Suresh V. Garimella
Executive Vice President for Research and Partnerships
Goodson Distinguished Professor of Mechanical Engineering
Director, NSF Cooling Technologies Research Center
School of Mechanical Engineering and Birck
Dr. Suresh Garimella is the R. Eugene and Susie E. Goodson Distinguished Professor in the School of Mechanical Engineering at Purdue University, and Director of theCooling Technologies Research Center (CTRC), an Industry/University Cooperative Research Center of the National Science Foundation. He also directs the Electronics Cooling Laboratory and the Solidification Heat Transfer Laboratory. He served as the Associate Vice President leading the Office of Engagement at Purdue University from 2011 to 2013, he also served as Purdue’s Chief Global Affairs Officer and he was recently appointed as Executive Vice President for Research and Partnerships.
M.S., Mechanical Engineering,The Ohio State University, Columbus, 1986
Bachelor of Technology, Mechanical Engineering, Indian Institute of Technology, Madras, 1985
Dr. Garimella’s research interests lie in the fields of micro- and nano-scale transport phenomena, energy efficiency in electronics, high-performance compact cooling technologies, sustainable energy systems and policy, and materials processing.
Honors and Awards
Provost's Award for Outstanding Graduate Mentor, Purdue University, 2012
Fellow, American Association for the Advancement of Science, 2011
Senior Fellow, Energy and Climate Partnership of the Americas (ECPA), U.S Department of State, 2011
Alexander Schwarzkopf Prize for Technology Innovation, National Science Foundation Industry University Cooperative Research Center (IUCRC) Association, 2011
Faculty Award of Excellence for Mentoring, Purdue University College of Engineering, 2011
Jefferson Science Fellow, U.S. Department of State, August 2010 to present
Heat Transfer Memorial Award, 2010, American Society of Mechanical Engineers, for innovative and pioneering work on basic and applied problems in microscale heat transfer, thermal management of electronic systems, phase change heat transfer and materials processing, leading to extensive contributions to archival heat transfer literature and an impressive impact on industry
Distinguished Alumnus Award of IIT Madras for 2010, Indian Institute of Technology, Madras in recognition of distinguished contributions to society
R. Eugene and Susie E. Goodson Distinguished Professorship, Purdue University, 2009
Harvey A. Rosten Award for Excellence for outstanding work in the field of thermal analysis of electronic equipment, 2009
Allan Kraus Thermal Management Medal, for demonstrated outstanding achievements in thermal management of electronic systems and commitment to the field of thermal sciences, American Society of Mechanical Engineers, 2009
Ruth and Joel Spira Award, 2009, for outstanding contributions to the School of Mechanical Engineering and for inspiring students and fostering excellence in commercial or defence product realization
Gustus L. Larson Memorial Award, American Society of Mechanical Engineers, 2004
Fellow, American Society of Mechanical Engineers, 2002
Distance Teaching Award, selected by students and presented annually by the Division of Engineering Professional Education of Purdue University to an engineering faculty member who best represents excellence in teaching at a distance, 2009
R. Eugene and Susie E. Goodson Professorship of Mechanical Engineering, 2006
Cray-Research Professorship, Fall 1992 - Spring 1999
Fellow, Center of Smart Interfaces, Technical University of Darmstadt, Germany, effective July 2008
Honorary Guest Professor, Xi'an JiaoTong University, Xi'an, China, effective June 2006
Invited Participant, 2006 U.S. Frontiers of Engineering Symposium of the National Academy of Engineering, September 21-23, Ford Research and Innovation Center, Dearborn, Michigan
Invited Speaker at the National Academy of Engineering Mechanical Engineering Section, Fall Meeting, October 4, 2004
Member, Scientific Council, International Centre for Heat and Mass Transfer (ICHMT), effective February 2009.
