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    US Forces Suffer a Fatality in the new MRAP

    The New York Times reports on the first fatality inflicted by a roadside bomb attack on a Mine-Resistant Ambush-Protected (MRAP) armored vehicle; these vehicles were recently deployed to Iraq in an effort to improve the protection of US patrols in the country. The crew suffered one fatality (the gunner) and three injuries from an Improvised Explosive Device (IED) attack. “It’s a great vehicle, but there is no perfect vehicle,” said Lt. Col. Kenneth Adgie, commander of the battalion that lost the soldier.


    The attack occurred in Al Jabour, a rural area southeast of Baghdad on the Tigris River, where the combat engineers from the 1st battalion operated supporting soldiers of the 30th Infantry Regiment, 2nd Brigade Combat Team, 3rd Infantry Division, who had been clearing farmhouses and villages after a dawn air raid. The battalion had been using the new vehicles for about two months, and that this was the first time one had been hit with a bomb. This area was known to be planted with IEDs. The exact type of MRAP was not reported, a video released by the Pentagon indicates the vehicle was a Cougar. However, units operating in the area are operating the MaxxPro, recently delivered to U.S. Army units in the region.

    Preliminary findings determined that the vehicle was hit by the buried IED when it was driving beside an irrigation ditch. The vehicle being hit was the second-to-last vehicle in the group. Several vehicles in the convoy had already passed over the same spot, but failed to set off the IED, which was assumed to weigh about 300 pounds (150 kg). The pressure triggered ‘deep-buried IED’ was not detected by the unit despite repeated attempts, using air surveillance, air strikes against suspected IED sites and surveys with metal detectors.

    The explosion sent the vehicle airborne and caused it to overturn. According to preliminary findings, the MRAP absorbed the blast, as it was designed to do, as the inner compartment was not compromised, resulting with light injuries for the three crew members. Unfortunately, the crew member killed was the gunner Specialist Richard Burress (25), who was the most exposed in the Gunner Protection Kit (PGK) installed on the vehicle’s roof. At present, MRAP vehicles are shipped to theater without remotely operated weapon stations. It is unclear yet whether he was killed by the blast or by the vehicle rolling over. The vehicle itself was ‘destroyed’ according to eye witnesses.

    IED jammers, metal detectors and other countermeasures are employed by coalition forces to protect vehicles and troops from remotely controlled IEDs, roadside bombs and mines. Deep-buried, pressure triggered activation charges are usually more complex to set-up, but when placed, are also more difficult to detect. As these charges are usually not controlled by remote, they are planted in locations where coalition forces are expected to pass. The pressure activation device can be set to trigger the bomb only by heavy vehicles, and not by trucks or animals.

    Similar deeply-buried bombs were detected and detonated by the unit before the explosion. Similar devices were used the past to destroy heavy armored vehicles such as M-1 tanks, Bradley armored vehicles. They were originated in Lebanon and the Gaza strip, were they destroyed several Merkava main battle tanks.

    Further reading from other columns:

    Aerospace & Defense Sector Demonstrates Continued Growth

    Some of the leading corporations in the aerospace and defense market published their fourth quarter and annual reports for 2007, indicating continued growth and prosperity for this market segment, which is considered to be ‘inflation proof’. Lockheed Martin reported net earning of $3 billion for 2007, Northrop Grumman earned $1.8 billion, and General Dynamics reported over $2 billion profit. In contrast to the higher yields, declined profits were reported by two of United technologies’ aerospace and defense operations – engine maker P&W and Sikorsky.

    Lockheed Martin

    Lockheed Martin (NYSE:LMT) reported net earning of $3 billion for 2007, up 20% from 2006. In the fourth quarter the company earned $799 million, 9.6% over the fourth quarter of 2006. Lockheed Martin’s revenues totaled $41.9 billion for 2007, representing a 6% increase over 2006. The largest segment was aeronautics, contributing $12.3 billion to the annual revenues (flat growth, 12.0% operating margin) Electronic Systems contributed $11.14 billion to the sales, (up 6%) and 12.6% operating margin.

    Sales of Lockheed Martin’s Aeronautics business declined by 11% in the fourth quarter, but overall increased by 1% for the entire year. Lower production volume of F-16 aircraft, and F-35s as well as C-130 was attributed for the Q4 drop. Throughout the year, lower production activities were compensated by an increase in sustainment services activities, dictated by continued higher operational tempo of U.S. Air Force aircraft. Overall, the volume increases on the F-22 program was sufficient to offset the decline on the F-16 and C-130 programs. profitability of this segment increased in 2007, primarily on combat aircraft, but decreased in C-130 support.

