TECHNOLOGY/BUSINESS OPPORTUNITY Recyclable Polyurethanes
ID: IL-13861Type: Special Notice
Overview

Buyer

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

NAICS

Plastics Material and Resin Manufacturing (325211)
Timeline
    Description

    The Department of Energy, through the Lawrence Livermore National Laboratory (LLNL), is offering a collaboration opportunity to further develop a novel process for the chemical degradation of polyurethane plastics. This initiative aims to address the challenges associated with recycling polyurethanes, which currently have low recycling rates and economic viability due to difficulties in reprocessing. The LLNL researchers have developed a method utilizing functional alcohols that significantly enhances depolymerization efficiency, allowing for the complete breakdown of crosslinked polyurethane networks into liquid oligomers within 48 hours at ambient temperature, with potential applications in polyurethane recycling and 3D printing. Interested companies are encouraged to submit a statement of interest, including their corporate expertise and contact information, to the Innovation and Partnerships Office at LLNL by email or written correspondence, with further details available on their website.

    Point(s) of Contact
    Files
    No associated files provided.
    Lifecycle
    Title
    Type
    Similar Opportunities
    TECHNOLOGY/BUSINESS OPPORTUNITY Simple, Cost-Effective Method for Producing Functional Electro-Optical Materials and Devices
    Active
    Energy, Department Of
    The Department of Energy, through the Lawrence Livermore National Laboratory (LLNL), is offering a collaboration opportunity to further develop and commercialize a Simple, Cost-Effective Method for Producing Functional Electro-Optical Materials and Devices. This initiative aims to address the need for low-cost fabrication strategies for functional devices with tailored properties, particularly in optical applications such as deep UV photodetectors and flexible sensors. The technology involves innovative material transformations, allowing for the creation of semiconducting oxides from conductive metals in a single step, thereby streamlining the manufacturing process. Interested companies are encouraged to submit a statement of interest, including relevant corporate expertise and contact information, to LLNL's Innovation and Partnerships Office by following the specified guidelines. For further inquiries, contact Alex Hess at hess12@llnl.gov or Charlotte Eng at eng23@llnl.gov.
    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 Chemistry Breakthrough: Transforming CO2 into Olefins with Innovative Electrocatalysis
    Active
    Energy, Department Of
    Special Notice ENERGY, DEPARTMENT OF TECHNOLOGY LICENSING OPPORTUNITY: Green Chemistry Breakthrough: Transforming CO2 into Olefins with Innovative Electrocatalysis The Department of Energy is seeking a technology licensing opportunity for a green chemistry breakthrough that efficiently converts carbon dioxide into olefins. This technology offers a sustainable solution for the chemical and polymer industries by reducing dependency on petrochemical feedstocks and addressing the need for decarbonization and sustainable methods in the chemical industry. The system utilizes a proton-conducting solid oxide electrochemical cell with perovskite-structured mixed metal oxide catalysts, operating at intermediate temperatures (300-500°C). It allows for flexibility in hydrogen sources and energy input, providing higher CO2 conversion and energy efficiency compared to traditional methods. The catalysts used in the system offer high activity and selectivity, making the process more efficient. This technology has the potential for modular implementation, making it appealing for on-site CO2 valorization at industrial plants. It can be used in the petrochemical and polymer industries, sustainable aviation fuel production, and industrial plants with CO2 emissions. Companies specializing in CO2 utilization technologies can also benefit from this technology. The technology is currently at Technology Readiness Level (TRL) 3, with analytical and experimental proof-of-concept demonstrated. It is protected by a provisional patent application. Interested parties can partner with Idaho National Laboratory (INL) for access to this pioneering technology and mutual growth. For more information and to discuss how your business can benefit from this technology licensing opportunity, please contact Andrew Rankin at td@inl.gov.
    TECHNOLOGY/BUSINESS OPPORTUNITY Scaled Synthesis of MXenes
    Active
    Energy, Department Of
    The Department of Energy, through the Lawrence Livermore National Laboratory (LLNL), is offering a collaboration opportunity to develop and commercialize a scaled-up chemical synthesis method for MXenes, advanced materials known for their potential in electromagnetic shielding applications. The objective is to enhance the synthesis process, which currently suffers from low yields and variability, by utilizing a novel solution-phase method that achieves over 70% production yield, significantly improving upon traditional methods. MXenes are gaining attention for their lightweight, flexible properties and potential applications in various fields, including electronics, batteries, and water desalination. Interested companies are encouraged to submit a statement of interest, including relevant corporate expertise and contact information, to LLNL's Innovation and Partnerships Office by email or written correspondence.
    TECHNOLOGY LICENSING OPPORTUNITY Electrochemical Revolution: Transforming Methane into Ethylene
    Active
    Energy, Department Of
