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evolution and revolution

evolution and revolution - sandia.gov · charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second

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Page 1: evolution and revolution - sandia.gov · charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second

evolution and revolution

Page 2: evolution and revolution - sandia.gov · charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second

2016 PEER REVIEW

The 2016 Department of Energy (DOE) Energy Storage Program Peer Review and Update Meeting was held Sept. 25-28 at the Renaissance Washington DC Dupont Circle Hotel, Wash-ington, DC. The three-day event was sponsored by the Dept. of Energy’s Energy Storage Sys-tems (ESS) Program at Sandia National Laboratories.

The theme of the 2016 Peer Review was “iStorage” to reflect the innovative, integrated, intelligent, and international nature of current and developing research and electricity delivery. In research and academia, resources such as the DOE OE’s ESS website and the DOE Global Energy Storage Database provide a basis for continuing and expanding technologies. In delivery and distribution, the theme points to Energy Storage Applications (Apps), Devices (including patents and potentially commercial items), Technologies (varied), and Systems (demonstration and analytics), including:

• Two-way digital communication technology to devices associated with the grid.• Self-healing distribution networks from power disturbance.• Enhanced cyber-security, handling sources of electricity like wind and solar power,

andintegration of electric vehicles onto the grid.

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TABLE OFCONTENTS

DOE/OE Energy Storage Review Overview .................................................................4

Welcome Address Energy Storage Manager’s Statement ..........................................5

Energy Storage Collaborative .......................................................................................6

Agenda Summary Details at a Glance ..........................................................................7

Monday Agenda Quick Summary Table ................................................................... 8-9

Tuesday Agenda Quick Summary Table ................................................................. 10-11

List of Panels .............................................................................................................12-13

Energy Storage Program Patents ................................................................................15

Biographical Notes of Peer Reviewers ...................................................................16-17

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MISSIONOE drives electric grid modernization and resiliency in the energy infrastructure, leading the U.S. Deptment of Energy’s (USDOE) efforts to ensure a resilient, reliable, and flexible electricity system. It accomplishes this mission through research, partnerships, facilitation, modeling and analytics, and emergency preparedness.

VISIONIn OE’s aspirations for the future, OE recognizes that our nation’s sustained economic prosperity, quality of life, and global competitiveness depend on access to an abundance of secure, reliable, and affordable energy resources. Through a mix of technology and policy solutions, OE addresses the changing dynamics and uncertainties in which the electric system will operate. OE leverages effective partnerships, solid research, and best practices to address diverse interests in achieving economic, societal, and environmental objectives.

The Office of Electricity Delivery and Energy Reliability (OE) provides national leadership to ensure that the nation’s energy delivery system is secure, resilient and reliable. OE works to develop new technologies to improve the infrastructure that brings electricity into homes, offices, and factories, and the federal and state electricity policies and programs that shape electricity system planning and market operations. OE also works to bolster the resiliency of the electric grid and assists with restoration when major energy supply interruptions occur.

Page 5: evolution and revolution - sandia.gov · charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second

OCTOBER 9, 2017

The United States Department of Energy (U.S. DOE) is pleased to welcome you to the annual Office of Electricity Delivery and Energy Reliability (OE) Energy Storage Program Peer Review.

HOW HAS DOE’S ENERGY STORAGE PROGRAM EVOLVED?First we developed technologies, then we developed a community of interested people and we are now trying to translate that into industry. Hardly anyone knew what energy storage was. Now, there are energy storage conferences worldwide almost every week of the year. The concept has gotten the attention of not just the US, but also Germany, China, Japan, Korea; everyone is talking about energy storage. WHAT IS THE FUTURE OF ENERGY STORAGE?As technology gets more effective, the cost will decrease, and the safety of the systems will

increase and as we have more applications and more examples, we will refine the regulatory structure and the acceptability of the storage will reach a degree where it will be considered standard. DOE’S annual Peer Review serves as an opportunity for experts to provide analysis and guidance to the researchers who are carrying out DOE-funded projects. The panelists review the projects and use the following criteria:• Completion of basic and applied research• Appropriateness of approaches and methods• Competency of research personnel, and• Adequacy of resources

