Active Government Funding Opportunities

This RFP seeks monolithic integration of photonic and electronic circuits on a single chip to dramatically improve infrared imaging performance. The goal is to reduce power consumption and increase data transmission speeds for cryogenic detector systems while maintaining reliability in demanding environments.

SABER seeks algorithms that optimize communications and sensing in decentralized radar networks by processing data locally and transmitting only compressed features. This addresses the Joint Force's need to balance imaging fidelity with bandwidth constraints in distributed maritime operations.

NGA seeks to evaluate quantum gradiometer technology for high-precision maritime bathymetric mapping to fill critical gaps in ocean floor coverage. This effort will assess whether quantum sensors can generate bathymetric products meeting GEOINT standards and complement existing collection methods like SWOT and multibeam systems.

This RFP seeks development of Dual-Functional Radar-Communication (DFRC) waveforms that embed data directly into radar pulses, eliminating the need for separate communication links on surveillance platforms. Proposed phases progress from waveform design through hardware prototyping to integration with existing military sensor networks.

This RFP seeks development of collaborative distributed swarm radar technology using networked UAS and sensors to enhance ground and maritime target surveillance. The project progresses from algorithm simulation through testbed validation to operational deployment, with potential civilian applications in environmental monitoring and emergency response.

This RFP seeks AI/ML-based compression technology for high-rate radar data streams, addressing the challenge of massive synthetic aperture radar data volumes. The solution will develop neural network architectures to compress raw radar returns with minimal distortion, reducing bandwidth requirements for transmission and storage across defense and civilian sensor applications.

This RFP seeks non-destructive metrology solutions to assess mesa-wall surface integrity in advanced infrared detector arrays during fabrication. The technology must detect surface defects in small-pixel geometries for Sb-based and MCT detectors across MWIR/LWIR bands, enabling real-time process optimization and higher-yield production for military sensor platforms.

DTRA seeks novel detection methods that repurpose existing military and commercial sensors—like cameras and microphones—to identify weapons of mass destruction threats. This approach addresses high development costs and long timelines associated with specialized detection equipment.

DTRA seeks innovative detection methods using existing military and commercial sensors to identify weapons of mass destruction and related threats. This approach aims to reduce development costs and timelines by repurposing standard equipment like cameras and microphones already deployed across military platforms and consumer devices.

DARPA seeks a scalable platform enabling engineers and scientists to autonomously discover and deploy optimized algorithms for domain-specific problems. The initiative bridges research-stage algorithm discovery tools with real-world industrial applications through university-industry partnerships.

This SBIR seeks innovative unmanned aerial systems (UAS) subsystems that dramatically improve payload capacity—achieving 4:1 payload-to-weight ratios through advanced materials and design. Proposals must focus on either revolutionary aerodynamic structures (Track A) or high-efficiency propulsion systems (Track B), with clear commercialization and certification pathways.

Seeking an open-architecture autonomous underwater vehicle platform that enables rapid payload adaptation and multi-vehicle collaboration while reducing downtime. The system must deliver reliable deep-water operations with AI-driven mission planning and automated data sharing to support defense, commercial, and scientific missions at scale.

This Phase II SBIR seeks an automated, species-agnostic cell culture platform that rapidly establishes reproducible cell lines from non-model organisms—compressing years of manual optimization into weeks. The platform will enable faster gene-drive research and genetic-biocontrol development across diverse vertebrate and invertebrate species.

This RFP seeks a low-power, mission-aware semantic communication system for small unmanned aircraft that intelligently compresses ISR sensor data by 100x while preserving decision-relevant context. The system must understand operator intent, reason across spatial and temporal patterns, and transmit only essential information over severely constrained tactical communications links.

DARPA seeks subsystems for underwater 3D concrete printing using seafloor sediments and seawater to enable rapid, flexible maritime construction. Performers will develop critical components including sediment processing, material transport, mixing systems, and AI-optimized concrete formulations for expeditionary and commercial applications.

This RFP seeks an advanced interference canceller unit for aircraft CNI systems to maintain secure communications across 120+ nautical miles in high-interference environments. The technology must support frequency-hopping TDMA data links while handling high-power UHF transmit and receive signals simultaneously.

The Navy seeks customized nanocrystalline EMI filters combining high power and high frequency capabilities to reduce weight by 50% compared to commercial alternatives. These lightweight components will enable advanced aerospace platform electrification while meeting stringent military electromagnetic interference requirements for next-generation aircraft systems.

The Navy seeks innovative flexible fuel cell manufacturing solutions meeting MIL-DTL-27422F standards that enable rapid production while maintaining lightweight, foldable designs for airframe integration. The solution must withstand crash impacts and extreme operating conditions while minimizing defects and rework.

The Navy seeks a bi-directional Cross-Domain Solution (CDS) guard software for secure data exchange across naval aircraft and ships. The solution must run on affordable, modular hardware with rapid rule-set updates to enable faster NSA certification while reducing acquisition and sustainment costs.

This RFP seeks to validate additive manufacturing technologies for flexible electronics and advanced packaging to reduce costs and lead times in high-mix, low-volume production. The effort aims to establish reliability data for 3D-printed substrates and interconnects as viable alternatives to traditional manufacturing methods for Department of War microelectronic systems.

This RFP seeks development of real-time 3D imaging and tracking algorithms for directed energy systems to improve aimpoint maintenance on low-flying targets in cluttered environments. The solution must process complex 3D imagery efficiently enough to operate at high framerates while compensating for atmospheric disturbances.

The Air Force is seeking innovative composite joint technologies that balance geometric flexibility with high structural performance while reducing costs for autonomous air vehicles and advanced weapons systems. The effort aims to develop scalable manufacturing processes for carbon fiber pi-joints that overcome current tradeoffs between customizable design and mechanical durability.

This SBIR seeks development of an ultra-sensitive quantum telemetry receiver using Rydberg sensors to overcome DoD spectrum constraints and interference challenges. The prototype will deliver superior signal detection and operational flexibility while reducing reliance on expensive licensed frequency bands and supporting next-generation command and control systems.

The Air Force seeks high-temperature semiconductor transistors operating at 500°C+ to enable reliable electronics in extreme heat environments and electronic warfare applications, addressing current commercial limitations where existing transistors fail above 250°C.

SHINE funds research on how the Sun produces and accelerates magnetic fields and particles that travel through interplanetary space to Earth. Projects address solar energy transport mechanisms and improve predictive capabilities for space weather phenomena.