| | | | | |
Background, Interest, and Capabilities | |
| | |
| | |
 | Loading… |
|
 | Loading… |
| | | |
 | Loading… |
|
| Hawaii Natural Energy Institute, University of Hawaii at Manoa | Yunfeng Zhai |
Academic
|
Hydrogen and Fuel Cells
| | Hawaii Fuel Cell Test Facility was established in 2003 at HNEI, University of Hawaii at Manoa, cooperating with ONR, DOE and Hawaiian Electric Company, focus on the PEMFCs testing for commercial, unmanned aerial and underwater vehicles, the investigation of fuel/air/system contaminants effects on PEMFC performance and durability, and the development of advanced instrumentation for single cell and stacks characterization. In 2021, the facility was divided into three smaller labs, focus on materials development, single cell testing and diagnostics, and MEA fabrication and short stack testing, respectively. Four full time PhD researchers and specialists with 18+ years’ experience in fuel cell testing and material development and characterization. Capabilities: equipment and techniques for catalyst and electrolyte synthesis and characterization - High Temperature & Pressure Reactor, Tub Furnace, Rotavapors, Glove Box, Potentiostat & Impedance Analyzer, RRDE, BET, TG-MS, DSC, XRD, SEM-EDX, TEM, FT-IR, GC-MS etc; lab scale MEA fabrication (digital coating machine) and single cell (5-100 cm2)/short stacks (up to 2kW) testing and evaluation (6 PEM test stations). Current interests: synthesis and characterization of novel materials (catalysts, electrolytes) for electrochemical applications; development of contaminant tolerant fuel cells for harsh environments; advanced characterization methods (EIS and DRT, HiL, segmented cell system); HT-PEMFCs and AEMFCs. |
| HI |
| University of New Mexico | Sakineh Chabi |
Academic
|
Advanced Materials and Manufacturing Technologies Office (AMMTO)
| | Ultra lightweight materials, materials for extreme environments |
| NM |
| BLUE EARTH ENERGY | TOMISLAV NIZETIC |
Small Business
|
Geothermal
| Enhanced Geothermal Systems (EGS) | We are a newly founded US company with extensive experience in deep wells artificial lift production that we inherited from our founders. We are manufacturer of a newly developed production equipment that practically has no application temperature limit. The equipment has extremely small dimensions and can be optimally positioned deep in the well. The operating range is twice as wide as today's submersible pumps, as is the amount of fluid it can produce.
We have all the knowledge and software solutions needed to simulate the new system well production as well as all other standard production methods. We have production capacities, a US service center as well as our own development team that can solve the most challenging application requirements. With each new day, we strengthen our capacities and presence on the US market.
We are very interested in demonstrating our new production system in use and proving what new possibilities it opens up for the production of geothermal energy as well as the faster expansion of its use. |
| DE |
| Barupon LLC | Rupa Tammabattula |
Small Business
|
Cross-Cutting
| | Barupon Tech invests in R&D efforts to find alternative Pt-free catalysts to hydrogen and fuel cells systems including but not limited to Zeolites, and alternative cost-effective storage and transport solutions to LH2. |
| CA |
| Los Alamos National Laboratory | Wilton Kort-Kamp |
Federally Funded Research and Development Center (FFRDC)
|
Hydrogen and Fuel Cells
| Machine learning | As a member of the Electrocatalysis Consortium (ElectroCat), I have been developing and applying machine learning, uncertainty quantification, and global optimization strategies to accelerate the discovery and optimization of PGM-free electrocalysts (working with both computational and experimental datasets). Similar data science methodologies have also been developed to guide reactive transport simulations via finite-element methods. |
| NM |
| Los Alamos National Laboratory | Edward (Ted) F. Holby |
Federally Funded Research and Development Center (FFRDC)
|
Hydrogen and Fuel Cells
| Electrocatalyst modeling | As a member of the Electrocatalysis Consortium (ElectroCat), I have been applying and developing methodologies to utilize density functional theory simulations of platinum group metal free (PGM-free) electrocatalyst structures in order to better understand activity and stability limitations for oxygen reduction and evolution reactions. |
| NM |
| Argonne National Laboratory | Deborah Myers |
Federally Funded Research and Development Center (FFRDC)
|
Hydrogen and Fuel Cells
| Low temperature water electrolysis and fuel cells | Argonne National Laboratory and Los Alamos National Laboratory co-lead the Electrocatalysis Consortium (ElectroCat). ElectroCat, now in its second phase (ElectroCat 2.0). ElectroCat is addressing by addressing primary challenges to the widespread implementation of polymer electrolyte fuel cells and hydrogen production by alkaline membrane water electrolysis. The precious metal electrocatalysts that are the current standard in fuel cell and electrolyzer systems are expensive and restrict the ability to develop devices that are cost-competitive with traditional power and hydrogen production technologies. this barrier by accelerating the development and deployment of platinum group metal-free electrocatalysts. To do this, the Consortium is employing a systematic approach in which potential catalysts are synthesized and analyzed rapidly and comprehensively using high-throughput, combinatorial methods and advanced characterization techniques. These in turn are guided by computational work, machine learning, and fundamental electrocatalysis and materials knowledge housed across the national laboratory network. ElectroCat 2.0 leverages progress in PGM-free fuel cell catalyst development made by the original ElectroCat Consortium (2016-2020) to drive further innovation in fuel cells and applies its proven experimental and computational methods to tackle PGM-free catalysts for electrolyzers. Core consortium national laboratories are Argonne National Laboratory, Los Alamos National Laboratory, Oak Ridge National Laboratory, and the National Renewable Energy Laboratory. |
| IL |
| Texas Tech University | Mahdi Malmali |
Academic
|
Advanced Manufacturing (Industrial)
| scalable synthesis routes | Design of advanced separation materials (membranes, sorbents, etc.) for energy and water applications - Highly conductive sorbents for hydrogen storage, ammonia separation, and intensified ammonia production - Modeling and simulation - Advanced electroconductive membranes |
| TX |
| UNISCRAP PBC | Panas Kollas |
Small Business
|
Solar
| | Advanced materials research for High Efficiency Solar cells generation. Semiconductors III - V. We plan to create a laboratory for Materials Efficiency testing for solar energy on space and solar energy on the earth
Experience on R&D through SBIR programs of NASA and NSF |
| DE |