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| SixPoint Materials | Dr. Tadao Hashimoto | CEO |
Small Business
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Other Energy Technologies
| SixPoint Materials develops gallium nitride (GaN) semiconductor substrates, an indispensable key material for future power electronics in medium/high voltage applications. SixPoint commercialized low-dislocation 2" GaN substrates under SWITCHES program and looking for follow-up funding to start pilot production of 2" GaN substrates. SixPoint has been developing technologies of GaN substrates and their application devices under several government projects, including DOE SBIR Phase I/II/IIB/IIC, ARPA-E OPEN 2018, ARPA-E OPEN 2021, and DOE SBIR Phase I. We aim to commercialize GaN devices which requires high-quality GaN substrates produced by SixPoint's technology. |
| CA |
| Lehigh University | Alberto J. Lamadrid L. | Associate Director, Cyber Physical Energy |
Academic
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Power Generation: Renewable
| Alberto J. Lamadrid L. is associate professor and James T. Kane faculty fellow, with a joint appointment in the Economics Department at the College of Business, and in the Industrial and Systems Engineering Department at the P.C. Rossin College of Engineering and Applied Science at Lehigh University.
He is also Associate Director of the University's Institute for Cyber Physical Infrastructure and Energy (I-CPIE) at Lehigh, associate researcher at the Massachusetts Institute of Technology (MIT) and adjunct associate professor at the Johnson College of Business at Cornell University. His interests lie at the boundaries between energy and environmental economics, complex stochastic dynamic systems, and mechanism design. His work focuses on the development of methodologies and tools to study decision making processes including the electrical network for operations, planning and regulation with large scale penetration of renewable energy sources; strategies for resilient power systems; the interdependencies between infrastructure systems, including electricity, gas and cyber-physical interfaces; and the environmental effects of energy decisions.
He is currently working on research examining: mechanisms for quantification and management of risk in networks; the valuation of critical infrastructure assets; optimization in stochastic, interdependent networks; and environmental change in social and ecological systems. |
| PA |
| Circe Bioscience Inc | Dr. Shannon Noel Nangle | Chief Executive Officer |
Small Business
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Other Energy Technologies
| Circe uses a hydrogen-driven CO2-utilizing fermentation and engineered microbial strains to make targeted triglycerides, a key chemical that feeds into several industrial sectors including materials, pharmaceuticals, agriculture, and renewable fuels. Circe decarbonizes industrial sectors by: i) using carbon dioxide in H2-driven precision fermentation, ii) increasing energy efficiency through proprietary reactor design that enhances reaction efficiency and pollutant-free downstream processing (DSP), iii) replacing current carbon-intensive production of triglycerides via traditional agriculture.
We are looking for partners who supply hydrogen or carbon dioxide, and manufacturing partners in the renewable fuel, chemical and food space. |
| MA |
| luminescent | doron tamir | CEO |
Small Business
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Power Generation: Renewable
| Luminescent Power is a technology-driven startup founded in 2020 and based in Israel. It's at the forefront of renewable energy technology, innovating a groundbreaking solution - a liquid-based isothermal engine. Background: The company was established to efficiently convert waste heat into usable electricity. Over the years, it has grown into a team of 20 employees and raised $20 million in funding. It has also developed a robust portfolio of patents and provisional applications, safeguarding its unique technology. Interest: Luminescent Power's primary interest lies in sustainable energy solutions. The company is dedicated to harnessing waste heat and turning it into zero-emission electricity. It focuses on industries that generate waste heat, geothermal energy, renewable energy storage, and gas turbine conversion. It also aims to develop long-lasting, dispatchable energy storage using its proprietary technology. Capabilities: Luminescent Power is a technology provider that can transform waste heat ranging from 100 to 700°C into usable electricity. Its groundbreaking solution, the liquid-based isothermal engine, has the potential to revolutionize various sectors by increasing efficiency and reducing environmental impact. Its business model involves partnering with industries and pipeline owners for commercial pilot testing of its technology and eventually licensing it or forming joint ventures with tier-one industry players. Currently, Luminescent Power is at Technology Readiness Level 4, with a roadmap to reach higher levels by deploying its technology in real-world settings. |
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| AECOM | Ren Farmer | Process/Chemical Engineer |
Large Business
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Other Energy Technologies
| For more than four decades, AECOM Process Technologies has helped clients successfully overcome regulatory and operational challenges through the development, implementation, and optimization of clean air, wastewater treatment, solid waste management, energy solutions and gas treatment technologies.
