Printed from https://fiscalreceipts.com/program/0602204F/ — data as of July 28, 2026. Every figure is citation-backed; see the page online for per-number provenance.
Aerospace Sensors
Budget Figures
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? →
- FY24
- $236.3M
- FY25
- $193.0M
- FY26
- $199.1M
● actuals (line) · ○ enacted · ◇ request — gaps are editions the program is absent from, never interpolated.
| Series | FY15 | FY16 | FY17 | FY18 | FY19 | FY20 | FY21 | FY22 | FY23 | FY24 | FY25 | FY26 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Actuals | $118.7M | $151.3M | $160.3M | $157.1M | $168.9M | $210.9M | $221.8M | $244.6M | $249.3M | $236.3M | ||
| Enacted | $152.2M | $155.2M | $152.8M | $171.3M | $219.9M | $232.9M | $255.9M | $260.8M | $216.3M | $193.0M | ||
| Request | $155.2M | $152.8M | $166.5M | $202.9M | $211.3M | $193.5M | $192.7M | $216.3M | $193.0M | $199.1M |
blank = series not published for this year; – = absent from that edition.
Asked vs spent: the PB2023 book requested $192.7M for FY2023; the PB2025 book reports $249.3M actually spent — $56.6M 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 — Electronic Warfare Technology
This project develops and assesses affordable, reliable, all weather radio frequency countermeasure concepts for aerospace applications covering the range of radio frequency sensors including communications, navigation, intelligence, surveillance and reconnaissance (ISR), and radar, both active and passive, across the air, land, sea, space and cyber domains. It develops and evaluates technology for electronic warfare, integrated radar and electronic warfare systems, and electro-optical/infrared seeker defeat. This project develops the radio frequency warning and countermeasure technology for advanced electronic warfare and information operations applications. The project also explores technologies to maintain a military advantage in positioning, navigation and timing integrity, accuracy, and resiliency as well as on aircraft mission assurance - the protection of airborne platforms, manned and unmanned, in contested environments. The ultimate goal of the project is to ensure unrestricted access to the airspace and the electromagnetic spectrum in contested and congested environments.
Mission — RF Sensors and Countermeasures Tech
This project develops and assesses affordable, reliable all weather radio frequency sensing and countermeasure concepts for aerospace applications covering the range of radio frequency sensors including communications, navigation, intelligence, surveillance and reconnaissance, and radar, both active and passive, across multiple domains. This project also develops and evaluates technology for intelligence, surveillance and reconnaissance sensors, fire control radars, electromagnetic warfare, integrated radar and electromagnetic warfare systems, and offensive information operations systems. It emphasizes the detection and tracking of surface and airborne targets with radio frequency signatures that are difficult to detect due to reduced radar cross sections, concealment and camouflage measures, severe clutter, or heavy jamming. Techniques exploited include the use of multiple radio frequency phenomenologies, multi-dimensional adaptive processing, advanced waveforms and knowledge-aided processing techniques. It also develops advanced electro-optical aerospace sensor technologies for a variety of offensive and defensive applications. The sensor technologies under development cover the ultraviolet through the infrared portion of the spectrum. Technical efforts include improvements in system integration, digital processing, analysis tools, and sensor architectures. One of the project's goals is to improve electro-optical and related technologies for the detection, tracking, and identification of noncooperative and difficult targets, such as those obscured by camouflage or operating at significant range. This project also develops the passive and active sensors and algorithms needed to enable precision targeting in challenging operating environments as well as advanced electro-optical threat warning and countermeasures technologies. The project also explores technologies to maintain a military advantage in positioning, navigation and timing integrity, accuracy, and resiliency. This project also develops concepts to counter threats to our aerospace systems. It develops and evaluates technology for electromagnetic warfare, integrated radar and electromagnetic warfare systems, and electro-optical/infrared seeker defeat.
