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, September 16 at 2:00 PM EDT

Register Free →

This Government Contract opportunity from Department Of Energy was posted on May 27, 2026. The submission period has ended. Browse the details below for market research, or find similar active opportunities.

TECHNOLOGY LICENSING OPPORTUNITY: Acoustic Camera

Closed
S-129409Federal

Contract Overview

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

Active Opportunities Like This One

AI Contract Overview

Show more

The Acoustic Camera is a high-resolution ultrasonic imaging system developed by Los Alamos National Laboratory to visualize submerged objects in optically opaque fluids such as drilling mud, where traditional optical cameras fail. Operating in the 100–800 kHz range, it transmits high-frequency sound pulses and captures reflected echoes using a two-dimensional piezoelectric receiver array, reconstructing detailed 3D images in near real time with sub-millimeter depth resolution up to two feet away. The system employs a unique compound HDPE acoustic lens with a motor-adjustable secondary element to dynamically focus without relocating the sensor, while the compact housing leverages a fluid with lower sound speed to enable finer resolution in a smaller form factor. By using frequency-chirp excitation and cross-correlation techniques, it delivers precise shape, orientation, and material cues of subsurface objects without requiring fluid replacement or well cleanout. This technology significantly enhances operational efficiency and safety in high-risk environments such as oil and gas wellbore recovery, underwater infrastructure inspection, and mining operations by replacing crude mechanical impression methods with accurate digital imaging. It reduces downtime, lowers the risk of failed recovery attempts, and eliminates the need for costly and time-consuming procedures to clear turbid fluids. Designed for deployment in demanding industrial and subsurface settings, the system is adaptable to enhanced geothermal systems, defense applications, and other sectors where visibility is limited. Currently at TRL 4, the technology is protected by U.S. Patent No. 10,054,676-B2 and is available through exclusive or non-exclusive licensing agreements. Interested parties must respond by June 30, 2026, via the SAM.gov portal, with technical inquiries and licensing discussions directed to Los Alamos National Laboratory’s licensing office at licensing@lanl.gov.

General Info

Acoustic Camera uses ultrasonic imaging in opaque fluids for detailed 3D visualization, improving inspections.

Agency

Department Of Energy → Triad - DOE ContractorView Agency

NAICS

334511 - Search, Detection, Navigation, Guidance, Aeronautical, and Nautical System and Instrument 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

PhaseClosed
Posted

special-notice

Response Deadline

Deadline has passed

Submission Closed

Find active opportunities like this

Start your free trial to discover similar active contracts, track opportunities, and build proposals with AI assistance.

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
Kathleen McDonald
Lindsay Augustyn

Full Description

Show more

When water turns murky or dense with mud, sediment or chemistry, optical cameras stop being useful, and operators are left guessing about what lies on the other side of the fluid. The Acoustic Camera from Los Alamos National Laboratory replaces that guesswork with sharp 3D imagery generated from sound, achieving sub-millimeter depth resolution in near real time. Instead of inferring the size and orientation of a submerged object from an impression block or a low-frequency sonar return, an operator receives an actual shape, with depth cues and material hints, on the first pass. The result is faster decisions in environments that have historically been opaque, whether the goal is recovering a lost tool from a wellbore, checking the integrity of a net pen in a turbid fjord, or inspecting submerged infrastructure where flushing or cleaning the surrounding fluid is not an option.


How it Works:


The system operates by transmitting high-frequency ultrasonic pulses—typically in the hundreds of kilohertz range (approximately 100–800 kHz)—into the wellbore toward an object of interest. These sound waves reflect off the object and are captured by a two-dimensional acoustic receiver array. By measuring the time-of-flight and spatial distribution of the returned echoes, onboard digital signal processing reconstructs a detailed 3D image of the object in near real time. Because ultrasound propagates through drilling mud and other optically opaque fluids, the system can generate clear 3D images without requiring fluid replacement or well cleanout.