    The Electronic Systems segment increased by 6% during 2007, particularly in fire control systems and air defense programs while sales of tactical missiles decreased, compared to 2006. Undersea and radar systems activities generated higher sales while surface systems dropped. Platform integration were also higher in 2007.


    General Dynamics

    General Dynamics (NYSE:GD) earned $2.1 Billion in 2007, up 23% from 2006. The company reported total revenues for the whole year was $27.2 Billion, up 12% from 2006. Fourth quarter earnings and revenues were roughly proportional to the full year’s results. By year’s end the company’s backlog stands at $46.8 Billion. “Given our strong performance in 2007, the record backlog and strong support for our programs, we expect 2008 earnings to be in the range of $5.55 to $5.65 per share, fully diluted,” said General Dynamics Chairman and Chief Executive Officer Nicholas D. Chabraja.

    GD’s Combat Systems segment represented the biggest growth in earnings and profit in 2007, up 30% from 2006, sustaining about 11% operating margin. Aerospace segment trailed in second place, with 17% growth but higher operating margin (16.8%).

    Northrop grumman

    Northrop Grumman’s earnings for 2007 were $1.8 billion up from $1.6 billion in 2006 representing 12.5% growth in the 2006-2007 period. For 2007, sales increased 6% to $32 billion from $30.1 billion in 2006. The company’s backlog increased by $3 billion to $64 billion positioning Northrop Grumman in a good opening position for 2008.

    All divisions demonstrated healthy growth. Information & Services segment increased sales by 11% through 2007 but profitability dropped compared to 2006, with operating margin dropping by 0.6% to 8.1% of sales, reflecting higher costs. Mission Systems operations increased 8% in 2007 while maintaining 2006 operating margin levels (9.5%). This growth reflected higher volume for C4 and missile defense programs, and the acquisition of the Essex Corporation. The report indicated that the operating margin in 2007 was attributed mainly to higher volumes.

    Information Technology sales rose $524 million (13%) largely due to higher sales for commercial, defense and intelligence programs. The operating margin of this segment also declined from 8.3% in 2006 to 6.8%, ($13 million), primarily due to a business mix that included higher volume of lower-margin deals.

    Aerospace sales for 2007 declined $223 million (3%) from 2006, due lower sales of the integrated systems operation, partly offset by higher sales of space technology. Declining sales were attributed to lower volumes related to programs transitioning to production including E-2D and EA-18G, and the F-35 program (which suffered delays since thMay 2007). Reduction was also experienced in the E-10A and related MP-RTIP systems. However, increased support for B-2, F/A-18 and the Global hawk helped balancing the picture.

    revenues from black programs, sales of land forces equipment, electro-optical targeting pods and infrared countermeasures and ISR systems contributed to an increased of 6% in sales of the Electronics segment in 2007. Operating margin increased $32 million, and as a percent of sale was 11.8%, up 0.3% from 2006.

    Sales of Northrop Grumman’s shipbuilding operations rose $467 million or 9% from 2006, the increase reflects new orders for landing assault ships (LPD, LHD and LHA) aircraft carrier construction and modernization and submarines programs. The profitability of the shipbuilding operations increased substantially from 2006, increasing operating margin to $145 million (37%) or 9.3% of sales (compared to 7.4% in 2006). Although this achievement reflects substantial performance improvements, it also accounts for insurance recovery related to Hurricane Katrina and pretax gains resulting from reorganization activities.

    United technologies

    United Technologies Corp. (NYSE:UTX) reported a powerful close top 2007, and its expectations for 2008 are also solid. Engine maker Pratt & Whitney increased revenues 9% reporting $12.129 billion in 2007. Sikorsky reported 47% growth in revenue, from $3.23 billion to $4.78 billion in 2007. However, both divisions reported lower consolidated profit margins in 2007 – PW’s consolidated profits were 22% below 2006’s, mostly attributed to the fourth quarter and Sikorsky reports a $3 million loss for 2007. the reports didn’t provide explanations for this data. In the 4th quarter of 2007 Sikorsky signed a five-year, $7.4 billion contract with the Pentagon, for the supply of 537 H-60 type helicopters for U.S. military services. The contract has options for 263 more helicopters, which could add $4.2 billion to Sikorsky’s cashflow.

