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| | GODI India Pvt Ltd | Manohar.Chinnareddy@GODIENERGY.COM | Dr Manohar Venkateswarlu |
Small Business
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Other Energy Technologies
| GODI is an Innovative and Deep Tech organization focused on research and development (R&D), Giga scale Manufacturing (Carbon Neutral GIGA Factory), and Recycling of sustainable green energy storage technology. The company is committed to achieving a zero-carbon footprint by promoting and adopting environmentally benign technologies in the fastest and safest possible way. In this domain, GODI is a first-of-its-kind company based in India that is innovating across all verticals of energy storage technology.
GODI has India’s largest R&D house with a large team of 25 Phd.s scientists and engineers, with vast expertise in electrochemistry, material science, thermal engineering, and advanced manufacturing. The company’s efforts are to develop ground-breaking materials with unique cell chemistries, superiorly engineered Li-ion cells, Na-ion cells, and Supercapacitors by using environmentally friendly electrode-making processes and Recycling of spent batteries towards carbon-neutral Giga-scale manufacturing. |
Website: https://www.godienergy.com/
Email: mahesh.godi@godienergy.com
Phone: +1 6506665657
Address: 12p, 13, 14p, Road No 2, Hardware Park, Raviryala, Kurmalguda, Hyderabad, Telangana, 500005, India
| Telangana |
| | WT Partners, LLC | William Thai | Managing Director |
Small Business
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Grid
| WT Partners, LLC (WTP) was founded in 2018 and is a U.S. certified Minority Business Enterprise (MBE) consultancy based in Florida. WTP provides technical, advisory, strategy, grant/proposal writing, and management services solely to the Power, Energy, and Utilities ecosystem. Our former and current clients include academia, government, industry organizations, utilities, startups, and venture capital/private equity. |
| FL |
| | Carbon Critical | Michael Paszti | COO |
Small Business
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Other Energy Technologies
| Carbon Critical has a sustainable solution to the shortage of domestic anode and cathode materials needed for the EV revolution. We use an eco-friendly manufacturing processes for producing battery-grade graphite anodes using clean green supercritical fluids, then use machine learning to accelerate the testing and validation process by 25x. The team consists of PhDs and engineers from MIT, Stanford, UC Berkeley, and University of Toronto. A pilot scale production unit and supply chain agreements are in place. |
| CA |
| | Texas Tech University | Zeeshan Ahmad | Assistant Professor |
Academic
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Transportation
| My group researches alkali metal solid-state batteries, through a combination of computational (DFT, continuum modeling), experimental (battery assembly, cycling), and data-driven tools. We have developed tools for probing overall interfacial characteristics in solid-state batteries. We are interested in developing interfacial regenerative mechanisms for extending the cycle life of solid-state batteries and collaborating with experimentalists on the synthesis and advanced characterization of solid-state battery interfaces, and sensing and battery intelligence experts.
Capabilities: atomistic and continuum modeling, solid-state coin and pouch cell fabrication, and electrochemical characterization.
Interested in submission relevant to solid-state batteries under category A or C |
| TX |
| | BattGenie Inc. | Dr. Manan Pathak | Co-founder and CEO |
Small Business
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Other Energy Technologies
| Background and Capabilities: BattGenie provides software and solutions for Lithium-ion batteries. BattGenie's software tools allows its customers to securely manage & analyze their data on their premises, develop models and simulation tools for their battery systems and improve system performance. BattGenie enables faster and safer charging (<20mins from 0-100%) and provides an improvement in cycle life in excess of 100% for electric vehicles, e-bikes, consumer electronics including robotics and drones, as well as grid storage battery applications. BattGenie's technology was developed using a $5M US DOE ARPA-E grant and independently tested and validated at a reputed third-party national lab (NREL). BattGenie is already working with multiple electric vehicles (EVs), consumer electronics as well as battery manufacturing OEMs, and BMS hardware providers based out of the US, Europe as well as Southeast Asia. Using BattGenie's technology, the customers can make their battery systems:
i) Last longer (2-3x more cycles)
ii) Charge faster (<50% charge times)
iii) Lighter and cheaper (no need for any buffer, reducing the CapEx of the system)
iv) Safer (by mitigating thermal-runaway events)
v) More efficient and reliable
vi) More sustainable and significantly less GHG emissions
Interests: With this grant, we would like to extend the platform capabilities to support more cyclers and devices to connect to for real-time analytics and control using our AI-enhanced physics-based model library. We would further like to test and validate at 400V or higher voltages for packs for new and existing battery chemistries. |
| WA |
| | Saint-Gobain Ceramics | Adam Stevenson | R&D Director |
Large Business
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Other Energy Technologies
| Saint-Gobain Ceramics comprises Saint-Gobain’s businesses specialized in ceramic-based solutions for industrial clients. Our solutions range from grains and powders, through hierarchically structured porous shapes, single crystals, specialty refractories, ceramic components and systems to services such as ceramic materials recovery and recycling. Our battery materials products include sorbents for lithium extraction, lithium-compound powders, boron nitride and silicon carbide kiln furniture for cathode powders. |
| MA |
| | A3 Global | Aaron Poynton | CCO |
Small Business
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Transportation
| A3 Global keeps critical missions moving by designing, manufacturing, and distributing essential parts, integrated systems, and electrification solutions for vehicles. We bring decades of experience from the automotive, engineering, and technology industries together to form a next-generation company focused on the future of mobility in the circular economy. NuVant Systems and Hybrid Battery 911 are part of A3 Global.