Dr. Imre Gyuk, Manager Energy Storage ProgramU.S. Department of Energy

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Page 6: evolution and revolution - sandia.gov · charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second

For more than 60 years, Sandia has delivered essential science and technology to resolve the nation’s most challenging security issues. Sandia National Laboratories is operated and managed by Sandia Corporation, a wholly owned subsidiary of Lockheed Martin Corporation. Sandia Corporation operates Sandia National Laboratories as a contractor for the U.S. Department of Energy’s National Nuclear Security Administration (NNSA) and supports numerous federal, state, and local government agencies, companies, and organizations. As a Federally Funded Research and Development Center (FFRDC), Sandia may perform work for industry responding to certain types of federal government solicitations.

A strong science, technology, and engineering foundation enables Sandia’s mission of national security through a capable research staff working at the forefront of innovation, collaborative research with universities and companies, and discretionary research projects with significant potential impact. Sandia’s employees are recognized by their professional peers for their outstanding contributions.

Although most of Sandia’s approximately 10,000 employees work at Sandia’s headquarters in Albuquerque, New Mexico, or at its second principal laboratory in Livermore, California, others are working at various sites in the U.S. and abroad to deliver innovative and reliable solutions in a changing world.

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Dr. Babu ChalamalaManager of the Energy Storage Technology and Systems Department

Mark BucknerGroup Leader, Power and Energy Systems

The Oak Ridge National Laboratory (ORNL) is the nation’s largest multi-program science and technology laboratory. ORNL’s mission is to deliver scientific discoveries and technical breakthroughs that will accelerate the development and deployment of solutions in clean energy and global security. Today, ORNL pioneers the development of new energy sources, technologies, and materials and the advancement of knowledge in the biological, chemical, computational, engineering, environmental, physical, and social sciences.

Originally known as Clinton Laboratories, ORNL was established in 1943 to carry out a single, well-defined mission: the pilot-scale production and separation of plutonium for the World War II Manhattan Project. The laboratory was also highly involved in isotope research and production. From this foundation, ORNL has evolved into a unique resource for addressing important national and global energy and environmental issues.

The EM program has numerous missions and responsibilities at the ORNL campus, and our employees are focused on removing past legacies and improving environmental health and employee safety—allowing modernization of one of DOE’s greatest assets. The main ORNL site occupies approximately 4,470 acres and includes facilities in two valleys: Bethel Valley and Melton Valley.

Dr. Vince SprenkleTechnical Group Manager for the Elec-trochemical Materials and Systems Group

Discovery in action. These words describe what we do at PNNL, which has been operated by Battelle and its predecessors since our inception in 1965. For more than 50 years, we’ve advanced the frontiers of science and engineering in the service of our nation and the world. We make fundamental scientific discoveries that illuminate the mysteries of our planet and the universe. We apply our scientific expertise to tackle some of the most challenging problems in energy, the environment, and national security.

Research is our business. With an unwavering focus on our missions, scientists, and engineers at PNNL deliver science and technology. We conduct basic research that advances the frontiers of science. We translate discoveries into tools and technologies in science, energy, the environment and national security.

For more than four decades, our experts have teamed with government, industry, and academia to tackle some of the toughest problems facing our nation. The result: We’re delivering the science, technology, and leadership our customers need to succeed.