Mission — Sensor Fusion Technology
This project develops foundational and applied technologies required for closed-loop autonomous sensing employing multiple information domains, diverse sensor phenomena, and multiple platform types to provide intelligence, surveillance, and reconnaissance, target recognition, situational awareness and battlespace visualization, fire control, and battle damage assessment capabilities against a wide variety of air and ground based targets engaged in multitudes of behaviors in a broad range of operational environments. This project conducts exploratory and applied investigations to determine technology feasibility and estimate operational capability constraints associated with missions in future contested and highly contested operating environments, using cooperative and non-cooperative sensing sources. This project develops techniques to automate multi-sensor exploitation and information processing which leverage data fusion, adaptive signal processing, sensor and platform orchestration, and by leveraging artificial intelligence / machine learning research communities. This project develops concepts and algorithms for efficient processing at the edge, parallel processing, distributed processing, and high-performance computing in sensor data processing and synthetic data generation.
Mission — Cyber Technology
This project focuses on technologies for enabling agile and resilient Air Force mission systems. This project improves our understanding of cyber vulnerabilities of mission systems by investigating the fundamental nature of those vulnerabilities including: how they come about, how they can be discovered, how they can be quantified and categorized, how they can be exploited, and how they can be removed or mitigated to secure the system. This project develops adaptable and resilient hardware/software for real-time avionics cyber-attack pattern recognition and develops a protection system with the capability for autonomous learning, adaptation, and self-protection. This project investigates open architecture concepts and technologies to deliver capability flexibility to Department of the Air Force mission systems. These technologies are matured via integrated capability demonstrations.
Mission — EO Sensors & Countermeasures Tech
This project develops advanced electro-optical aerospace sensor technologies for a variety of offensive and defensive applications. The sensor technologies under development cover the ultraviolet through the infrared portion of the spectrum. Technical efforts include improvements in system integration, digital processing, analysis tools, and sensor architectures. One of the project's goals is to improve electro-optical and related technologies for the detection, tracking, and identification of non-cooperative and difficult targets, such as those obscured by camouflage or operating at significant range. This project also develops the passive and active sensors and algorithms needed to enable precision targeting in challenging operating environments as well as advanced electro-optical threat warning and countermeasures technologies. These technologies are critical to future aerospace surveillance and targeting.
Mission — Electronic Component Technology
This project focuses on electronics and optoelectronics technologies that generate, control, receive, and process electromagnetic spectrum for aerospace sensor and electronic warfare applications. The enabling technologies developed under this project will be used for intelligence, surveillance, reconnaissance, electromagnetic warfare, battlespace access, and precision engagement capabilities. The technologies developed include exploratory electronic and optoelectronic devices, components, microsystems, and subsystems. This project also assesses designs, develops, fabricates, and demonstrates the associated technologies for integrating combinations of these component technologies. The project develops and demonstrates significantly smaller size, lower weight, lower cost, lower power dissipation, higher reliability, trustworthiness, and improved performance components. The device and subsystem technology developments under this project are military unique; they are based on Department of the Air Force and other Department of Defense weapon systems requirements in the areas of radar, communications, electromagnetic warfare, positioning, navigation, timing, and smart weapons.
