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Day 1: August 13, 2020 (Boston Time) |
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8:00 -8:10 |
Chair Welcome |
8:10-8:20 |
Opening Remarks |
8:20-9:10 |
Stable Salt Reactors – A New Platform Technology in Nuclear Fission |
9:10-10:00 |
Nanoscale Design for High Energy Batteries |
10:00-10:25 |
Coffee/Tea Break |
10:25-11:15 |
The Green Energy Revolution is Finally Here |
11:15-12:05 |
Energy Transformations to Meet the Climate Challenge: Advice from the National Academies |
12:05-13:10 |
Lunch Break |
13:10-15:10 |
Energy Policy Session |
15:10-15:35 |
Coffee/Tea Break |
15:35-17:35 |
Renewable Electricity Generation and Smart Grids Session |
17:35-18:30 |
Dinner Break |
18:30-20:30 |
Innovation Session |
Day 2: August 14, 2020 (Boston Time) |
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8:00-10:00 |
Carbon Capture, Utilization, Storage Session |
10:00-10:25 |
Coffee/Tea Break |
10:25-12:25 |
Oil and Gas Decarbonization Session |
12:25-13:10 |
Lunch Break |
13:10-15:10 |
Energy Storage Session |
15:10-15:35 |
Coffee/Tea Break |
15:35-17:35 |
Hydrogen Session |
Pre-recorded interview sessions |
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Pre-recorded 6 Oral Sessions and 2 E-Poster Tracks (Page 13~ Page 20) |
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Prof. Robert Armstrong Director, MIT Energy Initiative Massachusetts Institute of Technology |
8:10-8:20, August 13
Robert C. Armstrong is MITEI’s director and the Chevron Professor of Chemical Engineering. A member of the MIT faculty since 1973, Armstrong served as head of the Department of Chemical Engineering from 1996 to 2007 and has directed MITEI since 2013, after serving as the organization’s deputy director from 2007-2013 with founding director Ernest Moniz. His research is focused on pathways to a low-carbon energy future. Armstrong has been elected into the American Academy of Arts and Sciences (2020) and the National Academy of Engineering (2008). He received the 2006 Bingham Medal from the Society of Rheology, which is devoted to the study of the science of deformation and flow of matter, and the Warren K. Lewis Award and the Professional Progress Award in 1992, both from the American Institute of Chemical Engineers. Armstrong was a member of MIT’s Future of Natural Gas and Future of Solar Energy study groups. He advised the teams that developed MITEI’s most recent reports, The Future of Nuclear Energy in a Carbon-Constrained World (2018) and Insights into Future Mobility (2019), and is co-chairing the new MITEI study, The Future of Storage. He co-edited Game Changers: Energy on the Move with former U.S. Secretary of State George P. Shultz. |
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Dr. Ian Scott CEO Moltex Energy
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Stable Salt Reactors - A New Platform Technology in Nuclear Fission
8:20-9:10, August 13
Stable Salt Reactors (SSR’s) are a new platform technology in nuclear fission. They are based on the globally patented breakthrough in understanding that nuclear reactors could gain all the enormous intrinsic safety and cost benefits of using molten salt fuel by simply putting that molten fuel into essentially conventional fixed fuel assemblies. This eliminates at a stroke the new hazards, and hence costs, of having to pump that intensely radioactive fuel around a chemical engineering plant that would be extraordinarily challenging to maintain and which would require a certainty of not leaking never achieved before in such a plant. The first reactor to be developed within this platform is the SSR-W where the W stands for wasteburner. It is a fast spectrum reactor fueled with a mixture of higher actinides extracted from spent conventional nuclear fuel. Very low purity of those higher actinides is acceptable in the SSR-W fuel, indeed it is preferred for non-proliferation reasons. As a result, a radically simpler process for extracting those actinides from spent fuel can be used. This process (WATTS, Waste To Stable Salts) has been patented and is now under development in Canada in conjunction with Canadian Nuclear Laboratories. The “First of a Kind” SSR-W, a 300MWe single unit, is being developed in conjunction with New Brunswick Power in Canada with the intention of deployment at the Point Lepreau reactor site before the end of the decade. Canada would then become the center of the global export market for this reactor. The design is part way through the Canadian Nuclear Safety Commission’s Vendor Design Review. This early regulatory engagement has been of great value in identifying and, to the extent possible, eliminating design factors that might slow the licensing of the reactor. New details of the design following this regulatory engagement will be shared during this talk. |
