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Fiscal Receipts

Human Effectiveness Applied Research

FRDT&EPartial Reconciliation0602202F
What it is
Human Effectiveness Applied Research — a research & development program run by Air Force.
What changed
-$3.50M FY25→26
Who gets it
No award linkage at high confidence.

Budget Figures

FY24 Actuals
$138.1M
FY25 Total
$137.4M
FY26 Request
$133.9M
FY25→26 Change
-$3.50M

FY2026 award data is a partial year — USASpending awards are reported on a rolling basis and the fiscal year does not close until September 30. why partial FY2026 data? →

Budget Trajectory
FY24: $138.1MFY25: $137.4MFY26: $133.9MFY24FY25FY26
FY24
$138.1M
FY25
$137.4M
FY26
$133.9M
Decade view — each figure cites its own President's Budget edition
FY2015 actuals — PB2017 editionFY2016 actuals — PB2018 editionFY2017 actuals — PB2019 editionFY2018 actuals — PB2020 editionFY2019 actuals — PB2021 editionFY2020 actuals — PB2022 editionFY2021 actuals — PB2023 editionFY2022 actuals — PB2024 editionFY2023 actuals — PB2025 editionFY2024 actuals — PB2026 editionFY2016 enacted — PB2017 editionFY2017 enacted — PB2018 editionFY2018 enacted — PB2019 editionFY2019 enacted — PB2020 editionFY2020 enacted — PB2021 editionFY2021 enacted — PB2022 editionFY2022 enacted — PB2023 editionFY2023 enacted — PB2024 editionFY2024 enacted — PB2025 editionFY2025 enacted — PB2026 editionFY2017 request — PB2017 editionFY2018 request — PB2018 editionFY2019 request — PB2019 editionFY2020 request — PB2020 editionFY2021 request — PB2021 editionFY2022 request — PB2022 editionFY2023 request — PB2023 editionFY2024 request — PB2024 editionFY2025 request — PB2025 editionFY2026 request — PB2026 editionFY15FY26

● actuals (line)  ·  ○ enacted  ·  ◇ request — gaps are editions the program is absent from, never interpolated.

SeriesFY15FY16FY17FY18FY19FY20FY21FY22FY23FY24FY25FY26
Actuals$95.7M$108.8M$110.0M$126.5M$109.6M$128.4M$127.2M$139.3M$133.2M$138.1M
Enacted$110.2M$111.6M$108.8M$119.0M$134.8M$133.9M$156.9M$150.8M$146.9M$137.4M
Request$111.6M$108.8M$112.5M$131.8M$115.2M$136.3M$135.8M$146.9M$138.2M$133.9M

blank = series not published for this year; – = absent from that edition.

Asked vs spent: the PB2018 book requested $108.8M for FY2018; the PB2020 book reports $126.5M actually spent — $17.8M above the request.

Program Lineage

No predecessor/successor lineage was recorded for this program element — no FY-to-FY transfer into or out of this line was stated in the ingested J-books, and none was inferred from the program structure.

Description

Mission Enterprise Transformational Appld Research

This program element develops multidisciplinary applied research efforts to accelerate the technology pipeline of transformational capabilities by reducing risk and maturing the technology so it can transition in support of larger advanced technology development capability investments. These activities are selected to enable solutions to the DAFs highest priorities to include Operational Imperatives and Critical Technology Areas. The Explore effort engages traditional & nontraditional industry, government laboratories and academia through 12-24 month feasibility studies and demonstrations. The Seedlings for Disruptive Capabilities Program (SDCP) facilitates AFRL cross-disciplinary applied research to provide leap-ahead, high risk technology development. Modeling, simulation, and analyses activities will continue to explore transformational research analytic technologies to enable validated positions and provide a solid foundation with emphasis to predict future outcomes and technology needs, as well as looking for more seedlings to feed the transformational capability pipeline. Continue to advance future workforce development programs and broadening partnerships to deepen and expand the scientific and technology enterprise. Applied research efforts span a broad spectrum of activities, and established processes allow agility and flexibility to meet higher demand signals.