    Special Notice ENERGY, DEPARTMENT OF TECHNOLOGY LICENSING OPPORTUNITY Electrochemical Revolution: Transforming Methane into Ethylene The Department of Energy is seeking a technology licensing opportunity for a modular electrocatalytic membrane reactor system that efficiently upgrades methane into ethylene. This technology addresses challenges faced by traditional methods of ethylene production from methane, such as low conversion rates and low selectivity, as well as safety risks. It is targeted towards the petrochemical and polymer industries that use natural gas or natural gas liquids as feedstock. The system offers higher efficiency, safety, modularity, and versatility, and has potential environmental benefits by reducing CO2 emissions. Applications include the petrochemical and polymer industries, small-scale natural gas reserve exploitation, and renewable hydrocarbon source conversion. The technology is currently at Technology Readiness Level 3 and has a provisional patent application. Interested parties can partner with Idaho National Laboratory for access to the technology. For more information, contact Andrew Rankin at td@inl.gov.
    Licensing Opportunity: Membrane Contactor for Energy-Efficient CO2 Capture from Point Sources with Physical Solvents
    Active
    Energy, Department Of
    The Department of Energy is offering a licensing opportunity for a novel membrane contactor technology designed for energy-efficient CO2 capture from point sources using physical solvents. This innovative method utilizes deep eutectic solvents (DES) in a membrane contactor system, allowing for effective CO2 separation through a process that includes gas contact, physisorption, and solvent recirculation, all while minimizing energy consumption and operational challenges associated with traditional methods. The technology has significant applications across various industries, including power generation, chemical manufacturing, biogas upgrading, and natural gas processing, making it a vital solution in the fight against greenhouse gas emissions. Interested parties can reach out to Andreana Leskovjan at leskovjanac@ornl.gov or call 865-341-0433 for further information regarding this opportunity.
    Licensing Opportunity: Catalytic Regeneration of Amino Acid
    Active
    Energy, Department Of
    The Department of Energy is offering a licensing opportunity for a novel technology aimed at improving the catalytic regeneration of amino acid-based solvents used in carbon dioxide capture. This innovative process utilizes a titanium dioxide catalyst to significantly reduce the energy and temperature requirements for solvent regeneration, addressing a major barrier to the commercialization of carbon capture technologies. The technology is particularly relevant for carbon capture plants, as it can decrease regeneration temperatures from the typical 120°C-140°C to below 100°C, while enhancing carbon dioxide removal rates by up to 128 percent and reducing overall costs by up to 50 percent. Interested parties can learn more about this opportunity by contacting Alex DeTrana at detranaag@ornl.gov or by phone at 865-341-0423.
    Licensing Opportunity: Tandem Pyrolysis – Evolved Gas – Gas Chromatography – Mass Spectrometry
    Active
    Energy, Department Of
    The Department of Energy is offering a licensing opportunity for a novel technology that enables tandem pyrolysis evolved gas analysis and gas chromatography-mass spectrometry (EGA-MS and GC-MS) from a single sample. This innovative approach addresses the limitations of traditional methods, which require separate experiments, by allowing both analyses to occur simultaneously, thereby reducing sample usage and experiment time significantly. The technology is particularly relevant for industries involved in polymer characterization, forensics, and environmental monitoring, as it enhances analytical efficiency and accuracy. Interested parties can learn more about this opportunity by contacting Andreana Leskovjan at leskovjanac@ornl.gov or by calling 865-341-0433.
    Licensing Opportunity: Tailored Polymer Binder for Flexible Sulfide Electrolyte Films
    Active
    Energy, Department Of
    The Department of Energy is offering a licensing opportunity for a tailored polymer binder designed for flexible sulfide electrolyte films, aimed at enhancing the manufacturing of solid-state batteries for electric vehicles and other applications. This innovative technology addresses the challenges of producing high-performance solid electrolytes by optimizing the binder's molecular weight, which significantly improves the mechanical and electrochemical performance of the batteries. The advancements in this technology promise reduced costs, improved safety, increased energy density, and enhanced battery life, making it suitable for material manufacturers and suppliers in the solid-state battery industry. Interested parties can learn more by contacting Andreana Leskovjan at leskovjanac@ornl.gov or by calling 865-341-0433.
    Licensing Opportunity: Apparatus and Method for Microwave Carbonization of Polymeric Materials for Carbon Fiber Production
    Active
    Energy, Department Of
    The Department of Energy is offering a licensing opportunity for an innovative apparatus and method for the microwave carbonization of polymeric materials aimed at carbon fiber production. This technology utilizes near-field electromagnetic treatment combined with a susceptor system in a resonant cavity, providing a more efficient alternative to conventional high-temperature carbonization processes that typically require large furnaces and significant energy input. The new method promises to save time and energy, reduce processing costs, and minimize the physical footprint of production facilities, making it particularly beneficial for the carbon fiber manufacturing industry. Interested parties can learn more about this technology by contacting Leslie Smith at smithlm@ornl.gov or by calling 865-341-0373.