Showing posts with label U.S Launcher and Missile. Show all posts
Showing posts with label U.S Launcher and Missile. Show all posts

Thursday, January 27, 2011

United States Navy Seals Variant SM-3 Balistice Missile

The second part of the solution is to further improve the technology that has already been developed. At the moment, the SM-3 interceptor is launched only from sea. In the 2015 time frame, a relocatable land-based SM-3 system, tentatively called “Aegis Ashore,” will be available that will make possible better regional coverage by virtue of its ability to be placed inland. These land-based interceptors will provide persistent coverage of the areas they protect and will be an important element of a future regional missile defense against medium- and intermediate-range ballistic missiles.

DoD will also continue to improve the SM-3 interceptor missile defense capability. By 2015 a more capable SM-3 missile, the Block IB, will be available. It will have an improved seeker capability for greater on-board discrimination and greater area coverage. This interceptor will be deployed both at sea and on land, with the “Aegis Ashore” system. The coverage area will also be increased by developing the technology to launch an SM-3 interceptor in response to remote  sensor data. Once this capability is fully developed, the interceptors no longer constrained by the range of the Aegis radar to detect an incoming missile will be able to be launched sooner and therefore fly further in order to defeat the incoming threat.

It is also important that we continue development of the Command and Control, Battle Management, and Communications (C2BMC) Program, the overarching command and control system that brings together information from the various sensors, provides planning capability for missile defense operations, and makes available situational awareness for all levels of decision making. This continued development will incorporate the architecture of current and future sensor systems that support missile defense, the various weapons systems we currently use, and those in development such as the THAAD missile system, the PATRIOT, SM-3 variants, and GBIs. The continued development of C2BMC will allow for tailoring by each region’s needs, and it will be interoperable with systems we may develop with allies and partners. For defense of
the homeland it will make possible a seamless, global picture that incorporates all aspects of the BMD architecture.

Toward the end of the decade, more capable interceptors and sensors will become available. The SM-3 Block IIA will have a higher burnout velocity and a more advanced seeker. These features will make it much more capable than the SM-3 Block IA or IB and will provide greater regional coverage. A follow-on missile, the SM-3 Block IIB, is in the initial phase of technology assessment and development. It is expected to be even more capable than the IIA. With a higher burnout velocity and greater divert capability, the SM-3 Block IIB will have some early-intercept capability against a long-range missile. Matched against regional medium-range and intermediate-range ballistic missiles, the SM-3 IIB will defend a greater area than the SM-3 IIA.

Investments are also being made to develop an “engage on remote” technology that includes not only launching on data from a remote sensor track but also the ability to uplink data from assets other than the Aegis radar. This will allow the interceptor to engage the threat missile at greater ranges. A further long-term effort seeks to develop persistent overhead sensors to detect and track large raid sizes of ballistic missiles over their entire trajectories from space. Such an ability would greatly reduce the need for terrestrial sensors and the size of deployable missile defense systems. This Precision Tracking and Space System” (PTSS) is an important funding priority in the President’s Budget for FY 2011 and the Future Years Defense Program.

As we look back over recent efforts to develop these capabilities, they can reasonably be described as “bottom up” the United States worked aggressively with available technologies to improve them and bring them rapidly to the field in growing numbers. Looking to the future, it is becoming increasingly important to think “top down,” or more strategically, about the deployment of missile defense assets in a regional context. In other words, regional approaches must be tailored to the unique deterrence and defense requirements of each region, which vary considerably in their geography, in the history and character of the threat, and in the military-tomilitary relationships on which to build cooperative missile defenses. Several principles must
guide the development of our regional approaches.

First, the United States will strengthen regional deterrence architectures. Regional deterrence must be build on a solid foundation of strong cooperative relationships and appropriate burden sharing between the United States and its allies. Our alliances must be built on productive plans and action that enhance allied security. As such, it is important that allies have the opportunity to contribute appropriately to the defense of common interests. While missile defenses play an important role in regional deterrence, other components will also be significant. Against nuclear-armed states, regional deterrence will necessarily include a nuclear component (whether forwarddeployed or not). But the role of U.S. nuclear weapons in these regional deterrence architectures can be reduced by increasing the role of missile defenses and other capabilities. More broadly, the United States seeks new ways to deal with the challenges posed by states seeking nuclear weapons in contravention of international norms and in defiance of the international community.


