Space and Missile Systems Center

Space and Missile Systems Center

Space and Missile Systems Center emblem
Active 25 May 1967–present
Country United States
Branch Air Force
Type Space systems development
and operations
Size 1,125 military
1,197 civilian
2,180 contractor
Part of Air Force Space Command
Garrison/HQ Los Angeles Air Force Base, California
Website http://www.losangeles.af.mil
Commanders
Commander Lt. Gen. Samuel A. Greaves
Acting Executive Director Mr. Thomas A. Fitzgerald

The Space and Missile Systems Center (SMC) is a part of Air Force Space Command of the United States Air Force. Located at Los Angeles AFB in El Segundo, California, SMC is the Air Force’s product center for the development and acquisition of space and missile systems.

The Center was established in 1954 as the Western Development Division, tasked with the development of missile systems and especially the ICBM. It took on numerous roles during the unfolding of the Space Age.

History

The Space and Missile Systems Center traces its roots to the Western Development Division, activated by Brigadier General Bernard Schriever on 1 July 1954. Its original mission, the development of strategic nuclear missiles for the nation, was soon expanded to include the development, fielding, and operation of the nation’s first military satellites and launch vehicles. From the first successful military space launches in the 1950s, rapid progress was made in maturing the technology and know-how to develop and operate reliable and effective systems across a broad array of mission areas. During this period, the Western Development Division underwent multiple reorganizations, until finally being designated in 1992 as the Space and Missile Systems Center.

Creation of Air Force Space Command

On 1 September 1982, Air Force Space Command was established to serve as the Air Force’s operational command for military space systems. In the years that followed, the Command gradually assumed operational functions previously performed by SMC field units, including satellite operations, launch ranges, and satellite control networks. SMC maintained its leadership role in the development of space and missile systems in support of the new Air Force Space Command mission but remained part of Air Force Systems Command and subsequently Air Force Materiel Command.

Transformation of Military Space

The end of the Cold War and collapse of the Soviet Union in the early 1990s changed the focus of military space capabilities from strategic to operational and tactical applications and began an unprecedented growth in demand for military space capabilities. Operation Desert Storm demonstrated the far reaching applications and benefits of space capabilities in joint military operations. At the same time, defense budget reductions, industry consolidation, government and industry workforce reductions, and projected growth in commercial space investment led the national security space community to institute a series of acquisition reforms. Ultimately, these reforms proved to be flawed, and the community experienced a series of launch failures, serious program delays, and cost overruns in the late 1990s. All these factors led to a “perfect storm” within the space enterprise and a call to action to fix systemic problems.

Realignment of the Space and Missile Systems Center

In the early 2000s, a number of studies examined management and organization of the defense space community and space acquisition, including the organizational alignment of the Space and Missile Systems Center. In 2001, the Center was realigned under Air Force Space Command, thus bringing the developers and the operators of military space and missile systems together under one major command. Further, Program Executive Officer (PEO) authority was assigned to the Commander of SMC, consolidating most space development and acquisition responsibilities under a single “dual-hatted” Commander and PEO.

Rebirth of SMC

In the first decade of the new millennium, SMC has aimed to reinvigorate its workforce and its programs to recover from the flaws of the acquisition reforms in the 1990s. SMC has led the “Back to Basics” campaign – an initiative to reestablish rigor and discipline in space systems development. With an intense focus on mission assurance, the Center has rebuilt processes, improved engineering and program management rigor, redeveloped the workforce, reinvigorated partnerships with industry, and implemented engineering and business “best practices.” As part of this initiative, SMC also implemented a “block development” acquisition approach to manage complex systems development.

Units

Global Positioning Systems Directorate

GPS constellation

The Global Positioning Systems Directorate (GP) is a joint-service, multinational, civil/military systems directorate with more than 700 DoD/contractor personnel responsible for development, launch and sustainment of the Global Positioning System, the world's premier navigation and timing standard. The directorate is responsible for the development and procurement of over 250,000 receiver systems and the United States' nuclear detonation detection system. Annual funding is $1 billion and total program value is $32 billion.

GP manages the fleet of NAVSTAR GPS satellites as well as their associated ground control equipment and end-user technologies for the entire Global Positioning System. In addition to the recently completed GPS Block IIF series of 12 satellites produced by Boeing Integrated Defense Systems,[1] the GPS Systems Directorate recently awarded the design and production of GPS Block IIIA satellites to Lockheed Martin under the GPS modernization program.[2] Day-to-day operations of the constellation are provided by the 50th Space Wing at Schriever AFB, Colorado.[3]

GPS is a space-based dual use radio navigation system nominally consisting of a minimum of 24-satellite constellation that provides positioning, velocity and timing to military and civilian users worldwide. GPS satellites, in one of six medium earth orbits, circle the earth every 12 hours transmitting continuous ranging signals. In addition to the satellites, the system consists of a worldwide satellite control network and GPS receiver units that acquire the satellite's signals and compute navigation solutions to provide positioning, velocity and timing to the user.