    Astute Class – Nuclear Powered Attack Submarine for the Royal Navy

    Far bigger and more potent than the current class submarines, the 7,400 tons, 100 meter long sub weighs about 2,000 more than the current Trafalgar class submarines. Astute is expected to begin sea trials in March 2008, and is expected to enter service with the Royal Navy in 2009. It will be based in Scotland. Astute is the first vessel of four in the Astute class. The other three are AMBUSH, ARTFUL and AUDACIOUS.

    The nuclear reactor and 4 turbines on board Astute are capable of generating tens of megawatts of power, yet less than a single watt of power is radiated into the sea. Once deployed, Astute is designed not to require refuelling throughout her full service life – over 25 years – and can patrol for 90 days, remaining undetected thousands of miles from home and hundreds of metres underwater. The submarine will be equipped with 38 missiles and torpedoes comprising tomahawk missiles, and Spearfish heavyweight torpedoes. It is fitted with an electro-optical system replacing the traditional periscope. Astute will be operated by 98 seamen, 17 less than the Trafalgar class crew. The Astute, the first sub of this class was launched on June 8, 2007 by HRH The Duchess of Cornwall at the BAE Systems shipyard in Barrow in Furness, Cumbria. Astute is the first nuclear attack submarine to be launched in the UK for almost a decade. The photos on this page show the Astute prepared for the official launching at the BAE Shipyard. Also shown is the fore section, showing three torpedo launchers and the distinctive forward sloped nose. with propulsion elements visible. The and aft section at the bottom indicates some details of the propulsion elements.

    Israeli Satellite Successfully Launched by an Indian Missile

    Israel Aerospace Industries (IAI) announced today the successful launch of the TECSAR satellite carrying a Synthetic Aperture Radar (SAR) developed by its subsidiary Elta Systems. The satellite was launched on January 21, 2008 at 03:45 GMT from the Satish Dhawan Space Center, SHAR, Sriharikota in Andhra Prades; southwest India on a Polar Satellite Launch Vehicle (PSLV) C10 satellite launcher.

    IAI established contact with the satellite 80 minutes after the launch. After confirming the satellite is in orbit and its systems are healthy, IAI’s engineers began an extensive series of systems testing which could take several weeks. IAI expects to receive initial SAR images from the satellite within 14 days. TECSAR is one of the world’s most advanced SAR satellites, providing high resolution SAR images regardless of the visibility condition, in day, night and through clouds. The new satellite will increase Israel’s surveillanve capability by ‘opening the night’, increasing ‘target revisit’ rate, overcoming enemy concealment and deception techniques, combining a target profile from multiple, discrete sensors.

    This launch was the second commercial mission for another country carried out by the Indian Space Research Organisation (ISRO). The 300 kg TECSAR satellite uses a polar orbit, like the EROS satellites which were launched by Russian satellite launchers. The OFEQ satellites are launched into retrograde elliptical orbit from Israel, using Shavit satellite launchers.

    The successful deployment Israel’s TECSAR will also promote the cooperation between Northrop Grumman and IAI, initiated in April 2007. The companies announced an exclusive teaming agreement to provide a responsive, cost-effective, space-based SAR capability to the U.S. government based on IAI’s multi-mode X-band radar imaging satellite known as Trinidad. This satellite, based on TECSAR design, can be manufactured in about 28 months and held in storage for launch on a 30-day call-up.

    “We are confident that the high resolution imagery provided by Trinidad can become an important part of the U.S. inventory, providing global awareness,” said Jeff D. Grant, vice president and general manager of the company’s National Systems Division. “Northrop Grumman is ready to quickly deliver Trinidad to help the U.S. gain a more complete picture of the threats we face today on a global scale.”

    TECSAR satellite undergoing final checks at IAI. Photo: IAI

    A-400M

    Following repeated delays the A400M program is now in full swing, with the first aircraft undergoing final assembly in Seville, Spain. Assembly will be completed later this year and the first flight is scheduled for the first quarter of 2008. To date Airbus Military has received firm orders for 192 aircraft from nine customer nations.


    This new, multi-role military airlifter will replace the ageing fleets of C-130 Hercules and C-160 Transall in service some of the NATO air forces and other air forces around the world. The A400M almost doubles the payload and volume of the aircraft it will replace. It will be configured for three principal mission profiles – strategic operations (long range, large capacity, high cruise speed) tactical missions (soft-field performance, autonomous ground operation, low speed / low level operations, aerial delivery) “in-theatre” aerial refueling services.

