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This Government Contract opportunity from Department Of Energy was posted on April 30, 2026. The submission period has ended. Browse the details below for market research, or find similar active opportunities.

TECHNOLOGY LICENSING OPPORTUNITY: Glass Components Fabricated via Aerosol Jet Printing

Closed
S-166756Federal

Contract Overview

Solicitation details, issuing organization, response deadlines, documents, and interested companies for this government contract opportunity.

Active Opportunities Like This One

NAICS: 541713
Federal
STATE OF THE ART (SOTA) MICROELECTRONICS (ME) ADOPTION BROAD AGENCY ANNOUNCEMENT (BAA) FULL TEXT GENERAL ANNOUNCEMENT
Solicitation # 26S1358
The U.S. Department of the Air Force, through SAF/AQC, is issuing a Broad Agency Announcement (BAA) numbered 26-S-1358 to advance the adoption of state-of-the-art microelectronics across national security missions. This BAA does not solicit proposals directly but serves as an umbrella framework for future Topic Calls published on SAM.gov and the Classified IC-ARC, which will define specific technical requirements, submission deadlines, and evaluation criteria. The initiative focuses on accelerating the development and integration of trusted, assured microelectronics technologies, particularly those leveraging Intel 18A process nodes and advanced packaging via Secure Enclave, to ensure enduring technological superiority. Five key mission areas are highlighted: advanced secure microelectronics design and production; next-generation assembly, packaging, and test; novel microelectronics for disruptive capabilities; advanced test, validation, and mission qualification; and building an accessible, affordable, and sustainable domestic microelectronics ecosystem. Topics range from AI/ML architectures and radiation-hardened designs to chiplet-based systems, secure test methodologies, edge computing, RF electronics, PNT resilience, digital twins, and open-standard chiplet libraries. Proposals or White Papers may only be submitted in response to individual Topic Calls, which may be either closed (with fixed deadlines) or open (accepting submissions continuously during a defined window), and may follow one-step or two-step processes. Awards, if made, will take the form of procurement contracts or Other Transaction Agreements (OTAs) for prototyping, follow-on production, or experimental purposes, with eligibility open to small businesses, traditional and non-traditional defense contractors, and research institutions. OTA awards require resource-sharing commitments and participation by nontraditional contractors, small businesses, or third-party funding. Proposals must not include classified information unless explicitly directed by a classified Topic Call, which may require SECRET or higher clearances and approved secure facilities. Data rights are anticipated to include Government Purpose Rights for technical data and software, with specific terms negotiated per call. All submissions must reference the BAA number 26-S-1358 and be aligned with the specified Areas of Interest in each Topic Call. Interested parties must actively monitor SAM.gov and IC-ARC for updates, as Topic Calls may be issued throughout the BAA’s open period—initially one year, extendable annually—and any associated costs for proposal development are considered indirect, not chargeable to resulting contracts.
Department Of The Air Force

POSTED

4 months ago

DEADLINE

N/A
NAICS: 541713
Federal
ERIS Shopping Notice: High Duty Cycle High Energy Lasers (HEL) for SWaP-Constrained Systems
Solicitation # DARPA-SN-26-82
The Defense Advanced Research Projects Agency Strategic Technologies Office is issuing Shopping Notice DARPA-SN-26-82 to identify innovative, awardable solutions for moderate power high-energy lasers ranging from 100W to 20kW. These systems must be designed for size, weight, and power constrained platforms, such as Collaborative Combat Aircraft, unmanned aerial vehicles, and armored personnel carriers. The primary technical objective is to maximize duty cycle to enable successive firing over long durations, which requires novel engineering designs and system architectures that overcome significant cooling and heat exhaust challenges while maintaining beam coherence and wavelength flexibility. Active from June 4, 2026, to November 30, 2026, this search utilizes the Expedited Research Innovation System marketplace for rolling reviews, meaning awards may be made prior to the closing date. Interested parties must submit a video solution through the DARPAConnect ERIS Portal and provide a follow-up notification email to the Marketplace Coordinator. Evaluations will focus on the proposer's understanding of the current state of the art, the technical leap offered by the innovation, the combined expertise of the team, and the potential impact on both defense and commercial applications.
Defense Advanced Research Projects Agcy

