Here at MIT, sustainability can mean many things. New materials for everything from electronics to infrastructure which are both functional and kind to the environment. “Green” government and corporate policies which regulate energy and greenhouse gas production. Innovative urban planning for a city of the future which is efficient, but also accessible and abundant. Whether stated in economic, environmental, social, or technological terms, sustainability is the capacity to endure – to consume, grow, and thrive – but not to be consumed and perish in the process. Join us for this two-part webinar series which explores how MIT and its community of researchers and corporate members are leading the way in sustainability research.
Part 1: Sustainability Research at MIT
This webinar is a broad overview of sustainability research at MIT. Fields include: materials science, energy, recycling, economic policy, urban planning.
This webinar will be followed by an Interactive Discussion for ILP Members-only webinar on March 11.
Dr. Corey Cheng joined the Office of Corporate Relations (OCR) as an Senior Industrial Liaison Officer in December 2011. He has broad interests in science and technology, and uses his technical research experience to better serve ILP members in Asia and the United States.
Cheng spent six years in industrial research at Dolby Laboratories, San Francisco, where he contributed to sound compression (Dolby Digital, AAC, MP3), wireless networking, fingerprinting, and spatial/“3-D audio” technologies. Later, he was Associate Professor and Director of the undergraduate and graduate programs in music engineering technology at the University of Miami, Florida, where he also held a dual appointment in Electrical and Computer Engineering. Cheng holds various U.S. and international patents, has published technical papers, and has presented at various conferences. His technical work includes collaborations and consulting work with the U.S. Naval Submarine Medical Research Laboratory, Fujitsu-Ten USA, Starkey Laboratories, America Online, and the Chicago Board of Trade (CBOT). Cheng was an IEEE Distinguished Lecturer for the Circuits and Systems Society from 2009-2010, and was a Westinghouse (Intel) Science Talent Search national finalist many years ago.
Cheng holds degrees in Electrical Engineering (Ph.D., M.S.E. University of Michigan), Electro-Acoustic Music (M.A. Dartmouth College), and physics (B.A. Harvard University).
Personally, Dr. Cheng is an American Born Chinese (ABC), serves as his family’s genealogist, and traces his roots back to Toi San, Guang Dong Province and Xing Hua, Jiang Su Province, China. He also has a background in music, and his electro-acoustic compositions have been presented at various U.S. and international venues.
John E. Fernández is a professor in the Building Technology Program of the Department of Architecture at MIT and a practicing architect. Fernández founded and directs the MIT Urban Metabolism Group, a highly multidisciplinary research group focused on the resource intensity of cities and design and technology pathways for future urbanization. He is also Director of the MIT Environmental Solutions Initiative; MIT’s primary organization to enlist the capacity of the MIT community in the transition to a low-carbon and humane future. He is author of two books, numerous articles in scientific and design journals including Science, the Journal of Industrial Ecology, Building and Environment, Energy Policy and others, and author of nine book chapters. He is Chair of Sustainable Urban Systems for the International Society of Industrial Ecology and Associate Editor of the journal Sustainable Cities and Society.
Today we are at the brink of an accelerating climate crisis while half the world lives in cities and rates of biodiversity loss and deforestation are at historic highs. We are also in a golden era of scientific and engineering breakthroughs and technology and market innovation. From advances in artificial intelligence to carbon capture we may be witnessing the emergence of a transformation of society and industry toward a sustainable, equitable and humane future. Prof. Fernandez will describe the mandate and work of MIT’s primary environmental organization charged with creating solutions to climate change and other environmental challenges. The work of the ESI leverages key capacity of the entire MIT faculty, student body and staff across diverse topics in research, education and engagement. The expansion of the ESI bodes well for MIT’s ever more targeted role in a sustainable future. In this mission we hope to partner with you.
Yossi Sheffi is an expert in systems optimization, risk analysis and supply chain management. He is author of a text book and four award-winning management books. His latest book is “The New Abnormal,” came out on October 1, 2020
Under his leadership, MIT CTL has launched many educational, research, and industry/government outreach programs, including the MIT SCALE network involving six academic centers round the world. In 2015, CTL has launched the on-line Micromaster’s program, enrolling 350,000 students in 196 countries.
Outside the institute, Dr. Sheffi has consulted with numerous organizations. He has also founded or co-founded five successful companies, all acquired by large enterprises.
Dr. Sheffi has been recognized in numerous ways in academic and industry forums and won dozens of awards.
He obtained his B.Sc. from the Technion in Israel in 1975, and Ph.D. from MIT in 1978.
For more information visit: http://sheffi.mit.edu/
Despite the increasing evidence of climate change and its growing consequences, green promises have outpaced green actions. Most consumers, companies, and governments have made only minor, incremental changes to their behavior. Even the promised changes, if actually enacted, are at best ineffective and at worst will ensure that the planet continues on its current destructive path. The addition of billions of developing countries consumers to the world’s idle class is likely to doom any small changes. My argument is that while current efforts should continue, the solution is technology for carbon sequestrations and storage (it the green movement will still stall the development of nuclear plants).