Second, the United States will pursue a phased adaptive approach within each region that is tailored to the threats unique to that region, including their scale, the scope and pace of their development, and the capabilities available and most suited for deployment. This does not require a globally integrated missile defense architecture that integrates allies into a uniform, global structure. Instead, the United States will pursue regional structures sharing common assets that are relevant and robust because they are tailored to the unique requirements and opportunities within each region.

Third, because the demand for missile defense assets within each region over the next decade will exceed supply, the United States will develop capabilities that are mobile and relocatable. This feature would make possible their movement from one region to another in time of crisis. This capacity for surge defense should help dissuade potential aggressor states in all regions from thinking they can gain some long-term advantage.
These principles will be applied on a region-by-region basis. As previously stated, the Department will rely on the Global Force Management process to assist in decisions on the allocation of missile defense forces.

The U.S Global Forces AN/TPY-2 X And SM-3 Block 1A

Over the past decade, the United States has made significant progress in developing and fielding capabilities for protection against attack from short- and medium-range ballistic missiles. These include increasingly capable PATRIOT batteries for point defense, the AN/TPY-2 X-band radar for detecting and tracking ballistic missiles, Terminal High Altitude Area Defense (THAAD) batteries for area defense, space-based sensors, and sea-based capabilities such as the SM-3 Block IA interceptor.

However, these capabilities exist in numbers that are only modest in view of the expanding regional missile threat. Accordingly, in the FY 2010 budget, and continuing across the FY 2011–15 time frame, the Department of Defense will further invest in these deployable assets while developing new capabilities such as a land-based SM-3 system (tentatively called “Aegis Ashore”) and airborne infrared sensors that will make possible the simultaneous detection and tracking of ballistic missiles by unmanned aerial vehicles. Looking out over the longer term (i.e., in the 2015 to 2020 time frame), the Department is pursuing even more capable SM-3s and persistent overhead sensors in space capable of detecting and tracking large raid sizes.

Integrating Capabilities Regionally
As threats have advanced and technical solutions have matured, it has become increasingly important to think strategically about the deployment of low-density, high-demand missile defense assets in a regional context. Such deployments must be tailored to the unique deterrence and defense requirements of each region, which vary considerably in their geography, the character of the threat, and the military-to-military relationships on which to build cooperative missile defenses.

Several principles will guide how BMD is used in the development of these regional approaches to deterrence and defense:

1. The United States will work with allies and partners to strengthen regional deterrence architectures, which must be built on the foundation of strong cooperative relationships and appropriate burden sharing.

2. The United States will pursue a phased adaptive approach to missile defense within each region that is tailored to the threats and circumstances unique to that region.

3. Because the potential global demand for missile defense assets over the next decade may exceed supply, the United States will develop capabilities that are mobile and relocatable.

AN/TPY-2 X
These three principles will be applied on a region-by-region basis. The Department will rely on the Global Force Management process to assist in decisions on the allocation of missile defense forces. For the European region, the Administration announced the European Phased Adaptive Approach (PAA) in September 2009, following the unanimous recommendation to the President by the Secretary of Defense and the Joint Chiefs of Staff that the prior plan for missile defense protection in Europe be revised.

Monday, December 6, 2010

U.S. Air-Launched Cruise Missile (ALCM) and Tomahawk

The U.S. Air-Launched Cruise Missile (ALCM) and Tomahawk epitomize nextgeneration trends. They are carried by many more varied types of platforms, from tactical attack aircraft to small patrol boats, destroyers, cruisers, and submarines (meaning that virtually any submarine can now launch cruise missiles), as well as in
much greater numbers per platform by heavy bombers such as the B-1 and B-2.

Cutaway View of Tomahawk Ship-Launched Cruise Missile Source: Staff, Tomahawk Block IV Missile, PMA-280, (United States Navy, March 2006), the size decreases, they are capable of launch from smaller and thus more numerous land-launch platforms such as trucks and towed launchers. Importantly, these weapons take advantage of new generations of guidance technology, in which geographical details of the path to the target are downloaded into the memory of the missile, enabling them to fly terrain-contour-following flight paths, to hide their approach from adversaries’ air-defense radars. These tactics had previously only been possible with manned strike aircraft. The Russian SS-N-21 Sampson14 and the U.S. Tomahawk15 fit into this category.