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Prof. Yi Cui Stanford University |
Nanoscale Design for High Energy Batteries 9:10-10:00, August 13
The demand from portable electronics and electric vehicles call for high energy batteries beyond the current lithium ion batteries. Here I will present our recent progress on materials and interfacial design to enable much high energy density batteries, which include 1) High capacity Si anodes with success in commercialization; 2) Li metal anodes: host and interface design to over the lithium metal dendrite formation and interfacial instability; 4) Sulfur as an earth abundant material for high capacity cathodes; 4) Our pioneering development of cryogenic electron microscopy for understanding the battery materials and solid-electrolyte interphase down to atomic scale resolution. |
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Prof. Daniel Kammen University of California, Berkeley |
The Green Energy Revolution is Finally Here
10:25-11:15, August 13
COVID-19 has altered energy consumption patterns worldwide, and highlighted both inequality and systemic racism, including in the energy field. A clean energy research and deployment agenda can greatly facilitate the movement to a just and inclusive society. In this work I highlight both theoretical and implementation strategies that are built around key synergies between clean energy and water, and social justice. This nexus opens important new avenues for use-inspired basic and applied research. In this paper we draw on research in the U.S., and from East Africa and Southeast Asia, where the majority of the roughly 800 million people without electricity access live today. In the United States, California, New Mexico, and New York (over 40% of national GDP) have committed to a 100% renewable energy future (by ~ 2045). Overseas an increasing number of nations and subnational regions have committed to this goal. In exploring the synergies between a green economy and social equity, we find that it is either impossible, or far more difficult and costlier, to design, socialize, and implement the needed energy transition to meet climate goals without making equity a co-equal goal. We draw on cases ranging from solar energy and electric vehicle deployment in low-income communities, to promoting social justice and economic opportunities for women and oppressed minority groups through distributed clean-energy powered mini-grids, to the integration of climate friendly housing and transportation policies. This work provides strong evidence of the economic benefits of integrated design of infrastructure and policy around the co-benefits of between social and environmental goals. |
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Dr. Marcia McNutt President The U.S. National Academy of Sciences |
Energy Transformations to Meet the Climate Challenge: Advice from the National Academies
11:15-12:05, August 13
For decades, scientists have understood that the key to maintaining a stable climate for Earth is to reduce, if not eliminate, fossil fuel emissions from the energy sector. Some fraction of emissions reductions (~30%) can already be achieved with existing technology – the “low-hanging fruit.” Another 50% of emissions reductions can be accomplished with known solutions, but will require much more effort. The fact that such solutions are not yet widely deployed presents interesting questions for social scientists, including economists, political scientists, and behaviorists. A complete solution to the last 20% of the emissions problem will require overcoming significant challenges, but there are some game-changers on the horizon that can meet our current demands. |
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Moderators |
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Prof. Ju Li Massachusetts Institute of Technology |
Prof. Michael J. Aziz Harvard University |
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Energy Policy 13:10-15:10, August 13 |