Battery manufacturing and remanufacturing interests. |
| PA |
| | Circulor | Doug Johnson-Poensgen | CEO |
Small Business
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Other Energy Technologies
| Circulor are leaders in battery materials traceability and battery passports. We led the technology work stream of the German Battery Pass project and already work extensively in the battery value chain, including the circular economy.
We have a team in the US and a US legal entity. the address below is the corporate HQ |
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| | Boyce Technologies | Thomas Powell | Vice President |
Small Business
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Other Energy Technologies
| Boyce Technologies is an engineering and advanced manufacturing company in New York City with state of the art electrical and mechanical equipment. We have developed and manufactured battery systems for various industries including EVs. We are working with DOE/ARPA-E on the cool chips project where we are designing and building a highly adaptive data center. Our facility is vertical such that most all of the prototyping and early manufacturing is completed in-house. This allows for rapid prototyping and testing.
We are looking to partner with organizations who have new concepts and ideas that would benefit from our facility and resources. |
| NY |
| | University of California San Diego | Kent Griffith | Assistant Professor |
Academic
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Transportation
| The lab focuses on the experimental synthesis, characterization, and property/performance analysis of materials for lithium, sodium, and zinc-ion batteries. Previous and ongoing projects include cathodes (nickel-rich NMC/NCA, LFP, sodium iron sulfate), solid electrolytes (LLZO, LISICON, NASICON, Na3PS4, anodes (fast-charging LTO and niobium-based materials, silicon, hard carbon).
Materials synthesis: diverse synthetic methodologies including routes to metastable materials. Techniques in the lab include high-temperatures (up to 1750 °C; 20 furnaces in our laboratory), non-ambient atmospheres and air-free methods, molten salt and metal flux chemistry, pressurized hydrothermal/solvothermal reactors, mechanochemistry, ion exchange, and fluoride chemistry. 500+ chemical precursors.
Materials characterization: in situ and ex situ X-ray and neutron diffraction, solid-state NMR spectroscopy (Li, Na, C, H, F, Al etc.), X-ray absorption spectroscopy, thermal analysis, and microscopy/imaging. An emphasis of our lab is leveraging the diverse toolkit of multinuclear solid-state NMR to obtain atomic and microstructural details including chemical structure, ionic and polyhedral dynamics, defect chemistry, and electrical properties. Designing synthetic routes for isotopic enrichment enables access to nuclei and/or the differentiation of reaction mechanisms. |
| CA |
| | University of Nevada, Reno | Ehsan Vahidi | Assistant Professor & Butler Endowed Professor |
Academic
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Other Energy Technologies
| Dr. Vahidi is an Assistant Professor and John N. Butler Endowed Professor in the Department of Mining and Metallurgical Engineering at the University of Nevada, Reno. He has ten years of experience in mineral and metallurgical engineering, recycling, waste management, and sustainability assessment. He has published several peer-reviewed journal articles on producing, recovering, and recycling critical and strategic materials using chemical leaching, bioleaching, and solvent extraction. Furthermore, his expertise in life cycle sustainability assessment (LCA) and techno-economic analysis (TEA) will help develop realistic environmental and economic models to properly evaluate the processes proposed in this study. He is working on four projects sponsored by the mining industry to assess the environmental burdens associated with critical materials production in the USA. |
| NV |
| | Lithium Battery Company Intl | Nathan Staron | SR. INNOVATOR |
Small Business
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Power Generation: Renewable
| Lithium Battery Company is a leading manufacturer of advanced lithium battery technology for energy storage across multiple industries. With a commitment to innovation and sustainability, we have become a trusted partner for businesses and organizations seeking to optimize their energy usage while reducing their carbon footprint.