Mission — Aerospace Sensors
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 develops the technology base for Air Force aerospace sensors and electromagnetic combat. Advances in aerospace sensors are required to increase combat effectiveness by providing anytime, anywhere surveillance, reconnaissance, precision targeting, and electromagnetic warfare capabilities. To achieve this progress, this program pursues simultaneous advances in: 1) generating, controlling, receiving, and processing electronic and photonic signals for radio frequency sensor aerospace applications; 2) affordable, reliable, all weather radio frequency and electro-optical/infrared countermeasure concepts; 3) positioning, navigation and timing integrity, accuracy, and resiliency; 4)electro-optical and infrared aerospace sensor technologies for a variety of offensive and defensive uses; 5) radio frequency antennas and associated electronics for airborne and space surveillance, together with active and passive electro-optical/infrared sensors; 6) technologies to manage and fuse on-board sensor information for timely, comprehensive situational awareness; 7) technology for affordable, trusted, resilient, and reliable, all-weather surveillance, reconnaissance, and precision strike radio frequency sensors and electronic combat systems; and 8) technologies that aid in the development of agile and resilient mission systems. This program has been coordinated through the Department of Defense Science and Technology Executive Committee process to harmonize efforts and eliminate duplication. Funds in this program element may be used to investigate specified technology advancements in multiple domains. 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 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, 0602202F, 0602203F, 0602298F, 0602336F, 0602602F, 0602605F, 0602788F, and 0603680F. In FY 2026, $106.756 million is budgeted in this program for 535 direct Full-Time Equivalent civilians. The Air Force Research Laboratory utilizes 10 USC 4091, "Authorities for certain positions at science and technology reinvention laboratories” to manage the workforce strength, structure, positions, and compensation. 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.
Justification
Accomplishments & Planned Programs (21)
Passive Electro-Optical/Infrared Sensing in Contested Environments
Develop innovative passive optical sensing technology to support surveillance, reconnaissance and targeting in contested environments. Develop high performance cameras, aperture technologies, novel sensing architectures, advanced exploitation, and imaging techniques capable of detection, tracking and identification of multi-domain threats.
Laser Radar Sensing in Contested Environments
Develop innovative laser sensing technology for non-cooperative identification and targeting of air/space and surface targets in contested environments. Develop optical spectrum transmitters, detectors, agile aperture and exploitation technologies capable of sensing multiple target characteristics for robust non-cooperative target identification.
Distributed Radio Frequency Sensing
Develop innovative, timely, and affordable target detection, tracking, characterization and geolocation capabilities using distributed and passive radio frequency techniques. Distributed radio frequency leverages two or more spatially distributed receivers and transmitters that use cooperative radio frequency transmitters (illuminators), namely those radio frequency sources that have a common objective to the receiver systems being used. Explore technologies supporting passive radar, electronic support, and signals intelligence, utilizing modeling and simulation, advanced receiver subsystems, and digital signal processing enhancements.
Passive Radio Frequency Sensing
Develop a system that performs traditional radar sensing modes through passive means. The research plan is designed to continue the development of the subsystems which make up the passive radar and to follow a spiral development path that involves the integration and testing of various technology instantiations to produce alternate versions of a full passive multi-mode system. Includes the development of low size-weight-and-power radio frequency signal detection and geolocation payloads for small uncrewed air systems and the integration of advanced receiver subsystems to meet a particular need of the Department of the Air Force. Explore combat identification technologies, modeling and simulation enhancements, and technologies supporting passive radar, electronic support, and signals intelligence.
Multiband Multifunction Radio Frequency Sensing
Develop multi-band and multi-beam forming technologies. Address technologies for antenna array operations in dynamic sensor networks.
Cyber Physical Sensing
Cyber Physical Sensing is the opportunity to exploit the internet of things and other non-traditional intelligence, surveillance and reconnaissance sensing systems in a way other that what they were designed to do. This additional source of information closes the gap between current intelligence, surveillance and reconnaissance collection capabilities and the vision of all intelligence, surveillance and reconnaissance, all the time. This technology investment looks at the sensing opportunities which exist at the point where physics meets the cyber domain. This effort focuses on the proliferated sensing devices, extracting information from multi-intelligence sensors and translating that information into detection, tracking and identification by use of multi-intelligence fusion. This effort leverages processing at-the-edge and distributed processing, exploited using new-generation machine learning, artificial intelligence and deep learning techniques.