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Dr. Lourdes Melgar Massachusetts Institute of Technology
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Prof. Robert Lowe University College London Lost Generation: System Resilience and Flexibility
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Dr. Rachel Meidl Rice University
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Moderator Prof. Sarah Marie Jordaan Johns Hopkins University
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Renewable Electricity Generation and Smart Grids 15:35-17:35, August 13 |
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Prof. Lambertus Hesselink Stanford University |
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Prof. David Laverty Queen’s University Belfast Open Source Measurement Technologies for Electrical Distribution Networks
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Prof. Magnus Korpås Norwegian University of Science and Technology |
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Moderator Dr. Audun Botterud Massachusetts Institute of Technology
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Innovation 18:30-20:30, August 13 |
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Prof. Z. Jason Ren Princeton University Using Low-Cost Renewable Energy for Carbon Valorization
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Prof. Melanie Tetreault-Friend McGill University CSPonD: Demonstration of a 25 kW dispatchable solar power system
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Prof. Jinhui Li Tsinghua University
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Moderator Dr. Emre Gencer Massachusetts Institute of Technology
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Carbon Capture, Utilization, Storage 8:00-10:00 am, August 14 |
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Dr. Sergey Paltsev Massachusetts Institute of Technology
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Prof. Christian Lastoskie University of Michigan Decarbonizing Freight Transport: Mobile Carbon Capture from Heavy Duty Vehicles
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Prof. Betar Gallant Massachusetts Institute of Technology Opportunities for intersection between electrochemistry and CO2 sequestration
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Moderator Prof. Hadi Hajibeygi Delft University of Technology
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Oil and Gas Decarbonization 10:25-12:25 am, August 14 |
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Dr. Murray Reed CEO, QLM Technology Single-photon Lidar gas imagers for practical and widespread continuous methane monitoring
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Prof. Robert Kleinberg Columbia University Technological Innovation and Environmental Regulation: Methane Emissions from Oil & Gas Facilities
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Prof. Mark Zoback Stanford University Oil and Gas in the Era of Decarbonization
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Moderator Dr. Drew Pomerantz Schlumberger
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Energy Storage 13:10-15:10, August 14 |
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Prof. Ludger Josef Fischer Lucerne University of Applied Sciences and Arts Sensible & Seasonal Thermal Energy
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Dr. Said Al-Hallaj CEO, All Cell Technologies LLC Recent Developments in Li-ion Battery Pack Thermal Safety
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Prof. Simona Onori Stanford University |
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Moderator Prof. Xin Li Harvard University
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Hydrogen 15:35-17:35, August 14 |
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Prof. Reinhard Haas Vienna University of Technology Prospects and Impediments for a sustainable hydrogen-based energy system
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Prof. Jeffrey Reed University of California Irvine Prospects for Achieving a Self-Sustaining, Large-Scale Renewable Hydrogen Sector in California
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Dr. Chukwunwike Iloeje Argonne National Laboratory Implications of power-to-gas energy storage for CO2 mitigation and enhanced energy grid flexibility