Mission Bioeffects

This project conducts applied research on the effects of human exposure to electromagnetic energy (direct current to radio frequency to optical, scalable directed energy weapons, and other novel weapons). The project conducts laboratory experiments to provide fundamental knowledge of mechanisms of interaction of directed energy with molecules, cells, tissues, organs, and whole organisms in support of military directed energy systems. This research addresses mechanisms of interactions through fundamental physical principles, biological responses, and physiological outcomes. Research focus areas include novel directed energy bioeffects and mechanisms and directed energy modeling, simulation, and analysis. This research enhances combat survivability and systems effectiveness through technologies that enable deployed forces to counter optical threats and exploit optical systems for offensive applications. In addition, basic biological investigations into the mechanisms associated with high peak power and high average power radio frequency exposure allow for the exploitation of directed energy systems for offensive capabilities while protecting the warfighter from adversarial use of radio frequency technologies. Novel directed energy bioeffects mechanisms research examines the physical, physiological, behavioral, and neural interactions of electromagnetic energy with tissues to understand dose-response effects as well as reveal the means to cause or prevent a specific effect. This work assures valid assessments of real-world concerns and manages the risks associated with technological surprise. The project includes laboratory experiments to understand the mechanistic and behavioral effects of novel weapon incidents to Airmen and Guardians and to understand the effects of protection strategies on Airman and Guardian performance. Directed energy modeling, simulation, and analysis research focuses on new software components that represent and optimize concepts of novel system employment from the Airman and Guardian standpoint. These components are matured for future transition and application for engagement-to-mission level simulations in which directed energy weapons are employed.

Mission Human Effectiveness Applied Research

This program conducts applied research in the area of airmen training, airmen performance sustainment, bioeffects, and understanding and shaping adversarial behavior, maturing technology and readying it for eventual integration into combat and combat support systems. The Learning and Operational Readiness project conducts research to increase the agility of training to operate aircraft, weapons, logistics, intelligence, and space systems while advancing learning and performance assessment science and practice. The Biosciences Performance project conducts research to discover, demonstrate, and transition capabilities which optimize and safe-guard Airman and Guardian physical and cognitive performance allowing for the maximum impact during combat and contingency operations. The Warfighter Interfaces and Teaming project conducts research to discover, develop, and transition advanced interface technology, decision aiding tools, and situationally-adaptive augmentation methods to seamlessly integrate Airmen and intelligent machines into maximally collaborative warfighting teams. The Bioeffects project conducts novel and operational directed energy bioeffects research, exposure effects analysis and develops national/international exposure standards for the Air Force to enable, sustain, and enhance Airman performance and protection during deployment of directed energy systems. The Air Force Research Laboratory (AFRL) is focused on high-impact, multi-domain science & technology (S&T) solutions that drive innovation now while laying the groundwork for the Air and Space Force to win the future fight. AFRL effectively synchronizes the Department of the Air Force (DAF) S&T enterprise and workforce to align towards the most consequential DAF priorities and accelerate the delivery of game-changing S&T. This program element may include necessary expenses to support the operation and maintenance of facilities to manage, execute, and deliver science and technology capabilities. This program includes funding for the requisite DAF Science & Engineering (S&E) and mission enabling civilian workforce with the necessary technical competencies to develop, manage, and deliver science & technology capabilities. The use of program funds in this program element is in conjunction with the civilian pay expenses budgeted in the following program elements: 1206601SF, 0601102F, 0602020F, 0602102F, 0602203F, 0602204F, 0602298F, 0602336F, 0602602F, 0602605F, 0602788F, and 0603680F. In FY 2026, $64.637 million is budgeted in this program for 349 direct Full-Time Equivalent (FTE) civilians. The Air Force Research Laboratory (AFRL) utilizes 10 USC 4091, "Authorities for certain positions at science and technology reinvention laboratories” to manage the workforce strength, structure, positions, and compensation. The FY 2026 request was reduced by $0.427 million for Advisory and Assistance Services to promote efficiencies and advance the policies of the Administration in alignment with Executive Order 14222, "Implementing the President's Department of Government Efficiency Cost Efficiency Initiative.” The FY 2026 request was reduced by $6.733 million for civilian personnel to optimize the workforce in compliance with Executive Order 14210, "Implementing the President's Department of Government Efficiency Workforce Optimization Initiative.” This program is in Budget Activity 2, Applied Research because this budget activity includes studies, investigations, and non-system specific technology efforts directed toward general military needs with a view toward developing and evaluating the feasibility and practicality of proposed solutions and determining their parameters.