What sets Process Technologies apart from other engineering groups is our investment in research and development (R&D) and our endless quest for finding a better, more economically viable way of meeting our clients’ current and pending needs. We maintain state-of-the art laboratories and have teams of scientists and engineers who conduct both third-party and internally funded research in the development of lower cost and/or more reliable solutions to pressing needs.
In addition to developing our own intellectual property, Process Technologies collaborates with companies to bring their technology to the marketplace—often starting with just a concept. Depending upon the maturity of the technology, our involvement could start in the lab, at bench or pilot scale, or in the scale up to commercial size. Regardless of the starting point, our objective is to demonstrate and improve each process to provide the greatest likelihood of commercial success.
By combining traditional R&D with detailed design and construction capabilities, we strive to provide clients with technology solutions that can be installed and operated at a reasonable cost. We deliver overall solutions with the right balance of innovation and traditional technology offerings, and can deliver these solutions to our customers on an engineer and procure or full turnkey basis.
We have a focus on carbon capture and storage, air pollution control, hydrogen production and fuel cells, renewables, and much more. We work on R&D and scale-up, commercial engineering, procurement and construction and everything in between. We would love to work with your company to help make your proof of concept prototypes into scalable and deployable products. |
| TX |
| MIT Plasma Science and Fusion Center | Dr. Robert Granetz | principal research scientist |
Academic
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Other Energy Technologies
| Fabrication and testing of fusion relevant magnets utilizing high-temperature superconductor, including non-planar coils suitable for optimized stellarators (ARPA-E Bethe project in partnership with Type One Energy and Univ. of Wisconsin). MIT PSFC designed and built the 20 tesla prototype TF coil for the SPARC project, and tested it up to 40 kA at 20 K using an in-house facility. |
| MA |
| Alternative Energy Materials | Dustin McLarty | CEO and Founder |
Small Business
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Other Energy Technologies
| I have started a company, AEM, to commercialize the solid oxide technology and test equipment expertise from my university lab. We are building 4-cell SOFC test stations for both atmospheric and high pressure (>100bar) testing in our new 3200 sqft manufacturing facility. We are also building stack testing up to 10kW.
Our patented VYZion material enables high pressure water electrolysis to reduce system complexity and cost. |
| WA |
| The Ohio State University | Carol Smidts | Professor |
Academic
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| The Reliability and Risk Laboratory research at The Ohio State University focuses on methodologies and tools for analyzing the propagation of faults and their impact on safety-critical systems. In the achieved DOE/ARPA-E/AFOSR/LDRD projects, we developed the Integrated System Failure Analysis Software Toolchain (IS-FAST)[1]–[3], a set of model-based tools that uses symbolic models and propositional logic to infer the states of system components and functions during the simulated operation of the system under analysis. The inference can be conducted at the early design stage. The information acquired from the inference has been used to optimize sensor deployment for safety-critical systems, such as online monitoring and diagnostic systems for hybrid energy systems[4] and advanced reactors[5]. In addition, IS-FAST can identify the root causes of system failures based on partial evidence at the design and development stages [6]. Future issues to resolve include scalability to very large-scale systems and usability, which can be the objective of our participation in collaborations funded by programs such as the SCALE UP program. [1] X. Diao, C. Smidts, and C. Mutha, “Integrated system failure analysis software toolchain (IS-FAST),” US 11,138,063 B1, Oct. 05, 2021 [2] X. Diao, M. Pietrykowski, F. Huang, C. Mutha, and C. Smidts, “An ontology-based fault generation and fault propagation analysis approach for safety-critical computer systems at the design stage,” AI EDAM, vol. 36, 2022. [3] C. Mutha, D. Jensen, I. Tumer, and C. Smidts, “An integrated multidomain functional failure and propagation analysis approach for safe system design,” AI EDAM, vol. 27, no. 4, pp. 317–347, 2013. [4] X. Diao, Y. Zhao, M. Pietrykowski, Z. Wang, S. Bragg-Sitton, and C. Smidts, “Fault propagation and effects analysis for designing an online monitoring system for the secondary loop of the nuclear power plant portion of a hybrid energy system,” Nuclear Technology, vol. 202, no. 2–3, pp. 106–123, 2018. [5] B. Li, X. Diao, P. K. Vaddi, W. Gao, and C. Smidts, “A propagation-based fault detection and discrimination method and the optimization of sensor deployment,” Annals of Nuclear Energy, vol. 166, p. 108746, 2022. [6] A. Mansoor, X. Diao, and C. Smidts, “Backward Failure Propagation for Conceptual System Design Using ISFA,” Nov. 2021. Accessed: May 25, 2023. [Online]. Available: https://www.ans.org/pubs/proceedings/article-50268/ |
