Funding will support the project team's small-scale research and development of an electrochemically catalyzed graphitization process using molten salts, operating at much lower temperatures (approx. 850°Celsius) and in shorter timescales (3-6 hours) to produce high-purity synthetic graphite.
Funding will support the project team's small-scale research and development of a technology to enhance the power delivery system for laser drivers by leveraging efficient microwave sources in combination with electron beams to energize excimer gas lasers used in generating laser-based inertial fusion energy.
Funding will support the project team's small-scale research and development of a process to capture helium from U.S. well sites by leveraging greenhouse gas (GHG)-free combustion of co-extracted geologic hydrogen to power a novel separation process.
Funding will support the project team's small-scale research and development of a long-distance wireless power transfer (WPT) 4 meter (m) phased array antenna with over 1 kilowatt of radio frequency power transmitting 200m to a 4m receiving antenna array with minimum 70 percent end-to-end efficiency from source to delivered direct current (DC) for the purpose of connecting energy generation with demand.
Funding will support the project team's small-scale research and development of a new catalytic graphitization technology for producing high-value graphite from various grades of petroleum coke at a lower temperature (1500 °C) and with a shortened process time (hours rather than days), compared with conventional processes.
Funding will support the project team's small-scale research and development of a Quantum Enhanced Photonic Radio Frequency Imaging Technology to map the structural integrity of rock formations, identify fault zones, and detect fluid-filled fractures for more accurate geothermal assessments and production management.
Funding will support the project team's small-scale research and development of an electrothermochemical technology to convert plastic waste into monomers using inexpensive catalysts.
CX-270829: Stanford University - Scaled Synthesis of Carbon Nanotubes via Autonomous Experimentation
Funding will support the project team's small-scale research and development of a reactor to produce high quality carbon nanotubes (CNT) at high production rates via combustion processes.
Funding will support the project team's small-scale research and development of smart screens that can automatically control fluid flow in enhanced geothermal systems (EGS) based on temperature by overcoming the challenges of premature thermal breakthrough and non-uniform heat extraction by enabling autonomous, temperature-based flow control without complex electronics or chemical treatments.
Funding will support the project team's small-scale research and development of gaseous optical elements technology for the purpose of manipulating high-power lasers for future laser-driven nuclear fusion power plants.