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The melt-infiltration technology developed by materials science researchers at the Georgia Institute of Technology uses solid-state electrolytes with low melting points that are infiltrated into dense, thermally stable electrodes at moderately elevated temperatures (~300? —Professor Gleb Yushin, corresponding author. —Gleb Yushin.
Researchers at Georgia Tech have developed a promising new conversion-type cathode and electrolyte system that replaces expensive metals and traditional liquid electrolyte with lower cost transition metal fluorides and a solid polymer electrolyte. A paper on their work is published in the journal Nature Materials.
A team from Georgia Tech, with colleagues at the university of Kansas, has designed a high-performance solid-oxide fuel cell that operates directly on nearly dry (only ~3.5 Solid oxide fuel cells (SOFCs) are potentially the most efficient technology for direct conversion of hydrocarbons to electricity. d , A top-down view of the ARL.
Researchers at Georgia Tech, with colleagues in China and Saudi Arabia, have developed a rationally designed, multi-phase catalyst that significantly enhances the kinetics of oxygen reduction of the state-of-the-art solid oxide fuel cell cathode. This work demonstrates that a multi-phase catalyst coating (? —Chen et al.
The projects are located in North Carolina, New Jersey, Massachusetts, Rhode Island, Georgia, and Quebec, Canada (through collaboration with a company based in Lexington, Ky.). This integrated capture and conversion process will be used to produce a number of different chemicals that could replace petroleum-derived products.
One in five studies of MOF materials examined by researchers at the Georgia Institute of Technology were judged to be “outliers,” with results far beyond the error bars normally used to evaluate study results. Brock III School Chair in the Georgia Tech School of Chemical and Biomolecular Engineering. —Park et al.
The first two plants are expected to be in Mississippi, with additional sites planned in Georgia and Texas. The first plant under that agreement (and the company’s first commercial unit overall) will be located in Columbus, MS and funded by the proceeds of a $75-million loan from the State of Mississippi. Earlier post.)
Scientists at the US Department of Energy’s (DOE) National Renewable Energy Laboratory (NREL) have developed an enzyme that can enable the conversion of biomass to sugars up to 14 times faster and more cheaply than competing catalysts in enzyme cocktails today. CelA converted to double that extent. Acting alone or in combination with a ?-glucosidase,
The research is part of a broad effort to identify scalable and commercially viable solutions to help meet increasing global energy demand with a renewable resource. UW-Madison has long been known for its expertise in biomass conversion.
A team at the University of Georgia, Athens led by Distinguished Research Professor Michael Adams has discovered tungsten in what appears to be a novel enzyme in the biomass-degrading thermophilic bacterium Caldicellulosiruptor bescii. Avoiding pretreatment would boost commercial viability.
Natural Gas Reactor for Remote Chemical Conversion. gas, the first step in the commercial process of converting natural. conversion of natural gas to liquid fuels. combustor of a natural gas turbine, facilitating its conversion into a. Biocatalyst for Small-Scale Conversion. Small-scale conversion.
Two of these selections will address research efforts on the efficient conversion of biogas (a mixture of gases generated from the biological breakdown of organic material) to valuable products other than power. million to develop a conversion process demonstrating the production of muconic acid from biogas. American Process, Inc.
Phase 1 of the ABBA Integrated Biorefinery project, to be built at the AVAPCO Thomaston Georgia site, has begun. The project, which will co-produce full replacement renewable jet fuel, gasoline, diesel and Bioplus nanocellulose from woody biomass in an integrated biorefinery at AVAPCO’s site in Thomaston, Georgia, has received a $3.7-million
has produced cellulosic methanol from the initial phase of its first commercial cellulosic biofuels plant near Soperton, Georgia using non-food biomass. Range Fuels, Inc. The cellulosic methanol produced from Phase 1 will be used to produce biodiesel.
In addition to those 8, LanzaTech is developing additional pilot-scale plants, including a facility for alcohol-to-jet (ATJ) in Soperton, Georgia. LanzaTech has partnered with Boeing, Virgin Atlantic, General Electric, and Pacific Northwest National Laboratory (PNNL) to develop and commercialize their ATJ (Alcohol-to-Jet) processes.