K16 Clock Award, 2006, for Service to the ASME Heat Transfer Division's K-16 Community and Continued Outstanding Contributions to the Science and Engineering of Heat Transfer in Electronics
Indiana 21st Century Research & Technology Fund Award, for Outstanding Achievement as a member of the 2008 Indiana 21st Century Research & Technology Fund
UWM Outstanding Teaching Award, 1997
Graduate School/UWM Foundation Research Award, 1995
Best Poster Prize, ASME International Mechanical Engineering Congress and Exposition, Lake Buena Vista, Florida, November 13-19, 2009
Best Poster Prizes (2), ASME/Pacific Rim Technical Conference and Exhibition on Integration and Packaging of Micro, Nano, and Electronic Systems (InterPACK ’09), San Francisco, July 19-23, 2009
Best Paper Award in Heat Transfer, 2008 ASME Summer Heat Transfer Conference, Jacksonville, FL, August 10-14, 2008
Best Poster Prize, International Heat Transfer Conference, Sydney, Australia, August 13-18, 2006
Best Paper Award, Sixth ISHMT/ASME Heat and Mass Transfer Conference, Kalpakkam, India, January 5-7, 2004
Society of Automotive Engineers' Outstanding Faculty Advisor Award, 1994
Research Initiation Award, National Science Foundation, 1992
Society of Automotive Engineers' Ralph R. Teetor Educational Award, 1992
Outstanding Teaching Award, UWM College of Engineering and Applied Science, 1992
Ohio State University Engineering Achievement Award for Excellence in Scholarship and Research, 1986
Editorial Board Member, International Journal of Micro-Nano Scale Transport (2009-present)
Editor, Experimental Heat Transfer (2005-present)
Member, ASME Heat Transfer Division K-16 Committee on Heat Transfer in Electronic Equipment (1990 - present)
Coordinator, Washington Energy Seminar, U.S. Department of Energy, March 7-9, 2011
Workshop Organizer and Chair, Thermal Management in Telecommunication Systems and Data Centers, Dallas, Texas, October 25-26, 2010.
Associate Editor, ASME Journal of Heat Transfer (2004-2007)
Associate Editor, ASME Thermal Science and Engineering Applications (2008-2011)
Editor, Heat Transfer-Recent Contents (1995 - 98)
Editorial Board, Experimental Thermal and Fluid Science (1993 - 2002)
Member, National Electronics Manufacturing Initiative (NEMI) Thermal Management Technical Working Group (2002-05)
Chair, ASME Heat Transfer Division Membership Development Committee (2005-07); Member (03-07)
Conference Organizer and Chair (with A. Fleischer), Thermal Challenges in Next Generation Electronic Systems: Thermes 2007, Santa Fe, New Mexico, January 7-10, 2007
Guest Editor, Heat Transfer Engineering Special Issue (Vol. 28, No. 4, 2008, with S. Revankar)
Guest Editor, IEEE Transactions on Components and Packaging Technologies Special Issue on Thermal Challenges in Next Generation Electronic Systems (Volume 25, Number 4, 2002, with Y. Joshi)
Guest Editor, Microelectronics Journal Special Issue on Thermal Challenges in Next Generation Electronic Systems (Vol. 34, No. 3, 2003, with Y. Joshi)
Conference Co-Organizer, 7th ISHMT-ASME Heat and Mass Transfer Conference, IIT Guwahati, India, January 4-6, 2006
Conference Co-Chair, Next-Generation Thermal Management Materials and Systems Conference, Dallas, October 28-30, 2002
Conference Organizer and Chair (with Y. Joshi), Thermal Challenges in Next Generation Electronic Systems: Thermes 2002, United Engineering Foundation Conference, Santa Fe, New Mexico, January 13-16, 2002
In June 2014, Dr. Garimella was named Executive Vice President for the newly restructured Office of Research and Partnerships. In this role, he works closely with faculty and academic deans to set the strategic vision and university-level priorities for Purdue’s research. His office is working to enhance and diversify Purdue’s success in attracting federal funding, while continuing to support the development of grant applications, core university facilities, management of contracts, and compliance with regulations. He is charged with expanding Purdue’s partnerships, fostering connections in Indiana, nationally and internationally with corporate enterprises, foundations and governments whose research interests fit with those of Purdue faculty. Purdue’s global-affairs programs continue to report to him, as does Discovery Park, Purdue’s center for large-scale interdisciplinary research. Major new initiatives include growing strategic partnerships with the Department of Defense, enhancing coordination of life sciences research, and catalyzing institutional excellence across traditional boundaries in Discovery Park by focusing the university’s many successful research capabilities and centers on addressing one or two very high-impact and cross-cutting themes.