Sourcemap: Supply chain transparency platform
Via Separations - Membrane platform that transforms industrial separations by improving filtration materials and reducing energy
Dr. Leonardo Bonanni is the founder and CEO of Sourcemap, the supply chain transparency platform. Leading brands and manufacturers use Sourcemap software to trace their products to the source and ensure that corporate standards are met every step of the way, including zero-deforestation, zero-child labor, and the highest standards for raw materials such as recycled, fair trade and organic. You can see Timberland and The North Face, Mars and Hershey, all publishing their Sourcemap-verified supply chains on open.sourcemap.com, the world's largest supply chain disclosure website. Leo developed Sourcemap as part of his PhD at the MIT Media Lab and has been named among America's 100 Most Influential People in Business Ethics and America's Most Promising Social Entrepreneurs.
Dr. Brent Keller is the Co-Founder & CTO of Via Separations, a start-up working to intensify manufacturing, and eliminate the energy used in industry. Via was recognized as one of C&EN’s 10 startups to watch in 2019, and has received awards from ARPA-E, NSF, and MassCEC. Brent was awarded Forbes 30 under 30 in 2018. He holds a Ph.D. in Materials Science and Engineering from MIT, 4 patents pending, and has been published in 6 scientific publications.
Dr. Sergey Paltsev is a Deputy Director of the MIT Joint Program on the Science and Policy of Global Change and a Senior Research Scientist at MIT Energy Initiative and MIT Center for Energy and Environmental Policy Research (CEEPR), Massachusetts Institute of Technology (MIT), Cambridge, USA. He is the lead modeler in charge of the MIT Economic Projection and Policy Analysis (EPPA) model of the world economy. His research covers a wide range of topics including energy economics, climate policy, taxation, advanced energy technologies, and international trade. Sergey is an Advisory Board Member for the Global Trade Analysis Project (GTAP) Consortium and a Member of the Economy-Wide Modeling Panel for the US Environmental Protection Agency (EPA) Science Advisory Board. Dr. Paltsev is an author of more than 100 peer-reviewed publications in scientific journals and books. He is a recipient of the 2012 Pyke Johnson Award (by the Transportation Research Board of the National Academies, USA, for the best paper in the area of planning and environment), the Best Policy Analysis Paper of 2012 by Environmental Science and Technology Journal of the American Chemical Society and the Best 2004 Research Award by Tokyo Electric Power Company, Japan. Sergey was a Lead Author of the Fifth Assessment Report (AR5) of the Intergovernmental Panel on Climate Change (IPCC). In 2007-2008 Dr. Paltsev was a member of the Expert Panel on the Economics of Climate Change for the U.S. Government Accountability Office (GAO). Before joining MIT in 2002, Sergey Paltsev worked as a Consultant for International Management and Communication Corporation and The World Bank, and as an Executive Director of the Program in Economics and Management of Technology at Belarusian State University. He received a Diploma in Radiophysics and Electronics from Belarusian State University and PhD in Economics from University of Colorado at Boulder.
Many world regions face increasing pressures from global and regional changes in climate, population growth, urban-area expansion, and the socio-economic impacts of fossil-based development. One of the global community’s most significant contemporary challenges is the need to satisfy growing energy and food demand while simultaneously achieving very significant reductions in the greenhouse gas emissions and sustainable development. The massive scaling is required for low-carbon technologies to make a substantial contribution to future global energy needs. Using land for agriculture, energy, and carbon storage requires sustainable integrated solutions. This session explores how we are advancinag a prosperous world through an analysis of the complex interactions among co-evolving, interconnected global and regional systems of human behavior and the Earth components.
Elsa Olivetti is the Esther and Harold E. Edgerton Career Development Professor in the Department of Materials Science and Engineering (DMSE) at the Massachusetts Institute of Technology. Her research focuses on improving the environmental and economic sustainability of materials in the context of rapid-expanding global demand. Dr. Olivetti received her B.S. degree in Engineering Science from the University of Virginia and her Ph.D. in Materials Science Engineering from MIT.
Environmental benefits attributed to recycling rely on the assumption that we are substituting energy intensive primary production for lower-impact secondary production. However, this argument tends to be a purely engineering lens on a complex socioeconomic system. This presentation will discuss whether closing material and product loops does, in fact, prevent primary production. The basis for this counter argument is that when secondary replaces primary, it decreases the price of secondary and thus more primary will switch to secondary if possible, causing primary price to drop, and driving up demand for more primary which may negate the potential for substitution. There is a strong parallel in this argument to the concept of energy efficiency rebound, and is also referred to as the potential for secondary material to displace primary production. The critical aspects that influence displacement are the ability of secondary products to substitute for primary products, and price effects. This presentation will describe tools and analytical modeling efforts that explore the potential for recycling displacement for the case of commodity materials such as paper, copper and aluminum. These approaches help to assess the contexts under which recycling may reduce a material or product footprint.
