TECHNOLOGY/BUSINESS OPPORTUNITY Transparent Ceramics Fabricated by Material Jet Printing
ID: IL-13554Type: Special Notice
Overview

Buyer

ENERGY, DEPARTMENT OFENERGY, DEPARTMENT OFLLNS – DOE CONTRACTORLivermore, CA, 94551, USA
Timeline
    Description

    Special Notice ENERGY, DEPARTMENT OF TECHNOLOGY/BUSINESS OPPORTUNITY Transparent Ceramics Fabricated by Material Jet Printing

    The Department of Energy (DOE) is offering a collaboration opportunity to further develop and commercialize its Transparent Ceramics Fabricated by Material Jet Printing technology. This technology aims to address the need in the laser industry for a cost-effective method to produce planar waveguides used for laser gain media with 3D control of the index and gain profiles. The technology utilizes a Material Jetting technique to form a ceramic green body that is subsequently processed into a transparent ceramic optic with unique tunable spatial control of the composition. It allows for the fabrication of structures with complex composition and optical functionality, as well as rapid and gradual compositional changes. The technology offers advantages such as enhanced mode stability and efficiency improvements over conventional devices. Potential applications include the fabrication of transparent ceramic optics with complex composition and optical functionality. Lawrence Livermore National Laboratory (LLNL) is seeking industry partners with the ability to bring this technology to the market. Interested companies should provide a statement of interest including company information, relevant expertise, and facilities.