| OH |
| BRITE Energy Innovators | Sara Daugherty | Chief of Staff |
Non-Profit
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Other Energy Technologies
| BRITE is at the forefront of the energy revolution, believing in the power of individuals everywhere to drive change. By empowering energy tech startups, BRITE aims to generate opportunities, create good jobs, and build a resilient economy. Since its establishment as a non-profit organization in 2011, BRITE has been dedicated to supporting energy technology viability and promoting community understanding. BRITE supports startups in refining their energy innovations and navigating the path to commercialization through programs like BRITEbase, elevate, and ascent which are curated to provide the right content and resources to startups when they are ready for it. They provide guidance on business development, market validation, funding strategies, and industry partnerships. |
| OH |
| Adroit Materials | Ronny Kirste | COO |
Small Business
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Other Energy Technologies
| Adroit Materials is a small company that focuses on developing key GaN, AlGaN, and AlN technologies to be used for next generation high power devices and switches. Supported by APRA-E, Adroit Materials has developed a III-Nitrides materials toolbox that spans MOCVD and HVPE growth of layers (e.g., contact layers, drift layers), deposition of ohmic and Schottky contacts, Mg ion implantation and p-activation for power applications, fabrication of diodes, and their testing. Most recently, Adroit Materials has demonstrated a new class of GaN-based junction barrier Schottky diodes with 2 kV breakdown and novel pathways to achieve n-type AlN for power applications. For all efforts, Adroit Materials uses native, single crystal substrates (GaN and AlN) to reduce the dislocation density and ensure peak performance and lifetime. Adroit Materials is interested in advancing the developed technologies for the mass consumer market. |
| NC |
| SRI International | Christina Hildebidle | Executive Director, Federal Partnerships |
Non-Profit
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Other Energy Technologies
| SRI International is an independent, nonprofit research institute with a rich history of supporting government and industry. We create and deliver world-changing solutions for a safer, healthier, and more sustainable future. For more than 75 years, we have collaborated across technical and scientific disciplines to discover and develop groundbreaking products and technologies and bring innovations and ideas to the marketplace.
SRI has technical expertise in a wide range of areas from sensors to AI to robotics. Our teams invented Siri, Shakey the Robot, the first computer mouse, and the novel approach which led to the first U.S. FDA-approved telerobotic surgical system.
SRI has two projects currently funded by DoE. One is a CO2 capture technology that leverages the advantages of ammonia-based approaches (high CO2 loadings, regeneration at high pressure) with more environmentally friendly systems based on potassium carbonate. The other is an underwater kite that captures the energy of water currents to generate power, similar to an airborne kite that is lifted by the wind.
SRI is interested in partnering on research and development technical projects in all areas including those outside of our current DoE funded areas. |
| CA |
| Advent Technologies, Inc. | Emory De Castro | Chief Technology Officer |
Small Business
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Other Energy Technologies
| Advent is involved in energy technologies related to fuel cells, water electrolyzers, and redox flow batteries. Our specialty is casting membranes and coating electrodes. We have just commissioned two state-of the-art coating machines. One is dedicated to membrane materials. The other is for electrodes. These machines can be run at a research, development, or initial manufacturing scale depending on the selected applicator. We have a complete analytical testing lab to support development of manufacturing processes and CTQs (critical to quality) |
| MA |
| Western Research Institute | LeAnne Hazard | Technology Development Manager |
Non-Profit
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| Background: Western Research Institute (WRI) was awarded a contract under the ARPA-E Recycle Underutilized Solids to Energy (REUSE) program in 2021. The program explored solutions for converting solid plastic waste into fuels which are compatible with existing industrial infrastructure. Through the 2-year project, WRI has developed a patent-pending technology which can help stabilize the renewable fuels industry. As the agricultural industry works to grow greater amounts of crops for the renewable fuels industry (diesel and aviation fuel), plastic can be used to make up the difference. By introducing plastic waste to the renewable fuels industry, valuable hydrocarbons can be deferred from landfill and the renewable feedstock market can catch up to growing demand.