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AGENDA AT A GLANCEMONDAY, OCTOBER 10TH

ALL DAY REGISTRATION

8:00-8:05am Facilitator Opening Introductions

8:05-8:50am

Welcome and DOE Perspective DOE/OE/SNL/PNNL/ORNL Program Overviews

9:00-9:30am AM Break

9:30-10:45am Applied Materials I Presentations

10:45-11:00am Posters Briefs

11:00-12:30pm Lunch On Your Own

12:30-1:45pmEquitable Regulatory Environment/Strategic Outreach Presentations

2:00-2:30pm PM Break

2:30-2:52pm Poster Briefs

2:55-4:10pm Applied Materials II Presentations

4:10-4:19pm Poster Briefs

5:00-7:00pm Meet & Greet Reception

TUESDAY, OCTOBER 11TH

ALL DAY REGISTRATION

8:00-8:10am Welcoming Remarks

8:10-9:25am Validated Safety & Reliability Presentations

9:25-9:55am AM Break

9:55-10:10am Poster Briefs

10:10-10:55am Power Electronics Presentations

10:55-11:05am Poster Briefs

11:05-12:30pm Lunch On Your Own

12:30-1:55pm

Demonstrations and Analysis/ Special Use-Applications Presentations

1:55-2:11pm Poster Briefs

2:11-2:20pm Closing Remarks

2:20-2:35 Closing Remarks

2:25-4:15pm Poster Session

6:00pm Networking Dinner Cruise

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8:00-8:05am Welcoming Remarks James Greenberger NAATBatt

8:05-8:20am Welcome and DOE Perspective Dr. Imre Gyuk US Department of Energy/Office of Electricity delivery and Energy Reliability

8:20-8:30am DOE/OE Program Overview Dr. Babu Chalamala Sandia National Laboratories

8:30-8:40am DOE/OE/SNL Program Overview Dr. Vince Sprenkle Pacific Northwest National Laboratory

8:40-8:50am DOE/OE/PNNL Program Overview Oak Ridge National Laboratory

8:50-9:15am Plenary Speaker

9:15-9:45am MORNING BREAK

Applied Materials I*

PRESENTATIONS

9:45-10:00am Na-metal Halide battery Guosheng Li Pacific Northwest National Laboratory

10:00-10:15am Redox Flow Battery Development Michael Aziz Harvard University

10:15-10:30am Na-ion Battery Xiaolin Li Pacific Northwest National Laboratory

10:30-10:45am TBD Tim Lambert Sandia National Laboratories

POSTERS

10:45-10:50amMechanistic Characterization of advanced electrolytes Vijay Murugenson Pacific Northwest National Laboratory

10:50-10:55amPre-Lithiation of Hard Carbon for Na-ion Biwei Xiao Pacific Northwest National Laboratory

10:55-11:00amInvestigation and Optimization of Sodium Metal Halide Batteries at Intermediate Temperature

Hee-Jung Chang Pacific Northwest National Laboratory

11:00-12:30pm LUNCH

Equitable Regulatory Environment/Strategic Outreach*

PRESENTATIONS

12:30-12:45pmOverview of SNL Analysis and Controls Efforts Ray Byrne Sandia National Laboratories

12:45-1:00pm BPA Damping Control Project David Schoenwald Sandia National Laboratories

1:00-1:15pm MISO Analysis Tu Nguyen Sandia National Laboratories

1:15-1:30pm Storage Evaluation Tools David Copp Sandia National Laboratories

12:45-1:00pm WA CEF Valuation Efforts Patrick Balducci Pacific Northwest National Laboratory

1:45-2:00pm Strategic Outreach Overview Jacquelynne Hernandez Sandia National Laboratories

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Equitable Regulatory Environment/Strategic Outreach*

POSTERS

2:30-2:32pm HECO Energy Storage Project Jim Ellison, Lee Rashkin Sandia National Laboratories

2:32-2:34pm Sterling Municipal Light Department Ray Byrne Sandia National Laboratories

2:34-2:36pm Behind the Meter Storage Valuation Tu Nguyen Sandia National Laboratories

2:36-2:38pm German Market Analysis Christoph Lackner, Tu Nguyen Sandia National Laboratories

2:38-2:40pm Nonlinear SOC Model Optimization Tu Nguyen Sandia National Laboratories

2:40-2:42pm Distributed Control of Storage David Copp, Felipe Wilches Bernal Sandia National Laboratories

2:42-2:44pm Los Alamos GMLC Analysis Lee Rashkin, Jim Ellison Sandia National Laboratories

2:44-2:46pm Developing the Next Phase of the Global Energy Storage Database

Thu NgoMatt Tafoya

Sandia National LaboratoriesCESA

2:46-2:48pm The DOE/ESS Website & Social Media Cris Romero Sandia National Laboratories

2:48-2:50pm Workforce Development for the Future Grid

Steve GomezMorgan Henrie

Santa Fe Community CollegeMH Consulting, Inc.