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Moderator Prof. Buz Barstow Cornell University
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Promoting Innovation and Entrepreneurship for Economic Nuclear Energy (Pre-recorded) *Please click title to view video |
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Dr. Ashley Finan The Director of the National Reactor Innovation Center
Ashley Finan is the Director of the National Reactor Innovation Center. In this role, she is responsible for overseeing initiatives to provide resources to reactor innovators to test, demonstrate, and conduct performance assessments to accelerate the deployment of advanced nuclear technology concepts. |
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Moderators |
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Dr. Cheng Sun Senior Staff Scientist Idaho National Laboratory |
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Prof. Koroush Shirvan Massachusetts Institute of Technology
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Developing Healthy Innovation and Economy Ecosystem for Clean Energy (Pre-recorded) *Please click title to view video |
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Dr. Ralph Izzo Chairman and CEO of Public Service Enterprise Group Inc. (PSEG)
Ralph Izzo has been chairman and chief executive officer of Public Service Enterprise Group Incorporated (PSEG) since April 2007. Mr. Izzo is a well-known leader within the utility industry, as well as the public policy arena. He is frequently asked to testify before Congress and speak to organizations on matters pertaining to national energy policy. |
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Moderator |
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Prof. Michael Golay Massachusetts Institute of Technology |
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Energy Storage *Please click title to view video |
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I.D. |
Authors |
Title |
36 |
Sonja Wogrin, Diego Tejada-Arango |
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41 |
Laisuo Su and B. Reeja Jayan |
Surface engineering of battery cathodes via chemical vapor deposition polymerization |
46 |
Nan Zhang, Benjamin Leibowicz and Grani Hanasusanto |
Optimal residential battery storage operations using robust data-driven dynamic programming |
62 |
Jia Liu, Xi Chen and Hongxing Yang |
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76 |
Chen Wang, Xiaosong Zhang, Tongtong Zhang and Xiaohui She |
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78 |
Kyle Smith, Md Abdul Hamid, Venkat Pavan Nemani and Yite Wang |
Exploring multi-scale interactions in Redox flow batteries for resilient energy storage |
88 |
Somesh Mohapatra, Bo Qiao, Ryoichi Tatara, Jeffrey Lopez, Graham M. Leverick, Yoshiki Shibuya, Yivan Jiang, Jeremiah A. Johnson, Yang Shao-Horn and Rafael Gómez-Bombarelli |
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97 |
Hélène Pilorgé, Noah McQueen, Peter Psarras, Caleb M. Woodall and Jennifer Wilcox |
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125 |
Kara Rodby and Fikile Brushett |
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169 |
Jiachen Mao, Mehdi Jafari and Audun Botterud |
The role of battery energy storage in decarbonization of distributed power systems |
172 |
Keena Trowell, Jocelyn Blanchet, Sam Goroshin, David Frost and Jeff Bergthorson |
Supercritical metal-water reactions for in-situ hydrogen production |
175 |
Shan Tian, Haoyang He, Oladele Ogunseitan, Julie Schoenung, Scott Samuelsen and Brian Tarroja |
Environmental benefit-detriment thresholds for flow battery energy storage systems |
178 |
Chen Wang, Nevzat Akkurt and Xiaohui She |
Techno-economic study on compact liquid air energy storage with pressurized cold recovery |
185 |
Hilary Johnson and Alexander Slocum |
Convolutional energy efficiency metric to identify pumping system opportunities |
208 |
Doris Oke, Jennifer Dunn, Troy Hawkins, Doug Longman, Hao Cai, Ram Vijayagopal, Lauren Sittler, Emily Newes, Aaron Brooker and Scott Curran |
Biofuels with tailored properties (A) for hybrid and plug-in electric vehicles (B) |
218 |
Maha N. Haji, S. John Saidi and Alexander H. Slocum |
Analysis of Integrated Pumped Hydro Reverse Osmosis Systems for Iran |
246 |
Yasser Ashraf Gandomi, Irina Krasnikova, Mariam Pogosova, Sergey Ryazantsev, Keith Stevenson and Fikile Brushett |