Redox’s new material configuration also allows the operating temperature to be reduced when incorporated into commercially fabricated fuel cells. Georgia Tech Research Corporation. The fuel cells will have a startup time of less than 10 minutes, making them more responsive to demand. Materials & Systems Research, Inc.
The two cross-functional groups will seek to break down critical barriers to the commercialization of algae-based and biomass-based advanced renewable transportation fuels. Louis, MO), NAABB will develop a systems approach for sustainable commercialization of algal biofuel (such as renewable gasoline, diesel, and jet fuel) and bioproducts.
A team from Georgia Tech, University of California, Berkeley, and the Joint BioEnergy Institute at Lawrence Berkeley National Laboratory has now engineered Escherichia coli bacteria to produce pinene, the immediate precursor to pinene dimers, a biosynthetic alternative to JP-10. kg, or $5.31/gal gal of pinene, resulting in a final price of
Korea), Georgia Institute of Technology, and Dong-Eui University (S. The power density of a commercialized low-temperature SOFC system developed by researchers at the University of Maryland and Redox Power is also more than 2W cm -2 , earlier post.). Peak power densities of cells with LnBa 0.5 GDC (Ln = Pr and Nd) cathode. 2 at 600°C.
Three projects will study the stability and durability of cathode materials when exposed to varying levels of humidity and contaminants expected in commercial deployment. Georgia Tech Research Corporation. The goal of this project is aimed at development of highly active and stable intermediate temperature SOFC cathodes.
The resulting roadmap uses the integration of genetic engineering with analytical chemistry tools to tailor the structure of lignin and its isolation so it can be used for materials, chemicals and fuels, said lead author Arthur Ragauskas, a professor in the School of Chemistry and Biochemistry at the Georgia Institute of Technology.
BONDERITE M-NT 8453 is a chrome-free conversion coating that improves the adhesion and durability of bonded joints in vehicle structures as well as paint finishes on exterior components. The product is commercially available today and is currently being qualified with several global automakers.
This funding will advance the research and development of advanced biofuel technologies to speed the commercialization of renewable, domestically produced, and affordable fossil-fuel replacements. Global Algae Innovations Inc.,
Financing for novel biorefinery process systems can be a barrier to commercializing advanced biofuels, and this funding will reduce technological uncertainties and enable industry deployment. This project will demonstrate the conversion of gaseous carbon wood wastes (terpenes) to renewable Terpenes SAF blending components.
performance to the best commercial magnets and be significantly less expensive. properties on a prototype bulk magnet exceeding state-of-the-art commercial magnets. Concentrating Solar Power/Nuclear: High Efficiency Solar Electric Conversion Power Tower Abengoa Solar will develop a high efficiency solar-electric. generation.
Expansion of manufacturing for existing electric drive power electronics components for both passenger and commercial vehicles. Increasing US capacity to manufacture hybrid systems for the commercial truck market. Accelerate the launch and commercialization of PHEVs and EVs by partnering with 15 of America's leading utilities.
Biden’s grants will bolster EV supply chains, promote electric school buses, and boost commercial EV development. Facilities in Georgia, Michigan, Pennsylvania, Ohio, Indiana, Illinois, Maryland, and Virginia are on the list. That said, it’s unlikely to change the conversation about his candidacy and age.
GTI will demonstrate how the pellets/briquettes are rugged enough to withstand transportation and piling and show how the pellets/briquettes can be processed into a crushed or pulverized product suitable for use in a commercial coal gasifier. Georgia Institute of Technology (Atlanta, Ga.) GreenFields Coal Company in Beckley, W.Va.;
Georgia Tech Research Corporation, EDISON – Efficient DC Interrupter with Surge Protection – $3,000,000. Georgia Tech is proposing a novel hybrid direct-current (DC) circuit breaker technology that will enable multi- terminal DC power systems. Marquette University, Ultra-Fast Resonant DC Breaker – $500,000.
Georgia Tech Research Corporation. Georgia Tech will develop a new approach to internally cool permanent magnet motors. Ecolectro’s AEIs would be resilient to the harsh operating conditions present in existing alkaline exchange membranes that prevent their widespread adoption in commercial applications. Kampachi Farms, LLC.