    Point(s) of Contact
    Files
    No associated files provided.
    Similar Opportunities
    TECHNOLOGY/BUSINESS OPPORTUNITY Piezo-driven jetting of powders for controlled packing density
    Active
    Energy, Department Of
    The Department of Energy, through the Lawrence Livermore National Laboratory (LLNL), is offering a collaboration opportunity to further develop a piezo-driven jetting method for additive manufacturing aimed at enhancing controlled packing density of powders. This innovative technology addresses challenges in producing geometrically complex parts with reduced porosity and improved material efficiency, making it applicable for both metal and ceramic powders in various industries, including manufacturing and pharmaceuticals. Interested companies with relevant expertise are encouraged to submit a statement of interest, including company details and capabilities, to LLNL's Innovation and Partnerships Office by contacting Austin Smith or Charlotte Eng via email or phone. This opportunity is not a procurement but a call for industry partners to commercialize the technology, which is currently at Technology Readiness Level 3 and has patent protection filed.
    TECHNOLOGY LICENSING OPPORTUNITY Green 3D Electrodeposition (G3DED): Revolutionizing Advanced Manufacturing of Metallic Fuel Elements
    Active
    Energy, Department Of
    Special Notice ENERGY, DEPARTMENT OF TECHNOLOGY LICENSING OPPORTUNITY Green 3D Electrodeposition (G3DED): Revolutionizing Advanced Manufacturing of Metallic Fuel Elements The Department of Energy is seeking a technology licensing opportunity for Green 3D Electrodeposition (G3DED), a groundbreaking approach to fabricate high-performance metal fuels. This technology combines green electrodeposition with 3D manufacturing, ensuring efficiency, reduced contamination, and cost-effectiveness. Traditionally, metal fuel fabrication has relied on high-temperature processes, which often lead to contamination and waste. While 3D printing brought innovation, it introduced challenges in nuclear applications. The G3DED technology addresses these issues by harnessing the benefits of green electrodeposition in ionic liquid electrolytes and integrating it with advanced 3D manufacturing techniques. The G3DED technology allows for the fabrication of metallic fuels at room or slightly elevated temperatures, optimizing fuel composition and microstructures. It offers significant reductions in contamination and waste, versatility in using different starting materials, and potential cost savings due to process simplification. The technology is scalable and designed to meet diverse application needs. Potential applications of G3DED include fabrication of nuclear fuels and components, corrosion prevention, processing of new fuels, spent fuels, and nuclear wastes. It also has potential applications in the production of lightweight materials like aluminum and titanium alloys, manufacturing of battery materials, electrodes, and devices, and electrochemical dissolution of noble metals for etching and machining. The G3DED technology is currently at Technology Readiness Level (TRL) 2, with a technology concept and/or application formulated. It is protected by a US Patent Application (No. 17/309,574) managed by Battelle Energy Alliance, LLC. The Idaho National Laboratory (INL) is eager to form commercial collaborations and license the intellectual property to organizations proficient in bringing innovations to the market, particularly small businesses and start-ups. For further inquiries and collaboration opportunities, please contact Andrew Rankin at td@inl.gov. More information about collaborating with INL can be found at https://inl.gov/inl-initiatives/technology-deployment.
    TECHNOLOGY LICENSING OPPORTUNITY Embedded Fiber Optic Sensors in High-Temperature Materials
    Active
    Energy, Department Of
    Special Notice ENERGY, DEPARTMENT OF TECHNOLOGY LICENSING OPPORTUNITY Embedded Fiber Optic Sensors in High-Temperature Materials The Department of Energy is offering a technology licensing opportunity for embedded fiber optic sensors in high-temperature materials. This technology utilizes Electric Field-Assisted Sintering (EFAS) to embed fiber optic sensors in high-temperature structural materials for real-time structural health monitoring in extreme environments. It is typically used for real-time monitoring in high-temperature, high-pressure, and radioactive environments, making it crucial for ensuring the integrity and safety of components in industries such as nuclear reactors, aerospace, and high-temperature industrial settings. The technology has undergone testing to verify the integrity and functionality of the embedded fiber and the quality of the bond between the fiber and the metallic matrix. Benefits include achieving successful real-time monitoring, improving bond quality, ensuring scalability, and minimizing signal loss. Applications include nuclear reactor monitoring, aerospace components, automotive systems, energy production infrastructure, and biomedical engineering. The technology is at a Technology Readiness Level (TRL) 3, with key proof-of-concept experiments and parameter optimizations already completed. Interested companies should contact Andrew Rankin at td@inl.gov for more information on this licensing opportunity.
    Licensing Opportunity: Limited Center Constraint of Optimal Thickness Build Substrates for Additive Manufacturing
    Active
    Energy, Department Of
    The Department of Energy is offering a licensing opportunity for a technology titled "Limited Center Constraint of Optimal Thickness Build Substrates for Additive Manufacturing," developed by ORNL UT-Battelle LLC. This innovative method addresses significant challenges in additive manufacturing, specifically focusing on substrate design and fixturing to minimize residual stress, distortion, and cracking during the printing process. The technology is applicable across various industries, including aerospace, automotive, and composite manufacturing, ensuring that the final machined part remains intact despite substrate distortion. Interested parties can contact Alex DeTrana at detranaag@ornl.gov or call 865-341-0423 for further information regarding this opportunity.
    TECHNOLOGY LICENSING OPPORTUNITY Enhanced Stability for Li Metal Batteries with Molybdenum Decorated Collectors
    Active
    Energy, Department Of