Lithium-conducting Ceramic Membranes for Non-aqueous Redox Flow Batteries |
252 |
Alexis Fenton Jr and Fikile Brushett |
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296 |
Kevin Tenny, Antoni Forner-Cuenca, Yet-Ming Chiang and Fikile Brushett |
Understanding physical characteristics of different weave patterns on Redox flow battery operation |
351 |
Daxian Cao, Yubin Zhang, Yifei Mo, Yan Wang and Hongli Zhu |
Electricity Decarbonization, Power System Flexibility, Smart Grids *Please click title to view video |
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I.D. |
Authors |
Title |
25 |
Yifei Wang and Yang Cao |
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53 |
Pengshun Li, Yi Zhang and Yi Zhang |
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61 |
Tyler Ruggles and Ken Caldeira |
Analysis of reliability & capacities in electric systems with substantial renewable power |
67 |
Destenie Nock, Kavita Surana and Sarah Jordaan |
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68 |
Kavita Surana and Sarah M. Jordaan |
The climate mitigation opportunity behind global power transmission and distribution |
95 |
Gustavo Vianna Cezar, Thomas Navidi, Elizabeth Buechler and Ram Rajagopal |
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124 |
Andy Filak, John Reeves, Robert Eykhout, Charles Smith, John Brown and Andrew Zalay |
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132 |
Paolo Giani, Stefano Castruccio, Marc Genton and Paola Crippa |
Technical and climate implications of the deployment of large-scale wind farms |
150 |
Daniel Schwabeneder, Carlo Corinaldesi, Georg Lettner and Hans Auer |
Business cases of flexibility provision of energy aggregators operating in multiple energy markets |
157 |
Mirko Schäfer, Bo Tranberg, Dave Jones and Anke Weidlich |
Tracing carbon dioxide emissions in the European electricity markets |
184 |
Sayanti Mukherjee |
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198 |
Rabab Haider and Anuradha Annaswamy |
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207 |
Dominic Davis and Michael Brear |
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221 |
Miguel Gijon-Rivera, Carlos Rivera-Solorio, Iván Patricio Acosta Pazmiño and Jose Ignacio Huertas Cardozo |
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256 |
Jacques de Chalendar and Sally Benson |
Recent results from energy and emissions tracking in the U.S. electricity system |
307 |
Angineh Zohrabian and Kelly Sanders |
Demand response in water supply and wastewater systems: what are the opportunities? |
360 |
Prakash Chinnakutti |
Design and Analysis of Uninterrupted Power Grid using hybridnation of Sustainable Energies |
Thermal *Please click title to view video |
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I.D. |
Authors |
Title |
121 |
Hannah Doran, Gioia Falcone and David Sanderson |
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155 |
Charles Forsberg |
Base-load nuclear systems for variable electricity and heat with heat storage |
166 |
Farzin Golzar and Semida Silveira |
Implications of improved heat recovery in buildings – a case study of Stockholm |
204 |
Charles Forsberg and Bruce Dal |
Replacing liquid fossil fuels with liquid biofuels from large-scale nuclear biorefineries |
205 |
Xinyi Li, Ting Ma, Qiuwang Wang, Terrence Simon and Tianhong Cui |
Investigation on phase-change thermal management based on a pore-scale lattice Boltzmann model |
211 |
Daniel Halmschlager, Anton Beck, Martin Koller, Sophie Knöttner and Rene Hofmann |
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220 |
Tongtong Zhang, Xiaohui She and Yulong Ding |
Cryogenic thermoelectric generation with cold recovery from liquid air energy storage |
312 |
Lingshi Wang, Xiaobing Liu, Kyle Gluesenkamp and Zhiyao Yang |
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315 |
Brian Bischoff, Lingshi Wang, Xiaobing Liu, Van Baxter and Kyle Gluesenkamp |
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323 |
Enrique Velez, W. Robb Stewart, Ralph Wiser and Koroush Shirvan |
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333 |
Shiddartha Paul, Daniel Schwen, Michael Short and Kasra Momeni |
Ni/Inconel multimetallic layered composites for fluoride-salt high-temperature reactor |
347 |
Di Huang, Danjie Mai, Fulong Zhao and Sichao Tan |
Study on heat transfer characteristics of space liquid droplet radiator |
