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| | 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 |
| | Stanford University | Jonathan Fan | Associate Professor |
Academic
|
Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| We have developed a new class of volumetric inductive heating reactor in which we can achieve near unity heating efficiencies within an endothermic reactor. We have experimentally demonstrated the concept with a lab scale thermochemical reactor performing the reverse water gas shift reaction. |
| CA |
| | Dimensional Energy | Brad Brennan | Chief Science Officer |
Small Business
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Other Energy Technologies
| Dimensional Energy (DE) is a technology and engineering startup that focuses on converting CO2 back into hydrocarbons. Our platform is based on our thermocatalysts and Reverse-Water-Gas Shift reactors for converting CO2 and H2 into syngas (CO + H2) mixtures that can be directly fed into downstream hydrocarbon-forming reactions such as to make methanol or Fischer-Tropsch products. These can be converted to SAF or other hydrocarbons.
DE currently has a pilot plant that converts CO2 and green H2 into Fischer-Tropsch products at 100 kg CO2 input/day.
Project Offerings:
- We have an active interest in dynamic operation of our reactor systems, allowing for ramp up/down with renewable energy sources.
- Our catalysts and reactor systems could be integrated in partner's downstream reactors.
- Our pilot site can be upgrade and retrofitted for future demonstrations
- Our engineers have experience in designing, simulating, constructing, automating, and operating pilot plants and large facilities.
Project Partner options:
- DE could partner with teams providing dynamically-driven downstream reactors for syngas conversion to hydrocarbons.
- DE could partner with teams who want to co-develop a dynamically-driven hydrocarbon-forming reactor that utilizes syngas feedstock. |
| NY |
| | University of California, Irvine | Han Li | Associate Professor |
Academic
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Bioenergy
| Engineering enzymes, cell-free, and whole-cell catalysts for biofuel production. Using artificial redox cofactors to enable novel and specific reactions in biology, and interfacing biology with electrochemistry. High-throughput enzyme design. |
| CA |
| | Savor | Kathleen Alexander | CTO |
Small Business
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Other Energy Technologies
| Savor is commercializing a technology to decarbonize the production of fats and oleochemicals. Savor’s thermochemical process transforms green H2 and CO2 into fatty acids and fats at high yield with effectively zero greenhouse gas emissions. This technology represents a paradigm shift away from modern agricultural methods for fat production, which require extensive land use and difficult-to-decarbonize GHG emissions. The input to Savor’s process is synthetic paraffin wax (an intermediate in electro-fuel production) produced from CO2 and green H2. These paraffins are converted to high-value oleochemicals and fats through a series of thermochemical steps: oxidation of paraffins to fatty acids, purification, and formulation. Savor’s core expertise is on the upgrading of paraffinic waxes to high-value oxidation products, we have a bench-scale demonstration of our technology and extensive experience in chemical engineering, technoeconomic analysis, and product development. We are interested in partnering with teams who produce paraffinic waxes from CO2 and green H2. |
| CA |
| | National Renewable Energy Laboratory | Jonathan Martin | Research Engineer |
Federally Funded Research and Development Center (FFRDC)
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| -Renewable Fuels
-Combustion
-Technoeconomic Analysis (TEA)
-Life Cycle Assessment (LCA)
-Hybrid Systems Modeling
-Practical Hybrid Systems Demonstration |
| CO |
| | Nexceris | Matthew Mark Seabaugh | Dr |
Small Business
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Other Energy Technologies
| For this effort, Nexceris is seeking collaboration opportunities to implement our HeatPath technology to help develop compact, dynamically responsive reactors for gas processing and liquid synthesis. Current HeatPath offerings and use cases can be found at www.heatpathsolutions.com.
Beyond our experience with Fischer Tropsch and Steam and Dry Reforming of Methane using HeatPath, we are interested in assisting partners in the development of unique reverse water gas shift (RWGS) solutions, where HeatPath's advantages in thermal and mass transport control can allow operation in high carbon activity conditions.
Nexceris is located near Columbus Ohio, is committed to growing its U.S. engineering, design, and manufacturing capacity to deliver to a global customer base. Nexceris collaborates with customers to ensure the highest possible value to meet their needs. Our product development pipeline is focused on end user-validated value propositions and innovative materials IP create value added relationships with strategic partners. Nexceris’ facility comprises 56,000 square feet of office, laboratory, and manufacturing space, with state-of-the-art synthesis, fabrication, and characterization facilities for ceramic powders, catalysts and sensors, and testing capability for these products.