Interest: WRI has conducted hundreds of experiments at the bench scale evaluating the technical proof of concept, has conducted a preliminary techno-economic evaluation, and has developed a semi-continuous processing unit to demonstrate the technology at a larger scale. As a small non-profit research and development company located in Laramie, WY, WRI is seeking partners who are willing to continue developing the technology with WRI, in exchange for a licensing agreement (exclusive or non-exclusive options). With the assistance of an ARPA-E SCALEUP award, parties can lessen corporate investment and risk as the technology is further developed and de-risked for commercial deployment.
Building a continuous operating facility is a vital component in further developing the technology for industry buy-in and commercial deployment. Deliverables from a successful SCALEUP award would involve producing greater quantities of liquid product for analysis and vetting by the industry, a higher-detail techno-economic analysis (TEA) and lifecycle assessment (LCA), and a robust marketing campaign.
Keywords: Plastic Waste Processing. Pyrolysis. Renewable oils. Bio-oils. Renewable fuels. Refining. Petrochemical.
Capabilities: -WRI is a prior ARPA-E awardee -Pilot development and scaleup of technologies, including 5 bbl/day oil processing facility and others -Support staff (engineers, chemists, technicians) -Facilities located on 20-acre site -Vast catalogue of equipment (autoclaves, pumps, vessels, PLC, catalyst testing unit), and supplier network -Laboratory expertise |
| WY |
| University of Alabama in Huntsville | Gabe Xu | Associate Professor |
Academic
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| Experimental plasma science and engineering including laser produced plasma and interactions with magnetic fields. Diagnostic capabilities for passive optical emissions, active laser, and physical probes. |
| AL |
| ABQMR, Inc. | Hilary Fabich | President |
Small Business
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Other Energy Technologies
| ABQMR specializes in magnetic resonance (MR) technology providing research services and one-of-a-kind fabrication related to nuclear magnetic resonance (NMR) and magnetic resonance imaging (MRI). We specialize in unusual applications of MR ranging from experiments in the agricultural field to the arctic. Having developed MR for use in such unusual environments we have experience designing and building experiments from the ground up including both hardware and software. Odd applications and challenging experiments are our passion. We relish the challenge of figuring out how to make new measurements and can draw on our extensive and unique resources to design, build, and execute challenging experiments. |
Website: abqmr.com
Email: h.fabich@abqmr.com
Phone: 505-244-0017
Address: 2301 Yale Blvd. SE, Suite C2, Albuquerque, NM, 87106, United States
| NM |
| University of Alabama in Huntsville | Jason Cassibry | Professor |
Academic
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| Magneto-inertial fusion, smooth particle hydrodynamics simulations, pulsed power |
| AL |
| Foundation Alloy | Jasper Lienhard | Head of Research & Development |
Small Business
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Other Energy Technologies
| Foundation Alloy is commercializing breakthrough alloy design technology from MIT and UC Irvine. We can develop metals with higher strength, improved high temperature performance, and dramatically improved sintering profiles that enable more cost effective, quality and scalable 3D printing of parts. Specifically, we have a family of Molybdenum and Molybdenum-Tungsten alloys that are ~2-3x harder than market leading alloys, have reduced oxidation at high temperatures and can be 3D printed and sintered via binder jet to greater than 99% relative density in less than 7 hours. This will enable entirely new part design paradigms for next generation nuclear, and these base alloy families can be tailored further to specific applications. |
| MA |
| Urban Electric Power, Inc. | Gabriel Cowles | VP of Strategy and Finance |
Small Business
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Other Energy Technologies
| Urban Electric Power (UEP) is a developer and manufacturer of a patented rechargeable zinc-manganese dioxide (ZnMnO2) battery for use in stationary energy storage systems. This battery technology has been developed over a 15 year period beginning with research performed at the City University of New York Energy Institute that was supported by ARPA-E funding. Utilizing the same raw materials found in primary alkaline battery cells, UEP batteries are safe, affordable, and can be domestically sourced. UEP currently operates a pilot scale manufacturing facility in Pearl River, NY that is capable of about 10 MWh of annual battery production. The company has developed the manufacturing processes and equipment used to make rechargeable ZnMnO2 batteries, and holds patents related to these efforts. UEP's team is comprised of leading electrochemists and battery manufacturing experts that have successfully turned the initial concept of rechargeable ZnMnO2 batteries into a commercially viable product that has been deployed at sites in the US, Europe, and Asia. The team has proven its ability to scale manufacturing of novel battery technologies and develop electrochemical solutions to address key hurdles in rechargeable battery performance. UEP seeks to further scale its manufacturing capacity to meet the rapidly growing demand for stationary energy storage in the US and beyond. |