352 |
Liang Jun Zheng, Dong Hee Kang, Na Kyong Kim, Young Jik Youn and Hyun Wook Kang |
Innovation Now *Please click title to view video |
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I.D. |
Authors |
Title |
17 |
Han N. Huynh and V. Faye McNeill |
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40 |
Rina Tannenbaum |
MOF-catalyzed hydrodeoxygenation of biomass to renewable fuels |
69 |
Margaret Smith and Chukwunwike Iloeje |
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77 |
Pietro Bartocci, Lorenzo Riva, Henrik Kofoed Nielsen, Qing Yang, Haiping Yang, Oyvind Skreiberg, Liang Wang, Giulio Sorbini, Eid Gul, Marco Barbanera and Francesco Fantozzi |
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83 |
Mansour Tijani, Moheddin Elgarni and Nader Mahinpey |
mixed metal oxides in chemical looping combustion: reactivity, stability and pilot studies |
89 |
Hyoyoung Lee |
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90 |
Tuhin Suvra Khan, Fatima Jalid, Imteyaz Alam and Md. Ali Haider |
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111 |
Predrag Spasojevic |
Direct renewable energy application to hybrid water filtration and electricity generation facility |
141 |
Bruno Cossu |
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183 |
Conrad Allan Jay Pantua, John Kaiser Calautit and Yupeng Wu |
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213 |
Sreedath Panat and Kripa Varanasi |
electrostatic dust removal from solar panels for enhanced operational efficiency |
219 |
Sergio Granados-Focil, Diana De Porcellinis, Michael J.Aziz |
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232 |
Alexa Schmitz, Brooke Pian, Sean Medin, Esteban Gazel and Buz Barstow |
Extracting rare earth elements with engineered microorganisms for sustainable energy |
245 |
Xinba Li, Panagiotis Mitsopoulos, Yue Yin and Malaquias Peña |
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264 |
Kangpyo So, Penghui Cao, Yang Yang, Jong Gil Park, Mingda Li, Long Yan, Jing Hu, Mark Kirk, Meimei Li, Young Hee Lee, Michael Short, Ju Li |
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272 |
Farshid Salimijazi, Annette Rowe, Leah Trutschel and Buz Barstow |
Engineered biological energy storage system: A path for sustainable energy |
275 |
Sonal Thengane, Jasmina Burek, Kevin Kung, Daniel Sanchez, Ahmed Ghoniem |
A LCA of biomass torrefaction in inert and partially oxidative conditions |
311 |
Robert Wilson and Matthew Shoulders |
Direct air CO2 capture through biocatalysis: Tools from photosynthesis |
313 |
Lingshi Wang, Xiaobing Liu and Bamdad Bahar |
Perforamcne analysis of a membrane-based ionic liquid desiccant (ILD) dehumidifier |
321 |
Neal Trautman, Ali Razban, Jie Chen |
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330 |
Hyun-Kyu Choi and Joseph Kwon |
Model-based control of alkaline pretreatment for enhanced cellulose accessible surface area |
331 |
Borui Cui, Jin Dong, Jeffery Munk, Jian Sun, Teja Kuruganti |
Battery-equivalent model and load flexibility analysis of commercial refrigeration system |
340 |
Robert Schuetzle and Elizabeth Myers |
Producing net zero and low carbon liquid fuels from carbon dioxide or flare gas |
345 |
Sonit Balyan, Tuhin S. Khan, Kamal K. Pant and M. Ali Haider |
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353 |
Ashutosh Rai, Rory Monaghan, Dominic Joyce |
Waste to wheels: A circular economy approach of decarbonizing forestry timber fleets |
359 |
Xiangkun Elvis Cao, Tingwei Liu, Tao Hong and David Erickson |
Geoenergy Development and Emission Mitigation *Please click title to view video |
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I.D. |
Authors |
Title |
24 |
Wennan Long and Adam Brandt |
|
51 |
Jeffrey Rutherford and Adam Brandt |
Closing the gap: Investigating the persistent underestimation of methane inventories |
100 |
Dandina Rao |
|
101 |
Dandina Rao and Bikash Saikia |
Gas-assisted gravity drainage – A new technology to reduce industrial CO2 emissions |
123 |
Daniel J. Varon, Jason McKeever, Dylan Jervis, Joannes D. Maasakkers, Sudhanshu Pandey, Sander Houweling, Ilse Aben, Tia Scarpelli and Daniel J. Jacob |
Satellite discovery of anomalously large methane point sources from oil/gas production |
148 |
Edoardo Rossi, Benjamin M. Adams, Daniel Vogler, Philipp Rudolf von Rohr, Hans-Olivier Schiegg and Martin O. Saar |
Advanced drilling technologies to improve the economics of deep geo-resource utilization |
