SBIR/STTR Research Award

SBIR Phase II: Micro Laser Assisted Machining

Award identifier a4029d3265ee28e104a219c6e519d46775ff2ac8ecdbfc797a0328142104a998Awarding agency National Science Foundation

Award amount

$649,093

Program and phase

SBIR · Phase II

Award year

2013

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Award details

Awarding agency
National Science Foundation
Branch
Not reported
Recipient company
Micro Laser Assisted Machining Technologies, LLC
Proposal award date
2013-09-01
Contract end date
2015-08-31
UEI
Not reported
Solicitation number
Not reported
Topic code
NM

Research abstract

This Small Business Innovation Research (SBIR) Phase II project enables an innovative high-productivity approach to manufacturing hard and brittle materials like ceramics, semiconductors, and glass. The objective of this proposal is to build on the successful Phase I feasibility study to demonstrate an efficient and productive method that could manufacture ceramic and semiconductors with excellent part quality. The process, termed Micro-Laser Assisted Machining (micro-LAM), allows a cheaper (~40-60%), faster (by two to five times), and better method of machining and manufacturing hard and brittle materials by combining the preferential heat from a laser source and extreme pressure from a diamond tool. The status quo technology for manufacturing these materials requires extensive machining hours to obtain good part quality, which is not economical. The demand for high-end ceramics and semiconductors is continuously increasing; however, high production costs have forced manufacturers to use other materials with inferior properties. The goal of this effort is to address this unmet need by commercializing the micro-LAM technology by the end of Phase II. A minimum viable product will be tested at industrial partner sites to obtain firsthand customer feedback, which is key to accelerating the commercialization process. The broader impact/commercial potential of this project will be felt in semiconductor (microelectronics) manufacturing, optics (mirrors and windows), and precision mechanical products (bearing and seals), where the superior properties of advanced semiconductor and engineered ceramic materials are required to achieve performance criteria. This technology will enable entirely new capabilities for production of materials and products currently not viable or achievable due to processing limitations. The micro-LAM technology also has potential applications for emerging technologies, such as wind turbines and plug-in electric vehicles, where high-power and high-temperature operation of advanced devices is required. The current target market size, including optics, semiconductor, advanced ceramics and glass parts manufacturing, is approximately $250 million, with a 15%/year growth rate. Once market acceptance is established in the target market segment, the micro-LAM tooling will be launched into the larger diamond turning machine (DTM) market, with a total size of $2.4 billion. There are approximately 10,000 DTMs in the United States alone (with ~ 500 new tools introduced per year).

Technology keywords

Not reported

Agency intelligence

National Science Foundation

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