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Award Abstract #0093142
PECASE: Automated Design of Multi-Piece Molds -- A Step towards Manufacturing of Geometrically Complex Heterogeneous Objects

| NSF Org: |
CMMI
Division of Civil, Mechanical, and Manufacturing Innovation
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| Initial Amendment Date: |
January 10, 2001 |
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| Latest Amendment Date: |
January 22, 2004 |
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| Award Number: |
0093142 |
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| Award Instrument: |
Standard Grant |
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| Program Manager: |
Judy M. Vance
CMMI Division of Civil, Mechanical, and Manufacturing Innovation
ENG Directorate for Engineering
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| Start Date: |
July 1, 2001 |
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| Expires: |
June 30, 2007 (Estimated) |
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| Awarded Amount to Date: |
$393000 |
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| Investigator(s): |
Satyandra Gupta skgupta@eng.umd.edu (Principal Investigator)
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| Sponsor: |
University of Maryland College Park
3112 LEE BLDG
COLLEGE PARK, MD 20742 301/405-6269
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| NSF Program(s): |
ENGINEERING DESIGN AND INNOVAT, INTEGRATION ENGINEERING
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| Field Application(s): |
0308000 Industrial Technology
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| Program Reference Code(s): |
MANU, 9251, 9231, 9178, 9148, 9146, 9102, 1187, 1076, 1045
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| Program Element Code(s): |
1464, 1463
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ABSTRACT

This Presidential Early Career Award for Scientists and Engineers (PECASE) grant supports an integrated research and education project in the area of automated design of multi-piece molds for manufacturing geometrically complex heterogeneous objects. Its goal is to develop underlying algorithms that will enable development of computer-aided design and manufacturing (CAD/CAM) systems for automatically designing multi-piece molds. The research effort will focus on: (1) characterization of the new design space enabled by multi-piece molds; (2) development of geometric reasoning algorithms for decomposing molds into manufacturable components; and (3) development of geometric reasoning algorithms for incorporating assembly features into mold components for facilitating mold assembly. The education effort will focus on: (1) introduction of rigorous algorithmic foundations into CAD/CAM courses; (2) familiarizing students with the challenges in the CAD/CAM system development; and (3) providing students an opportunity to develop prototype CAD/CAM systems for design and manufacturing of multi-piece molds. Outreach projects will be initiated to expose high school students to the CAD/CAM field and give them an opportunity to make a more informed career choice; and, allow industry to learn about new CAD/CAM and heterogeneous object manufacturing technologies.
If successful this project will have the following impacts. First, it will lead to the development of new geometric reasoning algorithms in manufacturability analysis and manufacturability-driven spatial partitioning areas. In addition to mold design, these algorithms will be useful in several other CAD/CAM applications. Second, it will provide a commercially viable method for making geometrically complex heterogeneous objects. The ability to manufacture geometrically complex heterogeneous objects economically will significantly expand the design space and will allow development of new products in many different areas. Finally, integration of geometric reasoning principles into the mechanical engineering curriculum will help in creating a new generation of engineers who will have exposure to geometric algorithms in addition to traditional mechanical engineering curriculum. This exposure is expected to help in preparing engineers for participating in the development of the next generation CAD/CAM systems.
PUBLICATIONS PRODUCED AS A RESULT OF THIS RESEARCH

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(Showing: 1 - 10 of 11)
(Showing: 1 - 11 of 11)
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A. Banerjee, X. Li, G. Fowler, and S.K. Gupta. "Incorporating manufacturability considerations during design of injection molded multi-material objects," Research in Engineering Design, v.17, 2007, p. 207.
A. Priyadarshi and S.K. Gupta. "Geometric algorithms for automated design of multi-piece permanent molds," Computer Aided Design, v.36, 2004, p. 241.
A.K. Priyadarshi, S.K. Gupta, R. Gouker, F. Krebs, M. Shroeder, and S. Warth. "Manufacturing multi-material articulated plastic products using in-mold assembly," International Journal of Advanced Manufacturing Technology, v.32, 2007, p. 350.
H. Bruck, G. Fowler, S.K. Gupta, and T. Valentine. "Towards bio-inspired interfaces: Using geometric complexity to enhance the interfacial strengths of heterogeneous structures fabricated in a multi-stage multi-piece molding process," Experimental Mechanics, v.44, 2004, p. 261.
J. Huang, S. K. Gupta, and K. Stoppel. "Generating sacrificial multi-piece molds using accessibility driven spatial partitioning," Computer Aided Design, v.35, 2003, p. 1147.
M. Kumar and S.K. Gupta. "Automated design of multi-stage molds for manufacturing multi-material objects," Journal of Mechanical Design, v.124, 2002, p. 399.
R.M. Gouker, S.K. Gupta, H.A. Bruck, and T. Holzschuh. "Manufacturing of multi-material compliant mechanisms using multi-material molding," International Journal of Advanced Manufacturing Technology, v.30, 2006, p. 1049.
S. Dhaliwal, S.K. Gupta, J. Huang, and A. Priyadarshi. "Algorithms for computing global accessibility cones," Computing and Information Science in Engineering, v.3, 2003, p. 200.
X. Li and S.K. Gupta. "Geometric algorithms for automated design of rotary-platen multi-shot molds," Computer Aided Design, v.36, 2004, p. 1171.
Z. Yao and S.K. Gupta. "Cutter path generation for 2.5D milling by combining multiple different cutter path patterns," International Journal of Production Research, v.42, 2004, p. 2141.
Z. Yao, S.K. Gupta, and D. Nau. "Algorithms for selecting cutters in multi-part milling problems," Computer Aided Design, v.35, 2003, p. 825.
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