Research Themes +
Energy Technologies Area (ETA) researchers are continually building on the strong scientific foundation we have developed over the past 50 years. We address the world’s most pressing climate challenges by bringing to market energy-efficient innovations across the buildings, transportation, and industrial sectors. ETA is at the forefront of developing better batteries for electric vehicles; improving the country's aging electrical grid and innovating distributed energy and storage solutions; developing grid-interactive, efficient buildings; and providing the most comprehensive market and data analysis worldwide for renewable technologies like wind and solar.
Strategic Initiatives +
The Energy Technologies Area (ETA) Strategic Plan is the guiding force for our research and development for the next ten years. It clearly charts a path toward clean-energy solutions and focuses on five detailed Strategic Initiatives. The Plan provides an in-depth look at how ETA is accelerating research to provide affordable, clean energy to all while accomplishing deep, economy-wide decarbonization, looking to avoid a rise in global average temperature while simultaneously developing solutions to increase humanity's resilience to extreme weather volatility.
Publications
News +
For media inquiries,
please contact ETA
Interim Communications Manager
Kiran Julin

kjulin@lbl.gov
About Us +
The Energy Technologies Area (ETA) is unique in translating fundamental scientific discoveries into scalable technology adoption. Our approach combines an understanding of the marketplace and the role of state and federal regulation and policies. ETA's research drives real-world, practical results that affect and improve the everyday lives of Americans and those across the globe. Saving energy and battling the Climate Crisis are key to the foundation of our research, which is driven by technoeconomic analysis and in-lab experimentation and discovery.

Publications

Publications by Research Area

Demand Response

Electricity Markets & Policy

Energy Efficiency

Industrial Energy Analysis

Renewable Energy

Sustainable Energy & Environmental Systems

Publications by Division

Building Technology (BTUS)

Energy Analysis (EAEI)

Energy Storage (ESDR)

2023

Ahn, Juhyeon, Raynald Giovine, Vincent C Wu, Krishna Prasad Koirala, Chongmin Wang, Raphaële J Clément, and Guoying Chen."Ultrahigh‐Capacity Rocksalt Cathodes Enabled by Cycling‐Activated Structural Changes."Advanced Energy Materials 13.23 (2023). DOI

Crafton, Matthew J, Tzu-Yang Huang, Yuan Yue, Raynald Giovine, Vincent C Wu, Chaochao Dun, Jeffrey J Urban, Raphaële J Clément, Wei Tong, and Bryan D McCloskey."Tuning Bulk Redox and Altering Interfacial Reactivity in Highly Fluorinated Cation-Disordered Rocksalt Cathodes."ACS Applied Materials & Interfaces 15.15 (2023) 18747 - 18762. DOI

2022

Ahn, Juhyeon, Yang Ha, Rohit Satish, Raynald Giovine, Linze Li, Jue Liu, Chongmin Wang, Raphaële J Clément, Robert Kostecki, Wanli Yang, and Guoying Chen."Exceptional Cycling Performance Enabled by Local Structural Rearrangements in Disordered Rocksalt Cathodes."Advanced Energy Materials 12.27 (2022) 2200426. DOI

2021

Satish, Rohit, Lennart Wichmann, Matthew J Crafton, Raynald Giovine, Linze Li, Juhyeon Ahn, Yuan Yue, Wei Tong, Guoying Chen, Chongmin Wang, Raphaële J Clément, and Robert Kostecki."Exposure History and its Effect Towards Stabilizing Li Exchange Across Disordered Rock Salt Interfaces."ChemElectroChem 8.20 (2021) 3982 - 3991. DOI

2020

Yue, Yuan, Ning Li, Linze Li, Emily E Foley, Yanbao Fu, Vincent S Battaglia, Raphaële J Clément, Chongmin Wang, and Wei Tong."Redox Behaviors in a Li-Excess Cation-Disordered Mn–Nb–O–F Rocksalt Cathode."Chemistry of Materials 32.11 (2020) 4490 - 4498. DOI

Ji, Huiwen, Jinpeng Wu, Zijian Cai, Jue Liu, Deok-Hwang Kwon, Hyunchul Kim, Alexander Urban, Joseph K Papp, Emily Foley, Yaosen Tian, Mahalingam Balasubramanian, Haegyeom Kim, Raphaële J Clément, Bryan D McCloskey, Wanli Yang, and Gerbrand Ceder."Ultrahigh power and energy density in partially ordered lithium-ion cathode materials."Nature Energy 5.3 (2020) 213 - 221. DOI

Lun, Zhengyan, Bin Ouyang, Zijian Cai, Raphaële J Clément, Deok-Hwang Kwon, Jianping Huang, Joseph K Papp, Mahalingam Balasubramanian, Yaosen Tian, Bryan D McCloskey, Huiwen Ji, Haegyeom Kim, Daniil A Kitchaev, and Gerbrand Ceder."Design Principles for High-Capacity Mn-Based Cation-Disordered Rocksalt Cathodes."Chem 6.1 (2020) 153 - 168. DOI

2018

Kitchaev, Daniil A, Zhengyan Lun, William D Richards, Huiwen Ji, Raphaële J Clément, Mahalingam Balasubramanian, Deok-Hwang Kwon, Kehua Dai, Joseph K Papp, Teng Lei, Bryan D McCloskey, Wanli Yang, Jinhyuk Lee, and Gerbrand Ceder."Design principles for high transition metal capacity in disordered rocksalt Li-ion cathodes."Energy & Environmental Science 11.8 (2018) 2159 - 2171. DOI

Lee, Jinhyuk, Daniil A Kitchaev, Deok-Hwang Kwon, Chang-Wook Lee, Joseph K Papp, Yi-Sheng Liu, Zhengyan Lun, Raphaële J Clément, Tan Shi, Bryan D McCloskey, Jinghua Guo, Mahalingam Balasubramanian, and Gerbrand Ceder."Reversible Mn²⁺/Mn⁴⁺ double redox in lithium-excess cathode materials."Nature 556.7700 (2018) 185 - 190. DOI

2017

Lee, Jinhyuk, Joseph K Papp, Raphaële J Clément, Shawn Sallis, Deok-Hwang Kwon, Tan Shi, Wanli Yang, Bryan D McCloskey, and Gerbrand Ceder."Mitigating oxygen loss to improve the cycling performance of high capacity cation-disordered cathode materials."Nature Communications 8.1 (2017). DOI

Ma, Chuze, Judith Alvarado, Jing Xu, Raphaële J Clément, Moses Kodur, Wei Tong, Clare P Grey, and Ying Shirley Meng."Exploring Oxygen Activity in the High Energy P2-Type Na _0.78Ni _0.23Mn _0.69O ₂Cathode Material for Na-Ion Batteries."Journal of the American Chemical Society 139.13 (2017) 4835 - 4845. DOI