The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) capable of boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative, SF254-D1202, aims to develop compact, high-performance platforms for rapid, precise, and survivable endo-atmospheric engagements from space. Key areas of focus include highly capable boosters and propulsion systems, advanced sensor suites and seekers for target discrimination in challenging environments, and integrated space vehicle architectures that meet size, weight, and power (SWaP) constraints for distributed satellite constellations. The project emphasizes rapid manufacturability, miniaturization, and reduced system complexity. This effort is a direct-to-Phase II topic, requiring applicants to demonstrate prior feasibility work. Proposed solutions should advance technologies for high-performance propulsion, advanced seekers, and integrated interceptor designs, aiming for a Technology Readiness Level (TRL) of 6 by Phase II's end. Phase III will focus on operationalization, demonstration, and dual-use scalability, with potential for transition into government and commercial applications. The technology is restricted under ITAR/EAR.
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) capable of boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative, identified as SF254-D1202, aims to close critical capability gaps by developing compact, high-performance platforms for rapid, precise, and survivable endo-atmospheric engagements from space. The effort focuses on integrating high-G propulsion systems, advanced seekers, and low-SWaP interceptors into space vehicles to support fast detection-to-intercept timelines. Proposals should address highly capable boosters, advanced sensor suites for target discrimination in challenging environments, and fully integrated space vehicle and interceptor architectures suitable for distributed satellite constellations. The project emphasizes rapid manufacturability, reduced system complexity, and miniaturization for scalable deployment. This topic is intended for Direct-to-Phase II proposals, requiring applicants to demonstrate prior feasibility study accomplishments. Successful Phase II solutions will transition to Phase III for operationalization, demonstration, dual-use scalability, and potential commercialization in areas like hypersonics testing or responsive launch. The technology is restricted under ITAR, requiring disclosure of foreign national involvement.
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) to enhance boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative, identified as SF254-D1202, aims to develop compact, high-performance platforms capable of rapid, precise, and survivable engagements from space. Key technology areas include high-G propulsion systems, advanced seekers for target discrimination in cluttered environments, and low-SWaP (size, weight, and power) interceptors integrated into space vehicles for distributed satellite constellations. The project supports a layered missile defense architecture and national security priorities. This is a Direct-to-Phase-II effort, requiring applicants to demonstrate prior feasibility studies. Phase II focuses on developing and demonstrating these technologies, with Phase III aiming for operationalization, dual-use scalability, and commercialization. The technology is restricted under ITAR/EAR.
The U.S. Space Force (USSF) is seeking innovative solutions for Space-Based Interceptors (SBIs) capable of boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative aims to develop compact, high-performance platforms with high-G propulsion, advanced seekers, and low-SWaP interceptors for rapid, precise, and survivable engagements. The project supports a layered missile defense architecture, focusing on scalable designs, manufacturability, miniaturization, and end-to-end system integration for distributed space-based platforms. Proposals should address highly capable boosters, advanced sensor suites for target discrimination in challenging environments, and integrated space vehicle architectures. This topic is intended for Direct-to-Phase II, requiring applicants to demonstrate feasibility and a clear plan for integration into DAF operations. Phase II will focus on developing and demonstrating these technologies, with Phase III aiming for operationalization, dual-use scalability, and commercialization. The technology is restricted under ITAR/EAR.
The U.S. Space Force (USSF) is seeking innovative solutions for Space-Based Interceptors (SBIs) to enhance boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). The objective is to develop compact, high-performance platforms with high-G propulsion, advanced seekers, and low-SWaP interceptors for rapid, precise, and survivable engagements. This initiative supports a layered missile defense architecture, emphasizing scalable designs and miniaturization. Proposals should focus on highly capable boosters, advanced sensor suites for target discrimination in cluttered environments, and integrated space vehicle architectures. Phase II will develop and demonstrate these technologies, with Phase III focusing on operationalization, dual-use applications, and transition to flight-capable prototypes.