Our company has a rich history in the lithium battery manufacturing industry, having been established in 2014 with the mission of providing high-quality, reliable lithium batteries to customers worldwide. Since then, we have continued to grow and expand our capabilities, leveraging advanced manufacturing processes and cutting-edge technologies to stay ahead of the curve in this rapidly-evolving field.
As a teaming partner for the American Rescue Plan Act, we are excited to lend our expertise and capabilities to support the urgent and critical work of building sustainable, resilient communities. Our interest is in helping organizations and businesses leverage advanced lithium battery technology for energy storage, with a focus on increasing efficiency, reducing waste, and promoting a greener, more sustainable future.
At Lithium Battery Company, our lithium battery manufacturing capabilities are second-to-none. We offer a full range of battery solutions, from small, portable batteries for consumer electronics to large-scale, stationary battery systems for industrial applications. Our team of engineers and technicians are experts in developing customized battery solutions to meet the unique needs of our customers, always with an eye towards maximizing efficiency and minimizing environmental impact.
We are proud of our advanced lithium battery technology for energy storage, which offers unparalleled efficiency, reliability, and safety. Our batteries are designed to provide long-lasting, high-performance energy storage solutions that are ideal for a wide range of applications, from powering electric vehicles to providing backup power for hospitals and other critical infrastructure.
In conclusion, Lithium Battery Company is a trusted partner for businesses and organizations looking to leverage advanced lithium battery technology for energy storage. With our commitment to sustainability and innovation, we are well-positioned to support the work of the American Rescue Plan Act as a teaming partner, offering a robust set of capabilities and deep expertise to drive success in this critical endeavor. |
| FL |
| | Eighth Generation Consulting, LLC | Saxon Metzger | Professor - Lead Consultant |
Small Business
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Power Generation: Renewable
| Eighth Generation Consulting has decades of experience on its team, with partnerships with Columbia University, NuLife Power Services, EPRI, the City of Carbondale, and numerous Fortune 100 and 500 companies.
Our expertise lies in recycling and decommissioning for solar and battery storage, community benefits for indigenous communities, creating educational/political/regulatory toolkits, providing research, reviewing and gathering data, writing white papers, and presenting at conferences.
Our leadership has NABCEP, OSHA 10/30/HAZWOPER 40, NFPA 70E, and PMP certifications as well as an MBA, published research, the youngest national champion in two forms of collegiate debate, a 30 Under 30 in Energy award winner, and awards at the UN COP 15 Biodiversity Conference for work on Sustainability Planning in the US. |
| IL |
| | Homeostasis Systems Corp | Makoto Eyre | Founder & CEO |
Small Business
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Other Energy Technologies
| Homeostasis is a startup developing technology that makes critical carbon materials out of atmospheric CO2. Our mineralization + electrochemical tech stack is cyclic, with CO2 + energy as the only primary inputs, and solid carbon + oxygen gas as the only primary outputs. We have produced and tested preliminary coin cells from our materials, and are quickly iterating to improve performance.
Makoto is a mechanical engineer by training. Prior to founding Homeostasis, he worked on spacecraft configuration & systems architecture at Blue Origin's Advanced Development Program and NASA's Johnson Space Center. |
| WA |
| | Fedsprout | Aalap Shah | President and CEO |
Small Business
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Other Energy Technologies
| As ARPA-E awardees embark on their projects, adequate recordkeeping and project reporting become crucial for successful reporting and timely invoice payments. Fedsprout provides a comprehensive solution designed to support ARPA-E awardees throughout the entire period of project performance, offering a streamlined approach to invoicing and project reporting.
Fedsprout provides customizable reporting templates tailored to ARPA-E's specific reporting requirements. Fedsprout can assist awardees in generating detailed reports on project progress, milestones achieved, and financial performance. This flexibility ensures that reporting is accurate and aligns seamlessly with ARPA-E's expectations. Fedsprout creates invoices and assists the awardee in obtaining all relevant information to be submitted. Fedsprout validates invoices against project milestones, budgetary constraints, and other compliance parameters and keeps track of direct and indirect expenses.