151 |
Scholastica N. Emenike and Duabari S. Aziaka |
Optimization of gas loss and CO2 emission during disruption on a natural gas network |
215 |
Benjamin Adams, Martin Saar, Jeffrey Bielicki, Jonathan Ogland-Hand and Mark Fleming |
|
280 |
Elena Berman and Steven Deiker |
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294 |
Saira, Emmanuel Ajoma and Furqan Le-Hussain |
Improving the technical feasibility of CO2 storage in oil reservoirs |
303 |
Kaiyu Cao, Prashanth Siddhamshetty, Yuchan Ahn, Mahmound El-Halwagi and Joseph Kwon |
|
305 |
Jyoti Phirani and Neelam Choudhary |
Quantifying uncertainty in methane hydrate reservoir simulations |
310 |
Ritchie Stagg |
|
343 |
Jiang Bian, Xuewen Cao, Dan Guo, Wenjuan Sun, Xiaodan Song and Wenming Jiang |
Treatment of natural gas with varying CO2 concentration using supersonic flows |
364 |
Renfeng Yang |
Difference analysis on steady-state and unsteady-state relative permeability curves |
365 |
Anand Pradhan |
Energy Policy and Economics *Please click title to view video |
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I.D. |
Authors |
Title |
30 |
Shuchen Cong, Destenie Nock and Ed Rubin |
Quantifying the carbon footprint of a metropolitan food system: methods and uncertainties |
37 |
S.E. Erturan, H. M. Cekirge and R. S. Thorsen |
|
50 |
Holger Schloer and Sandra Venghaus |
The distribution of a global public bad and the key sectors of sustainable development |
55 |
Boling Zhang, Xiaoyi Yang and Ruipeng Tong |
|
64 |
Ross Baldick |
|
85 |
David Timmons and Rob Terwel |
Technical and economic feasibility of carbon-neutral aviation |
99 |
Ehsan Vahidi, Randolph Kirchain and Jeremy Gregory |
Potential greenhouse gas mitigation in the United States building sector |
109 |
William French |
|
139 |
Thomas Longden, Fiona Beck and Frank Jotzo |
Assessing the long term costs of blue and green hydrogen under zero-emissions objectives |
160 |
Andrew Ruttinger, Sakineh Tavakoli and Sarah Jordaan |
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163 |
Nicola Cantore, Massimiliano Cali, Leonardo Iacovone, Mariana Pereira - Lopez, Giorgio Presidente, Juergen Amann, Valentin Todorov and Charles Fang Chin Cheng |
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164 |
Eduardo Mello and Peter Bauer |
On energy optimal speed trajectories in urban traffic: implementation options |
168 |
Kasper Emil Thorvaldsen, Magnus Korpås and Karen Byskov Lindberg |
|
180 |
Amber Fong and G. Scott Samuelsen |
Renewable hydrogen production pathways from biomass via anaerobic digestion for California |
181 |
Olga Savchuk, Jan Willem Turkstra, Irin Minne Bouwman, Henri C. Moll |
User-centered design and evaluation of decentralized energy systems |
182 |
Sandra Venghaus |
|
202 |
Jennifer Morris, Mathilde Fajardy, Howard Herzog, Niall Mac Dowell and Sergey Paltsev |
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227 |
Renee Obringer, Sayanti Mukherjee and Roshanak Nateghi |
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247 |
Shailesh Wasti, Pablo Ubiratan, Shahab Afshar and Vahid Disfani |
Distributed dynamic economic dispatch using alternating direction method of multipliers |
306 |
Raphael Wu and Giovanni Sansavini |
Balancing costs, emissions and security in Active Distribution Networks |
314 |
Razi Nalim and Bhumika Sule |
Clean pathways from fossil fuels to the hydrogen-carbon economy |
327 |
Eric Boria, Anton Rozhkov, Abolfazl Seyrfar and Ning Ai |
|
328 |
John Schramski, Jasmine Badiee and Trevor Richards |
|
336 |
Ettore Bompard, Tao Huang, Filippo Spertino, Alessandro Ciocia, Audun Botterud and Mehdi Jafari |
Assessing the role of RES in energy transition: methodologies and tools |
E-Poster Track 1 *Please click title to view poster |
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I.D. |
Authors |
Title |
18 |
Xiangyu Gao, Lin Zhang, Zhuo Xu and Fei Li |
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31 |
Wenfeng Liu, Chuanyi Tang, Xiaolun Yan, Huazhi Xin, Xin Liu and Xubin Zhao |
|
70 |
Fang Liu |
Structure and control co-optimization for a CO2 heat pump with thermal storages |
72 |
Feng Wang, Lin Zhang and Shaohua Jiang |
Ultra-High phosphorus-doped wood-derived carbon enabling high-capacity for supercapacitor |
84 |
Jingqi Tan, Jiaqi Luo, Jianjian Wei and Tao Jin |
|
142 |
Tongtong Zhang, Xiaohui She and Yulong Ding |
