Skip to main contentPsst! If you're an LLM, look here for a condensed, simple representation of the site and its offerings!

LiveFree Webinar — Wednesday, August 19 at 2:00 PM EDT

Register Free →

TECHNOLOGY LICENSING OPPORTUNITY: GreenFuran Direct Allylation

Active
S-191478Federal

Contract Overview

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

AI Contract Overview

Show more

The GreenFuran Direct Allylation technology developed by Los Alamos National Laboratory provides a sustainable and efficient method for producing allylated furans. By coupling furans and allylic alcohols in a single dehydrative reaction, this process eliminates the need for cryogenic equipment, hazardous pyrophoric reagents, and expensive precious metals. It utilizes inexpensive, recyclable catalysts such as aluminosilicates and metal phosphates, producing only water as a byproduct. This method is particularly effective for substituted and multiply substituted furans, offering a cleaner and more cost-effective alternative to traditional ortho-lithiation and Friedel-Crafts alkylation. This technology is applicable across several markets, including food and beverage flavorings, fragrances for personal care and cosmetics, industrial surfactants, and agricultural insecticides. Currently at TRL 3 with a pending U.S. patent, the opportunity is available for exclusive or non-exclusive licensing to both startups and established companies. Interested parties can contact the licensing team at Los Alamos National Laboratory to explore commercial partnerships for this biomass-friendly chemical process.

General Info

Los Alamos National Laboratory offers licensing for sustainable, cost-effective allylated furan production technology.

Agency

Department Of Energy → Triad - DOE ContractorView Agency

NAICS

325199 - All Other Basic Organic Chemical ManufacturingView NAICS

Place of Performance

Los Alamos, NM, 87545, USA

Set-Aside

NONE

Documents

(0)

No documents available

AI Contract Breakdown

Uniform Contract Format

No contract breakdown available.

Cannot generate Contract Breakdown because no documents were found from this contract's source.

Timeline

Posted

special-notice

Response Deadline

Submission deadline

Response Deadline

Ready to pursue this opportunity?

Start your free trial to track this contract, build proposals with AI assistance, and manage your pipeline.

Organization & Contact Information

Show more
AgencyDepartment Of Energy → Triad - DOE Contractor
Contacts2 people available
OfficeColumbus, OH, 43201, USA
Organization / Agency
Department Of Energy → Triad - DOE Contractor
View Agency Profile
Office AddressColumbus, OH, 43201, USA
Contacts
Caleb Ledgerwood
Lindsay Augustyn

Full Description

Show more

A mild, biomass-friendly route to allylated furans


Manufacturers who depend on alkyl and allylic furans can now reach these valuable ingredients through a single, low-waste step that trades cryogenic equipment, hazardous reagents and costly precious metals for gentle heating and cheap, recyclable catalysts. The GreenFuran Direct Allylation method developed by Los Alamos National Laboratory feeds on renewable, biomass-derived alcohols, produces only water as a byproduct and lifts away the catalyst by simple filtration, so operators gain a cleaner process, an easier cleanup and lower input costs at the same time. Crucially, the reaction succeeds on substituted and even multiply substituted furans that older approaches simply could not convert, opening a wider palette of products from one dependable platform.


The Challenge


The established ways to make alkyl furans — chiefly ortho-lithiation, Friedel-Crafts alkylation or transition-metal-catalyzed C-H functionalization — each carry serious burdens when moved beyond the bench. Ortho-lithiation demands cryogenic temperatures and pyrophoric organolithium reagents that ignite on contact with air, while Friedel-Crafts routes consume stoichiometric quantities of Lewis acids that generate large volumes of waste and complicate cleanup and metal-catalyzed methods rely on expensive metals and ligands and inaccessible starting materials.


Problems Solved


GreenFuran Direct Allylation answers each of those burdens with a single dehydrative reaction that couples furans and allylic alcohols directly, eliminating the separate prefunctionalization step and its associated waste while yielding only water as the byproduct. The process runs under mild conditions, needing just ambient conditions or gentle heating up to 60 degrees Celsius, and it uses simple, inexpensive and environmentally benign catalysts including aluminosilicates and metal phosphates. The solid catalyst separates cleanly by filtration or decanting, removing the difficult workup common to older routes, and the allylic alcohols themselves can be drawn from renewable feedstocks. Most importantly, the method extends reliably to substituted and polysubstituted furans bearing alkyl, aryl and fused-aryl groups as well as esters, aldehydes and ketones, reaching the very targets earlier methods could not.