Matthew M. Seabaugh, PhD is Nexceris’ Chief Product Officer, and is responsible for new product launch, including project oversight and marketing of HeatPath. Dr. Seabaugh invented HeatPath catalyst support and has led its development through two SBIR I/II/IIB efforts. Dr. Seabaugh has 25 years’ experience at Nexceris, managing multiple projects of similar scale to the proposed effort. He has ten issued and seven pending patents. |
| OH |
| | Fortescue | Jeffrey Drese | Principal - Direct Air Capture |
Large Business
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Other Energy Technologies
| Fortescue Energy, a component of Fortescue, is seeking to establish a global green energy business. Fortescue is headquartered in Australia but has offices in Washington, DC, Houston, and Boulder in the US. Fortescue has a green hydrogen technology and is looking to develop projects for the production and downstream use of green hydrogen, including renewables-to-liquids. Fortescue is also pursuing opportunities in carbon dioxide capture and conversion. Fortescue is interested in teaming opportunities as a potential project developer and/or provider of green hydrogen and carbon dioxide feedstocks for renewables-to-liquids projects. |
| CO |
| | National Renewable Energy Laboratory | Kimmy Mazza | Project Manager of CO2RUe |
Federally Funded Research and Development Center (FFRDC)
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| The CO2 Reduction and Upgrading for e-Fuels Consortium (CO2RUe) is a collaborative effort uniting industry advisors and 6 national laboratories. Our core mission revolves around the development of a comprehensive suite of technologies aimed at the electrochemical conversion of CO2 into valuable intermediates. Moreover, we are committed to enhancing the efficiency of carbon conversion processes, particularly within the realm of biologically transforming these intermediates into e-fuels and commodity chemicals.
Our research is strategically structured across these key areas:
1. CO2 and Low Carbon Electricity Resource Analysis: We analyze CO2 availability and the suitability of low carbon electricity resources geographically to ensure a sustainable and environmentally responsible approach.
2. TEA and LCA Pathway Modeling: Thorough and LCA pathway modeling allow us to evaluate the economic viability and environmental impact of our processes.
3. Molecular Biology and Fermentation: We're harnessing the power of biology to convert CO2 derived intermediates into e-fuels and commodity chemicals with optimal efficiency.
4. CO2 Electrolysis, Process Integration, and Scale-up: We are at the forefront of CO2 electrolysis research, exploring novel approaches to enhance the efficiency of this process. Moreover, we are dedicated to scaling up our innovations and ensuring seamless integration into real-world biorefinery settings.
Our state-of-the-art facilities:
- Electrolyzer Test Stands: Our facilities house multiple test stands, spanning from 5 cm2 to 5-cell stacks of 1000 cm2. These platforms are pivotal in assessing carbon balance and diagnosing performance, ensuring that our electrochemical processes are at their peak efficiency. We have a specialized testing facility designed explicitly for evaluating CO2 electrolysis systems. This setup enables us to directly test these systems on CO2 derived from ethanol fermentation, showcasing their potential for seamless integration into biorefinery environments.
- Molecular Biology Tool Development - Our researchers have extensive experience developing molecular biology tools in non-model organisms. These have allowed us to introduce novel pathways and also direct carbon flux to desired metabolites.
- Fermentation Capacity: With both anaerobic and aerobic fermentation capabilities, our facilities span from bench-scale experimentation to large-scale 7000L fermentation. |
| CO |
| | Forever Flight Worldwide | Ryan Wilkoff | Founder |
Small Business
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Transportation
| Startup founder working towards decarbonizing aviation.
Supports airports developing new supply chain compatible with electric and green hydrogen planes.