    Special Notice: ENERGY, DEPARTMENT OF is seeking a Technology Licensing Opportunity for the Fabrication of Complex Microchannels using Co-Sintering. This technology offers a hybrid co-sintering process with 3D printing and chemical processing, allowing for superior microstructural control, simplified component processing, and novel coatings control in embedded microchannels. The service/item being procured is typically used for the development of anode-free rechargeable lithium batteries with improved cycling performance and significantly increased energy density. The technology utilizes a molybdenum-based current collector at the anode side, which induces uniform Li plating/stripping morphologies with reduced overpotential, suppressing dendrite growth and dead Li formation. This scalable process uses commercially available sputtering technology and is currently at Technology Readiness Level 2, requiring proof-of-concept work. Interested parties can partner with Idaho National Laboratory (INL) for access to this pioneering technology and mutual growth. For more information, please contact Andrew Rankin at td@inl.gov.
    TECHNOLOGY LICENSING OPPORTUNITY Solid State Nuclear Lasing Sensors: Revolutionizing In-Pile Reactor Measurements
    Active
    Energy, Department Of
    Special Notice: ENERGY, DEPARTMENT OF is seeking a technology licensing opportunity for Solid State Nuclear Lasing Sensors. These sensors revolutionize in-pile reactor measurements by enhancing accuracy and spatial resolution. Traditional nuclear reactor power measurement methods have limitations in spatial resolution and potential inaccuracies. This groundbreaking technology utilizes solid state lasing media/crystals to produce laser light, which directly correlates with reactor power and radiation flux. The sensors can be strategically placed within the reactor for real-time power/flux distribution measurements. The technology has applications in commercial nuclear power plants, micro nuclear reactors, and space power and nuclear thermal propulsion reactors. The development status is at TRL 3 - Analytical and experimental proof-of-concept. For more information and collaboration opportunities, please contact Andrew Rankin at td@inl.gov.
    Tech Licensing Opportunity: Synthesis of Tungsten Tetraboride (WB4) by Electric Field Assisted Sintering (EFAS)
    Active
    Energy, Department Of
    Special Notice ENERGY, DEPARTMENT OF: Tech Licensing Opportunity: Synthesis of Tungsten Tetraboride (WB4) by Electric Field Assisted Sintering (EFAS) This federal procurement notice is seeking a licensing opportunity for the synthesis of Tungsten Tetraboride (WB4) using Electric Field Assisted Sintering (EFAS). Tungsten Tetraboride is a material known for its exceptional hardness and thermal properties. EFAS is a modern technique that revolutionizes the production of WB4 by maintaining precise conditions necessary for optimal material characteristics. The traditional methods of synthesizing WB4, such as arc melting, often result in impurities and unwanted phases. EFAS overcomes these limitations by employing controlled sintering temperatures and accurate atomic ratios without the need to melt the components. This process ensures the production of WB4 with minimal impurities and maximum hardness. The advantages of this licensing opportunity include enhanced material quality, scalability for larger batches and custom sizes, cost-effectiveness through the use of less expensive raw materials, and radiation resistance suitable for nuclear applications. The problems solved by this opportunity include inconsistent synthesis quality and low yield of WB4 using traditional methods, high cost and complexity of large-scale production of similar materials, and the lack of cost-effective and efficient materials for extreme thermal environments and radiation shielding. The market applications for this technology include enhancing the longevity and performance of machining tools in automotive and aerospace manufacturing, providing lighter and more effective armor for defense and ballistic protection, and improving the safety and efficiency of nuclear reactors. The development status of this technology is at TRL 3, and there is a US Provisional Patent Application in progress. Interested parties can learn more about this licensing opportunity and the support provided by contacting td@inl.gov or visiting https://inl.gov/technology-deployment/.
    Licensing Opportunity: Deterministic Atom Steering for Repeated Identical Defect Generation in the Scanning Transmission Electron Microscope
    Active
    Energy, Department Of
    The Department of Energy, through ORNL UT-Battelle LLC, is offering a licensing opportunity for a groundbreaking technology titled "Deterministic Atom Steering for Repeated Identical Defect Generation in the Scanning Transmission Electron Microscope." This innovative method allows for the precise control and placement of atomic defects in materials, significantly enhancing applications in quantum photonics, magnetic storage, and catalysis, while overcoming limitations of traditional scanning tunneling microscopes. The technology is applicable to both 2D and 3D materials, enabling scalable atomic-scale manufacturing without damaging the material's atomic content. Interested parties can learn more about this opportunity by contacting Leslie Smith at smithlm@ornl.gov or by calling 865-341-0373.
    Tech Licensing Opportunity: Electric Field Assisted Sintering of Bimetallic Materials
    Active
    Energy, Department Of
    The Department of Energy is offering a technology licensing opportunity for a novel method of Electric Field Assisted Sintering (EFAS) of bimetallic materials, aimed at enhancing the joining of dissimilar metals. This innovative technology addresses the limitations and high costs associated with traditional welding methods, providing a practical solution for industries such as aerospace, heat transfer, and manufacturing by enabling the fusion of materials like aluminum and stainless steel without the need for bulky connectors. The technology is currently at Technology Readiness Level 5 and is supported by a US Provisional Patent Application, with the Idaho National Laboratory (INL) seeking partnerships to commercialize this advancement. Interested parties can contact Andrew Rankin at andrew.rankin@inl.gov for further discussions on licensing terms and opportunities.
    Licensing Opportunity: Real-Time, Rapid and Noninvasive Atomic Lock-On in the Scanning Transmission Electron Microscope
    Active
    Energy, Department Of
    The Department of Energy, through ORNL UT-Battelle LLC, is offering a licensing opportunity for a groundbreaking technology that enables real-time, rapid, and non-invasive atomic lock-on in scanning transmission electron microscopes (STEM). This innovative procedure allows for ultra-precise targeting of individual atoms with a precision below 20 picometers, significantly enhancing the capabilities of STEM by automating beam experiments and minimizing human error. The technology is particularly relevant for applications in semiconductor manufacturing and materials research, providing benefits such as non-invasiveness, speed, and high precision. Interested parties can learn more about this opportunity by contacting partnerships@ornl.gov or calling 865-574-1051.