| NY |
| Deep Isolation | Jesse Sloane | Head of Engineering |
Small Business
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Other Energy Technologies
| Deep Isolation is the only private-sector company globally investing in Deep Borehole Disposal (DBD), to be used for safe geological disposal of spent nuclear fuel and high-level waste. Integrating mature technologies from the oil and gas sector and the radioactive waste management sector, Deep Isolation’s solution constructs deep geologic repositories through use of directional drilling technology - removing the risks and costs of designing a facility that requires human activity underground.
Deep Isolation has developed supply chain partnerships with key industry players in drilling, nuclear handling and transportation, as well building relationships with national laboratories and radioactive waste management organizations, to explore the viability of borehole disposal for legacy and future small modular reactor (SMR) waste. Deep Isolation is involved in a number of ARPA-E projects to help advance the technology, for the ONWARDS and CURIE programs, including the development of a Universal Canister System that is suitable for a very wide range of current and future spent fuel types, with a unique triple functionality: 1. Safely disposing spent fuel and HLW in deep boreholes. 2. Safely disposing spent fuel and HLW in other forms of geologic disposal facility (i.e. mined repositories) – enabling waste owners that have not yet decided on a disposal pathway to keep all options open. 3. Integrating flexibly and efficiently with existing storage and transportation technologies – thus removing the need for costly repackaging ahead of eventual disposal.
Our capabilities include: • development of the strategic business case for borehole disposal. • development of an International Atomic Energy Agency (IAEA) compliant roadmap for planning, design, licensing, constructing, operating and eventual closure and post-closure monitoring of a Deep Borehole Disposal repository. • the application of technical guidance from the IAEA and Nuclear Regulatory Commission (NRC) and regulatory best practices in ensuring safety and security throughout the disposal process, as well as the gaps in guidance that need to be addressed in future. • engineering, geology and testing capabilities for optimal repository design based on the waste inventory and host rock environment. • access to a demonstration facility for DBD research, development and testing that can be used by international participants under a multinational non-profit framework. |
| CA |
| Duquesne Light Company | Josh Gould | Director of Innovation & Strategic Planning |
Large Business
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Grid
| Duquesne Light is an investor-owned, electric-only, wires-only utility headquartered in Pittsburgh, PA serving ~1.5 million customers in Southwestern Pennsylvania. We are looking to achieve our mission of a clean energy future for all by partnering with ARPA-E awardees who can enable that future for our customers. Particular areas of interest include grid modernization, energy storage, the electrification of transportation, industrial heat solutions, and anything else that might fit with our mission of a clean energy future for all. |
| PA |
| X-energy | Ian Davis | Plant M&D Engineering Manager |
Small Business
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| ARPA-E GEMINA Program awardee: X-energy was selected by the DOE in 2020 to develop digital tools that would help reduced Fixed Operations & Maintenance costs for Advanced nuclear reactors. X-energy's primary interest is to scale up our GEMINA efforts and explore industrial heat applications for our digital tools. X-Energy Reactor Company, LLC, is a leading developer of advanced small modular nuclear reactors and fuel technology for clean energy generation that is redefining the nuclear energy industry through its development of safer and more efficient reactors and proprietary fuel to deliver reliable, zero-carbon and affordable energy to people around the world. X-energy’s simplified, modular, and intrinsically safe SMR design expands applications and markets for deployment of nuclear technology and drives