The latest generation of cruise missiles from such countries as the U.S., France and Great Britain offer advanced capabilities from supersonic speeds, extended ranges, and in some cases, e.g., the latest-generation American Joint Air to Surface Standoff Missile (JASSM)16 and the European Apache,17 outright stealth.
Navigation and sensor systems are often combined to achieve the most effective weapon possible for the mission, target type, and the allotted unit cost.

The last and perhaps most important characteristic of note is that cruise missiles can carry a wide variety of warheads, from a few hundred pounds of high-explosive to all types of weapons of mass destruction, including chemical and biological weapons and thermonuclear warheads of up to 250 kilotons yield Even with these significant capabilities, the cruise missile is an affordable weapon. The widespread availability of finished systems and components, coupled with the dual-use nature of many of the technologies involved, make for a robust market for prospective buyers. A U.S. Army estimate from the mid-1990s suggests that for an investment of $50 million, a country could purchase at least 100 cruise missiles.

Now more than 10 years old, this estimate has undoubtedly changed, but with the entrance of new players into the cruise missile marketplace, there is without question a robust and cost competitive marketplace for buyers, with reduced barriers to entry as the technology has proliferated.

Sunday, December 5, 2010

U.S Army Defense Rocket Launcher Series

Rocket Louncher series :
M3 Carl Gustav, SMAW, M136 AT4, M72 LAW, M141
M3 Carl Gustav Launcher Rocket 200M - 1500M



SMAW (Shoulder-Launched Multipurpose Assault Weapon) 300m Launcher Rocket


M136 AT4  Ligh Anti Tank Launcher 300M

M72 LAW Launcher 200M

M141 Bunker Defeat Munition (BDM) Launcher 105M



 


TOW 2B Aero Tube-Launched, Optically-Tracked, Wire-Guided Missiles

 TOW 2B Aero

DESCRIPTION AND SPECIFICATIONS

TOW (Tube-Launched, Optically-Tracked, Wire-Guided) is a heavy anti-tank/precision assault weapon system, consisting of a launcher and a missile. The missile is 6 inches in diameter (encased, 8.6 inches), and 49 inches long. The gunner defines the aim point by maintaining the sight cross hairs on the target. The launcher automatically steers the missile along the line-of-sight toward the aim point via a pair of control wires, which physically link the missile and the launcher. The missile impact is at the aim point.

TOW missiles are employed on the High Mobility Multipurpose Wheeled Vehicle (HMMWV)-mounted Improved Target Acquisition System (ITAS), HMMWV-mounted M220A4 launcher (TOW 2), Stryker Anti-Tank Guided Missile Vehicles, and Bradley Fighting Vehicle Systems (A2/A2ODS/A2OIF/A3). TOW missiles are also employed on the Marine HMMWV-mounted M220A4 launcher (TOW 2), LAV-ATGM Vehicle, and AH1W Cobra attack helicopter. TOW is also employed by allied nations from a variety of ground and airborne platforms.

The TOW 2B Aero is the most modern and capable missile in the TOW family with an extended maximum range to 4,500 meters. This is accomplished with an increase of control wire and by affixing an aerodynamic nose to the missile. The TOW 2B Aero has an advanced counter active protection system capability. It defeats all current and projected threat armor systems. The TOW 2B Aero flies over the target (offset above the gunner’s aim point) and uses a laser profilometer and magnetic sensor to detect and fire two downward-directed, explosively formed penetrator warheads into the target. The TOW 2B Aero’s configuration weight is 49.8 pounds (encased, 65 pounds).

The TOW Bunker Buster is optimized for performance against urban structures, earthen bunkers, field fortifications, and light-skinned Armor threats. It has a 6.25 pound, 6-inch diameter high-explosive, bulk charge warhead, and its missile weighs 45.2 pounds. The TOW BB has an impact sensor (crush switch) located in the main-charge ogive and a pyrotechnic detonation delay to enhance warhead effectiveness. The PBXN-109 explosive is housed in a thick casing for maximum performance. The TOW BB can produce a 21-24 inch diameter hole in an 8-inch thick, double-reinforced concrete wall at a range of 65 to 3,750 meters.