Applied Materials II*

PRESENTATIONS

2:50-3:05pm Ionic Liquid Flow Battery Materials Travis Anderson, Leo Small Sandia National Laboratories

3:05-3:20pm Advanced Membranes for Vanadium Redox Flow Batteries (VRFB), Cy Fujimoto Sandia National Laboratories

3:20-3:35pm Aqueous Soluble Organic Flow Batteries Wei Wang Pacific Northwest National Laboratory

3:35-3:50pm Component Research for Redox Flow Batteries and ‘Open’ Batteries Thomas Zawodzinski University of Tennessee- Knoxville

3:50-4:05pm TBD Erik Spoerke Sandia National Laboratories

POSTERS

4:05-4:10pm Stability Investigations on Binary Additive V/V Electrolyte Zimin Nie Pacific Northwest National Laboratory

4:10-4:15pm Degradation in MV-TEMPO ASO Flow Battery System Xiaoliang Wei Pacific Northwest National Laboratory

4:15-4:20pm An Aqueous Flow Battery Utilizing a Phenazine-Based Anolyte Aaron Hollas Pacific Northwest National Laboratory

5:00-7:00pm MEET & GREET RECEPTION

*See Page 12 for more explanation

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Page 10: evolution and revolution - sandia.gov · charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second

ALL DAY REGISTRATION

8:00-8:05am Welcoming Remarks

Validated Safety & Reliability*

PRESENTATIONS

8:10-8:25amR&D to Understand Lithium-ion Battery Failures and Mitigate Consequences of Failure

Summer Ferreira Sandia National Laboratories

8:25-8:40am Battery Abuse Testing Development Josh Lamb Sandia National Laboratories

8:40-8:55am Modeling Thermochemical Runaway and Its Inhibition in Lithium-Ion Battery Systems John Hewson Sandia National Laboratories

8:55-9:10am Assessment of Battery Reliability Data and Research Needs David Reed Pacific Northwest National Laboratory

9:10-9:25am Update on Energy Storage System Safety Roadmap Codes and Standards Activities David Conover Pacific Northwest National Laboratory

9:25-9:55am MORNING BREAK

Validated Safety & Reliability*

POSTERS

9:55-9:57amComputing Modeling to Understand and Prevent Initial and Cascading Thermal Runaway

Randy Shurtz Sandia National Laboratories

9:57-9:59amDetermining the Internal Pressure in 18650 Format Lithium Batteries Under Thermal Abuse

Frank Austin Mier New Mexico Tech

9:59-10:01am Comparison of Propagation Mitigation Techniques and Strategies Loraine Torres-Castro Sandia National Laboratories

10:01-10:03am Impact of Frequency Regulation on degradation of commercial li-ion batteries Daiwon Choi Pacific Northwest National Laboratory

10:03-10:05am Reliability study of vanadium redox flow batteries by superior stable DHE Qian Huang Pacific Northwest National Laboratory

10:05-10:07am Compliance Guide for Energy Storage Safety Pam Cole Pacific Northwest National Laboratory

10:07-10:09am Thermal Stability of Lithium-ion Batteries as a Function of Chemistry and State of Change Heather Barkholtz Sandia National Laboratories

10:09-10:11amEstimating Lithium-ion Battery Fire Behavior from ARC Data Using CFAST Fire Model

Heather Barkholtz Sandia National Laboratories

10:11-10:13amComparative Electrochemical Performance of Commercial 18650-Format Lithium-ion Cells

