TECHNOLOGY/BUSINESS OPPORTUNITY In-situ Monitoring for Volumetric Additive Manufacturing
ID: IL-13907Type: Special Notice
Overview

Buyer

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

NAICS

Instruments and Related Products Manufacturing for Measuring, Displaying, and Controlling Industrial Process Variables (334513)

Original Source

https://sam.gov/opp/db90a71b99f94f23bebc63e1f5b48feb/view
Timeline
    Description

    The Department of Energy, through the Lawrence Livermore National Laboratory (LLNL), is offering a collaboration opportunity to further develop and commercialize an in situ monitoring system for Volumetric Additive Manufacturing (VAM). This innovative technology utilizes quantitative phase imaging to enhance real-time monitoring of the VAM process, addressing the limitations of conventional imaging methods for low refractive index materials. The successful implementation of this technology is crucial for improving the reliability and efficiency of 3D printing processes, with potential applications extending to other vat polymerization methods. 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.

    Point(s) of Contact
    Austin Smith
    (925) 423-8469
    smith587@llnl.gov
    Charlotte Eng
    (925) 422-1905
    eng23@llnl.gov
    Files
    No associated files provided.
    Similar Opportunities
    INL Innovation Spotlight LVDT Intrinsic Temperature Measurement: Revolutionizing Precision Sensing
    Active
    Energy, Department Of
    The Department of Energy, through the Battelle Energy Alliance at the Idaho National Laboratory (INL), is seeking innovative solutions for the LVDT Intrinsic Temperature Measurement technology aimed at enhancing precision sensing in material test reactors. This opportunity focuses on the development of a method that utilizes Linear Variable Differential Transformers (LVDTs) to directly measure internal temperatures, thereby improving accuracy and reliability in extreme conditions, particularly for applications in medical, aerospace, and military sectors. The technology is currently at Technology Readiness Level 4, validated in a laboratory environment, and is protected by a US Provisional Patent Application. Interested parties can engage with INL for licensing opportunities and further discussions by contacting Andrew Rankin at andrew.rankin@inl.gov.
    TECHNOLOGY TRANSFER OPPORTUNITY: In-situ Characterization and Inspection of Additive Manufacturing Deposits using Transient Infrared Thermography (LAR-TOPS-265)
    Active
    National Aeronautics And Space Administration
    Special Notice: NATIONAL AERONAUTICS AND SPACE ADMINISTRATION is seeking inquiries from companies interested in obtaining license rights to commercialize, manufacture, and market a technology related to in-situ characterization and inspection of additive manufacturing deposits using transient infrared thermography. This technology provides a more reliable non-destructive evaluation method for measuring material properties and detecting defects during the additive manufacturing process. It has applications in various industries including industrial manufacturing, medical, architecture, aerospace, and automotive. Interested parties can submit a license application through NASA's Automated Technology Licensing Application System (ATLAS). For more information, please visit the NASA Technology Transfer Portal. No follow-on procurement is expected from this notice.
    Manufacturing Demonstration Facility: Technology Collaborations for US Manufacturers in Advanced Manufacturing and Materials Technologies
    Active
    Energy, Department Of
    The Department of Energy, through the Oak Ridge National Laboratory (ORNL), is seeking industry partners for collaborative projects aimed at developing energy-efficient manufacturing technologies within its Manufacturing Demonstration Facility (MDF). The initiative focuses on reducing manufacturing energy intensity and enhancing U.S. competitiveness by inviting proposals from industries engaged in material processing, particularly in advanced manufacturing technologies such as additive manufacturing and carbon fiber composites. Participants must provide at least a 50% cost share, and projects will be evaluated based on technical feasibility, potential for commercialization, and energy savings. Proposals can be submitted via email to MDFcollaboration@ornl.gov, and the submission period remains open, contingent on funding availability from the DOE Advanced Manufacturing Office.
    Two Photon Polymerization Laser Lithography (2PPLL) 3D Printer System
    Active
    Dept Of Defense
    The Department of Defense, through the Naval Research Laboratory (NRL), is seeking industry input for a Two Photon Polymerization Laser Lithography (2PPLL) 3D printer system designed to produce optical components such as metalenses and 3D metamaterials. The procurement aims to identify potential sources capable of meeting specific technical requirements, including the use of a 780 nm femtosecond pulsed laser, achieving surface roughness below 10 nm, and ensuring compatibility with various materials. This RFI is part of market research and does not constitute a solicitation or contractual commitment; interested parties must submit their Capability Statements by December 30, 2024, detailing their qualifications and how their offerings align with the outlined specifications. For further inquiries, contact Maximilian Fritts at maximilian.r.fritts.civ@us.navy.mil or Jamie Dixon at Jamie.Dixon@nrl.navy.mil.