Led team who has been working with NREL to rebuild Puerto Rico's grid. |
| TX |
| | SLAC National Accelerator Laboratory | Dimosthenis Sokaras | Senior Scientist |
Federally Funded Research and Development Center (FFRDC)
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| Operando characterization of high-performance electrolyzers and/or thermal reactors for sustainable chemical transformations. Our research by using x-ray spectroscopy and scattering leverages atomic level insights extracted during actual operating conditions for an evidence-based optimization of performance and durability of materials and devices. We are developing and employing tailored operando characterization tools by leveraging the unique characteristic of the state-of-the-art X-ray sources at SLAC (SSRL and LCLS). Our research is focused on identifying the active state of catalytic materials as well as their short and long-term degradation pathways. Further capabilities are focused on the evaluation of scalable manufacturing steps themselves via insitu studies of the manufactured materials/components. In this call, we seek to team up with colleagues and teams that plan to improve and optimize dynamically operating reactors via operando characterization. |
| CA |
| | SRI International | Jin Ki Hong | Senior Scientist |
Non-Profit
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Other Energy Technologies
| We use a multi-disciplinary approach for solving problems in renewable energy, including molecular modeling, lab-scale catalyst development, pilot-scale demonstration, and process modeling for technoeconomic evaluation. We have strong expertise in material design/characterization and process scale-up demonstrated in renewable liquids production. In particular, we are pursuing direct conversion of bio-derived feedstock to transportation fuels. |
| CA |
| | Idaho National Laboratory | Lynn Wendt | Director, Biomass Feedstock National User Facility |
Federally Funded Research and Development Center (FFRDC)
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Bioenergy
| INL Proving Ground: A national testbed to take RtL to scale
INL has begun construction on the Energy Technology Proving Ground (ETPG), a facility located on the INL dessert site that is under development with support from Battelle Energy Alliance and the Department of Energy. The ETPG will be a 14 megawatt-scale testbed that integrates multiple decarbonization strategy elements and product suites into a modular, reconfigurable technology demonstration campus for scale up of hydrogen, biofuels, chemicals, and other Renewable to Liquid technologies. The Biomass Feedstock National User Facility will provide access to renewable carbon through utilization of local waste streams, leveraging equipment in the BFNUF to support >1 dry ton/hour preprocessing and conversion systems. The preprocessing system will be modular, fully instrumented for research purposes, and capable of producing up to 8,400 tons/year of biomass and MSW conversion-ready feedstocks for integrated piloting with conversion pilot units. Advanced nuclear demonstration of small modular reactors and microreactors will ultimately provide power to the ETPG. INL also is home to the Integrated Energy Systems facility, with a 1 mega-watt scale thermal distribution system, power grid emulators, hydrogen and syngas production, and advanced vehicle charging capabilities. |
| ID |
| | Texas Tech University | Mahdi Malmali | Assistant Professor |
Academic
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| I have been actively working on several reaction engineering projects (EERE and ARPA-E) to convert renewables to fuel, power, and energy. We have extensive experience in the optimization and intensification of reactions and separations involved in chemical manufacturing. One of our patented technologies is to replace energy-intensive, phase-changing separations with high-temperature absorbents for 100% selective separation of the desired product (ammonia, methanol, DME, etc). We can also support materials synthesis and characterization, systems analysis, simulations, and DEI activities. |
| TX |
| | University of Minnesota | Suo Yang | Richard & Barbara Nelson Assistant Professor |
Academic
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| My research group focuses on the modeling and simulation of reacting and multiphase flows in plasma-assisted or catalysis-assisted fuel reforming and gas conversion reactors. Our modeling and simulation capability ranges from 0D simplified reactors to 3D simulation of turbulent reacting and multiphase flows (with phase change) in realistic reactor configurations for design and optimization. My group owns and has access to a large amount of dedicated high-performance computing (HPC) resources to enable exascale computing for the simulation of realistic systems. Specifically, we have been working on plasma-assisted and catalysis-assisted methane & CO2 reforming to generate higher-order hydrocarbons, ammonia synthesis and reforming, and blue hydrogen production, etc., funded by NSF, DoE/ARPA-E, DoD, and chemical industries. |
| MN |
| | GE | Joanne Morello | Program Manager for Sustainable Fuels |
Large Business
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Other Energy Technologies
| GE Research (GER) is a world-renowned research center that develops energy technologies and is the innovation engine of GE. In coordination with GE Aerospace (GEA), the world-leading supplier of commercial and military aviation propulsion systems, GER is developing advanced Sustainable Aviation Fuel (SAF) technologies as part of our commitment to sustainability and net-zero carbon aviation.
GER/GEA are specifically interested in developing technologies that achieve cost reduction and performance improvement in the production of SAF, including an interest in developing renewable energy-powered advanced reactor systems for conversion of CO2 into SAF.
