Electrification of Transportation for Energy Storage and Smart Mobility

Electrification of Transportation for Energy Storage and Smart Mobility

Electrification of Transportation for Energy Storage and Smart Mobility Yiguang Ju Robert Porter Patterson Professor of Mechanical and Aerospace Engineering Director, Program in Sustainable Energy Abstract About two-thirds of U.S. electricity is produced from fossil fuels and two-thirds of oil is consumed by transportation. Electricity and transportation are the major sources of greenhouse gases and environmental pollution. Wind and solar offer a pathway to clean energy generation, but without a large capacity of energy storage, the intermittency of renewables represents a major challenge. The recent development of electric vehicles and autonomous driving technologies provides a promising solution to the challenges of renewable energy production and storage and emissions from transportation via the electrification of transportation and intelligent management of mobility. The key technical questions are: 1) how to couple the electric grid to the transportation grid and in what energy form and capacity; 2) how to forecast and intelligently optimize the transportation system, balancing generation, transmission and storage; 3) how to develop the infrastructure to enable dynamic charging and smart battery management as well as wireless sensing and data transfer; and 4) how to develop new battery materials and create a scalable hierarchy for electrochemical electrodes to increase battery energy density as well as charging speed and cycles. With the support of the Andlinger Center for Energy and the Environment, a multi-disciplinary team at Princeton with 12 researchers has been assembled to address these technical questions. The objectives of this research are to initiate a collaborative effort to develop: models for transportation and electrical grid integration; forecast and optimization methods for energy storage and transportation planning; new technologies for advanced sensing, communication, dynamic charging and battery management; and new nanomaterials synthesis methods and scalable hierarchy strategies for electrochemical electrodes to produce low cost, high energy density, fast charging, and long life time batteries. .

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