The U.S. Space Force (USSF) seeks innovative solutions for space-based interceptors (SBIs) for boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative aims to develop compact, high-performance platforms for rapid, precise, and survivable endo-atmospheric engagements from space-based assets, supporting a layered missile defense architecture. The project emphasizes high-G propulsion systems, advanced seekers, and low-SWaP interceptors integrated into space vehicles for fast detection-to-intercept timelines. Proposals should focus on three key areas: highly capable boosters and propulsion systems, advanced sensor suites and seekers, and fully integrated space vehicle and interceptor architectures. This effort is restricted under ITAR/EAR. Phase I awards will not be made; applicants must demonstrate a
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) to enhance boost-phase missile defense within the endo-atmospheric region. This initiative, identified as SF254-D1202, aims to develop compact, high-performance platforms capable of rapid, precise, and survivable engagements from space. Key areas of focus include high-G propulsion systems, advanced seekers, and low-SWaP interceptors integrated into space vehicles, emphasizing scalability, manufacturability, and miniaturization for distributed space-based platforms. This effort supports a layered missile defense architecture to counter evolving missile threats. The project involves a Direct-to-Phase II approach, requiring applicants to demonstrate prior feasibility and a clear plan for integrating solutions with the Department of the Air Force. Phase II will focus on developing and demonstrating these technologies, while Phase III aims for operationalization, dual-use scalability, and commercialization, with strict adherence to ITAR regulations.
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) to enhance boost-phase missile defense within the endo-atmospheric region. This initiative aims to develop compact, high-performance platforms for rapid, precise, and survivable engagements from space. The effort focuses on three key areas: highly capable boosters and propulsion systems, advanced sensor suites and seekers, and fully integrated space vehicle and interceptor architectures. Proposed concepts should emphasize rapid manufacturability, reduced complexity, and miniaturization for scalable deployment. This project is critical for establishing a layered missile defense architecture and will involve collaboration with various stakeholders. The technology is restricted under ITAR, requiring disclosure of foreign national involvement. Phase II efforts will focus on developing and demonstrating these technologies, with a strong emphasis on transitioning successful solutions into operationalization and dual-use scalability in Phase III.
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) capable of boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative, outlined in SF254-D1202, aims to develop compact, high-performance platforms for rapid, precise, and survivable endo-atmospheric engagements from space-based assets. The desired outcome is to integrate high-G propulsion systems, advanced seekers, and low-SWaP interceptors into space vehicles, supporting fast detection-to-intercept timelines and a layered missile defense architecture. The project focuses on three key areas: highly capable boosters and propulsion systems, advanced sensor suites and seekers, and fully integrated space vehicle and interceptor architectures. Technologies must be rapidly manufacturable, miniaturized, and scalable for deployment in distributed satellite constellations. This effort is restricted under ITAR and EAR regulations. Phase I is omitted; proposals must demonstrate
This U.S. Space Force initiative seeks innovative solutions for space-based endo-atmospheric interceptors to enhance missile defense. The project, a Direct-to-Phase-II effort, requires applicants to demonstrate prior feasibility study accomplishments, including stakeholder identification, integration pathways with DAF operations, and potential for use by other DoD agencies. Phase II focuses on developing technologies across three categories: high-performance propulsion and boosters, advanced seekers and target discrimination systems, and integrated space vehicle architectures. Desired propulsion characteristics include rapid thrust, large delta-v, and compact design. Seekers should be compact, resilient, and capable of multi-modal sensing and real-time data fusion under extreme conditions. Integrated solutions must combine subsystems into a low-SWaP architecture suitable for rapid manufacturing and deployment, aiming for intercept timelines under 180 seconds. Phase III emphasizes operationalization, dual-use scalability, and transition to flight-capable prototypes, exploring commercial applications in areas like hypersonics testing and responsive launch.
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) to enhance boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). The initiative aims to develop compact, high-performance platforms capable of rapid, precise, and survivable engagements from space. Key areas of focus include high-G propulsion systems, advanced seekers, and low-SWaP interceptors integrated into space vehicles. This effort supports a layered missile defense architecture, emphasizing scalable designs, manufacturability, miniaturization, and end-to-end system integration for distributed space-based platforms. Proposals should address highly capable boosters, advanced sensor suites for target discrimination in cluttered environments, and fully integrated space vehicle and interceptor architectures. This is a Direct-to-Phase II topic, requiring applicants to demonstrate a
The U.S. Space Force (USSF) is seeking innovative solutions for space-based interceptors (SBIs) to conduct boost-phase missile defense within the endo-atmospheric region (below 120 km altitude). This initiative aims to close critical capability gaps by developing compact, high-performance platforms for rapid, precise, and survivable endo-atmospheric engagements from space. Key areas of focus include high-G propulsion systems, advanced seekers, and low-SWaP interceptors integrated into space vehicles for fast detection-to-intercept timelines. The effort emphasizes scalable designs, manufacturability, miniaturization, and end-to-end system integration for future demonstrations on distributed space-based platforms. This topic is intended for direct-to-Phase II proposals, requiring applicants to demonstrate a
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