Heather Barkholtz Sandia National Laboratories

Power Electronics*

PRESENTATIONS

10:15-10:30am3300 V SiC MOSFETs for Energy Storage Power Electronics Ranbir Singh GeneSic

10:30-10:45amObstacles to high temperature DC-link capacitor reliability Harlan Brown-Shaklee Sandia National Laboratories

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POSTERS

10:45-10:47amGate Oxide Sentaurus Model for Wide-bandgap Devices Adam Morgan North Carolina State University

10:47-10:49amReliable High-Performance Gate Oxides for Wide Band Gap Devices Peter Dickens Sandia National Laboratories

10:49-10:51amHigh Temperature Optocouplers for High Density Power Modules Zhong Chen University of Arkansas

10:51-10:53am New Mexico State University TBD TBD

10:53-10:55amOptimal Control of Battery Energy Storage Systems David Rosewater Sandia National Laboratories

11:00-12:30pm LUNCH (on your own)

Demonstrations and Analysis

PRESENTATIONS

12:30-12:45pm Overview of the Energy Storage Project Sub-Program Dan Boreno Sandia National Laboratories

12:45-1:00pm WA CEF Valuation Efforts Patrick Balducci Pacific Northwest National Laboratory

1:30-1:45pm State Regulatory Efforts Rebecca O’Neil Pacific Northwest National Laboratory

1:00-1:15pm Clean Energy States Alliance Update Todd Olinsky-Paul Clean Energy States Alliance

1:15-1:30pm Sterling Municipal ES Project Sean Hamilton Sterling Municipal Light Department

1:30-1:45pm TBD Michael Starke Oak Ridge National Laboratory

POSTERS

1:45-1:47pm Energy Storage Data Submission Guidelines Cole Benson Sandia National Laboratories

1:47-1:49pm TBD Michael Starke Oak Ridge National Laboratory

1:49-1:51pm Update on the Natural Energy Laboratory of Hawaii Authority ESS Projects Laurence Sombardier NELHA

1:51-1:53pm PGE Storage Analysis Patrick Balducci Pacific Northwest National Laboratory

1:53-1:55pm Sandia’s Energy Storage Project Status Ben Schenkman Sandia National Laboratories

1:55-1:57pm Test Results from CEF Vish Vishwanathan Pacific Northwest National Laboratory

1:57:1:59pm Non-linear Battery Model into BSET Di Wu Pacific Northwest National Laboratory

2:00-4:00pm POSTER SESSION

6:00pm NETWORKING DINNER CRUISE

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SANDIA NATIONAL LABORATORIES (SNL)Sandia’s energy storage program addresses a range of topics in materials and systems as well as power electronics related to energy storage. Sandia researchers have addressed the high cost of membranes—a critical bottleneck in flow battery commercialization—by developing a new class of polymeric membranes with superior electrochemical properties and lower cost starting materials. Along with conducting extensive research in battery technologies, including lower temperature Na batteries and rechargeable alkaline batteries, Sandia has also developed lightweight nanocomposite materials for flywheels with increased rotational speeds.

PACIFIC NORTHWEST NATIONAL LABORATORIES (PNNL) The Applied Materials and Performance group includes materials scientists and chemists developing innovative synthetic approaches for fabrication of new materials and relating extrinsic material properties to their chemical/physical properties at the atomic, molecular, and nanoscale. Interfacial phenomena are a particular interest, including functionalization of the surfaces of nanomaterials, catalyst/catalyst support development along with charge and mass transport across interfaces. The division’s capabilities in soft materials generally reside in this group. Another portion of the group contains physicists and materials scientists specializing in vacuum-deposited thin-films with the unique ability to accommodate rigid substrates up to 2 meters in diameter in addition to rolls of flexible (plastic) substrate (roll-to-roll processing).

Internationally recognized expertise in organic electronic materials and devices (used in flat-panel displays, solid-state lighting, organic semiconductors and organic photovoltaics) also resides in this group. The group maintains significant laboratory holdings (more than 10,000 sq ft) for the synthesis and characterization of these materials and systems, mostly in the form of wet chemistry labs or labs with large, specialized vacuum deposition systems.