enhanced safety, lower cost and faster construction timelines when compared with other SMRs and conventional nuclear. DOE Advanced Reactor Demonstration Program awardee: X-energy was selected by the DOE in 2020 to develop, license, build, and demonstrate an operational advanced reactor and fuel fabrication facility by the end of the decade. Since that award, X-energy has completed the engineering and basic design of the nuclear reactor, and has begun development and licensing of a fuel fabrication facility in Oak Ridge, Tennessee. Dow, the world’s leading materials science company, entered into a Cooperative Agreement with X-energy in March 2023, with the intention to install the Xe-100 plant at one of their Gulf Coast sites. In May 2023 Dow announced the Xe-100 would be installed at the Seadrift site. Capabilities: Nuclear Systems Engineering, Digital Twins, AI/ML, 3D Visualization, Modeling & Simulation, Instrumentation & Control, Nuclear Operations & Maintenance, Nuclear Reactor Design, Economic Modeling |
| MD |
| Aeternal Upcycling, Inc. | Robert Kennedy | CTO and Founder |
Small Business
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Other Energy Technologies
| Aeternal Upcycling is transforming plastic waste into lubricants, waxes, and other chemical feedstocks. Aeternal's patent-pending catalytic upcycling technology enables carbon circularity of plastic waste, replacing petroleum-derived chemicals with low-greenhouse gas emissions alternatives. Aeternal is part of Chain Reaction Innovations, a DOE Lab Embedded Entrepreneurship Program.
Aeternal Upcycling is interested in partnerships in materials development, prototyping, design optimization, techno-economic and lifecycle analysis to facilitate the transition of Aeternal's technology to market. |
| IL |
| Tour Engine, Inc. | Dr. Oded Tour | CEO |
Small Business
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| Tour Engine has developed a novel high efficiency, ultra-low emissions, split-cycle internal combustion engine as part of ARPA-E’s GENSETS program. Powered by the Tour Engine, our first application is the Tour ENABLE – a Micro CHP system (also developed with ARPA-E’s support) running on carbon-neutral fuels to provide sustainable prime-power and heat for residential and commercial use. In the Tour ENABLE micro CHP, the 5 kW Tour Engine is hybridized with a 15 kW battery that is the load follower. This enables the Tour Engine to operate at its most efficient and clean point to charge the battery while using the waste heat for water heating, achieving up to 50% savings and meeting CARB’s stringent distributed generation emission requirements. Protected by 45 issued patents, the Tour ENABLE microCHP is on the path to be a central part of the nation’s emerging distributed generation grid.
Tour Engine is looking to partner with relevant parties for demonstration and pilot projects and with contract manufacturing entities and related domain experts to collaborate in bringing the Tour Enable into the market. |
| CA |
| EARTHBRIDGE ENERGY | Derek Adams | Chief Executive Officer |
Small Business
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Power Generation: Renewable
| EarthBridge Energy is enabling a smooth transition to renewable energy by developing a grid-scale geothermal energy storage technology. The GeoBattery™ uses a subsurface reservoir to safely store waste electricity from wind, solar, or the grid for when power is needed most. Development of this long duration storage technology furthers EarthBridge Energy’s mission of achieving a 100% renewable energy future.
We are open to strategic partnerships in the power generation and turbomachinery space using novel working fluids (e.g., CO2). |
| TX |
| Citrine Informatics | James Saal | Director-External Research Programs |
Small Business
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Other Energy Technologies
| Citrine Informatics is the award-winning creator of the Citrine Platform for data-driven materials and chemicals development. Citrine won the 2017 World Materials Forum Start-up Challenge, the 2018 AI Breakthrough award as the "Best AI-based Solution for Manufacturing", and 2020 Cleantech 100 honors. Citrine has unparalleled experience providing data management infrastructure and artificial intelligence specifically tailored to materials science and chemistry. Citrine has provided its software to many of the world’s leading materials and chemical companies, US national labs, and academic and consortia partners. Citrine has performed on government-funded R&D programs for the DoD, DoE, and NSF, as both prime and subcontractor.
For SCALEUP, Citrine is interested in partnering with primes who need support data services for materials and chemicals development, including database construction, design optimization, atomistic simulations, and hardware/software automation. |
| CA |
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