SBIR-STTR Award

A flexible concurrent design system for rapid prototype manufacturing
Award last edited on: 4/9/2014

Sponsored Program
SBIR
Awarding Agency
DOD : Navy
Total Award Amount
$544,772
Award Phase
2
Solicitation Topic Code
N91-296
Principal Investigator
Glenn W McMinn

Company Information

Engineering Geometry Systems

275 E South Temple Street Suite 305
Salt Lake City, UT 84111
   (801) 575-6021
   info@enggeo.com
   www.enggeo.com
Location: Single
Congr. District: 02
County: Salt Lake

Phase I

Contract Number: N00014-92-C-0042
Start Date: 5/1/1992    Completed: 5/31/1992
Phase I year
1991
Phase I Amount
$49,826
Engineering Geometry Systems (EGS) will create a system specification for an integrated system for design and fabrication of custom parts for use in hydrodynamics experiments. The requirements of the system will be identified and a design will be proposed which is based on EGS underlying design for manufacturing technology. EGS technology is especially suited for this custom system since it encompasses B-spline feature based geometric modeling, integrated process planning capabilities with CNC code generation, rapid prototyping through stereolithography, and a modular client/server architecture. This technology is based on the Alpha l geometric modeling system, a powerful spling based solid modeling system developed at the University of Utah. This project has involved several million dollars of research investment supplied by contracting organizations including ONR, NSF, and DARPA.

Phase II

Contract Number: N00014-93-C-0120
Start Date: 10/1/1993    Completed: 10/1/1994
Phase II year
1993
Phase II Amount
$494,946
Engineering Geometry Systems is proposing research toward a system to reduce the time and cost of producing prototype parts for use in hydrodynamics experiments through a concurrent feature-based approach to manufacturing in which design and manufacturing information is embedded within part features. The research will be performed in three areas. First, formulation of fundamental feature-based manufacturing algorithms suitable for use by a CAD system end user. While existing feature-oriented systems address only design concerns or at best address existing feature-oriented systems address only design concerns or at best address will extend feature-based technology to address manufacturing a broad class of real world parts and encapsulate this information in user-oriented concurrent features. Second, the investment casting manufacturing process will be pursued using layered manufacturing within a feature-oriented process planning environment. Third, new techniques for solid simulation of 5-axis tool paths will be explored. These explorations will use the Alpha_1 geometirc modeling system, a powerful design and manufacturing system developed at the University of Utah as the design and manufacturing system developed at the University of Utah as the design and manufacturing system developed at the University of Utah as the technological foundation. Alpha_1 will insure full system functionality for this work even though the proposed research is directed towards several specific goals.

Keywords:
FEATURE-BASED MANUFACTURING LAYERED MANUFACTURING PROCESS PLANNING CONCURRENT ENGINEERING