PROGRAM STATUS TOW 2B Aero
• 4QFY97 Last U.S. TOW 2B missile produced
• 1QFY04 Qualification testing complete
• 2QFY04 TOW 2B Aero multi-year production contract awarded for FY 04-06

PROJECTED ACTIVITIES
• TOW 2B U.S. production will continue

Lockheed Martin FGM-148 Javelin Anti-Tank Missile Launcher

Raytheon received a $21.27 million dollar contract from the US Army in late September 2009 to continue upgrading the ITAS launcher to the latest configuration with the Far Target Locator which entered production in FY06; this adds a GPS-based position and attitude determination subsystem which enables the system to generate a 10 digit coordinate of a target location. ITAS is integrated into the M1134 Stryker launcher and is also fielded by the USMC, Canada and Portugal.

FGM-148 Javelin Anti-Tank
US Army and USMC infantry and combat engineers units are equipped with the Javelin Anti-Armour Weapon System-Medium produced by the Raytheon/Lockheed Martin Javelin Joint Venture; the Javelin is the first should-launched fire-and-forget missile to enter US service. Whereas the TOW is used at the battalion level, the manportable Javelin is used at the company and platoon level; the Command Launch Unit and a missile in its launch container weigh less than 23 kg.


The top-attack missile is fitted with a tandem warhead with two shaped charges: a precursor to initiate explosive reactive armour (ERA) and a main warhead to penetrate base armour. The Javelin has achieved a first round hit in 95 percent of engagements. The after action report of the US Army’s 3rd Infantry Division (Mechanized) following the initial phase of Operation Iraqi Freedom in 2003 stated: “The Javelin missile was an invaluable weapon in defeating enemy armored forces and reinforced positions to include bunkers, building, and revetments.

There is no other weapon that can support dismounted infantry in fighting against these types of engagements. The command launch unit (CLU) provided day and night capability with the Javelin missile as well as provided
vehicles without [the Long Range Advanced Scout Surveillance System] and dismounted infantrymen with a means of thermal observation out to four kilometers.” Production of the improved Javelin Block 1 missile and CLU began in September 2006. The performance improvements in the Block I CLUs are increased target identification range, increased surveillance time with new battery and software management and external
RS-170 interface for video output. The performance improvements in the Block I missiles are increased probability of hit/kill at 2,500 metres, improved warhead lethality and reduced time of flight.
A ‘leatherneck’ of the 1st Marine Division launches a Raytheon/Lockheed Martin Javelin Anti-Armor
Weapon System-Medium missile against a Taliban-held compound during combat operations in
Afghanistan
The combination of light weight, range, and lethality as well as the surveillance capability provided by the CLU make Javelin a popular weapon with light forces. US special forces, Australia’s Special Air Service Regiment and the UK’s Royal Marines have successfully employed Javelin in both Afghanistan and Iraq. The Javelin has been exported to 10 countries - Australia, the Czech Republic, Jordan, Ireland, Lithuania, New Zealand, Norway, Oman, Taiwan and the UK - with other customers negotiating possible purchases. The US Army plans to integrate the Javelin with the Kongsberg Protector Remote Weapon Station fitted on the Stryker Infantry Combat Vehicle.

Saturday, December 4, 2010

BGM-71 and BGM-71M Tube-launched Anti Armor Weapons

BGM-71 Tube-launched and BGM-71M Tube-launched

Raytheon’s BGM-71 Tube-launched, Optically-tracked, Wire-guided (TOW) has become the most prolific long range ATGW in service with more than 650,000 produced for the US Army, the US Marine Corps (USMC) and 43 export customers since its first appearance on the battlefields of Vietnam in 1972. The US Army has purchased 163,992 TOW missiles to date including 8,400 missiles in Fiscal Year 2009 (FY09); a further 1,200 missiles were produced for the USMC in FY09 and 2,017 for Foreign Military Sales (FMS) customers (Egypt and Spain).

