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Roderic Lakes, College of Engineering, University of Wisconsin, Madison
INDUSTRIAL RESEARCH
partial list


Industrial research
Our research group has pursued a variety of short term applications oriented projects as well as longer term innovative projects. Our group works with industry in contexts of contract research, student training, consulting, and other contexts. As for contract research, we are familiar with the confidentiality agreements and intellectual property arrangements usually associated with industrial research, also with milestones, progress reports, and practical use. The University and the College of Engineering have appropriate infrastructure for industrial research.

The Wisconsin Research Tax Credit
The State of Wisconsin extends a research tax credit (1983 Act 27) to Wisconsin companies investing in research in Wisconsin. Created in 1983, this research incentive is patterned after the Federal Research Credit.

Details of completed projects, released in accordance with confidentiality agreements, are given in various journal publications referred to elsewhere on this site.

Selected project titles are as follows.

Applications of viscoelastic elastomers in shoes, 1986-88

Advanced holographic optical elements, 1987-93

Novel cellular materials for fasteners, 1989-91

Application of high modulus novel foams in aircraft, 1989-96

Study of cellular solids for aircraft, 1990-93

Optical methods for hard disk testing, 1993-94

Thin holographic diffusers, 1995

Advanced viscoelastic foam for seat cushions, 1997-1999

Microcellular viscoelastic advanced foam, 1998-2000

Advanced foam applications, 2000-2002

Alloy creep, 2000-2008

Polymer viscoelasticity, 2005-2009

Advanced structural dampers, 2008-2012

Advanced piezoelectric materials, 2012-2014

Capabilities of our laboratory include the following.
    Viscoelastic material characterization from ultrasonic and acoustic ranges to quasistatic. There is no need for time temperature shifts. Characterization of microsamples can be done. Studies can be done above or below ambient temperature. Capabilities are available for long term creep at various temperatures.
    Development, including design and testing, of novel foams, honeycombs, piezoelectric materials and composites.
    Analysis and experimental testing of cellular solids and composites, and of biomaterials and biological materials.
    Full field deformation analysis by holography, moire and other optical methods.
    Resonant ultrasound spectroscopy to determine material properties such as elastic moduli, Poisson's ratio, and material damping of compact specimens.