GER works in multiple technology domains including materials and mechanical systems, thermosciences, digital science and engineering, electrical systems, applied physics, and controls and optimization; and impactfully applies these across all GE products. GER is interested in expanding its teaming with academia, national labs, non-profit organizations, and for-profit small and large businesses that have complementary capabilities to enable cost-effective SAF production from renewable power at scale. Relevant capabilities include:
• Deep understanding of jet engine technologies, application, certification, and life-cycle operation relevant to SAF.
• Fuel combustion test cells with current and advanced sustainable fuel capability.
• Advanced manufacturing including various additive manufacturing technologies, powder metallurgy, and advanced joining that can fabricate large parts.
• Multidisciplinary design experiences involving fluids, thermal and mechanical at system and component levels.
• Advanced design methods such as multiphysics topology optimization, shape optimization, and designs for architectured materials and structures.
• High-temperature materials for harsh environments and materials behavior
• Coating and surface technologies to improve chemical reactor efficiencies.
• Extensive analytical labs for characterizing organic and inorganic materials.
• Machine learning and probabilistic/uncertainty quantification expertise.
• Advanced control technologies.
• Development, maturation and utilization of new sensor technologies. |
| NY |
| | Virginia Tech | Guoliang (Greg) Liu | Associate Professor |
Academic
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| The research in our lab focuses on materials for energy and environmental sciences. We have recently developed a method for utilizing energy (either classical or renewable) to convert materials such as plastic waste and biomass feedstocks into liquid/solid fuel products. For example, in our recent paper (Science, 2023, 381, 666–671), we report the conversion of plastic wastes to well-controlled alkane and alkene products, which can be further upcycled to high-value surfactants. Our lab also specializes in materials, reactor design, and reaction engineering. we have developed methods to tune the products in the liquid range selectively. The process has a high yield of >80%, and we expect to provide exceptional high efficiency in utilizing intermittent renewable energy and converting it to liquid fuel using plastic waste or biomass feedstocks. |
| VA |
| | Idaho National Laboratory | Rebecca Fushimi | Distinguished Research Scientist |
Federally Funded Research and Development Center (FFRDC)
|
Other Energy Technologies
| The study of heterogeneous catalysts and dynamic reactor processes using transient kinetic methods: specifically Temporal Analysis of Products (TAP) pulse response studies and recently developed operando methods with high time-resolution.
Detailed kinetic characterization/discrimination of complex industrial catalysts.
Laboratory-scale dynamic reactors, compatible with renewable energy time scales.
A full suite of conventional catalyst characterization methods: BET; ICP; XRD; operando Raman, IR and UV-Vis; Chemisorption TPO, TPR, TPD; TGA-DCS, etc.
50 kW and >100 kW dynamic electrolysis systems driven by real-world renewable energy profiles. A complete suite of SOEC test capabilities and highly controlled test environments. |
| ID |
| | University of California, Merced | Min Hwan Lee | Associate Professor |
Academic
|
Other Energy Technologies
| Expertise in cell-level engineering for electrolyzers, fuel cells, batteries, and other electrochemical energy conversion cells. We have the capability of designing electrochemical cells for turning fuels (natural gas, syngas, alcohols, ammonia, hydrogen) into electricity, and vice versa. We focus on enhancing the efficiency, performance, and durability of these cells mainly via nano-/atomic-scale surface and interface treatments (using both wet-process and vapor-phase deposition techniques including atomic layer deposition), heterogeneous catalyst design, and/or micro-scale structural design. We are also highly experienced with materials' physicochemical and electrochemical analyses related to the performance and durability of these cells. |
| CA |
| | GE Vernova Advanced Research | Paul Glaser | Executive Leader for Hydrogen & Future Fuels |
Large Business
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| GE Vernova Advanced Research, located in Niskayuana, NY is the home of technology development, disruptive R&D, and governmental research partnerships. We support & accelerate the Power, Renewables, Electrification, and Digital businesses within our company, and partner with government agencies & commercial partners around the US and the world.
Our facilities & expertise include chemical synthesis & scaleup, renewable energy storage & modeling, high temperature electrochemistry , fuel-flexible combustion testing, additive manufacturing, CO2 capture, and world-class material analysis & discovery.
The production of energy-dense liquids via the inherently intermittent and highly variable energies produced by some renewable sources - without resorting to large scale H2, battery, or thermal storage will be investigated by coupling advantaged catalyst systems to our CO2 capture systems.
