News Release

Five technologies from Idaho National Laboratory win R&D 100 Awards

August 6, 2026

By Alicia Moulton

(IDAHO FALLS, Idaho) – Five technologies developed by the Idaho National Laboratory have been named as winners for the 2026 R&D 100 Awards, sometimes referred to as the “Oscars of innovation.”

The R&D 100 Awards choose and celebrate the top 100 most technologically significant commercial products, materials and devices introduced globally each year from the public and private sectors. The awards were established in 1963 and are managed by R&D World. Dozens of finalists each year usually come from technologies developed at U.S. Department of Energy national laboratories.

“I am exceptionally proud of our R&D 100 winners and finalists,” said INL Laboratory Director John Wagner. “At INL, we are changing the world’s energy future. This recognition is evidence of the exceptional work and innovation of our researchers on science and technology solutions that positively impact the nation.”

The following winners from INL were announced Aug. 6 and will be recognized in November at a banquet in Scottsdale, Arizona:

AHA (principal investigator: Timothy Klett)
The All Hazards Analysis (AHA) tool employs machine learning and natural language processing to help analysts identify infrastructure interdependencies. By modeling how failures can propagate, it helps utilities and public entities plan for emergencies and mitigate their effects on essential services such as power, water and healthcare during crisis situations.

(Left) Electrical transmission systems in and around Colorado are visualized through the AHA map interface, which supports analysis of critical infrastructure facilities and their dependencies. (Right) AHA’s national‑scale data provides sufficient detail and robustness to support meaningful local‑level analysis.


ViBRANT (principal investigators: Anthony Crawford)

Visual Benign Reactor as Analog for Nuclear Testing (ViBRANT) is a surrogate nuclear reactor that replaces neutrons with photons to accelerate advanced reactor development. ViBRANT uses an LED-driven core, photodiodes, thermocouples and high-performance software interfaces to help mature advanced reactor instrumentation and control systems, validate models, and facilitate system integration prior to deployment in real-world reactor prototypes.

(Left) ViBRANT’s initial 36-pin configuration showning individual LED and light spectrum control. (Right) ViBRANT controlled using robust high level commands thus making it amenable to rapid implementation.


TMAP8 (principal investigator: Pierre-Clément Simon)
Tritium Migration Analysis Program, Version 8 (TMAP8) tackles fusion energy’s biggest hidden challenge: tritium management. It is the first open-source tritium modeling platform to meet the Nuclear Quality Assurance Level 1 industry standard. The tool combines regulatory rigor; multiscale, multiphysics simulation; and broad industry accessibility and applicability to accelerate safe, commercially viable fusion power.

(Left) Dr. Pierre-Clément Simon presenting the broad ecosystem of scientific and technical projects and institutions TMAP8 supports. (Right) Dr. Lin Yang presenting the multiscale modeling approach leveraging surrogate modeling capabilities for accelerated design deployed for the DOE milestone program with Tokamak Energy.


TELEIOS-BATT (principal investigator: Kevin Gering)
TELEIOS-BATT is an advanced suite of physics-based diagnostic and prognostic tools for batteries. It offers fast, accurate and efficient monitoring, simulation and prediction of battery health and aging, helping maximize safety, reliability and cost efficiency for modern battery-dependent industries.

(Left) Dr. Kevin Gering explaining the importance of path-dependence of battery aging, using TELEIOS-BATT results for simulations covering changeable, diverse battery use conditions over the timeline. (Right) Snapshot of a 100-week aging simulation for a multi-cell string containing a thermal hotspot, showing the combined effects on cell resistance. Such simulations capture the plausible condition of imperfect thermal management in battery assemblies, and how it impacts local aging within the cell string.


REFLEX (INL contributors: Samuel Koomson, Wanhua Wang, Zeyu Zhao, Dong Ding)

Developed by the University of Pittsburgh, Idaho National Laboratory, and National Energy Technology Laboratory—Real-time Embedded Feedback and Layered Excitation (REFLEX) transforms passive electrochemical interconnects into intelligent, sensor-enabled components that provide real-time monitoring, active thermal control and digital-twin capabilities for next-generation fuel cells, electrolyzers and hydrogen energy systems.

INL also had one technology announced as a finalist:

FARM (INL contributors: Paul Talbot, Aaron Epiney)
Developed by Argonne National Laboratory and Idaho National Laboratory—Feasible Actuator Range Modifier (FARM) is a tool that helps power plants make better decisions about how to generate energy, ensuring they operate efficiently and avoid unnecessary wear and tear.


NEWS MEDIA CONTACTS:

Alicia Moulton, (208) 557-4909
Sarah Neumann, (208) 520-1651

About Idaho National Laboratory

Battelle Energy Alliance manages INL for the U.S. Department of Energy’s Office of Nuclear Energy. INL is the nation’s center for nuclear energy research and development, and also performs research in each of DOE’s strategic goal areas: energy, national security, science and the environment. For more information, visit www.inl.gov.

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