Michael Kreder
About Michael Kreder
Michael Kreder is a scientist with expertise in the chemistry and physics of surfaces, currently working at Exponent in the Greater Boston Area. He has a background in nanotechnology engineering and applied physics, with research experience at institutions such as Harvard University and the University of Waterloo.
Work at Exponent
Michael Kreder has been employed as a Scientist at Exponent since 2019. His role is based in the Greater Boston Area, where he applies his expertise in the chemistry and physics of surfaces. His work involves analyzing interfacial interactions of solids, liquids, and thin films, contributing to various projects within the organization.
Education and Expertise
Michael Kreder holds a Bachelor of Applied Science (B.A.Sc.) in Nanotechnology Engineering from the University of Waterloo, which he completed from 2008 to 2013. He furthered his education at Harvard University, where he earned a Doctor of Philosophy (Ph.D.) in Engineering Physics/Applied Physics from 2013 to 2018. His academic background supports his research interests in the influence of chemistry and nanostructure on the macroscopic properties of polymeric materials.
Background
Michael Kreder has a diverse research background. He began his career as a Summer Research Student at the Orthopaedic Biomechanics Laboratory at Sunnybrook Health Sciences Centre in 2009. He then worked as a Coop Research Student at the Systems and Integrated Microsystems Laboratory at the University of Waterloo and the National Research Council Institute for Fuel Cell Innovation in 2010. Additionally, he served as a Visiting Undergraduate Research Intern at Aizenberg Lab, Harvard University in 2012, before becoming a PhD Candidate there from 2013 to 2019.
Research Contributions
During his time at Aizenberg Lab, Michael Kreder developed coatings for various applications, including anti-ice technologies, biomedical devices, and high-performance heat exchangers. His research focuses on the chemistry and physics of surfaces, particularly how interfacial interactions affect material properties.