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TECHNOLOGY LICENSING OPPORTUNITY: Scalable Porous Silica Materials for Separation, Filtration, and Catalysis

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S-133966Federal

Contract Overview

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

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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.

General Info

Porous silica manufacturing process via silicone foam conversion, scalable, cost-effective, patent-protected, for industrial applications.

Agency

Department Of Energy → Triad - DOE ContractorView Agency

NAICS

325211 - Plastics Material and Resin ManufacturingView NAICS

Place of Performance

Los Alamos, NM, 87545, USA

Set-Aside

NONE

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Organization & Contact Information

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

Full Description

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A patented manufacturing process for producing porous silica materials with interconnected pore networks.


Manufacturers use porous silica materials in products ranging from chromatography columns and filters to catalyst supports and insulation. However, producing these materials with consistent internal structures can be expensive and difficult to scale.
Los Alamos researchers developed a patented process that converts silicone foam into porous silica while preserving its internal pore network. The approach uses common materials and conventional molding techniques, offering a scalable and potentially lower-cost route to high-performance porous silica materials.

Many applications rely on porous materials that contain large internal surface areas and pathways for liquids and gases to flow. Silica is particularly attractive because it is chemically stable, heat resistant, and already widely used in separation, filtration, and catalytic processes.


While porous silica is not new, manufacturing large or complex porous silica components can require specialized fabrication methods that are difficult to scale or expensive to implement.


Los Alamos researchers addressed this challenge by developing a process that begins with a silicone foam and converts it into porous silica through a controlled heating process. Because the material can be molded before conversion, manufacturers can produce porous silica components in a variety of sizes and shapes while maintaining the internal pore structure needed for many industrial applications.


Advantages
• Simple manufacturing process using readily available materials
• Produces porous silica parts in a wide range of sizes and shapes
• Preserves internal pore networks during conversion from silicone to silica
• Compatible with existing molding and manufacturing approaches
• Suitable for high-temperature applications
• Potentially lower production costs than more complex porous silica fabrication methods
• Supports applications in separation, filtration, catalysis, and insulation


Market Applications
• Chemical manufacturing and process industries
• Separation and purification technologies
• Industrial filtration systems
• Energy storage and electrochemical technologies
• Advanced catalyst manufacturing
• Environmental monitoring and sensing
• Advanced materials and specialty ceramics
• Aerospace, defense, and thermal management applications


Technology Description
The patented SWIFT-Si process begins by mixing silicone-based materials, water, and other common ingredients to create a foam. As the mixture cures, the silicone and water naturally separate into interconnected regions, creating a continuous network of pores throughout the material. This pore structure is locked into place as the foam hardens.


The foam can be poured into molds and formed into a variety of shapes and sizes before undergoing a controlled heating process. During heating, the silicone is converted into silica, a material commonly used in chromatography media, filtration systems, catalyst supports, and thermal insulation. The process is designed to preserve the original pore network while the material is converted from silicone to silica.


A final heat treatment removes any remaining organic material, leaving behind a porous silica part that retains much of the original internal structure.


Because the material is shaped before conversion, manufacturers can produce porous silica components using conventional molding techniques rather than more specialized fabrication methods. The result is a manufacturing process designed to simplify production of porous silica materials while preserving the pore structures needed for industrial applications.



TRL 4
U.S. Patent No. 12,129,351
LA-UR-26-26968



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

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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

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