OAK RIDGE NATIONAL LABORATORIES (ORNL)From its beginnings in World War II’s Manhattan Project, ORNL has had a distinctive materials science program. Their core strengths are in three main areas: materials synthesis, characterization, and theory. In other words, they discover and make new materials, study their structure, dynamics and functionality; and use computation to understand and predict how they will behave in various applications. Today, materials science research benefits from ORNL’s integration of basic and applied research programs and strong ties among computational science, chemical science, nuclear science and technology, neutron science, engineering, and national security. This broad approach to research is allowing ORNL to develop a variety of new materials for energy applications and transfer these new materials to industry. We have developed advances in ways to improve materials processing to increase the performance of new materials while reducing processing cost. These advances have resulted in a broad portfolio of ORNL materials and technologies in the nuclear, automotive, and structural materials industry.

APPLIED MATERIALS

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REGULATORY ENVIRONMENT (SNL & PNNL)Sandia supports research to enhance the regulatory environment for energy storage through a range of activities. These include estimating the value of energy storage for different applications and scenarios; developing control strategies that maximize revenue or benefit to the grid; identifying new control strategies and applications for energy storage; assessing public policy to identify and mitigate barriers for energy storage; developing standards; and evaluating projects.

STRATEGIC OUTREACH (SNL & PNNL)Sandia collects key information on current and future storage technologies and acts as a clearinghouse for the information so that it can be effectively disseminated among key stakeholders and the community. Outreach activities include conducting strategic communication initiatives, managing the Energy Storage Systems website, improving the DOE Global Energy Storage Database, updating the DOE/EPRI Energy Storage Handbook, and organizing the Peer Review meeting and the Electrical Energy Storage Applications and Technologies Conference.

VALIDATED SAFETY & RELIABILITY (SNL & PNNL)Sandia has a significant focus on safety and reliability of grid energy storage systems. This effort includes coordinating DOE Energy Storage Systems (ESS) Safety Working Groups which bring together over 150

stakeholders from industries that range from national laboratories, electric utilities, standards organizations, and manufacturing companies. The working groups are exploring gaps in safety R&D; enabling the development of codes, standards, and regulations (CSR); and educating first responders on storage system safety. Sandia also provides workshops and organizes technical conferences, including the Energy Storage Safety Forum which is slated to become an annual technical meeting for the world wide research community.

POWER ELECTRONICSSandia is advancing power conversion systems (PCS) for grid-tied and off-grid applications. This is driven by the development of new semiconductor switching circuits, as they determine the overall cost, reliability, and performance of the converter. Next generation PCS use advanced semiconductor materials known as wide band gap semiconductors (i.e. Silicon Carbide and Gallium Nitride) that allow for faster switching frequencies, improved voltage breakdown characteristics, and higher operating temperatures. These high voltage switches, in conjunction with advances in ceramic capacitors, controls, magnetics, and packaging, lead significant improvements in system performance through increased power density and efficiency compared to PCS systems using silicon devices.

REGULATORY ENVIRONMENTSTRATEGIC OUTREACHVALIDATED SAFETY & RELIABILITYPOWER ELECTRONICS

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NOTES:

Tia-Lanette Oliver, Sandia National Laboratories, discusses Energy Storage Systems and Strategic Outreach Programs.

David Conover, Pacific Northwest National Laboratory, shares the value of focusing on safety related codes and standards to successful ESS deployment.

Jacquelynne Hernandez, Sandia National Laboratories, and Cedric Christensen, Strategen Consulting, share insights on a panel discussion.