As a science advisor in the International Energy and Commodity Policy of the State Department's Economic Bureau, Dr. Garimella has been exploring pathways to a clean energy future, connecting across different Bureaus and Departments. He had convened biweekly brownbag lunches for a Clean Energy Futures Working Group which discussed cross-cutting issues at the intersection of energy security and climate change with a variety of expert speakers. He coordinated the March 2011 offering of the Washington Energy Seminar, which is organized to brief officers across the U.S. Government on energy issues. As a member of the interagency roundtable working group on rare earth elements led by the White House Office of Science and Technology Policy, he contributed to formulating diplomatic and policy solutions to recent supply shortages of critical materials. He was the Department delegate to the Committee on Energy Research and Technology of the International Energy Agency. He also participated as a Member of the U.S.- Russia Bilateral Presidential Commission Science & Technology Working Group visit to Moscow in February-March, 2011.
Most recently, he was appointed Senior Fellow of the State Department’s Energy and Climate Partnership of the Americas (ECPA), a regional partnership announced by President Obama at the April 2009 Summit of the Americas to promote clean energy, advance energy security, fight energy poverty, reduce greenhouse gas emissions, support strategies for sustainable landscapes and build capacity for climate change adaptation.
Dr. Garimella's lecture at Purdue University - November 10, 2011; Competing Policy Choices at the Intersection of Energy & Climate Change: An Engineer's Role
The Compact, High-Performance Cooling Technologies Research Center (CTRC) founded and directed by Dr. Garimella is a National Science Foundation Industry/University Cooperative Research Center. It provides tremendous opportunities to translate academic research into useful partnerships with industry, facilitate interactions with practicing engineers, organize industrial internships and avenues for career placement for graduate students, explore distance learning initiatives, and enhance technology transfer. Many of the key electronics and computer companies worldwide are members in this Center, which has attracted large State and Federal grants.
Dr. Garimella’s research group, consisting of 43 PhD, 36 MS students and 41 visiting scholars/post-docs – alumni and present, has published over 500 refereed journal and conference publications, besides editing or contributing to a number of books. Eighteen US patents have been issued or filed for their inventions. Fifteen former members of this group are in faculty positions at leading universities around the world. Extramural research funding for his research programs has been provided by the US National Science Foundation, NASA, US Army, DARPA, ONR, Members of the NSF Cooling Technologies Research Center, Semiconductor Research Corporation, State of Indiana 21st Century Research and Technology Fund, Hoosier Energy, Electric Power Research Institute (EPRI), and other federal, State and industrial sponsors. The group’s publications on a wide range of topics including microchannel transport, electromechanical microfluidic actuation and micropumps, novel microscale diagnostics, thin film transport and heat pipes, transport in bubbles, piezoelectric fans, refrigeration, jet impingement, thermal contact resistance, heat transfer enhancement, phase change energy storage and metal foams, solidification, plasmas and renewable and sustainable energy systems, are listed here.
Dr. Garimella’s most recent work has been in renewable and sustainable energy technology and policy. As Jefferson Science Fellow at the U.S. State Department, Dr. Garimella was investigating the nexus between electricity, development and emissions, with a particular focus on the scalability, intermittency and variability of renewable sources. He has given lectures on the topic at the State Department, at DOE, and at the White House. He was the State Department’s Delegate at the International Energy Agency, and was focused on transmission systems and grid-level storage, which are critical ingredients to realizing a clean-energy future. His group’s recent work in solar thermal energy storage has led to a comprehensive understanding of the operation and efficient design of thermocline storage systems. Waste heat recovery from power plants and industrial sources has been another focus of this work. Dr. Garimella is part of the investigating team in the Solar Energy Research Institute for India and the United States (SERIIUS), co-led by the Indian Institute of Science, Bangalore, and the National Renewable Energy Laboratory, and jointly supported by DOE and the Indian Ministry of Science and Technology with $50M in funding. Through an environment of cooperation and innovation "without borders" this Indo-US Joint Clean Energy Research and Development Center (JCERDC) will develop and ready emerging and revolutionary solar electricity technologies toward the long-term success of India's Jawaharlal Nehru National Solar Energy Mission and the U.S. Department of Energy's SunShot Initiative.
