Martin Thou

Professor

Deputy-Director, COMPASS

3078 Engineering Building I

Website

Bio

Our group is interested in frugal science/innovation, the ability to minimize cost and complexity while providing efficient solutions to better human conditions. We are, by necessity, an interdisciplinary physical-organic/materials research group interested in engineering soft matter and understanding surfaces and interfaces at all size scales. Our research focuses on the development of a generalized framework for engineering structures and ultimately functional devices via self-assembly and/or stacking of molecules, films, or layers of materials, to introduce new function(s) or utility.

Education

Postdoctorate Chemistry and Materials Science Harvard University 2012

Ph.D. Chemistry  University of Iowa 2008

Master of Science Chemistry  Simon Fraser University 2004

Master of Science Chemistry  Kenyatta University 2002

Bachelor of Science Applied Mathematics and Chemistry Kenyatta University 1999

Area(s) of Expertise

Functional soft matter and surface/interface thermodynamics (SMMT) to design metastable materials for advanced manufacturing and technology applications

Grants

Our group is interested in frugal science/innovation, the ability to minimize cost and complexity while providing efficient solutions to better human conditions. We are, by necessity, an interdisciplinary physical-organic/materials research group interested in engineering soft matter and understanding surfaces and interfaces at all size scales. Our research focuses on the development of a generalized framework for engineering structures and ultimately functional devices via self-assembly and/or stacking of molecules, films, or layers of materials, to introduce new function(s) or utility.

Recycling at Point of Disposal via Energy Landscape Engineering
Date: 05/22/22 – 12/31/23
Amount: $616,871.00
Funding Agencies: Defense Advanced Research Projects Agency (DARPA)

The objective of this project is to achieve RPOD by demonstrating the role of multi-prong stimuli on interface structure/stability (and associated metastability), that enables non-equilibrium relaxation, leading to de-mixing.