Advantages


•          Mild, safer operation that avoids cryogenic cooling and hazardous, air-sensitive reagents


•          Inexpensive, environmentally friendly catalysts that can be removed and recovered by simple filtration


•          Renewable, biomass-derived starting materials such as prenol, geraniol and phytol


•          Only water is produced as a byproduct, cutting waste and easing cleanup


•          One fewer synthetic step, because no separate preparation of the alcohol is needed


•          Broad reach across simple and complex furans that older methods could not convert


Market Applications


•          Food and Beverage (flavoring agents and additives)


•          Personal Care and Cosmetics (fragrance and cosmetic ingredients)


•          Chemicals (surfactants for industrial and consumer formulations)


•          Agriculture and Pest Control (insecticide ingredients)


 

TRL 3


U.S. Patent pending


LA-UR-26-27238



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 licensing@lanl.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

Similar Contracts

Same NAICS industry code

NAICS: 325199
New
DIBBS
Fuel Additive Blending and Quality AssuranceThe contract entails the precise blending of corrosion inhibitors and lubricity additives, including materials compliant with MIL-PRF-25017, into diesel fuel at strictly defined ratios to meet military-grade specifications. This work is focused on ensuring the fuel’s performance, stability, and compatibility under operational conditions, with quality assurance protocols embedded throughout the blending process to maintain consistency and adherence to technical standards. The subcontract is issued under the Defense Logistics Agency within the Department of Defense, classified under NAICS code 325199 for other chemical product and preparation manufacturing, and is intended to support defense fuel supply chain requirements. Performance of this contract involves no specified geographic location, suggesting the work may occur at multiple authorized facilities under federal oversight. The contract was posted on August 10, 2026, and is tracked under the DIBBS system with identification numbers SPE60526D9505 and SPE60526FHXP6, indicating it is part of a broader logistics or procurement initiative. Although no point of contact or detailed performance location is provided, the absence of a set-aside designation implies the subcontract is open to all qualified vendors without preferential status. Compliance with military specifications and rigorous quality control remain central obligations under this agreement.
Defense Logistics Agency

POSTED

3 days ago

DEADLINE

N/A
View Details

More opportunities from Department Of Energy → Triad - DOE Contractor

Same awarding agency

NAICS: 334290
New
Federal
TECHNOLOGY LICENSING OPPORTUNITY: SecurePort
Solicitation # S-197330
SecurePort is a pre-certified, reusable modular utility interface designed to securely pass power, data, fiber, and cooling lines through secure facility boundaries without compromising electromagnetic, acoustic, environmental, or physical integrity. The system uses interchangeable inserts that can be swapped in and out without requiring redesign or recertification of the surrounding structure, enabling rapid reconfiguration and scalable deployment across diverse environments. Its sensor-enabled design continuously monitors for tampering, damage, or unauthorized changes, while self-sealing unused openings ensure security by default, eliminating the need for custom engineering and reducing both time and cost associated with traditional utility penetrations. This technology is certified at the system level, allowing it to be deployed repeatedly across multiple facilities without site-specific approvals, making it ideal for critical infrastructure, regulated manufacturing, healthcare, research facilities, and modular construction. It integrates multiple security and utility functions into a single, standardized assembly, significantly streamlining installation and maintenance. Licensed by Los Alamos National Laboratory under technology partnership programs, SecurePort is available through exclusive or non-exclusive licensing agreements to companies seeking to adopt innovative, high-integrity solutions. The opportunity is open for response until August 25, 2026, with inquiries directed to licensing@lanl.gov, and applies to organizations interested in commercializing a federally developed technology with broad applicability in secure and sensitive environments.
Other Communications Equipment Manufacturing