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LOW-TEMPERATURE NANOSOLDERSPatent no. 9,463,532Timothy J Boyle, Ping Lu, Paul T Vianco, Michael E Chandross

ABSTRACTA nanosolder comprises a first metal nanoparticle core coated with a second metal shell, wherein the first metal has a higher surface energy and smaller atomic size than the second metal. For example, a bimetallic nanosolder can comprise a protective Ag shell “glued” around a reactive Cu nanoparticle. As an example, a 3-D epitaxial Cu-core and Ag-shell structure was generated from a mixture of copper and silver nanoparticles in toluene at temperatures as low as 150.degree. C.

HYDROTHERMAL SYNTHESIS OF BISMUTH GERMANIUM OXIDEPatent no. 9,518,219Timothy J Boyle

ABSTRACTA method for the hydrothermal synthesis of bismuth germanium oxide comprises dissolving a bismuth precursor (e.g., bismuth nitrate pentahydrate) and a germanium precursor (e.g., germanium dioxide) in water and heating the aqueous solution to an elevated reaction temperature for a length of time sufficient to produce the eulytite phase of bismuth germanium oxide (E-BGO) with high yield. The E-BGO produced can be used as a scintillator material. For example, the air stability and radioluminescence response suggest that the E-BGO can be employed for medical applications.

THICK ELECTRODES INCLUDING NANOPARTICLES HAVING ELECTROACTIVE MATERIALS AND METHODS OF MAKING SAMEPatent no. 9,577,250Jie Xiao, Dongping Lu, Jun Liu, Jiguang Zhang, Gordon L Graff

ABSTRACTElectrodes having nanostructure and/or utilizing nanopar ticles of active materials and having high mass loadings of the active materials can be made to be physically robust and free of cracks and pinholes. The electrodes include nano particles having electroactive material, which nanoparticles are aggregated with carbon into larger secondary particles. The secondary particles can be bound with a binder to form the electrode.

HIGH PERFORMANCE, DURABLE POLYMERS INCLUDING POLY(PHENYLENE)Patent no. 9,580,541Cy Fujimoto, Harry Pratt, Travis M Anderson

ABSTRACTThe present invention relates to functionalized polymers including a poly(phenylene) structure. In some embodiments, the polymers and copolymers of the invention include a highly localized concentration of acidic moieties, which facilitate proton transport and conduction through networks formed from these polymers. IN addition, the polymers can include functional moieties, such as electron-withdrawing moieties, to protect the polymeric backbone, thereby extending its durability can be beneficial for any high performance platforms that employs proton exchange polymeric membranes, such as in fuel cells or flow batteries. POLYOXOMETALATE ACTIVE CHARGE-TRANSFER MATERIAL FOR MEDIATED REDOX FLOW BATTERYPatent no. 9,548,509Travis M Anderson, Nicholas Hudak, Chad Staiger, Harry Pratt

ABSTRACTRedox flow batteries including a half-cell electrode chamber coupled to a current collecting electrode are disclosed herein. In a general embodiment, a separator is coupled to the half-cell electrode chamber. The half-cell electrode chamber comprises a first redox-active mediator and a second redox-active mediator. The first redox-active mediator and the second redox-active mediator are circulated though the half-cell electrode chamber into an external container. The container includes an active charge-transfer material. The active charge-transfer material has a redox potential between a redox potential of the first redox-active mediator and a redox potential of the second redox-active mediator. The active charge-transfer material is a polyoxometalate or derivative thereof. The redox flow battery may be particularly useful in energy storage solutions for renewable energy sources and for providing sustained power to an electrical grid.

ENERGY STORAGE PROGRAMPATENTS 2016 & 2017

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Curtis Ashton is an Electrical Engineer with 25 years of experience in telecom power, and a few years before that working in the electric utility industry. He has been published numerous times. He is a former Battcon Battery Person of the Year, former vice-chair of ATIS-STEP, vice-president of the Intelec Executive Committee, and presently vice chair of IEEE PES ESSB. Outside of work, his interests include Spanish, Scouting, and basketball and soccer refereeing.