    The A400M is capable of operating into unprepared landing strips under adverse meteorological conditions completely independent of ground support. With its 6-wheel main gear and high flotation characteristics, the A400M will be able to land on soft grass fields over low plasticity clay, a performance which far exceeds that of any similar aircraft. Operations from remote sites, with limited or no ground facilities and limited space for maneuver are severe constraints for a tactical airlifter. With turning radius of 30 meters, A400M is capable of operating from simple air bases with limited aprons and taxiways. The aircraft is capable of reversing up a 2% slope on a hard surface, under its own power, (1% slope on soft surfaces loaded with tactical Maximum Takeoff Weight, in hot and high conditions.)

    The aircraft is capable of operating into unprepared landing strips under adverse meteorological conditions completely independent of ground support. With its 6-wheel main gear and high flotation characteristics, the A400M will be able to land on soft grass fields over low plasticity clay, a performance which far exceeds that of any similar aircraft. Operations from remote sites, with limited or no ground facilities and limited space for maneuver are severe constraints for a tactical airlifter. With turning radius of 30 meters, A400M is capable of operating from simple air bases with limited aprons and taxiways. The aircraft is capable of reversing up a 2% slope on a hard surface, under its own power, (1% slope on soft surfaces loaded with tactical Maximum Takeoff Weight, in hot and high conditions.) For most missions the A400M would require less than 1000 meters of usable runway.

    On tactical airlift missions the A400M is capable of air dropping paratroops and equipment via parachute or gravity extraction. It can drop a single load up to 16 tons, or multiple loads up to 25 tons of total weight or simultaneously drop 116 paratroops and a wedge load of 6 tons. Performing Very Low Level Extraction (VLLE) the A400M will be capable of dropping up to three individual loads weighing 6.35 tons each, on a low level pass (15 ft above ground). Configured into a tactical tanker, the A400M will carry two standard air-to-air refuelling pods under the wings or loaded with a centre-line pallet-mounted hose drum unit that will be fitted in the rear cargo bay, providing a fuel flow of 1800 kg/min. Each of the pods will provide a fuel flow of up to 1200 kg/min, supporting helicopters, turbo-props or jets. To enhance the fuel volume, up to two optional cargo bay fuel tanks (CBT) can also be installed, providing up to 12 tons of extra capacity. These additional tanks connect directly to the aircraft’s fuel system and thus become part of the A400M’s computer-controlled centralized fuel management system. Utilizing the extra pallets and its own fuel, the aircraft will be able to carry up to 58 tons of fuel.

    Compared to the C-130, the A400M is designed to be more versatile and accommodate bigger loads, ranging from armored combat vehicles and artillery to attack and utility helicopters and heavy engineering vehicles. The A400M cargo box dimensions are optimized for the transportation of heavy vehicles and / or cargo pallets, as well as being easily configured to carry troops, paratroops, or Medevac. Its cargo handling system allows for pallets and containers to be loaded / unloaded by a single loadmaster, without any special ground support equipment. An optional 5-tonne crane can be installed at the rear of the fuselage allowing loading and unloading of fully loaded military pallets.

    The A400M cargo bay can accommodate up to 116 fully equipped troops / paratroops, seated in four longitudinal rows. Paratroops can be dropped from the rear doors or from the ramp. The hold can also be converted for a medical evacuation role (MEDEVAC) allowing up to 66 stretchers accompanied by 25 medical personnel.

    The cargo hold provides enough space to carry nine standard military pallets (88in x 108in) including two loaded on the ramp area. Civil pallets (125in-wide) can also be loaded using an optional roller/restraint system. Simultaneously 54 troops can be seated in the side-wall seats. The pallet roller/ restraint system can easily be stowed to provide a flat floor for tracked or wheeled vehicle loading.

    First Flight

    The newest European Military Transport Aircraft, Airbus A400M took off on its maiden flight today from Seville Airport in Spain on December 11, 2009, with Airbus Chief Test Pilot Military, Edward “Ed” Strongman at the controls and Experimental Test Pilot Ignacio “Nacho” Lombo in the right-hand seat. Today’s long awaited first flight lasted 3 hours 47 minutes embarks on an extensive test program that will include about 3,700 hours of flying by an eventual five aircraft conducted between now and entry-into-service at the end of 2012.The A400M will receive both civil certification by the European Aviation Safety Agency (EASA) and military certification and qualification. Airbus is planning on an initial production of 184 aircraft that have so far been ordered by Belgium, France, Germany, Luxembourg, Malaysia, Spain, Turkey and the United Kingdom with initial deliveries planned for late 2012.