Fedsprout's team of experts is well-versed in Federal Acquisition Regulations and the Code of Federal Regulations. Several staff members have been past ARPA-E principal investigators. |
| NJ |
| | Purdue University | Yu She | Assistant Professor |
Academic
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Other Energy Technologies
| Dr. She's lab at Purdue University focused on tactile sensing and robotic manipulation, including robotic assembly/disassembly in confined space, vision/touch empowered assembly, deformable object manipulation. A notable highlight of his work is the introduction of a novel multimodal sensing technique in robotics, achieved by embedding cameras within soft robot fingers. This technology enables the estimation of various physical properties of objects, such as geometry, hardness, and texture, as well as the states of the robots, such as proprioception, which significantly enhances robotic interaction with their surroundings, such as assembly and disassembly. His research also encompasses the design of compliant and soft robots, such as robotic hands/grippers, mobile robots, and snake robots. He developed advanced statics, kinematics, and dynamic modeling to guide the engineering design of these robots. The research experience may be applied to battery pack disassembly. |
| IN |
| | ChemiLattice, Inc | Joseph C Magnotti | Director - Owner |
Small Business
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Power Generation: Renewable
| ChemiLattice Inc has patents pending on purely inorganic liquid crystal media and solid-state electrolytes (SSEs),composed of rare-earth metal and transition metal coordination complexes, and working prototype electrochemical cells using the SSEs. The SSEs exhibit an ionic conductivity superior to any solid electrolytes currently on the market or in development, they require no special handling and are prepared at room temperature and atmospheric pressure, and they can be applied in the liquid phase to electrodes during the assembly of all-solid-state batteries, ensuring electrolyte-electrode contact equivalent to liquid electrolytes while maintaining the higher energy density of solid electrolytes. The SSEs can be used in electrochemical cells employing any electrodes having a redox potential difference and are not restricted to electrodes containing lithium metal. |
| FL |
| | Cool Amps Corp. | Thomas Madden | Chief Technology Officer |
Small Business
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Power Generation: Renewable
| The Principal Investigator has recent experience in developing a novel electrochemical extraction technique of transition metals from end-of-life lithium-ion batteries. This technique is filed with the U.S. Patent Office as the following invention: "Electrochemical Recycling Systems and Methods for End-of_life and Scrap Lithium-ion Batteries. The investigator also has relevant experience in the design & operation of elevated-temperature electrochemical cells. These cells demonstrated and accurately quantified the effects of elevated temperature on methanol electro-oxidation. This work was completed at the University of Washington in 2001 and supported by the Petroleum Research Fund (Dr. Nancy Jensen - n_jensen@acs.org - (202) 872-6186). He also has several highly-cited papers describing the treatment of metal-EDTA complexes using TiO2 photocatalysis (PC), in particular Ni- and Co-EDTA (ref). This work is particularly relevant as it showed that the PC process selectively oxidizes the chelating carboxylic acid groups of the EDTA, thus freeing the metal ions. This research was completed at Sandia National Laboratories in 1997 and supported by the U.S. Department of Energy under Contract DE-AC-04-94AL85000 (Maria Vasquez mvasquez@doeal.gov - 505-845-4805). |
| CT |
| | Arizona State University | Nicholas Rolston | Assistant Professor |
Academic
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Power Generation: Renewable
| We study the connection between material degradation in energy materials and devices with the evolution of mechanical and environmental stress. We leverage scalable, open-air deposition methods to fabricate robust energy devices toward the goal of manufacturing. We use thin-film metrologies along with newly developed and custom-built equipment to characterize material properties and reliability on length scales from angstroms to meters. Projects and interests include the following efforts:
1. Rapid SoH characterization to measure battery degradation for second life applications: Use of machine learning (ML) methods with knowledge constraints developed through inputs such as equivalent circuit modeling to fit EIS and complemented with mechanical properties for understanding of both the chemomechanics and failure mechanisms underpinning battery degradation (ML methods demonstrated for energy harvesting devices in Z. Liu*, N. Rolston* et al., Joule, 2022 https://www.cell.com/joule/pdf/S2542-4351(22)00130-1.pdf)
2. Quantitative adhesion measurements to measure and design reversibly bonded adhesives for stimuli-responsive systems (Adhesion methods demonstrated in N. Rolston et al., Advanced Energy Materials, 2018, https://doi.org/10.1002/aenm.201702116)
3. Design of battery cell materials with desired mechanical properties to enable robust and long-lasting devices and systems (M. Sahal et al., ACS Omega, 2023 https://pubs.acs.org/doi/full/10.1021/acsomega.3c03114)
4. Use of open-air plasmas to functionalize surfaces and interfaces to control material properties for rapid manufacturing and reversibility (N. Rolston et al., Frontiers in Energy Research, 2021 https://doi.org/10.3389/fenrg.2021.684082)