Mission Warfighter Interfaces and Teaming

This project conducts research to achieve warfighter decision superiority across air, space, and cyber domains through research on advanced human-machine interfaces, joint-cognitive systems decision-making, and distributed and collaborative teaming and communication enhancements. Research provides advanced warfighter Command and Control interface technology, team collaboration tools, intelligent decision aids, and agile communications management. Research is conducted in two focus areas: human-machine interactions, and distributed teaming and communication. Human-machine interactions focuses on achieving decision superiority by optimizing human engagement with increasingly complex, highly automated, and Artificial Intelligence-enabled combat and combat support systems. Distributed teaming and communication focuses on research technology and methods to enhance the formation, assessment, and performance of distributed teams of warfighters as well as human-machine teams executing combat. Human Machine Teaming technology is critical to optimally integrating Airmen and Guardians with the increasingly technological & networked battlespace to achieve and maintain resilient decision superiority and defeat adversaries. In FY 2025 this Project 625329 changed name from "Sensory Evaluation and Decision Science to "Warfighter Interfaces and Teaming".

Mission Biosciences Performance

This project conducts bioengineering and biotechnology research to optimize, safe-guard, and restore the performance of the multi-domain Airman in all environments. Research is focused in the areas of 1) Applied Cognitive Neurosciences: technologies to sustain, augment, and recover operator performance; 2) Biotechnology for Performance: research in systems biology, synthetic biology, and risk assessment; 3) Performance Sensing and Assessment: technologies to sense and forecast operator state based on physiological, molecular, and environmental signatures related to mission performance; and 4) Performance Impact of Flight: elucidate how air environments affect processes of life and the ability to maintain physiological equilibrium and develop countermeasures and technologies to sustain, enhance, and restore operator performance. In FY 2025 this Project 625328 changed its name from "Human Dynamics Evaluation" to "Biosciences Performance".

Mission Learning and Operational Readiness

This project enables warfighter decision superiority by advancing the science and technology of human multi-sensory perception, learning, information processing, and action. Research is conducted in two focus areas: learning and operational training, and digital models of cognition. Digital Models of Cognition focuses on holistic models that work at understanding and prediction of mission effectiveness to maximize training effectiveness as well as to make human cognitive models available for other modeling, simulation, and analysis. Learning and operational training improves learning and understanding by linking evolving technology with understanding of how warfighters assimilate information and abilities. This project looks to establish a persistent, global experimentation, test, and training ecosystem that supports personalized, proficiency-based readiness for warfighters in joint all-domain operations, including work that supports Air Education and Training Command's undergraduate pilot training programs, Air Combat Command's fighter community, Air Force (AF) combat casualty care and enroute medical operations, human-machine teams executing Command, Control, Communications and Battle Management tasks, the development of Multi-Capable Airmen for maintenance and operations support, and the growing needs of the Unit States Space Force for space domain and cislunar operations. Using digital modeling, advancements will take into account human perception, cognition, and action in system development, wargaming, and operational planning, to support the development of human digital twins that can be integrated into AF Modeling and Simulation capabilities for training, and prediction of cognitive load and fatigue for maximum endurance operations in support of Air Mobility Command and Air Combat Command operational mission requirements.

Justification

Accomplishments & Planned Programs (16)

Directed Energy Bioeffects Modeling, Simulation and Analysis

Conducts physics-level modeling and simulations to represent and optimize directed energy bioeffects to include direct, scalable, and collateral effects.

Novel Directed Energy Bioeffects and Mechanisms

Conducts laboratory experiments to provide fundamental knowledge of mechanisms of interaction of directed energy with molecules, cells, tissues, organs, and whole organisms in support of military directed energy systems. Conducts laboratory experiments to understand the mechanistic and behavioral effects of novel weapon incidents to the Airman and to understand the effects of protection strategies on Airman performance.

System Analytics

System Analytics studies the macro-cognition of the Airman using computational tools to accomplish mission objectives, encompassing interactions between operators, analytics, and environment. The goal of this research area is to describe, assess, and design for effective integration of analytics into mission systems.