GPS provides 24-hour, worldwide service, highly accurate, three-dimensional location information, precision velocity and timing services, and accessibility to an unlimited number of global military, civilian, and commercial users.

As a service to GPS users, the Department of Transportation has established the "Navigation Information Service" (formerly "GPS Information Service") as a point of contact for civil GPS users. Operated and maintained by the United States Coast Guard, the NIS can be reached at (703) 313-5900, seven days a week, 24-hours a day, and at www.navcen.uscg.gov.

Launch Enterprise Directorate

The mission of the Launch Enterprise Directorate is "to acquire, operate and sustain affordable expendable launch and range capability providing 100 percent mission success. This capability provides assured access to space for the nation".[4] After the Challenger accident, the Air Force initiated a program to develop a mixed fleet of expendable launch systems. This program led initially to the development of the Delta II rocket.[5] The EELV program was initiated in the mid-90s as a launch system modernization program which led to the development of the Boeing Delta IV rocket and Lockheed Martin Atlas V.[6] All of these launch system programs are managed through the Launch Systems Directorate. Beginning in December 2006, Boeing and Lockheed Martin merged their launch services into the United Launch Alliance joint venture which provides Delta II, Delta IV, and Atlas V launch systems.[7]

While the primary mission of the Launch Enterprise Directorate remains the acquisition of Delta IV and Atlas V launch services, the directorate is the Air Force lead for the certification of "new entrants" into National Security Space launch services as part of a joint effort including the National Reconnaissance Office and the National Aeronautics and Space Administration.[4][8][9]

Military Satellite Communications Systems Directorate

The Military Satellite Communications Systems Directorate (MILSATCOM) is responsible for the development, acquisition, and sustainment for all space-based, global communications links for the Department of Defense and National Command Authority.[10] The Directorate currently maintains two constellations, both developed by Lockheed Martin: the Defense Satellite Communications System (DSCS)[11] and the Milstar system.[12] In addition to these two existing systems, they are also responsible for the development and acquisition of four follow on systems intended to replace or augment current systems. These systems are the Wideband Global SATCOM system which will replace the DSCS system,[13] the Advanced Extremely High Frequency[14] and Enhanced Polar Satellite[15] system which will augment the Milstar system. The fourth system, the Transformational Satellite Communications System (TSAT) was meant to provide Internet-like connectivity; recently this system appears to have been canceled. Day-to-day operations of the military satellite communications systems are handled by the 50th Space Wing at Schriever AFB.[3]

Remote Sensing Systems Directorate

The mission of the Remote Sensing Systems (RS) Directorate is to develop, deploy, and sustain surveillance capabilities in support of missile warning, missile defense, battlespace awareness, technical intelligence, and environmental monitoring mission areas.

RS contributes to the Department of Defense (DoD) mission to deter war and protect the security of the U.S. by providing timely and accurate missile warning/defense information. The RS Overhead Persistent Infrared (OPIR) family of systems are critical for protection against global and theater ballistic missile attacks against the United States, allies, and combat forces.

RS supports planning and execution of aerospace, ground, and naval operations through its family of sensors, satellites, and ground stations used to detect, track, and report space and terrestrial weather in near real time. RS leverages its diverse infrared and weather systems to enhance Combatant Commanders' warfighting options and maximize application of mission area capabilities to combat operations around the world.

The RS Directorate is responsible for the OPIR family of systems and the DoD Weather System. OPIR programs include the Defense Support Program (DSP), the Space Based Infrared System (SBIRS), SBIRS Follow-on, Wide Field of View (WFOV), data exploitation initiatives, and international programs. Weather system programs include the Defense Meteorological Satellite Program (DMSP), Weather System Follow-on (WSF), numerous technical demonstrations, and large civil/international/commercial stakeholders and engagements.

First launched in 1970, DSP has provided early warning for Intercontinental Ballistic Missile (ICBM) launches for 45 years. A total of 23 DSPs built by prime contractor Northrop Grumman Aerospace Systems, formerly TRW, have launched beginning with the first in 1970 and the final DSP satellite in 2007. Still operational, DSP satellites continue to serve as the backbone of the United States' ballistic missile early warning system.

As the follow-on capability to the highly successful DSP, the SBIRS program consists of multiple Geosynchronous Earth Orbit (GEO) satellites, Highly Elliptical Orbit (HEO) sensors riding on Host satellites, and associated world-wide deployed ground systems. In addition to Missile Warning, the SBIRS program supports the Missile Defense, Technical Intelligence, and Battlespace Awareness mission areas. Lockheed Martin (LM) Space Systems Company is the prime contractor responsible for program management, systems engineering, and spacecraft development. LM Information Systems and Global Solutions is the ground systems developer and supports systems engineering. Northrop Grumman Electronic Systems is the infrared payload subcontractor and supports systems engineering and ground mission processing development.