Reinaldo Tonkoski (S’04, M’11) received his B.A.Sc. degree in Control and Automation Engineering, in 2004, his M.Sc. in Electrical Engineering in 2006 from PUC-RS (Pontifícia Universidade Católica do RS), Brazil, and hisPh.D. in 2011 from Concordia University, Canada. He was with CanmetENERGY, Natural Resources Canada, from January 2009 to January 2010 where he worked on projects related to the grid integration of renewable energy sources. Presently, he is an Assistant Professor in the Electrical Engineering and Computer Science Department, South Dakota State University, Brookings, US. Dr. Tonkoski has authored over 60 technical publications and is a Member of the IEEE. His research interests include grid integration of renewable energy systems, distributed generation, power quality, and power electronics.

Dr. Robert Reuss has consulted to government organizations since 2006. He was a DARPA Program Manager in the Microsystems Technology Office from 2001 to 2006. He was responsible for several research thrusts into fabrication of flexible, large area electronics including high mobility TFTs for digital and RF applications and organic photovoltaics, as well as conventional microelectronics efforts that included exploiting mainstream semiconductor processes for high performance analog, mixed signal RF and MMW applications, reconfigurable, multi-core processor design, asynchronous logic design methodology, and sub-threshold, ultra-low power operation. Since September 2006, he has been an independent consultant. Prior to joining DARPA, Dr. Reuss spent twenty years in various technology and research management positions with Motorola. Earlier, he worked for the U.S. government as a research and development manager for seven years and was a Research Faculty member at the University of Colorado for three years. Dr. Reuss received a Ph.D. in Chemistry from Drexel University in 1971.

CURTIS ASHTON

REINALDO TONKOSKI

DR. ROBERT (BOB) REUSS

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Mr. Holmes serves UCSD’s Office of Innovation and Commercialization in focus areas including Electric Energy End Use, Energy Storage Integration, and implementation of Intelligent Technologies supporting Clean Transportation initiatives. He manages a portfolio of R&D and Academic projects which serve public benefit. Mr. Holmes has broad expertise in and contributions to vehicle electrification from both the transportation and electric utility sectors. He serves as a Technical Advisor to the California Energy Commission in the areas of Transportation and Energy as well as occupying multiple advisory roles to both academic and private sector research consortia. His research portfolio is supported by active engagement in CEC, DOE and private sector initiatives.

William Torre serves as University of California San Diego Program Director of Energy Storage and Systems with oversight of power system research, development and testing of advanced energy storage systems, and integration of renewable energy systems. In November 2011, he retired from San Diego Gas and Electric Co. (SDG&E) after 30 years, and his last assignments from 2010-2012 were as SDG&E’s Manager of Research and Development, Manager of Technology Innovation and Development group in Transmission & Distribution Engineering division where he led the installation of several energy storage projects as part of the SDG&E smart grid program . From 2008 – 2010 held the position of Chief Engineer at SDG&E, and provided Engineering oversight and coordination for all engineering.

Matt Galland is a program director consultant that has run a multitude of solar + energy storage and microgrid systems integration R&D demonstration projects for the Department of Energy (DOE), the California Energy Commission (CEC), and the California Public Utilities Commission (CPUC). Building on his experience leading many of Deloitte Consulting’s largest client projects in enterprise applications and systems integration, Matt joined SunPower in 2008 to oversee its CEC-funded Net Zero Energy homebuilding initiative. From 2010-2014, Matt proposed, won, and manage several California Solar Initiative Research, Development and Demonstration and other CPUC- and DOE-funded grants to develop new technologies and solutions for SunPower’s early-stage solar + energy storage business. Since 2014 Matt has worked for Enphase and as an independent consultant to develop and commercialize nascent smart grid technologies in microgrids, energy storage, and energy management systems.

JOHN HOLMES

WILLIAM TORRE

MATT GALLAND

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Sandia National Laboratories is a multi-mission laboratory managed and operated by Sandia Corporation, a wholly owned subsidiary of Lockheed Martin Corporation, for the U.S. Department of Energy’s National Nuclear Security Administration under contract DE-AC04-94AL85000. SAND2016-9234 M