BGM-71 Tube-launched
FMS customers the previous year included Canada (1,766), Egypt (2,028), Korea (214), Kuwait (1,960) and Pakistan (3,198). In FY10 the US Army plans to buy 1,165 missiles using ‘base funding’ and a further 1,294 missiles using Overseas Contingency Operations (OCO) funding. In US service TOW missiles are now primarily launched from ground platforms: light forces are equipped with the Improved Target Acquisition System (ITAS) and the M220A2 launcher mounted on the High Mobility Multipurpose Wheeled Vehicle; all variants of the Bradley Fighting Vehicle System used by the Army’s Heavy Brigade Combat Teams are equipped with a twin TOW launcher; and, the new medium Stryker brigade combat teams (SBCTs) are equipped with the General Dynamics Land Systems M1134 Stryker Anti-Tank Guided Missile vehicle.

Six SBCTs have already been formed, a seventh is now being equipped and in September 2009 the Army announced that two additional brigades would be raised. Integral to each SBCT is an antiarmour company organised into three antiarmour platoons each with three Stryker ATGM vehicles equipped with an elevating
twin TOW missile launcher. When it became apparent that technical problems associated with the externally-mounted 105mm gun and autoloader on the M1128 Mobile Gun System would delay the vehicle’s entry into
service, the Army funded the development of the BGM-71H TOW Bunker Buster warhead to provide the SBCTs with an interim capability during their initial deployments to Iraq to engage targets in urban areas and
punch holes through walls.

BGM-71M Tube-launched
Under the management of the Army’s Program Executive Office – Tactical Missiles the project was conducted as an accelerated 12 month joint government/contractor effort to develop a warhead that could be fitted on modified TOW 2A missiles thus maintaining the weapon’s 3,750 m range and other flight characteristics. The first production contract, awarded in June 2005, covered 50 missiles for qualification testing, 50 for further field testing and 500 operational missiles. In common with other TOW missiles the high
explosive (HE) filled titanium chisel-point BGM-71H warhead is produced by Aerojet of Sacramento, California. The project leveraged work that was done in developing a blast-fragmentation warhead for the army’s helicopter-launched Lockheed Martin Hellfire long range ATGW.

 The TOW BB missile can be supplied in the new TOW 2B Aero configuration which extends the missile’s range from 3,750 m to 4,500 m and the TOW 2B Aero Gen 2 configuration which replaces the TOW’s command-wire guidance system with a radio frequency system and also extends the range to 4,500 m.

TOW 2B

• “Fly-over and shoot-down” missile, two explosively formed penetrator warheads.
• Defeats advanced armor.
• Dual-mode sensor, new armament section equipped with two warheads.
• Complementary weapon to TOW 2A.

ITAS
• Improved target detection, recognition, and engagement.
• Integrated second-generation imaging forward-looking infrared with the optical sight, laser rangefi nder, automatic tracking.

TOW BB
• Bunker defeat capability, breaches 8-inch double reinforced masonry.
• 500 TOW BB missiles deployed in support of Stryker BCTs in OIF.
• Available to all BCTs in 2009.
• TOW’s sole source wire vendor exits market.

TOW 2B Aero
• Increased maximum range to 4.5 km by adding wire and aerodynamic nose.

TOW 2B RF
• Army contracted production of new wireless TOW 2B RF missile.
• More than 17,000 TOW missiles with RF guidance link have been placed on contract for U.S. Army,
USMC, and allied nations.

Introduction of ITAS with FTL capability
• Four ITAS-FTL fi elded to 173rd Infantry AB BCT in Afghanistan.
• Four ITAS-FTL fi elded to border patrol to support homeland defense.
• FY08 3rd quarter—offi cial fi elding of ITAS-FTL to Army and USMC units begins.

USMC Cpl Joshua Logsdon, Battle Landing Team 22, Combined Anti-Armor Team, 26th Marine Expeditionary Unit, looks through a sight on a TOW missile mounted on top of a HMMWV during a vehicle and weapons static display at Camp Lemonier, Djibouti. The M220A4 TOW launcher is being replaced with ITAS in both the Army and USMC. (U.S. Air Force photo by A1C Bryan Boyette.)

 
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