Empower industry and other large energy users to be globally competitive by obtaining the highest value from available energy and water resources.
|Paul Sheaffer||PSheaffer@lbl.gov||(703) 689-1202|
|Peter Therkelsen||PTherkelsen@lbl.gov||(510) 486-5645|
|Prakash Rao||PRao@lbl.gov||(510) 486-4410|
|Arian Aghajanzadeh||AAghajanzadeh@lbl.gov||(510) 495-2145|
|Bunmi Adesola||BAdesola@lbl.gov||(510) 486-6966|
|Darren Sholes||DSholes@lbl.gov||(510) 486-5627|
|Jingjing Liu||JingjingLiu@lbl.gov||(510) 486-5410|
Lawrence Berkeley National Laboratory (Berkeley Lab) conducts research in collaboration with governments and industry to more effectively and productively use energy, both in the US and globally. We accomplish this through developing energy management, energy efficiency and demand management practices, standards, policies, analysis, and technologies.
Developing and analyzing standards, programs, workforce qualifications and implementation models for energy management business practices, especially ISO 50001 standard and Superior Energy PerformanceTM.
P. Therkelsen, R. Sabouni, A. McKane, P. Scheihing. (2013). Assessing the Costs and Benefits of the Superior Energy Performance Program, 2013 ACEEE Summer Study on Energy Efficiency in Industry, Niagara Falls, NY
A. McKane, P. Scheihing, R. Williams. (2007). Certifying Industrial Energy Efficiency Performance: Aligning Management, Measurement, and Practice to Create Market Value. LBNL-63413
Assessing the impacts of combustion systems fueled with conventional and next-generation fuels, and developing low emission combustion systems with increased system efficiency for industrial applications.
P. L. Therkelsen and J. Enrique Portillo and D. Littlejohn and S. M. Martin and R. K. Cheng. (2013). "Self-induced Unstable Behaviors of CH4 and H2/CH4 Flames in a Model Combustor with a Low-swirl Injector". Combustion and Flame, Vol. 160, pp. 307-321
D. W. Davis, P. L. Therkelsen, D. Littlejohn, R. K. Cheng. (2013). Effects of hydrogen on the thermo-acoustics coupling mechanisms of low-swirl injector flames in a model gas turbine combustor. Proceedings of the Combustion Institute, Vol. 34, Iss. 2, pp. 3135-3143
Developing tools, market assessments, and strategies for quantifying and educating industry on energy system efficiency (i.e. pumps, fans, compressed air, process heat, steam).
P. Therkelsen, A. McKane. "Implementation and rejection of industrial steam system energy efficiency measures." Energy Policy, 06/2013, Vol. 57, pp. 318-328
A. McKane, A. Hasanbeigi. "Motor systems energy efficiency supply curves: A methodology for assessing the energy efficiency potential of industrial motor systems." Energy Policy, 10/2011, Vol. 39, Iss. 10, pp. 6595-6607
Demonstrating and assessing demand response strategies and opportunities; creating models to understand load profiles, demand response availability, value to system operators, and deployment tools.
D. Olsen, N. E. Matson, M. D. Sohn, C. Rose; J. H. Dudley, S. Goli, S. Kiliccote, M. Hummon, D. Palchak, P. Denholm, J. Jorgenson, O. Ma. Grid Integration of Aggregated Demand Response, Part 1: Load Availability Profiles and Constraints for the Western Interconnection, 09/2013. LBNL-6417E
Thompson, L., A. B. Lekov, A. T. McKane, and M. A. Piette. (2013). Opportunities for Open Automated Demand Response in Wastewater Treatment Facilities in California - Phase II Report. San Luis Rey Wastewater Treatment Plant Case Study. LBNL-3889E
Assessing technologies and practices for improving industrial energy efficiency, operations, productivity, and emissions; modeling energy use for forecasting, scenario analysis and economy-wide life-cycle impacts; developing and evaluating energy efficiency policy and programs.