Technical Description:


Acoustic Camera uses a broadband piezoelectric transducer to insonify the object with frequencies between roughly 100 kHz and 800 kHz. Because attenuation in fluids scales with the square of frequency, this band is chosen as the practical compromise between mud penetration (favoring lower frequencies) and image resolution (favoring higher frequencies). Reflected pulses pass through a compound high-density polyethylene (HDPE) acoustic lens consisting of a fixed plano-concave primary element and a motor-positioned secondary element, allowing focus adjustment without changing the receiver position, and yielding an appropriate magnification factor.


The receive array is a 2D segmented piezoelectric detector submerged in sound-communicating fluid whose low sound speed provides a roughly three-fold reduction in wavelength versus water and enables a compact camera housing. Image reconstruction can use either tone-burst excitation with first-arrival extraction or, for higher resolution, frequency-chirp excitation followed by cross-correlation of the transmit and receive signals — yielding depth resolution below 1 mm at working distances of up to approximately 2 feet in drilling mud. The film allows the source and detector to share a single optical axis, eliminating the multiple reflections and aberrations introduced by semi-transparent acoustic mirrors used in earlier architectures.


Key Advantages:


  • Imaging through opaque fluids: Enables 3D visualization in drilling mud and other optically opaque, acoustically attenuating fluids where optical systems fail
  • Reduced cost and downtime: Eliminates the need for well cleanout and accelerates diagnostic decision-making during fishing operations
  • Higher-quality diagnostics: Provides accurate 3D information on object shape and orientation, surpassing mechanical impression methods
  • Lower operational risk: Improves fishing-tool selection and reduces the likelihood of failed recovery attempts or well loss
  • Extensible platform: Applicable to other downhole and industrial environments involving optically opaque fluids, supporting future product expansion

Market Applications:


  • Oil & Gas
  • Mining and Geotechnical Operations
  • Enhanced Geothermal Systems
  • Industrial Inspection and Maintenance
  • Energy and Utilities Infrastructure
  • Government and Defense


Development Status: TRL 4


US Patent No. 10,054,676-B2


LA-UR-26-24351



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

More opportunities from Department Of Energy → Triad - DOE Contractor

Same awarding agency

NAICS: 541715
Federal
Simulator Collection for Atomic to Continuum Scales (SCACS)
Solicitation # S-196281
The Simulator Collection for Atomic to Continuum Scales (SCACS), identified by solicitation number S-196281, is an AI-driven multiscale simulation platform developed by Los Alamos National Laboratory to predict spatially varying, direction-dependent thermal and electrical transport in systems of up to one million atoms. By utilizing proprietary Site-Projected Thermal Conductivity (SPTC-AI) and Site-Projected Electronic Conductivity (SPEC-AI) modules, the toolkit bridges the gap between high-fidelity atomistic physics and continuum-scale engineering models. The system employs graph neural networks and FEniCSx-based solver modules, such as sptc2fem and spec2fem, to generate precise temperature and current maps while maintaining atomic-scale anisotropy. This allows engineers to identify localized hot-spots and transport pathways that are typically missed by conventional continuum models, reducing simulation runtimes from days to minutes. Currently at Technology Readiness Level 4 with a pending U.S. patent and associated software T5032, SCACS is offered as a licensing opportunity through the Richard P. Feynman Center for Innovation. The technology is designed for seamless integration with industry-standard finite-element solvers like Abaqus and has broad commercial applications in semiconductor advanced packaging, fusion energy systems, aerospace, battery thermal management, and quantum device manufacturing. The opportunity is managed by the Department of Energy via Triad, with a response deadline of February 16, 2027.
Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology)

POSTED

25 days ago

DEADLINE

in 5 months
View Details

Find Active Opportunities Like This

Get AI-powered intelligence on the opportunities still open

Every page of the solicitation package shredded into a compliance breakdown

AI-powered matching based on your capabilities and past performance

Competitor and incumbent history on the requirement

Automated alerts on amendments, Q&A deadlines, and award

Miguel
Hillary
Keith Deutsch
Christine

Join 650+ contractors already using CLEATUS