Distributed Teaming and Communication

Research that explores the rapid formation, real-time assessment, and dynamically optimized performance of distributed heterogeneous teams of warfighters as well as human-machine teams to enable rapid, agile and robust mission operations. Research areas include methods to enable the rapid formation of mission-effective heterogeneous teams, dynamic monitoring/assessment of team performance through optimal assemblage of novel and existing metrics, adaptive tactics for recovery from real or predicted team performance degradations, and novel distributed communication and collaboration tools, technologies and management methods that are responsive to variable network environments. Note: FY2026 increased by $27.617 million compared to FY2025 due to moving Collaborative Interfaces and Teaming, and Multisensory Perception and Communication thrusts' activities and resources into the Distributed Teaming and Communication thrust; expanding and accelerating human factors and performance research related to utilization of Artificial Intelligence and Airman/Guardian physiological data to facilitate All Domain Command and Control during complex peer-level combat operations; and initiating research on novel nonintrusive metrics and models to assess distributed team performance, research on adaptive communication management interfaces, research on enhanced conversational artificial intelligence for team performance enhancement, research for developing Intelligent Agent Teammate/Advisors technology, and research to identify and understand critical teaming factors for non-collated teams while engaging the enemy.

Human Machine Interactions

Research to identify principles of human interaction with highly complex systems, including advanced automation and increasingly intelligent Artificial Intelligence-enabled machines. The goal of this research is to achieve and sustain decision superiority across complex and uncertain mission environments. Research areas include identifying, characterizing, and overcoming key challenges to warfighter interactions with complex and intelligent systems, situationally adaptive interface design and usability, knowledge representation across sensory modalities, system observability and transparency, directability, joint-cognitive decision making, and maintaining properly calibrated trust across changing combat or contingency conditions.

Multisensory Perceptions and Communication

Multisensory Perception and Communication focuses on identifying and exploiting the underlying sensory and cognitive mechanisms mediating human perception and communication in order to inform the development of multimodal interfaces and speech/language technologies. Research examines sensory processing, multisensory integration, and human communication processes in simple and complex environments to identify the barriers to effective information transmission and inform the development of technologies to overcome, or exploit, those barriers in order to enhance Airmen performance.

Collaborative Interfaces and Teaming

Research new Human-Machine Teaming technologies and concepts (e.g., information portrayal, control devices, decision aiding algorithms and adaptive agents) for effective human-machine interaction and teamwork.

Performance Impact of Flight

Conduct research investigating Airman performance degradation resulting from exposure to operational flight environments, and seek understanding of the fundamental mechanisms driving environmental and operational risks. Develop technologies to mitigate or eliminate the root physiologic causes of these degradations and to ultimately optimize Airman performance, resulting in the capability to fly faster, higher, and longer than adversary pilots. In FY 2025, this effort changed its name from "Performance Impact of Air and Space" to "Performance Impact of Flight".

Applied Cognitive Neurosciences

Develop technologies in cognitive neuroscience and physical performance to sustain, augment, and recover operator performance and determine performance attributes/metrics for optimal Airman and Guardian mission performance. Includes research focused on developing and validating physiological and behavioral assessments of current and predicted cognitive state combined with personalized cognitive performance enhancement techniques and technologies to augment operator performance. In FY 2025, this thrust changed its name from "Cognitive and Physiological Performance" to "Applied Cognitive Neurosciences".

Biotechnology for Performance

Conduct research in systems biology, synthetic biology, and physiologic risk assessment research to focus on the underlying mechanisms contributing to individual performance in various operational environments through the integration of multiple genetic and biomarker technologies. Conduct research to utilize biomarker technologies to determine the risk associated with exposure to toxic compounds and materials. Resulting research will generate biomarker candidates for sensing personalized predictors of response to stressors, and novel interventions to optimize, safeguard, and restore Airman performance.

Performance Sensing and Assessment

Develop technologies to sense and forecast operator state based on physiological, molecular, and environmental signatures related to Airman performance. Develop solutions optimized for real-time, minimally-invasive, and autonomous sensing and assessing capabilities to enhance and protect Airmen across the spectrum of operational environments.