Sensing Autonomy
Sensing Autonomy develops orchestration systems for use at the edge and in intelligence, surveillance and reconnaissance custody chain command and control. Sensing Autonomy enables predictive analytics, autonomous behaviors, resource management, and mission planning onboard crewed/uncrewed aerial platforms. Applies sensing management principles to multi-domain info sources, accelerating sensing and analysis for autonomy in motion/at rest. Sensing Autonomy will be developed with the Department of the Air Force's digital transformation efforts, requiring the use of modeling, simulation and analysis, digital artifact creation/reuse, software engineering, development, security, and operations, and cyber secure software integration/testing. The primary areas of research in Sensing Autonomy include optimization, sensor data processing, autonomy, and predictive analytics. Technical focus areas include natural language processing, entity recognition, synthetic grammars, track-based activity representation, graph-based knowledge representation and analytics, machine learning, power domination application to graph applications, correlation assessment of streaming sensor information, probabilistic estimation spiking neural networks, analogy learning, and reinforcement learning. In FY 2026 Knowledge and Execution Management was renamed Sensing Autonomy.
Multi-Domain Sensing Effects and Analysis
This effort focuses on two primary areas: (1) Multi domain sensing and effects mission analysis and (2) performance understanding and assessments. It develops methodologies and modeling, simulation, and analysis tools to enable multi-domain analysis and technology development, informing other efforts and projects across the directorate. Investments in modeling, simulation and analysis represent current and next generation sensing platforms to include multiple domains. Technologies include: fusion of information, battlespace understanding, and the ability to simulate sensor and platform performance at the mission level, engagement level, and physics level, to understand performance and trade space amongst these domains.
Multi-Domain Sense Making
Multi-Domain Sense Making develops military relevant technology that fuses information from any source, recognizes and comprehends the environment, and enables improved, timely, and executable battlespace decisions. This effort focuses on translating relevant data from multiple sensors (or single sensor, as needed), modalities, and domains into useable information and information into knowledge for target identification and custody - applied at-the-edge, at forward operating units, and/or in reach-back cells. Technology areas include data association, entity detect/track/identification, information fusion, training with limited data, simulation of sensor and platform performance at the mission level, engagement level, and physics level, to understand performance and trade space amongst these domains, and performance assessment. The application of artificial intelligence and machine learning techniques to address technical challenges in contested environments is a particular emphasis. In FY 2026 Battlespace Awareness Sensing Fusion was renamed Multi-Domain Sense Making.
Electro-Optical/Infrared Threat Warning and Countermeasures Technologies
Develop electro-optical/infrared sensor countermeasure technologies. Explore novel concepts to enable electro-optical/infrared threat seeker exploitation and surrogate modeling. Conduct fundamental research in countermeasures to defeat electro-optical/infrared threat seekers. Conduct fundamental research on integrated electro-optical/infrared threat warning systems.
Radio Frequency Electronic Warfare Technologies
This project develops the radio frequency warning and countermeasure technology for advanced electromagnetic warfare and information operations applications. This project develops techniques and technologies to detect and counter the communications links and sensors of threat integrated air defense systems and hostile command and control networks.
Positioning, Navigation and Timing in Contested/Denied Environments
Research and develop resilient positioning, navigation, and timing. Explore positioning, navigation, and timing solutions to enable novel distributed radio frequency sensing and countermeasure techniques. Develop science and technology solutions to overcome evolving threats to positioning, navigation, and timing capabilities.
Flexible and Secure Avionics
Develop avionics protection tools and capabilities to enable manned and unmanned aircraft, avionics, and related support equipment to automatically adapt to and withstand cyber-attacks. Research and develop tools, methodologies and architecture guidelines that enable the design of avionics systems with sense, learn and adapt capabilities. Support test, maintenance, and acquisition communities with cyber subject matter expertise and techniques through consultation and technical interchange. Support other Services with cyber resiliency capabilities for air, ground and sea platforms and develop Open Mission Systems architectures incorporating cyber protections and resilience technologies.
Laser Radar Sensing in Contested Environments
Develop innovative laser sensing technology for non-cooperative identification and targeting of airborne and surface targets in contested environments. Develop optical spectrum transmitters, detectors, agile aperture and exploitation technologies capable of sensing multiple target characteristics for robust non-cooperative target identification.