In the field of microscale transport, Dr. Garimella's group has contributed to the understanding of heat and mass transport in very thin evaporating liquid films. They have experimentally identified the specific, localized regions of enhanced transport, and developed analytical and numerical models for predicting and optimizing heat transfer across thin liquid films in applications such as heat pipes. They have also developed a first-of-its-kind model to predict the transient, three-dimensional operation of miniature heat pipes under distributed heat loading. More recently, they have investigated novel wick structures, which help sustain optimal thin films of liquid over the entire wick surface, and thus greatly enhance heat spreading and transport. Their work has generated a fundamental understanding of single- and two-phase transport in microchannels. Comprehensive microchannel boiling flow regime maps including quantitative criteria for transitions between different regimes have been developed, along with a robust criterion in terms of geometric and operating conditions for determining when confinement effects become important in flow boiling. This understanding, based on novel localized measurements of heat transfer, pressure drop, and high-speed flow regime visualization and mapping, is leading to regime-based models that offer more physically meaningful predictions of heat transport in microchannels. Supporting this work, his group has developed infrared micro-particle image velocimetry (IR-µPIV), a non-intrusive means of measuring velocities in sub-surface microfluidic channels in silicon, without resort to a transparent window. They have also demonstrated a planar laser-induced fluorescence approach using temperature-sensitive dyes for highly resolved and non-intrusive temperature measurements for higher flow rates.
The coupled electric, fluidic and thermal fields in electromechanically actuated flows at the microscale are another focus of the group’s research. This includes investigations of the efficacy of chip-integrated electrohydrodynamic (EHD) pumping, electrowetting transport of fluid droplets on smooth and superhydrophobic surfaces, and dielectrophoretically (DEP) induced flow in nanofluids.
The group is widely recognized for pioneering the use of liquid jets for high-flux heat removal, with a particular focus on confined jets to be used in the compact spaces encountered in the thermal management of high-performance electronics systems.
Their innovative experimental and analytical investigations in the area of piezoelectrically actuated cantilevers including electro-mechanical coupling, fluidic damping, flow-structure interactions, structural optimization, and their thermal impact for cooling, have led to the use of these piezofans in practical applications where ultra-light, low-noise, low-power cooling techniques are desired. Microscale ion-driven airflow is another air cooling technique that was successfully pioneered by the group.
Dr. Garimella and his group have conducted first-principles analyses of heterogeneous open-cell foam and lattice frame structures. The models developed allow for great precision in computing local heat transfer, flow fields and transport properties in foam materials, with applications not only in the transient thermal management of electronics with imbedded phase change materials, but also in solar-thermal energy management, biopreservation technologies and musculo-skeletal tissue, hydrogen sequestration and other applications.
The US Army, NASA, and NSF have supported Dr. Garimella’s work on micro- and macro-scale thermal phenomena in materials processing. He has addressed important fundamental questions regarding transport at multiple scales, with novel experimental approaches coupled with morphological stability analyses and modeling of the role of thermo-solutal melt convection and under-cooling on interface shape, propagation and stability. Applications include crystal growth in microgravity environments, alloy casting, defect reduction in the casting of energetic materials.Dr. Garimella has made major contributions to curriculum development in the thermal sciences with important applications in electronics cooling and materials processing at
Dr. Garimella’s teaching effectiveness has been well recognized via teaching and advising awards, and he has consistently received some of the top student evaluations in the department, both at Purdue and UWM. He received the Ralph Teetor Award from the SAE for being a nationally recognized outstanding young educator. The Engineering Professional Education office selected him for the Distance Faculty Award for 2009 based on nomination and evaluations by distance students. The UWM College of Engineering and Applied Science awarded him the 1992 annual Outstanding Teacher Award. In 1997, he was awarded the UWM Distinguished Teaching Award.
Dr. Garimella has taught numerous courses in heat transfer including Heat and Mass Transfer (ME 315)
,Heat and Mass Transfer Laboratory (ME315L), Intermediate Heat Transfer (ME 505), Convection of Heat and Mass (ME 605), and Heat Transfer in Electronic Systems (ME 511).
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