Digital Models of Cognition

Research to identify computational and mathematical mechanisms to represent human perception, information processing, and behavior, including the integration of models that reflect the role of internal and external factors that modulate performance efficiency and effectiveness. Research area develops models of cognitive systems that support quantitative understanding and prediction of mission effectiveness for decision superiority. Develops analytic methods, models, and tradecraft that enables operators to improve Information-Related Capability.

Cognitive Modeling

Research explores application of mathematical and computational modeling to understand the human mind, and factors that will enhance or degrade cognitive performance. Capabilities enable personalized learning by tracking individual learning, and targeting training interventions where/when needed. Research also explores applications for computer-generated forces with greater cognitive fidelity improving realism while reducing manpower costs for large, simulated scenarios. Also investigates algorithms that track and predict readiness and mission effectiveness based on influences of the mission context and individual stressors improving the fidelity of wargames, system development, and operational planning with better characterizations of human capacities and limitations.

Learning and Operational Training

Research that emphasizes learning and understanding in the context of evolving technology to facilitate more effective and more efficient Airman and Guardian training. This includes research to establish an ecosystem that maximizes mission effectiveness while minimizing costs by matching technologies to learning and performance needs; targeted investments to develop, demonstrate, and transition learning methods and technologies; high resolution human and system measurement to enable quantitative, proficiency-centric readiness assessment and prediction at the individual and team levels; and exploration of mechanisms and theory of interactive learning and collaborative training of humans and Artificial Intelligence-enabled machines to support mutual adaptation and understanding that fosters uniquely effective human-autonomy teams. A key focus area is ensuring physical and psychological fidelity requirements are met in training simulation testbeds to address the readiness needs of the operational Air and Space Forces. Competency modeling enables data-driven and theory-informed insights for instructors and adaptive training for Warfighters in multiple high-priority domains, including piloting; Intelligence, Surveillance, and Reconnaissance; and teaming. Competency modeling will benefit aircrew training; novel training methodologies, interventions, and metrics will support Air Education and Training Command training priorities; and novel human/Artificial Intelligence co-learning technologies will support space domain awareness and battle management.

Personalized Learning

Research builds the foundation for long-term Operational Training and Test Infrastructure by creating capabilities that enhance live-virtual-constructive environments and integration, exploring environments and mechanisms to enable collaborative human-machine teams learning, researching individual and team measurement and assessment techniques, developing algorithms to enable a shift toward personalized and proficiency-based training and readiness management, and researching how advanced learning technologies like augmented and virtual reality can be used to increase the effectiveness and efficiency of training.

Enterprise Transformational Applied Research

Enterprise Transformational Applied Research

Budget Line Items(workbook-cited)

Exhibit R-1

AccountOrgTypeAmount
Research, Development, Test and Evaluation, Air ForceFFY24 Actuals$138.1M
Research, Development, Test and Evaluation, Air ForceFFY25 Enacted$137.4M
Research, Development, Test and Evaluation, Air ForceFFY25 Total$137.4M
Research, Development, Test and Evaluation, Air ForceFFY26 Disc. Request$133.9M
Research, Development, Test and Evaluation, Air ForceFFY26 Total$133.9M

Budget Details(R-2/P-40 facts)

ProjectAll Prior YearsFY24 ActualsFY25 TotalFY26 BaseFY26 Request
621123: Learning and Operational Readiness$0$22.0M$14.0M$21.3M$21.3M
Program Element$0$138.1M$137.4M$133.9M$133.9M
620200: Enterprise Transformational Appld Research$0$191.0K$0$0$0
627757: Bioeffects$0$46.9M$46.1M$33.4M$33.4M
625328: Biosciences Performance$0$26.8M$47.3M$33.1M$33.1M
625329: Warfighter Interfaces and Teaming$0$42.2M$30.0M$46.1M$46.1M

No follow-the-dollar view — this program's awards haven't been crosswalked at high confidence (flows cover 17 of 1741 programs). why coverage is partial? →

Awards

No awards are linked to this program element at high confidence — the budget→award crosswalk only asserts links it can defend, and this line has none yet.

Lobbying Mentions

No Senate LDA lobbying filing in the tracked data mentions this program element by code or alias.

No research dossier for this program — dossiers cover 50 of 1741 programs, the largest fully J-book-detailed lines by FY2026 requested dollars. why no dossier here? →