017), Methodology based on best practice rules to design a new-born trochoidal gear pump, PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS, PART C: JOURNAL OF MECHANICAL ENGINEERING SCIENCE, DOI: https://doi.org/10.1177/0954406217697355
- Gamez-Montero, PJ; Castilla, R; Codina, E; Freire, J; Morató, J; Sanchez-Casas, E; Flotats, I. (2017), GeroMAG: In-House Prototype of an Innovative Sealed, Compact and Non-Shaft-Driven Gerotor Pump with Magnetically-Driving Outer Rotor, ENERGIES, 10(4), DOI: 10.3390/en10040435
- Castilla, R; Gamez-Montero, PJ; Raush, G; Codina, E. (2017), Method for Fluid Flow Simulation of a Gerotor Pump using OpenFOAM, JOURNAL OF FLUIDS ENGINEERING, 139(11), DOI: 10.1115/1.4037060
- Gamez-Montero, PJ; Antoniak, P; Castilla, R; Freire, J; Krawczyk, J; Stryczek, J; Codina, E. (2017), Magnet-Sleeve-Sealed Mini Trochoidal-Gear Pump Prototype with Polymer Composite Gear, ENERGIES, 10(10), DOI: 10.3390/en10101458
The microsystems technology has emerged as one of the leading research technologies in this century. For many microsystems applications (automotive, medical, life sciences, energy, industrial, food industry, environmental, aerospace) the fluid-dynamic field is the most time-proven applications (medical dosing, additives, inkjet heads, flow sensors, active mixing), whereby the mini/micro pumps develop a key role: to produce the fluid movement.
GeroMAG is a multidisciplinary project in the microfluidics field that establishes a new line of research in the study of an innovative trochoidal-gear pump of very small size, mini and micro, magnetically driven, hermetic and compact from energy applications (fuel cells) to microdosing (medical), or also industrial process control.
A mini/micro trochoidal-gear pump, a type of rotary displacement pump, presents qualities as few components, plain configuration that allows working with a relatively simple design, and optimal volumetric characteristics with an excellent efficiency/size ratio. Moreover, the trochoidal-gear can be manufactured of varied materials, working with an important variety of fluids, bidirectional pumping and quick response.
The GeroMAG project challenge is to apply the own developed technology to the micropumps in the environmental area through the direct microdosing of pesticide and additive in exact quantity, maximum spraying and precision in their location over the plant (leave, flower, fruit) by using a hydraulic robot visual serving system.
The objective is to implement the basic knowledge in mini/micro pumps through a step beyond the state of the art (CFD numerical simulation and PIV experimental technique) and to make a progress in the development, fabrication and construction of prototypes of mini/micro trochoidal-gear pumps (magnetically driven and materials). Thus, the project is clearly oriented to the dissemination and exploitation results to the industry, to the strengthening of the generation of knowledge and the collaboration to the commercialization of the product. Moreover, the internationalization and projection of the project results will promote the interaction with other research groups.
The expected results are focused on maximizing the pump efficiency by keeping its main advantages, optimizing its main strong points (sealing and wear that entails to its variability of efficiency).
The sealing performance will be improved by innovative magnetic driven trochoidal-gears making a compact, hermetical and modular minipump. Consequently, the wear will be reduced because of the individual control of each magnetic driven trochoidal-gear, leading to no contact stress since there is no gear dragging and flow regulation. Trochoidal-gear material also can be magnetic polymers.
The GeroMAG project confronts challenges in
technological and product applications. These challenges will contribute to achievement
of the aim of generating new knowledge in a young research group, scientific,
technological and business leaders of the country and to providing solutions to
some of the current problems of our society in an indirect manner.
Innovative Integral-Assisted Design to a new Generation of Dosing Minipumps
- Period: from 1st January 2012 to 31st December 2012
- Reference: DPI2011-27938
- Companies: AMES and INFRANOR MAVILOR
InnoPUMP project references
- Garcia-Vilchez, M; Gamez-Montero, PJ; Codina, E; Castilla, R; Raush, G; Freire, J; Rio, C. (2015), Computational fluid dynamics and particle image velocimetry assisted design tools for a new generation of trochoidal gear pumps, ADVANCES IN MECHANICAL ENGINEERING, 7(7), DOI: 10.1177/1687814015592561
- Castilla, R; Gamez-Montero, PJ; del Campo, D; Raush, R; Garcia-Vilchez, M; Codina, E. (2014), Three-Dimensional Numerical Simulation of an External Gear Pump With Decompression Slot and Meshing Contact Point, JOURNAL OF FLUIDS ENGINEERING, 137(4), DOI: 10.1115/1.4029223
The main aspects of this project are:
- To generate the necessary critical knowledge mass to carry out an innovative investigation in a new generation of mini trochoidal-gear pumps and to fill the present lack of investigation
- To maximize the efficiency of mini trochoidal-gear pump based on maintaining its main advantages (compact, few components and no sealing elements), to increase its main strength (high ratio power/minimum volume-weight ) and to optimize its main performance indexes (flow ripple and wear that bring to volumetric efficiency fluctuations)
- To develop a new tool based on an integrated system to design mini trochoidal-gear pumps, on one hand, to lead the designer to a better design of new born component project from its initial specifications, and on the other hand, to reduce the cost and shorten the time of manufacturing changing the current design method by trial and error
- To improve the technology transfer to the companies