The relatively omnivorous nature of many of our power-generating technologies will allow us to support useful technoeconomic cases for the utilization of decarbonized liquid fuels without the burden of requiring highly specified or fully refined fuels. Such liquid fuels, including alcohols & crude hydrocarbon mixture can serve as valuable energy reserves for peaking operations with excellent dispatchability.
We also seek to partner with other teams to leverage our electrochemical technology, both at the cell / device level and the system level, ensuring that a proposed solution can be robust towards intermittency with a minimum of operational overhead and storage requirements, especially at micro-grid / package scale.
We look forward to partnering with innovative, capable teams to address what is certainly a difficult, but disruptive challenge in the liquid production space.
https://www.linkedin.com/in/paul-glaser-phd/ |
| NY |
| | SNL TECHNICAL SERVICES, LLC | Steve Kotefski | Senior Engineer |
Individual
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Power Generation and Energy Production: Liquid and Gaseous Fuels/Nuclear
| NOVEL ENERGY TECHNOLOGIES- The manufacture of a Hybrid Crude Oil from pollution waste streams. We currently have the ONLY patent on the subject of creating a Crude Oil from pollutants. In this case the Crude Oil or Hybrid Crude Oil is created from both Natural and Manmade sources.
The Basics of the innovation is to boil (at approx. 350 degrees) petroleum coated minerals in USED Motor Oil. As the petroleum coating (normally solid at ambient temperatures) reaches it melting temperature, the petroleum coating dissolves into the USED Motor Oil creating a new solution of a novel Crude Oil or Hybrid Crude Oil as we call it.
Why is it a Crude Oil – It is a crude oil because the Used Motor Oil is a homogeneous molecular liquid that allows for a petroleum coating (from a petroleum coated mineral)to dissolve into it. The petroleum coating from the mineral is a solid that does not dissolve in Motor Oil (used or virgin) under ambient temperatures but at elevated temperatures, a new Hybrid Crude Oil solution can be created. The reason why it is a Crude Oil is that Crude Oil consists of many varied carbon chain molecules (so that refineries can extract various petroleum products) and the petroleum coating from the minerals contributes the varied carbon chain molecules into the homogeneous motor oil solution.
What are petroleum Coated Minerals- Petroleum Coated Minerals come from natural and manmade sources-
1. Natural Sources-
a. Sand Tars -we recover 100% of the petroleum content (not the current industrial capability of 30% and the remainder is a pollutant
b. Shale- similar to the Sand Tars petroleum extraction issues described above.
c. Sludge- the heavy sediment from Crude Oil transport and Storage. Sludge from Crude Oil Shipping Tankers and Crude Oil Storage Tanks can be 100% "cleansed" of their petroleum content and converted into a (Hybrid) Crude Oil. Similar to the Sand Tar description above.
2. Manmade Sources-
a. Asphalt Millings (used Asphalt Pavements)- We remove the Asphalt Binder/Petroleum Coating (approx. 5% of the Asphalt Millings content)
and create a hybrid crude oil. The remainder (or 95%) of the Asphalt Millings is cleansed for reuse. Can be recycled THOUSANDS of times.
b. Asphalt Roofing Shingles – Similar to the Asphalt Millings description above except there is another component in Asphalt Roofing Shingles-
Fiberglass. As with the Asphalt Millings the Aggregate of the Asphalt Roofing Shingles is reclaimed for |
| NJ |
| | EDP Renewables North America | Martin Motta | Innovation Associate |
Large Business
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Power Generation: Renewable
| EDP Renewables North America LLC (EDPR NA), EDP Renewables North America LLC (EDPR NA), its affiliates, and its subsidiaries develop, construct, own, and operate wind farms, solar parks, and energy storage systems throughout North America. Headquartered in Houston, Texas, with 58 wind farms, 10 solar parks, and eight regional offices across North America, EDPR NA has developed more than 9,400 megawatts (MW) and operates more than 8,400 MW of onshore utility-scale renewable energy projects. With more than 1,000 employees, EDPR NA’s highly qualified team has a proven capacity to execute projects across the continent. EDPR NA is a wholly owned subsidiary of EDP Renewables (Euronext: EDPR), a global leader in the renewable energy sector. EDPR has a sound development portfolio of top-level assets and market-leading operating capacity in
renewable energies. Particularly worthy of note are onshore wind, distributed and utility-scale solar, offshore wind (OW - through a 50/50 joint venture), and technologies to complement renewables such as storage and green hydrogen.
