Us nuclear detection system?

Sandia National Laboratories GBD III 1-8 Team Members Celebrate Final Production Delivery of III 1-8 Blk. P, a space-based nuclear explosion sensor. Space-based nuclear explosion sensors are a U, S. Capacity both to monitor compliance with treaties such as the Limited Test Ban Treaty and the Threshold Test Ban Treaty, and to support the nuclear war mission.

NNSA's Defense Nuclear Nonproliferation Research and Development (DNN R%26D) program and its predecessors, along with other government partners, have been providing this space-based detection capability to the U.S. UU. Government for more than 50 years. Sandia National Laboratories and Los Alamos National Laboratory, both with a highly skilled workforce, leverage their unique knowledge of nuclear weapon design and phenomenology to develop, integrate and test sensor payloads for the NNSA.

This work includes close collaboration with government stakeholders, host satellite owners, satellite industry contractors, and the U.S. Air Force operators to ensure these systems accomplish the mission. The most recently implemented systems are the Global Burst Detector (GBD) payloads on GPS satellites and the second payload of the Space and Atmospheric Gust Reporting System (SABRS) in a U, S. In addition to the next SABRS payload, STPSat-6 will also host an experimental NNSA payload called SENSER.

SENSER payload will reduce development risk for future nuclear explosion detection sensors by testing and evaluating critical technologies in the space environment prior to production and integration into the next generation of systems. This long-term planning, combined with ongoing close collaboration between stakeholders and mission partners, is critical to ensuring that vital nuclear detonation detection capability is continuously ready to ensure U, S. We determine if the space segment of the U, S. The Nuclear Detonation Detection System (USNDS) complied with DoD requirements to detect, identify, locate, characterize and report nuclear detonations in the Earth's atmosphere and in space.

You are logging into a Department of Defense Internet-based computer system. Read this Privacy and Security Notice. Office of Inspector General, United States Department of Defense, 4800 Mark Center Drive, Alexandria, VA 22350-1500. An Official U.S.

Government Website Using Official Websites. Gov A. the government website belongs to an official government organization in the United States. The National Office of Nuclear Detection (DNDO) is a co-staffed office within the Department of Homeland Security (DHS) Office to Combat Weapons of Mass Destruction.

DNDO is the principal entity in the U.S. Government to implement national nuclear detection efforts for a controlled and coordinated response to radiological and nuclear threats, as well as the integration of federal nuclear forensic analysis programs. In addition, the DNDO is responsible for coordinating the development of the global nuclear detection and reporting architecture, with partners from federal, state, local and international governments and the private sector. Prevent nuclear terrorism by continuously improving capabilities to deter, detect, respond and attribute attacks, in coordination with national and international partners.

McDonnell is the director of the DNDO. The DNDO is organized to address key mission areas and meet the functional objectives outlined in its founding Presidential Directive. An official website of the U.S. It is urgent that decisions regarding future capabilities of nuclear detonation detection satellites be reviewed now.

The maintenance of these technical capabilities will require the action of the National Nuclear Safety Administration, with the support of others, on a solid scientific and engineering basis maintained through a continuous dynamic of experiments linked to analysis, a vigorous surveillance program, an adequate proportion of margins of performance in the face of uncertainties. This report also emphasizes the use of modernized production facilities and a competent and capable workforce with a broad base of nuclear safety expertise. Do you want to take a quick tour of the functions of OpenBook? Show the table of contents of this book, where you can go directly to any chapter by name. Go to the previous page or go down to the next page.

In addition, you can type a page number and press Enter to go directly to that page of the book. Switch between the Original Pages, where you can read the report as it appeared in print, and the Text Pages for the web version, where you can highlight and search for the text. To search the entire text of this book, type your search term here and press Enter. Share a link to this book's page on your favorite social network or by email.

See our suggested quote for this chapter. The Air Force launched the first of 12 Vela satellites to detect aerial nuclear tests in the atmosphere or in space. This appendix includes information illustrating the concerns described in Chapter 2 of the unclassified text with respect to the future of United States satellite nuclear detonation detection monitoring capabilities, in particular, potential capabilities in various future satellite scenarios. systems.

Similarly, it remains uncertain exactly what nuclear detonation detection capability, if any, will be implemented on future Block III GPS satellites. This long-term planning, combined with ongoing close collaboration between mission stakeholders and partners, is critical to ensuring that vital nuclear detonation detection capability is continuously ready to secure U. Nuclear Detonation Detection System (USNDS) to Support Treaty Monitoring, Anti-War and Space Control. The NNSA Defense Nuclear Non-Proliferation Research and Development Program (DNN R%26D) and its predecessors, along with other government partners, have been providing this space-based detection capability to the U.

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