Initially launched in 1962, the DMSP is currently in its sixth decade of service as the sole DoD operational weather satellite system and is the longest running production satellite program to date. Initially, DMSP was highly classified, ran by the National Reconnaissance Program (NRP), in support of the CORONA program and its first reconnaissance satellites. DMSP today provides strategic and tactical weather data to aid the U.S. military in planning operations at sea, on land, and in the air. Lockheed Martin and Northrop Grumman are the spacecraft and sensors' prime contractors for DMSP, respectively.

On 5 August 2008 Lockheed Martin announced that the first SBIRS Highly Elliptical Orbit (HEO) payload (HEO-1) had been handed over on-orbit to the Air Force, along with its associated ground system.[16] The HEO-2 payload was announced to be on-orbit 20 June 2008.[17]

Advanced Systems and Development Directorate

The premier organization for advanced systems and development planning to evolve and implement new affordable and resilient architectures for future Space capabilities through analytical rigor, collaborative innovation, requirements analysis, concept development, and demonstrations. Serves as primary provider of launch, spaceflight, hosted payloads and on-orbit operations for the entire DoD space research and development community. Responsible for acquiring, integrating, launching, and operating R&D spacecraft, prototype operational systems, boosters, and ballistic missiles supporting national security objectives/missile defense programs. Co-located at Los Angeles AFB and Kirtland AFB, New Mexico.

Space Logistics Directorate

Located at Peterson AFB, the Space Logistics Directorate has 550 people and a $500 million annual budget. It sustains and modifies worldwide USAF/DoD space weapon systems to include terrestrial and space weather, global positioning systems, launch range control, satellite command and control, secure communications, and missiles early warning. The directorate is the focal point for logistics, maintenance, supply, sustaining engineering and the Space Logistics Readiness Center.

Range and Network Division

The Range and Network Division delivers space systems operations training management, system modernization, sustainment development, and support 24/7/365 for launch, on-orbit anomaly resolution and operations for over 150 DoD, civil, and allied satellites. RN's mission is to modernize and sustain the Air Force Satellite Control Network (AFSCN) systems including two control nodes and nine worldwide remote tracking stations to assure responsive, effective, satellite support to Defense forces. The group provides highly reliable command and control to support DoD, Civil and NRO satellite launch and satellite operations in surveillance, navigation, communications, weather and ballistic missile/aeronautical testing for the warfighter. RN has units at Peterson AFB, Colorado, Patrick AFB, Florida, and Vandenberg AFB, California, as well as at seven Remote Tracking Site locations.

Home to more than 380 government, military, aerospace, and contractor personnel, RN's $10.6 billion portfolio of launch and ground systems includes the Air Force Satellite Control Network (AFSCN), Launch and Test Range System (LTRS), and the Space Training Acquisition Office (STAO). RN sustains the nation's spacelift ranges that launch 12 to 15 rockets per year and support more than 4,500 air/space tests. RN also sustains global satellite control systems that support over 150,000 contacts annually. RN is the developer and sustainer for the Standard Space Trainer (SST) and Distributed Mission Operations - Space (DMO-S) training systems and capabilities.

AFSCN: The Air Force Satellite Control Network is the primary system the Air Force uses to communicate with DoD and National satellites by providing Tracking, Telemetry, and Commanding (TT&C). The AFSCN ensures satellites are in the right orbit (tracking), in working order (telemetry), and able to receive commands necessary to perform missions (commanding). The operating architecture consists of two control nodes, eight tracking stations, 15 antennas, and two transportable vehicles. The AFSCN accomplishes this mission via a combination of seven interconnected systems and a schedule dissemination system to actively manage and de-conflict over 400 satellite contacts daily. RN's focus is to improve network security and vertically integrate weapon system tasks while maintaining performance with no additional risks at reduced operation, maintenance, and sustainment costs.

LTRS: The spacelift range is located at Vandenberg AFB (Western Range) and Cape Canaveral AFS, Fla. (Eastern Range). Each range is comprises 12 subsystems: command destruct communications, data handling, flight safety, optical, planning and scheduling, radar, surveillance, timing and sequencing, telemetry, and weather. RN modernizes and sustains these systems to ensure our nation's launch ranges are "go for launch" when needed. RN's focus is reducing cost by identifying and eliminating "worst actor" and other obsolete components through sustainment improvements and system upgrades.