EDPR is able to provide specialists in the subject of Mechanical engineering, Hydrogen production, and Lifecyle assessment. EDPR NA is currently in the process of developing its Hydrogen strategy in the US.
We are looking to leverage our expertise in renewables to develop a behind the meter hydrogen generation project using our renewable energy. |
| TX |
| | National Renewable Energy Laboratory | Marc T. Henry de Frahan | Computational Scientist |
Federally Funded Research and Development Center (FFRDC)
|
Other Energy Technologies
| At the National Renewable Energy Laboratory (NREL), we create and customize cutting-edge software modeling tools designed to tackle the barriers to decarbonization, leveraging the expertise of a diverse team of developers, applied mathematicians, and engineers.
Our work involves a variety of multiphysics fluid-based systems and applications involving complex chemical and physical interaction such as particle/fluid interactions; multiphase transport; chemically reacting flows; turbulence; multiscale, coupled phenomena; fluid-structure interactions; electrically charged flows; and flows in porous media complex chemical and physical interaction. NREL’s CFD and supporting tools provide solution-adaptive automatic mesh refinement; high-order accurate computational approaches; solvers for linear and nonlinear systems; advanced time-evolution strategies for coupled systems; complex, moving domain geometries; strategies to couple CFD with machine learning diagnostics, model development, inference, and training of artificial intelligence control algorithms; and cutting-edge, accelerator-based computing hardware.
NREL’s CFD team use modern software engineering practices to develop high-performance implementations of these algorithms that can effectively leverage a broad range of emerging high performance computing platforms. We leverage a range of software solutions, including commercial packages such as ANSYS Fluent, open-source packages such as OpenFOAM, and creating custom CFD software such as the Pele suite for reacting flows and the ExaWind suite for wind energy technology. |
| CO |
| | Nexceris | Matthew Mark Seabaugh | Dr |
Small Business
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Other Energy Technologies
| Nexceris offers world-class catalysts and process technologies thermochemical reactors that address heat transfer and mass transfer aspects of a range of reactions of interest for the conversion of renewables to liquids. We are seeking opportunities to partner with others to develop and demonstrate unique catalytic reactor designs, with a particular focus on the following:
1. conversion of syngas to liquids (Fischer-Tropsch synthesis)
2. conversion of hydrogen and nitrogen to ammonia
3. reverse water gas shift reactions
4. dry reforming of methane to syngas using CO2
We offer a unique catalyst packaging approach (www.heatpathsolutions.com) that offers remarkable heat transfer benefits, while maintaining well-established designs and approaches. We also have extensive complementary experience in the development of custom catalyst materials, catalyst packaging, as well as production scaling of these operations.
Our team is well-experienced in the development of catalyst and reactor technologies, with over 25 years' experience in providing cutting edge solutions to customers in both commercial and federally-funded opportunities. |
| OH |
| | BDO USA | Dan Durst | Managing Director |
Large Business
|
Other Energy Technologies
| BDO Knows Grants Management. In the ever-evolving grants landscape, BDO emerges as a guiding force, offering a seamless journey through the complete lifecycle of grants management. BDO partners with organizations seeking the following capabilities:
Capability 1: Crafting Visions - Pre-Award Support
Embarking on the grants journey, our clients find solace in BDO's adeptness at transforming abstract ideas into compelling narratives. With meticulous attention to detail, we assist in articulating project concepts, ensuring they resonate with grantors. BDO supports organizations with the development of compelling concept papers and convincing full applications. A team of budgeting and indirect cost rate negotiation experts complements our grant writing expertise.
Capability 2: Sustaining Triumphs - Post Award Administration
The grant journey does not end with the notice of award; it transforms into a partnership sustained by compliance and reporting. BDO's commitment to ensuring adherence to grant terms and conditions is unwavering. Our experts seamlessly support the accounting, procurement, property management, and cyber related responsibilities of the largest grant recipients.
Capability 3: Bridging Horizons - Technology Integration
In an era dominated by technology, BDO does not merely adapt; it leads. Our grants management experts are enabled with innovative technology, bringing forth a wave of efficiency to our clients. From accounting to subaward administration, our experts identify the right solutions for each clients’ unique needs.
Capability 4: Echoes of Success - Impact Reporting
The soul of BDO's journey lies in the success stories etched in collaboration with our clients and their programs. Through quantitative metrics and qualitative milestones, BDO designs compliant and insightful reporting frameworks to address awarding agency demands. |
| VA |