InEnTec: Gasifier technology that safely transforms waste into clean fuels and other valuable products
Renewlogy: Innovative solutions for renewing waste and creating circular economies
Jeff Surma is President and CEO of InEnTec Inc. Jeff and his colleagues founded InEnTec Inc. to commercialize a new plasma technology developed while conducting research at the MIT Plasma Fusion Center. Jeff began his career at the Pacific Northwest National Laboratory where he directed multi-million dollar research efforts in the areas of electrochemical and high temperature plasma processing of waste materials. Jeff has been granted 44 US patents and has won the prestigious R&D 100 award four times for his work on plasma processing and associated technologies. Jeff holds a B.S. in Chemistry from the University of Minnesota and a M.S. in Chemical Engineering from Montana State University.
Priyanka Bakaya is the Founder & CEO at Renewlogy, a technology leader in developing innovative solutions for renewing waste and creating circular economies. Across multiple facilities, they convert hard-to-recycle plastics into higher value products. Bakaya previously worked at Venture Capital firms Accel Partners and Globespan Capital, after starting her career in energy and technology investing on Wall Street. Bakaya has also served as the Chairman for the American Chemistry Council’s Advanced Recycling Alliance for Plastics, and serves as an ongoing coach for MIT’s Global Entrepreneurship Bootcamps.
Bakaya is a World Economic Forum Young Global Leader, a Lightspeed Venture Fellow and a Laureate for the Cartier Women’s Global Initiative. She has been named to the Fortune 40 under 40 Ones to Watch List, Conscious Company’s Top 30 Social Entrepreneurs, and Forbes 30 under 30 List in Energy. She is a graduate of MIT Sloan and Stanford University with Honors.
Jason Jay is a Senior Lecturer at the MIT Sloan School of Management and Director of the Sustainability Initiative at MIT Sloan. His research focuses on how people navigate the tensions between personal, business, and social goals in sustainability efforts. His first book is Breaking Through Gridlock: The Power of Conversation in a Polarized World and he has published articles in the Academy of Management Journal and California Management Review. He teaches courses on strategy, innovation, and leadership for sustainable business at MIT, and engages students and alumni in hands-on projects with leading companies and organizations. Prior to MIT, Jason was a management consultant for Dialogos International, where he consulted on leadership development and organizational change for major international corporations and NGO's including BP and the World Bank. Jason holds a Ph.D. in Organization Studies from the MIT Sloan School of Management, and an AB and M.Ed from Harvard University. He lives in Newton, Massachusetts.
We are seeing tremendous growth in the field of sustainability, particularly in the capital markets. Investors are rapidly moving to incorporate environmental, social, and governance (ESG) considerations into their decision making. There are, however, three important barriers to sustainable investing. The first is that investors' mental models don't always match the reality of complex systems, as exemplified by climate change and what "net zero carbon" really requires. The second is measurement - the quality of data is not where we need it to be to drive portfolio construction and shareholder engagement. The third is impact - investors sometimes assume that avoiding risky stocks will change the world, and feel pressure to divest, but the reality is that shareholder engagement with imperfect companies may be a faster way to change the world, even if this strategy is harder to communicate to the marketplace.
Karthish Manthiram is the Theodore T. Miller Career Development Chair and Assistant Professor in Chemical Engineering at MIT. The Manthiram Lab at MIT is focused on the molecular engineering of electrocatalysts for the synthesis of organic molecules, including pharmaceuticals, fuels, and commodity chemicals, using renewable feedstocks. Karthish received his bachelor’s degree in Chemical Engineering from Stanford University and his Ph.D. in Chemical Engineering from UC Berkeley, where his dissertation research was focused on the development of nanoscale materials for storing solar energy in chemical bonds. Most recently, he was a postdoctoral researcher at the California Institute of Technology, where he worked on developing new ionically-conductive polymers using olefin metathesis. Karthish’s research has been recognized with several awards, including the NSF CAREER Award, DOE Early Career Award, 3M Nontenured Faculty Award, American Chemical Society PRF New Investigator Award, Dan Cubicciotti Award of the Electrochemical Society, and Forbes 30 Under 30 in Science. Karthish’s teaching has been recognized with the C. Michael Mohr Outstanding Undergraduate Teaching Award, the MIT ChemE Outstanding Graduate Teaching Award, and the MIT Teaching with Digital Technology Award. He serves on the Early Career Advisory Board for ACS Catalysis and on the Advisory Board for both Trends in Chemistry and the MIT Science Policy Review.
Chemical synthesis is responsible for significant emissions of carbon dioxide worldwide. Using renewable electricity to drive chemical synthesis may provide a route to overcoming the carbon footprint, by enabling synthetic routes which operate at benign conditions and utilize sustainable inputs. We are developing an electrosynthetic toolkit in which distributed feedstocks, including carbon dioxide, dinitrogen, water, and renewable electricity, can be converted into diverse fuels, chemicals, and materials. In this presentation, we will first share recent advances made in our laboratory on nitrogen fixation to synthesize ammonia at ambient conditions. We will then discuss how to drive selective carbon dioxide reduction and use water as an oxygen-atom source for epoxidation reactions. These example reactions will illustrate how the modularity of chemical manufacturing could be enhanced through electrochemical routes which open up local and on-demand production of critical chemicals and materials.