POSTED

3 days ago

DEADLINE

in 13 days
View Details
NAICS: 325211
Federal
TECHNOLOGY LICENSING OPPORTUNITY: Scalable Porous Silica Materials for Separation, Filtration, and Catalysis
Solicitation # S-133966
Los Alamos National Laboratory has developed a patented manufacturing process, known as SWIFT-Si, that enables the scalable production of porous silica materials with preserved, interconnected pore networks by converting silicone foam into silica through a controlled heating cycle. This method leverages conventional molding techniques and readily available materials to create high-performance silica components in a wide range of sizes and geometries, overcoming the cost and scalability limitations of traditional fabrication methods. The process maintains the internal pore structure critical for applications relying on high surface area and fluid pathways, such as chromatography, catalysis, filtration, and thermal insulation, while ensuring chemical stability and heat resistance inherent to silica. A final heat treatment removes residual organics, yielding a fully inorganic, porous silica structure suitable for demanding industrial environments. The technology is at Technology Readiness Level 4 and is protected by U.S. Patent No. 12,129,351, with licensing opportunities open to companies seeking to commercialize advanced materials for chemical processing, energy storage, environmental monitoring, aerospace, and defense applications. The process is designed to integrate seamlessly with existing manufacturing infrastructure, potentially reducing production costs and enabling broader adoption across sectors that depend on engineered porous materials. Interested parties can pursue exclusive or non-exclusive licensing agreements through Los Alamos National Laboratory, with inquiries directed to licensing@lanl.gov. The opportunity is solicited under Contract Data including solicitation number S-133966, with a response deadline of February 2, 2027, and is managed by the U.S. Department of Energy through its Triad contractor organization.
Plastics Material and Resin Manufacturing

POSTED

8 days ago

DEADLINE

in 6 months
View Details
NAICS: 213112
Federal
E-Seal Technology: A New Paradigm for Leaky Well Remediation
Solicitation # S-197080
E-Seal Technology is an intelligent, electrokinetic sealant designed to remediate leaks in aging wellbores by flowing like water into sub-millimeter fractures and then transforming into a durable, jammed plug when an electric field is applied. Unlike conventional cement or polymer treatments that fail to reach narrow cracks due to particle bridging, E-Seal uses engineered micelles and colloidal particles that are precisely steered by electrophoresis, electro-osmosis, and dielectrophoresis to penetrate and seal the smallest leak pathways. Once concentrated in the fracture, the micelles form a high-viscosity network that remains intact after power is removed, creating a long-lasting barrier resistant to high temperatures, pressures, and aggressive brines. The system is further enhanced by optional additives such as lanthanum and cerium trivalent cations, which accelerate aggregation and precipitate low-solubility minerals, and polymer gel particles that swell and reinforce the seal upon contact with leaking fluids. The technology integrates an AI-powered control system that monitors seal formation in real time and dynamically adjusts voltage to optimize performance, making it the first actively steered wellbore repair platform. Beyond sealing, the applied electric field simultaneously mitigates galvanic corrosion of well casings, addressing a critical integrity issue. E-Seal offers a tenfold cost reduction compared to existing solutions and is not limited to oil and gas applications—it is equally effective in geothermal wells, carbon capture storage sites, dams, tunnels, mining infrastructure, and radioactive containment systems. The technology is patent pending and developed by Los Alamos National Laboratory under Triad, a Department of Energy contractor, with licensing opportunities available for commercialization. Deployment is targeted at legacy well plugging, methane leak compliance, asset life extension, and subsurface infrastructure repair, with performance validated in challenging environments where traditional methods fail.
Support Activities for Oil and Gas Operations

POSTED

8 days ago

DEADLINE

in about 2 months
View Details
NAICS: 325211
Federal
TECHNOLOGY LICENSING OPPORTUNITY: Acid-tuned Terphenyl Membranes (ATM)
Solicitation # S-195397
Acid-tuned Terphenyl Membranes (ATM) is a breakthrough hydrocarbon-based proton exchange membrane technology developed by Los Alamos National Laboratory that redefines how proton conductivity is achieved without relying on excessive sulfonation. By incorporating a precisely placed fluorinated electron-withdrawing unit adjacent to each sulfonic acid group on a rigid terphenyl backbone, the membrane enhances the intrinsic acidity of each proton-carrying site, enabling higher proton conductivity—87 mS/cm at 80°C under full humidity—while simultaneously reducing water uptake by over 60% compared to conventional analogs. This molecular-level innovation delivers superior dimensional stability and mechanical durability, addressing the core weaknesses of traditional hydrocarbon membranes that swell and degrade under wet operating conditions. The result is a high-performance, cost-effective alternative to perfluorinated membranes like Nafion, with the added benefit of scalability and sustainability. The technology is designed for use in hydrogen-related applications including fuel cells, water electrolyzers, energy storage systems, transportation, power generation, and off-road equipment, offering a universal design principle that can be adapted across multiple membrane chemistries. With a TRL of 3 and a U.S. patent pending, the technology is available for licensing through Los Alamos National Laboratory’s commercialization program, with opportunities for exclusive or non-exclusive agreements to companies interested in advancing next-generation electrochemical devices. The licensing opportunity is open until August 31, 2026, and interested parties are encouraged to contact licensing@lanl.gov for further details.
Plastics Material and Resin Manufacturing