    Airbus A400M shown at the Faranborough 2010 Air Show

    Israel Tests a New Propulsion for 4,000 km Jericho III Missile

    Israel carried out a missile test on Thursday, January 18, 2008. In contrast to being illusive on providing information on such tests, Israel’s Defense Ministry confirmed the launch explaining it was a successful test of a new rocket propulsion system coupled with a test missile. MOD sources added that following the test, the system could now be integrated with different missiles. Various news sources indicated the missile being tested was the Jericho III, capable of attacking ground targets at a range beyond 4,000 km.


    According to foreign sources Israel has an inventory of Jericho II ballistic missiles, with a range of 1,500 km, equipped with unconventional warheads. Foreign sources also reported that in recent years, the country tested the three-stage Jericho III weapon, capable of reaching targets at a range of 4,500 km, capable of delivering both conventional and unconventional payloads, including multiple warheads, weighing 750 – 1,300 kg.

    The recent test confirmed the performance of the new solid-rocket propulsion system, believed to be a three-stage system. It also validated the performance of the Jericho weapon system, which was last tested in 2001. Foreign news media claimed Israel conducted extensive test launches of Jericho missiles in Algeria (under a secret cooperation with France, which lasted throughout the 1960s). After the French embargo Israel reestablished the test program under its cooperation with South Africa and used a remote facility Africa to test its missiles. However, since the close strategic cooperation with Pretoria ended, missile tests moved back to Israel and are conducted from Palmachim test center near Tel Aviv, where every test is clearly visible over the country’s largest metropolis.

    Israel has used the Shavit satellite launcher, claimed to be a three-stage derivative of the Jericho II missile, to launch satellites of the Ofeq series. Two satellites were lost as they failed to enter orbit, while five others were deployed successfully, some remaining operational in orbit for more than five years. In the past Israel considered the development of the Next / LK-1 satellite launchers, capable of deploying payloads of up to 350 kg into orbits more than twice higher than the original Shavit.

    Field testing of Aerial & Ground Robots Could Lead to Early Fielding of FCS Components

    US Army soldiers test a prototype SUGV, as part of an evaluation of early FCS systems. Photo: US ArmyestingThe U.S. Army has accelerated testing of two Future Combat Systems (FCS) robotic prototypes, based on positive feedback from soldiers who are using early versions of the systems in with current forces in Iraq and Afghanistan. Through the next six months the FCS Lead System Integrator team will deliver 25 iRobot Small Unmanned Ground Vehicle (SUGV) units, and 11 Class I (Block 0) Honeywell Miniature Aerial Vehicles (MAVs), for field testing by the Army Evaluation Task Force (AETF) at Fort Bliss. Following the operational test, scheduled for May 2008 and, by September 2008 the Army will decide whether to field an early version of the robots or continue their development under the core FCS program. This effort is intended to provide an early capability of SUGV and MAV to soldiers in the field. FCS will procure a number of the early SUGV units and then transition to the full network-capable SUGV as scheduled by the FCS program.

    The SUGV robotic platform will be smaller and weigh  half the weight of the PacBot robot. Photo: US DOD

    The 30-pound SUGV is a small, lightweight, soldier-portable unmanned ground vehicle that is capable of conducting military operations in high-risk environments, including urban terrain, tunnels, sewers and caves, without exposing soldiers directly to potential hazards. The Class I (Block 0) UAV, a platoon-level asset and the smaller of the two FCS unmanned vehicle classes, will provide dismounted soldiers with unprecedented reconnaissance, surveillance and target acquisition capabilities on the battlefield. The Class I UAV can operate in complex urban and jungle terrains with vertical takeoff, hover and landing capability, and can be operated autonomously or controlled by dismounted soldiers.

    FCS-UGS Systems. Photo: US DODBoth tests will be separate and occur in parallel, although separately from the official FCS “Spi-Out 1” effort scheduled for initial field testing in 2008. Spin-Out 1 is the first of three planned infusions of FCS capabilities to the Current Force. Equipment and technologies included in Spin-Out 1 will provide enhanced situational awareness and communication capabilities through technology insertions to Abrams battle tanks, Bradley fighting vehicles and HMMWV vehicles.