    INL Innovation Spotlight Precision Enhancement for Thermocouples: A Leap in Measurement Accuracy
    Active
    Energy, Department Of
    The Department of Energy, through the Battelle Energy Alliance at the Idaho National Laboratory (INL), is seeking partnerships to commercialize an innovative technology aimed at enhancing the precision of thermocouples, which are critical for accurate temperature measurement across various industries. This technology utilizes ohmic heating to stabilize thermocouples, significantly improving their accuracy and lifespan while addressing the common issue of accuracy drift, particularly in high-temperature or radiation environments. With applications spanning manufacturing, aerospace, energy production, and healthcare, this advancement represents a significant leap in measurement reliability. Interested parties can learn more about licensing opportunities by contacting Andrew Rankin at andrew.rankin@inl.gov.
    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.
    Tech Licensing Opportunity: ViBRANT: Visual Benign Reactor As Analog for Nuclear Testing
    Active
    Energy, Department Of
    The Department of Energy, through the Battelle Energy Alliance, is offering a technology licensing opportunity for ViBRANT (Visual Benign Reactor As Analog for Nuclear Testing), a novel approach to simulating nuclear reactor behaviors using an LED-based analog model. This initiative aims to address the challenges in nuclear reactor design and testing by providing a geometrically accurate representation of reactor cores, facilitating rapid iterations between digital simulations and physical models, and enhancing safety and accessibility in nuclear education and training. ViBRANT is positioned for various applications, including training tools for reactor operation, development platforms for automated control systems, and public engagement exhibits on nuclear technology. Interested parties can reach out to Andrew Rankin at andrew.rankin@inl.gov for further discussions on licensing terms and opportunities.
    Tech Licensing Opportunity: Advanced Bonding Method for Heterogeneous Systems
    Active
    Energy, Department Of
    The Department of Energy is offering a technology licensing opportunity for an advanced bonding method designed for heterogeneous systems, developed by researchers at the Idaho National Laboratory (INL). This innovative method allows for the seamless bonding of similar and dissimilar materials without visible bond lines, significantly enhancing material integrity and durability while reducing energy consumption compared to traditional bonding techniques. The technology is particularly relevant for industries such as aerospace, electronics, and nuclear, where material reliability is critical. Interested parties can reach out to Andrew Rankin at andrew.rankin@inl.gov for further discussions on licensing terms and opportunities for collaboration.
    INL Innovation Spotlight Advanced Radiation Monitoring: Fieldable Long-Length Scintillating Fibers
    Active
    Energy, Department Of
    The Department of Energy, through the Battelle Energy Alliance at the Idaho National Laboratory (INL), is seeking innovative solutions for advanced radiation monitoring utilizing fieldable long-length scintillating fibers. The objective is to develop a technology that effectively detects and monitors radiation in challenging environments, such as nuclear repositories and medical irradiation facilities, by employing durable scintillating fibers exceeding 10 meters in length, combined with standard optical fibers over 100 meters. This technology addresses significant challenges in radiation monitoring, offering enhanced signal integrity and flexible deployment options essential for the safety and security of sensitive sites. Interested parties can contact Andrew Rankin at andrew.rankin@inl.gov for further information on licensing opportunities and collaboration, as this initiative is not a call for external services or funding.
    TECHNOLOGY TRANSFER OPPORTUNITY: System for In-situ Defect Detection in Composites During Cure (LAR-TOPS-327)
    Active
    National Aeronautics And Space Administration
    Special Notice NATIONAL AERONAUTICS AND SPACE ADMINISTRATION is seeking inquiries from companies interested in obtaining license rights to commercialize, manufacture, and market a technology for in-situ defect detection in composites during cure. This technology, developed by NASA Langley Research Center, is an automated ultrasonic scanning system that actively scans for defects in composites during the cure process. It provides real-time monitoring of defect formation and movement, offering a better understanding of defect sources and sinks. The system consists of an ultrasonic portable automated C-Scan system with an attached ultrasonic contact probe, enclosed in an insulated vessel placed inside an autoclave. It can be used for non-destructive evaluation of composites in an oven or an autoclave, including thermosets, thermoplastics, composite laminates, high-temperature resins, and ceramics. Interested parties can submit a license application through NASA's Automated Technology Licensing Application System (ATLAS). No follow-on procurement is expected from this notice. For more information, please visit the NASA Technology Transfer Portal.