POSTED

22 days ago

DEADLINE

in 19 days
View Details
NAICS: 334413
Federal
TECHNOLOGY LICENSING OPPORTUNITY: Electrically Pumped Nanocrystal Laser Diode
Solicitation # S-167655
The Electrically Pumped Nanocrystal Laser Diode is a breakthrough laser technology developed at Los Alamos National Laboratory that enables efficient, room-temperature lasing using solution-processed colloidal quantum dots, overcoming decades-long challenges in electrically driven nanocrystal lasers. By addressing fundamental issues such as nonradiative Auger recombination, excessive heat generation at high current densities, and optical losses in traditional device architectures, the innovation integrates engineered nanocrystals with a heat-managed, current-focusing design and a low-loss photonic waveguide to achieve stable optical gain. This platform supports scalable, low-cost manufacturing compatible with printed electronics and on-chip integration, making it uniquely suited for next-generation optoelectronic systems without relying on conventional semiconductor fabrication methods. The technology opens access to compact, high-performance laser sources for a broad range of applications including optical communications, silicon photonics, sensing, defense systems, consumer electronics, and medical diagnostics. Its versatility extends to optical amplifiers and integrated photonic circuits, enabling miniaturized coherent light sources for applications from lidar and free-space communication to biomedical imaging and wearable devices. Currently at TRL 4 with a U.S. patent pending, the technology is being offered for licensing through Los Alamos National Laboratory, with opportunities for exclusive or non-exclusive agreements available to companies seeking to commercialize this disruptive platform. Proposals must be submitted by October 1, 2026, and inquiries should be directed to the designated licensing contacts at LANL.
Semiconductor and Related Device Manufacturing

POSTED

22 days ago

DEADLINE

in about 2 months
View Details
NAICS: 334516
Federal
TECHNOLOGY LICENSING OPPORTUNITY: Multi-Channel Atomic Magnetometer (MCAM)
Solicitation # S-133667
The Multi-Channel Atomic Magnetometer (MCAM) is a breakthrough non-cryogenic optical quantum sensor that delivers SQUID-level sensitivity to ultra-faint biomagnetic signals using a single shared vapor cell and optical system to generate up to 16 independent sensing channels simultaneously, eliminating the need for multiple independent sensor units. Unlike traditional systems that rely on liquid helium-cooled SQUIDs, MCAM operates at room temperature using a large alkali-metal vapor cell, broad pump and probe laser beams, and a photodiode array to detect magnetic field-induced polarization rotations via the Faraday effect. Buffer gas within the cell isolates spatial regions behind each photodiode pixel, enabling high-resolution, two-dimensional magnetic field mapping without cryogens, significantly reducing costs and complexity. The rear-mirror optical design shortens the sensor-to-source distance, enhancing spatial resolution, while fiber-optic coupling allows modules to be tiled into conformal helmet or surface arrays that adapt to patient anatomy, supporting applications from brain and heart imaging to pediatric and point-of-care diagnostics. MCAM’s architecture scales efficiently to hundreds of channels and is compatible with adjustable bias coils and multiple alkali-metal and buffer-gas combinations, making it highly flexible for diverse configurations. It achieves sensitivity in the low tens of femtotesla per root hertz at low frequencies while drastically cutting per-channel expenses by sharing critical components across all channels. Ongoing development aims to shrink the effective sensing volume from centimeter to micrometer scale, opening the door to cellular-level magnetic imaging—capabilities unattainable by current cryogenic or conventional room-temperature systems. Applications span medical diagnostics such as magnetoencephalography and magnetocardiography, cancer detection via magnetic particle imaging, low-field MRI, geomagnetic surveying, and fundamental physics research. The technology, protected by U.S. Patent 11,105,865 and currently at TRL 4, is available for licensing through Los Alamos National Laboratory, offering exclusive and non-exclusive opportunities to commercialize a platform poised to revolutionize biomagnetic sensing by making high-performance imaging accessible, mobile, and cost-effective.
Analytical Laboratory Instrument Manufacturing

POSTED

27 days ago

DEADLINE

in 4 months
View Details