5. Advanced technoeconomic analysis of battery manufacturing processes (Demonstrated for energy harvesting devices in N. Rolston et al., Joule, 2020 https://www.cell.com/joule/pdf/S2542-4351(20)30509-2.pdf) |
| AZ |
| | A2MAC1 | Emily Berliet | Global Sustainability Director |
Small Business
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Other Energy Technologies
| Strong of over 20 years experience in Cost & Value
Engineering and in global automotive Benchmarking,
A2MAC1 developed the broadest automotive
database alongside robust tools and insights. |
| MI |
| | Analog Devices | Sasha Dass | Director, Innovation and Program Management |
Large Business
|
Transportation
| Analog Devices is the market leader in battery management IC's. Analog Devices’ lithium-ion battery management systems for electric vehicles constantly measure the voltage of each cell, which benefits battery range and performance while guaranteeing maximum safety. Highly accurate state of charge measurements give automakers and parts manufacturers the ability to safely maximize output. Our products deliver the world’s best accuracy guaranteed for the lifetime of the vehicle, which enables fast, safe charging and discharging of the battery to the fullest extent, and provides maximum vehicle range per charge. |
| MA |
| | Suppliers Partnership for the Environment | Kellen Mahoney | Director |
Non-Profit
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Transportation
| Suppliers Partnership for the Environment (SP) provides a nonprofit leadership forum for global vehicle manufacturers and their large and small suppliers to work together to improve the environmental sustainability and business value of the global automotive supply chain. SP's member companies include large automakers, component suppliers, material suppliers, indirect service providers and end of life recyclers.
SP’s Responsible Battery Work Group provides a forum to promote information exchange on key challenges and opportunities related to end-of-life management of advanced EV batteries and to identify opportunities for strategic pre-competitive collaboration across the value chain to advance best practice in responsible management of such batteries in North America and beyond. In this context, SP welcomes collaboration with others to facilitate information exchange and to support advancing best practice in responsible lifecycle management of advanced vehicle batteries and enhancing competitiveness. |
| DC |
| | Teledyne Energy Systems | Tim Hennesy | Battery Engineering Manager |
Large Business
|
Other Energy Technologies
| Teledyne Energy Systems, Inc. (TESI) specializes in the production, research, and development of energy storage and energy production technologies with a focus on Radioisotope Thermal Generators (RTGs), Hydrogen Electrolysis Systems, Hydrogen Fuel Cell Technology, and Batteries.
TESI’s battery expertise is pack design, development and qualification for products used in harsh environments. Examples include cold weather packs for long-term arctic operations, pressure tolerant packs for subsea use, and packs designed for the extremes of space.
A key role TESI can play regarding new battery designs for a circular battery economy would be the development of cell joining techniques. Specifically, technologies that allow for removable/reworkable connections while still maintaining high-speed throughput and low impedance connection comparable to traditional resistance and laser welding techniques. We believe TESI is uniquely positioned to achieve a new technique based on our experience with creating reversible intermetallic bonds in our RTG products through ultrasonic welding.
We think that partnering with a group in the battery-powered vehicle space could allow for the creation of a new battery system. This system would maintain the cost/speed of production and electrical performance of a traditional design while enabling disassembly down to the cell level. This would allow for single cell repairs and a more efficient means of recycling. |
| MD |
| | Lawrence Berkeley National Laboratory (LBNL, LBL) | Haegyeom Kim | Staff Scientist |
Federally Funded Research and Development Center (FFRDC)
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Transportation
| Our group at Berkeley Lab focuses on developing of advanced materials for rechargeable batteries and understanding synthesis reaction mechanisms. In this expected FOA, we are interested in partnering with industries to investigate and optimize experimental conditions (such as temperatures, time) for the recycling of used battery materials, in particular focusing on the solid-state reaction process. Our in-situ X-ray diffraction (XRD) combined with high temperature heat treatment and autonomous laboratory (A-Lab) will support these activities. (Website: https://kimhaegyeom1.wixsite.com/kim1) |
| CA |
| | Clemson University | Michael Carbajales-Dale | Dr. |
Academic
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Other Energy Technologies
| I head the Clemson Energy-Economy-Environment (E3) Systems Analysis Group whose mission is to build decision-support tools to reduce the environmental impacts of technology systems and to understand the structural transformation necessary to navigate a peaceful transition to a prosperous and sustainable future. Specifically, we model energy and material resource requirements at three distinct levels: micro, the device/facility level, using engineering-based, bottom-up life cycle assessment and techno-economic modeling tools; meso, the industry/local level, using multi-layer, network-analytic techniques; and macro, the regional/national/global scale, using geographic information systems (GIS) and environmentally-extended input-output models. |
| SC |
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