Liquid air energy storage for shifting the nitrogen demand of the ammonia synthesis system |
159 |
Zhifeng Tang, Huihua Feng and Yao Wang |
Experiment evaluation on starting process of opposed-piston free-piston linear generator |
171 |
Afnan Mashat, Nan Shi and Amr Abdel-Fattah |
Autonomous nano-capsules for subsurface remediation and energy harvesting applications |
190 |
Ying Zhuang, Wei Pei, Li Kong and Shizhong Zhang |
|
195 |
Haitao Zhao |
Enabling the catalytic oxidation of Hg0 by O2 via the development of novel CeO2-MoO3/γ-Al2O3 catalysts and its mechanism |
201 |
Yakun Liu, Earle Williams, Joan Montanyà, Zhengcai Fu, Qibin Zhou, Anirban Guha, Ryan Said, Jeff Lapierre, Yeqing Wang, Haitao Zhao, Stan Heckman and Michael Stock |
Global lightning environment for wind turbines in wind energy harvesting |
230 |
Yangyuan Ji, Yuhang Fang, David Warsinger and Jeffrey Moran |
Photocatalytic self-propelled micromotors for acceleration of advanced oxidation processes |
248 |
Anand Selveindran |
CO2-EOR and carbon storage in a mature Indian oilfield: from laboratory study to pilot design |
255 |
Bo Li, Daniel Kammen, Minyou Chen and Ziming Ma |
Offshore wind power in China: remake mix and structure of power system |
344 |
Shun Liu |
Test experiment of minimum miscibility composition of hydrocarbon gas drive in abnormal high temperature and pressure well |
346 |
Kuanrong Qiu, Hajo Ribberink and Evgueniy Entchev |
Advantage and feasibility of wireless charging electric bus systems |
348 |
Kuanrong Qiu and Evgueniy Entchev |
Biofuel-fired ORC-based micro-CHP and working fluid selection |
350 |
Tiancheng Ji, Peixue Jiang and Ruina Xu |
|
361 |
Singaram Lakshmanan and Kannaiyan Gnanavel |
|
366 |
Wei Du, Qi Zhou, Kaina Qiu, Xiaotian Mu, Honglei Ding and Weiguo Pan |
Numerical simulation and response surface analysis on combustion optimization of coal-fired boiler |
367 |
Jiwei Wu, Hualin Wang, Yuan Huang, Haitao Lin and Qiang Fu |
Hydrocyclone micrometer sized separation technology for exploitation of natural gas hydrate |
368 |
Prakash Chinnakutti and Dr Gnanavel Kanniayan |
Design and analysis of spinning reserve gravity hydro energy storage technology |
369 |
Qingzi Zhu, Xu Tan, Mario Caccia, Mehdi Peshahang, Bamdad Barari, Caleb Amy, Colin C. Kelsall, Kenneth Sandhage and Asegun Henry |
ZrC/W-based Printed Circuit Heat Exchanger for Generation 3 CSP |
370 |
Qingzi Zhu, Bamdad Barari, Mehdi Peshahang, Mario Caccia, Xu Tan, Michael Bichnevicius, Kenneth Sandhage and Asegun Henry |
Hydraulics performance of a 2MW molten salt-sCO2 PCHE |
E-Poster Track 2 *Please click title to view poster |
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I.D. |
Authors |
Title |
7 |
Cong Zhang, Hairong Li, Ke Peng, Junge Li and Shunqi Zeng |
Emergency control method of industrial park integrated energy system based on energy conversion |
54 |
Yunqi Wang, Jing Qiu, Xiao Han, Lingling Sun, Hengrong Zhang and Yuan Ma |
|
73 |
Tanveer Hussain, Sid Suryanarayanan and Sm Shafiul Alam |
|
94 |
Jinyu Chen, Haoran Zhang, Wenjing Li, Yi Sui, Xuan Song, Ryosuke Shibasak |
An investigation on the emission performance of ride-hailing |
98 |
Drake Hernandez and Emre Gencer |
|
143 |
Yang Shichun, Feng Song, Xie Hehui, Liu Jian, Chen Fei and Hua Yang |
|
147 |
Shichun Yang, Hehui Xie, Fei Chen, Jian Liu, Song Feng and Junbing Zhang |
|
158 |
Wen-Long Shang, Huibo Bi and Yanyan Chen |
Environmental benefits of bike sharing based on limited trip data |
162 |
Tianyu Yang, Qinglai Guo and Hongbin Sun |
A three-stage incentive scheme for integrated energy-traffic systems using deep Q-learning network |
165 |
Abdullah Algarni, Sid Suryanarayanan and Howard Jay Siegel |
|
170 |
Kamini Singh and Anoop Singh |
E-mobility: A shifting paradigm of consumers towards ev-prosumers |
209 |
Zahra Heydarzadeh, Michael Mackinnon, Clinton Thai, Jeffrey Reed and Jack Brouwer |
|
223 |
Juanjuan Hou, Lancui Liu, Yusheng Liu and Jiutian Zhang |
Study on the potential and path of collaborative governance of energy and water in China |
270 |
Yuanda Hong, Wu Deng, Ezeh Collins, Sung-Hugh Hong, Haitao Zhao and Zhenhua Rui |
|
322 |
Hongliang Sun, Yiwei Shao, Yulong Zhao |
Microstructured graphene anode fabrication for microbial fuel cell using light |
325 |
Abolfazl Seyrfar, Hossein Ataei and Sybil Derrible |
|
355 |
Tong Xu and Longyu Shi |
|
358 |
Behzad Golparvar and Ruo-Qian Wang |
|
362 |
Wenjing Lyu and Jin Liu |
Artificial intelligence in the energy sector |