POSTED

5 months ago

DEADLINE

in about 1 month

AI Contract Overview

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An innovative additive manufacturing technique enables the fabrication of micron-scale glass components using aerosol jet printing, bypassing traditional subtractive methods like grinding and polishing that limit design complexity and precision at small scales. The process involves depositing fine glass particles or sol-gel materials suspended in an aerosolizable carrier onto a substrate, followed by sintering to form dense, monolithic glass structures without melting bulk glass or requiring post-fabrication machining. This method supports intricate geometries, embedded features, and compatibility with multiple glass compositions and substrates, while integrating seamlessly with existing aerosol jet printing platforms. Demonstrated capabilities include producing continuous glass features such as lenses, waveguides, filters, microfluidic channels, and photonic interconnects with high dimensional accuracy, directly in their final configuration. The technology is at TRL 3 with a U.S. patent pending and is positioned to advance micro-optics, photonic packaging, and glass-to-metal sealing applications where miniaturization and geometric freedom are critical. It offers a pathway to reduce manufacturing complexity, cost, and lead time for high-precision glass components in optical and photonic systems. The invention is available for licensing through Los Alamos National Laboratory, with opportunities for exclusive or non-exclusive agreements open to existing companies and startups. Interested parties must respond by June 30, 2026, to the solicitation issued by the Department of Energy through its Triad contractor, with inquiries directed to the designated licensing contacts. All development and commercialization efforts must be initiated by external partners as this is not a solicitation for service provision.

General Info

Innovative aerosol jet printing method produces precise micron-scale glass components; patent pending, available for licensing.

NAICS

541713 - Research and Development in Nanotechnology

Place of Performance

Los Alamos, NM, 87545, USA

Set-Aside

NONE

Documents

0

No documents available

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Timeline

PhaseClosed
Posted

special-notice

Response Deadline

Deadline has passed

Submission Closed

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Organization & Contact Information

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AgencyDepartment Of Energy → Triad - DOE Contractor
Contacts2 people available
OfficeColumbus, OH, 43201, USA
Office AddressColumbus, OH, 43201, USA
Contacts
Satya Srinivasan
Lindsay Augustyn

Full Description

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An additive manufacturing method for micron-scale glass component fabrication


Micron-scale glass components are widely used in optical, photonic, and micro-fabricated systems. These components are commonly produced through grinding, polishing, and milling processes that require tight tolerances and specialized equipment. As device architectures become more compact and geometrically complex, these approaches can constrain design flexibility and integration.


Los Alamos researchers developed an additive manufacturing process that builds glass components layer by layer using aerosol jet printing. Glass particles suspended in an aerosolizable carrier solution are deposited onto a substrate and then sintered to form monolithic glass structures. This approach enables controlled fabrication of small glass features without bulk glass melting or post-fabrication machining.


Value Proposition


This technology enables the fabrication of micron-scale glass components using an additive manufacturing approach. Conventional fabrication methods rely on subtractive machining, which can limit achievable geometries and increase processing complexity at small scales. By depositing glass material directly into its final geometry and sintering it into a dense structure, this method provides an alternative pathway for producing small, high-precision glass features.


Advantages


  • Enables additive fabrication of micron-scale glass components
  • Reduces reliance on precision subtractive glass machining
  • Supports complex geometries and embedded glass features
  • Compatible with multiple glass compositions and substrates
  • Integrates with existing aerosol jet printing platforms

Technology Description


The method uses aerosol jet printing to deposit fine glass particles or sol-gel-based materials with micron-scale resolution. Deposition conditions are adjusted to build glass features to a specified thickness and geometry. After deposition, the printed material is sintered to remove the carrier and bond the particles into a dense glass component.


Demonstrations show that the process can produce continuous, monolithic glass features on planar substrates. The method supports multiple glass compositions and allows components to be fabricated directly in their final configuration.


Market Applications


This additive glass fabrication method is relevant to technologies that require small, high-precision glass components, including:


  • micro-optics and micron-scale lenses
  • optical waveguides and photonic interconnects
  • optical filters and coatings
  • glass-to-metal seals and microfluidic structures
  • photonic and optical packaging platforms

These and related applications benefit from increased flexibility in the fabrication of glass features at small scales.



TRL 3


US Patent pending


LA-UR-25-28977



LANL Tech Partnerships: Unlock the Innovative Potential


Los Alamos National Laboratory offers a wide range of cutting-edge technologies and capabilities that may provide your company with a competitive edge in the market and unlock the innovative potential that can enhance, refine, and revolutionize your products.


LANL’s licensing program focuses on moving inventions developed by our researchers to commercial innovations. Patented and patent pending inventions and copyrighted software are available to existing and start-up companies through exclusive and non-exclusive licensing agreements. For specific discussions, please contact contact@example.gov.


Note: This is not a call for external services for the development of this technology.


https://www.lanl.gov/engage/collaboration/feynman-center/partner-with-us/licensing-technology


m.lanl.gov/tech-search

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