A ceramic-based mechanical pump able to operate at record temperatures of more than 1,400 ˚C (1,673 K) can transfer high-temperature liquids such as molten tin, enabling a new generation of energy conversion and storage systems. This would allow us to create a new type of battery. —Asegun Henry.
The trucks will be deployed in Alabama, Arizona, Georgia, Florida, Mississippi, Nevada, Ohio and Texas later this year. When the economic benefits of conversion became less certain, the company pivoted away from passenger vehicles and began to focus on electrifying commercial vehicles. AMP Electric Vehicles went public in 2010.
data center energy consumption and operating cost while creating a high-volume commercial market for SiC-based power converters. Georgia Institute of Technology. The team’s lightweight direct AC- to-AC converter obviates the need for conversion to DC, a wasteful intermediate step, and will operate at temperatures as high as 200 oC.
If commercially successful, small modular reactors would significantly expand the options for nuclear power and its applications, and may prove advantageous compared to the Generation III+ nuclear plants in terms of economics, performance, and security. Georgia Institute of Technology - $1,046,277. Idaho State University - $1,287,921.
Department of Energy’s Savannah River National Laboratory in South Carolina and the Georgia Institute of Technology in Atlanta. In addition, she said the Iowa State team has already pulled in multiple partners willing to help commercialize distributed biorefineries. of Adel; and the Iowa Energy Center.
Novel Biological Conversion of Hydrogen and Carbon Dioxide Directly into Biodiesel. Johnson Matthey will investigate the catalytic conversion of this microbial biodiesel into additional fuel molecules, most importantly jet fuel. of Georgia). Georgia Institute of Technology. Georgia Institute of Technology).
will develop a commercially viable process for the production of bio-butanol, an advanced biofuel, from seaweed (macroalgae). Scaling and Commercialization of Algae Harvesting Technologies. Towards Scale Solar Conversion of CO 2 and Water Vapor to Hydrocarbon Fuels. DuPont and Bio Architecture Lab, Inc. DOE grant: $9,000,000).
Related to this, DOE seeks by 2020 to develop novel precursors and conversion processes capable of reducing the high-volume cost of high-strength carbon fiber by 25% from $13 per pound to ~$9 per pound. . $10/kWh ($333/kg H 2 stored ). kWh/kg system (7.5 kWh/L system (0.070 kg H 2 /L). $8/kWh 8/kWh ($266/kg H 2 stored ).
Researchers at Virginia Tech, Oak Ridge National Laboratory (ORNL), and the University of Georgia have produced hydrogen gas in a spontaneous, “one-pot” process using an enzyme cocktail, cellulosic materials from non-food sources, and water. Hydrogen production from cellodextrin and water by a synthetic enzymatic pathway.
Durable and affordable higher-temperature heat exchangers could make energy conversion much more efficient, which in turn could reduce fuel consumption, system footprint, capital and operational cost, and emissions. This would substantially reduce aviation fuel usage and carbon emissions.
will prepare an initial engineering design study to use commercial-scale membrane CO 2 capture technology at the CEMEX Balcones cement plant in New Braunfels, TX. Praxair will complete an initial engineering design study for a Linde-BASF CO 2 capture system at a commercial steam methane reforming (SMR) hydrogen plant in Convent, LA.
TSU-JAE KING LIU University of California, Berkeley “For leadership in the advancement and commercialization of nanometer semiconductor technologies and the promotion of microelectronics workforce development.” HAGIT MESSER-YARON Tel Aviv University “For contributions to sensing of the environment using wireless communication networks.”
The company plans to expand production by region through a two-track approach of line conversion in ICE factories and new dedicated EV plant establishment. For the successful commercialization of Motional, the Group will not only develop the vehicle but also the sales network, infrastructure and after-sales service.
will advance improved commercial seed cultivars. Georgia Institute of Technology. In addition, this design results in more efficient energy conversion at lower temperatures and increases the lifetime of the system components. Finally, Chromatin Inc. Purdue University. GENSETS Solid State Devices Awards. Lead organization.
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