STAO: The Space Training Acquisition Office (STAO), is the space enterprise and center lead for space systems operations and maintenance training within the AFPEO/SP portfolio. The STAO will provide guidance and assist PMs in the development, acquisition, and sustainment of training systems for space operations and maintenance, and will facilitate cross-flow training information between space programs. The STAO is responsible for program management of the Standard Space Trainer (SST) program. The SST is the AFSPC directed common training platform for all space training systems. PMs will work closely with the STAO to ensure space training systems are developed that interface with the SST architecture and that meet AFSPC/A5 training requirements. Additionally, the STAO has program management responsibility for the Distributed Mission Operations - Space (DMO-S) and Joint Space Training Federation (JSTF). The DMO-S links space training with warfighting exercises and war games. The JSTF integrates with SST and DMO-S to enable warfighting commanders to experience the capabilities and limitations of the Joint Air/Space/Cyber fighting force before actually fighting the fight.

Space Superiority Systems Directorate

The Space Superiority Systems Directorate (SY) is responsible for equipping the joint warfighter with unrivaled offensive and defensive counterspace, space situation awareness and special access capabilities required to gain, maintain and exploit space superiority. The directorate executes cradle-to-grave responsibility for weapon systems development, fielding and sustainment.

SY equips US forces with offensive and defensive counterspace and space situation awareness systems to gain, maintain, and exploit space superiority. It manages a multibillion-dollar budget with a 350-person program office, and 1,500-person industry team at multiple locations throughout the country to support operational systems worldwide. It directs the planning, development, testing, deployment, and sustainment of a complex and dynamic portfolio of space-superiority capabilities of the highest national priority.[18] "The visible sensor on the SBSS satellite will be used to provide critical information vital to the protection of US military and civilian satellites," said Lt Col Robert Erickson, squadron commander for Space Based Space Surveillance within the Space Superiority Systems Directorate.[19]

Lineage

Organized on 1 July 1967
Redesignated Space Division on 1 October 1979
Redesignated Space Systems Division on 1 July 1992
Redesignated Space and Missile Systems Center on 1 July 1992

Assignments

Station

References

 This article incorporates public domain material from the United States Government document "http://www.losangeles.af.mil/".

  1. ↑ Boeing. "Boeing: Integrated Defense Systems – GPS IIF/III Home".
  2. ↑ Lockheed Martin (15 May 2008). "U.S. Air Force Awards Lockheed Martin Team $1.4 Billion Contract To Build GPS III Space System".
  3. 1 2 US Air Force. "Fact Sheets : 50th Space Wing". SMC.
  4. 1 2 USAF. "Factsheet: Launch Enterprise Directorate".
  5. ↑ Boeing. "Boeing: Delta Rocket History".
  6. ↑ Globalsecurity.org. "EELV Evolved Expendable Launch Vehicle".
  7. ↑ "Boeing and Lockheed Martin Complete United Launch Alliance Transaction". Boeing. 1 December 2006.
  8. ↑ Federal Business Opportunities (21 May 2013). "Space and Missile Systems Center (SMC) New Entrant Certification Guide (NECG) Industry Day Announcement".
  9. ↑ United States Government Accountability Office (7 February 2013). "GAO-13-317R Launch Services New Entrant Certification Guide" (PDF).
  10. ↑ US Air Force. "Fact Sheets: Military Satellite Communications Directorate". SMC.
  11. ↑ Lockheed Martin (21 November 2006). "Lockheed Martin-Built DSCS Satellites Mark 175 Years on Orbit".
  12. ↑ Lockheed Martin (16 July 2007). "Lockheed Martin-Built Milstar Satellite Constellation Repositioned To Enhance Global Coverage".
  13. ↑ Staff Writers (13 May 2008). "Boeing's First Wideband Global SATCOM Satellite Now Operational". Space Daily.
  14. ↑ Staff Writers (1 February 2006). "US Air Force Awards Lockheed Martin Contract For 3rd Advanced MilComms Sat". Space Daily.
  15. ↑ Staff Writers (10 January 2007). "Boeing To Begin Second Phase of Enhanced Polar System Payload Study". Space Daily.
  16. ↑ Lockheed Martin (5 August 2008). "Lockheed Martin SBIRS Team Completes On-Orbit Handover of First HEO Payload To U.S. Air Force".
  17. ↑ Lockheed Martin (20 June 2008). "U.S. Air Force/Lockheed Martin SBIRS Team Completes On-Orbit Checkout of Second HEO Payload".
  18. ↑ US Air Force. "Fact Sheet – Space Superiority Systems Wing". SMC.
  19. ↑ Boeing (8 January 2007). "Boeing Completes Critical Design Review for Space Based Space Surveillance".

External links

This article is issued from Wikipedia - version of the Sunday, April 24, 2016. The text is available under the Creative Commons Attribution/Share Alike but additional terms may apply for the media files.