Passive Electro-Optical/Infrared Sensing in Contested Environments
Develop innovative passive optical sensing technology to support surveillance, reconnaissance and targeting in contested environments. Develop high performance cameras, aperture technologies, novel sensing architectures, advanced exploitation, and imaging techniques capable of detection, tracking and identification of multi-domain threats.
Microelectronics & Embedded System Assurance
Investigate and develop microelectronics security technologies to impede unwanted technology transfer and enable timely adoption of commercial and government-off-the-shelf microelectronic technologies that enable revolutionary capabilities for the Air Force.
Advanced Highly Integrated Microsystems for Intelligence, Surveillance, Reconnaissance and Electronic Warfare
Perform research and development of electronic circuit and microsystem technologies focused on miniaturization, power reduction, reconfigurability and reduced cost.
Trusted and Assured Electronics
Investigate and develop designs of resilient and assured electronic systems that enable revolutionary capabilities for the Department of the Air Force, assure operational mission systems, and impede unwanted technology transfer thus enabling timely adoption and integration of commercial solutions with government-off-the-shelf microelectronic technologies. Areas of development include multi-function radio frequency and electro-optical subsystems, advanced electronic materials, on-board sensor processing, high-frequency power modules, and resilient, assured, and reliable electronics.
Photonics Technology Development
Research, develop, demonstrate and transition photonic, electro-optical, and infrared components for next generation intelligence, surveillance, reconnaissance and countermeasures. In FY 2026 Photonic Components and Circuits was renamed Photonics Technology Development.
Microelectronics Technology Development
Assess, research, develop, demonstrate, and transition microelectronics technologies from electronic components to sensor sub-systems that incorporate power efficient semiconductor technologies and highly integrated architectures to meet demand for decreased cost, size, and weight. Research, develop, and incorporate resilience and assurance capability into sensor sub-systems to enable revolutionary capabilities for the Department of the Air Force; and impede unwanted technology transfer and enable timely adoption of commercial and government-off-the-shelf microelectronic technologies. In FY 2026 Electronic Devices was renamed Microelectronics Technology Development.
Sensor Subsystems
Develop, analyze, demonstrate, and perform engineering trade studies for technologies for compact, affordable, multi-function subsystems for aerospace sensors.
Budget Line Items(workbook-cited)
Exhibit R-1
| Account | Org | Type | Amount |
|---|---|---|---|
| Research, Development, Test and Evaluation, Air Force | F | FY24 Actuals | $236.3M |
| Research, Development, Test and Evaluation, Air Force | F | FY25 Enacted | $193.0M |
| Research, Development, Test and Evaluation, Air Force | F | FY25 Total | $193.0M |
| Research, Development, Test and Evaluation, Air Force | F | FY26 Disc. Request | $199.1M |
| Research, Development, Test and Evaluation, Air Force | F | FY26 Total | $199.1M |
Budget Details(R-2/P-40 facts)
| Project | All Prior Years | FY24 Actuals | FY25 Total | FY26 Base | FY26 Request |
|---|---|---|---|---|---|
| 624920: Electronic Warfare Technology | $0 | $39.9M | $41.0M | $38.1M | $38.1M |
| 622005: Cyber Technology | $0 | $14.4M | $13.8M | $0 | $0 |
| 622003: EO Sensors & Countermeasures Tech | $0 | $25.5M | $26.0M | $0 | $0 |
| 622002: Electronic Component Technology | $0 | $64.1M | $50.4M | $53.7M | $53.7M |
| Program Element | $0 | $236.3M | $193.0M | $199.1M | $199.1M |
| 627622: RF Sensors and Countermeasures Tech | $0 | $42.3M | $43.9M | $66.4M | $66.4M |
| 626095: Sensor Fusion Technology | $0 | $50.1M | $18.0M | $40.9M | $40.9M |
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? →