    These elements include hardware systems comprising the communications system including the Joint Tactical Radio System Ground Mobile Radio and Integrated Computer Systems and their related operating systems known as ‘System-of-Systems Common Operating Environment’ (SOSCOE), and Battle Command and Network Management software. Among the sensors considered for Spin-Out 1 are the Tactical and Urban Unattended Ground Sensors (T/U UGS) providing real-time threat information in complex terrain. The Non-Line-of-Sight Launch System (NLOS/LS) is the first weapon system considered for Spin-Out 1, introducing remotely controlled precision fires to the current force.

    Class I Miniature Aerial Vehicle (MAV) is part of the FCS unmanned systems family of platforms. Photo: US Navy“The acceleration of the SUGV and Class I (Block 0) UAV prototypes and testing underscores the Army’s commitment to enhancing soldier survivability and mission effectiveness by getting the capabilities into their hands as soon as possible,” said Dennis Muilenburg, vice president-general manager, Boeing Combat Systems, and FCS program manager. “The decision to accelerate, driven in part by feedback from soldiers in theater, also confirms that we are on the right track to deliver a crucial capability that is needed and desired by our soldiers currently serving in combat operations.”

    30 May 2008: The U.S. Army Evaluation Task Force at Fort Bliss, Texas is preparing for an extensive evaluation of a number of elements of the Army’s Future Combat Systems (FCS) this summer. If all goes well, some systems could be fielding in 2011. FCS elements considered for early fielding as part of the program’s ‘Spin Out 1″ process. Spin Out 1 consists of unattended sensors, Non Line-of-Sight Launch System, elements of the Joint Tactical Radio System’s Ground Mobile Radio (JTRS GMR) “B Kit”, including the radio, computing system and remote controllers. These B Kits will be installed in existing vehicles such as Bradleys, Humvees and M-1 Abrams battle tanks. Spin Out 1 elements were demonstrated earlier this month on Capitol Hill.

    Photo below: First Lt. Andrew Andersen, scout platoon leader, Headquarters and Headquarters Company, 2nd Combined Arms Battalion, 5th Brigade (Army Evaluation Task Force), 1st Armored Division, explains the capabilities of a Tactical Unattended Ground Sensor during a Future Combat Systems demonstration at Fort Bliss, Texas.

    Joint Heavy Lift (JHL)

    Joint Heavy Lift flying Crane, (JHL) and High Speed Lifter (HSL) helicopter, are proposed as tactical heavy lifters for the FCS family of vehicles. Both the JHL crane and high speed heavy lifter will be able to lift around 40,000 lbs (18.1 metric tons). The crane will be designed to carry external stores, utilizing a four point witch external load handling system flying at a top speed of 165 kts (305 km/h). The High Speed Lifter will be able to carry the same weight internally, flying at speed of up to 245 kts (453 km/h).

    The helicopter will be slightly longer than a C-130 Hercules, and have a cargo bay capable of loading seven standard 463L pallets, a loaded HEMTT truck, a fully equipped armored gun system or two combat ready Light Armored Vehicles (LAVs). It will also have single, dual and triple cargo hooks for sling loading.

    Both JHL and HSL will be powered by the X2 coaxial rotor system developed by Sikorsky Aircraft. They will be capable of hovering, takeoff and land vertically, maneuver at low speeds, and transition seamlessly from hover to forward flight like a helicopter. In a high-speed configuration, one or more ‘pusher props’ is included in an integrated auxiliary propulsion system to enable high speed with no need to physically reconfigure the aircraft in flight.

    In September 2005 Sikorsky Aircraft has been awarded two US government contracts to perform conceptual, preliminary design for two X2 Technology heavy-lift coaxial rotorcraft. The Concept Design and Analysis (CDA) awards from the U.S. Army’s Applied Aviation Technology Directorate (AATD) are in direct support of evaluating joint requirements and Joint Heavy Lift (JHL) rotorcraft for the U.S. armed forces.

    Datalink Enhanced TARS Recce System Has Real-Time Advantage

    86-0266 taking off from NAS Ft. Worth JRB in April 2007 equipped with an AN/ASQ-11 TARS recce pod on the center line station. Photo via Keith Robinson. BAE Systems has demonstrated a data-link enhancement for the Theater Airborne Reconnaissance System (TARS) enabling recce aircraft to transmit images over long distances, for near-real-time analysis by image analysts. The two-way datalink enables the pilot to receive mission updates while airborne.

    BAE Systems, working under an $11.5 million U.S. Air Force contract with industry partners and the Air National Guard, incorporated and demonstrated the long-range data link capability the TARS. The system, deployed with early model Air national Guard F-16 (Block 30) provides high-resolution imagery and is designed for medium-altitude recce missions. The data link capability provides real- and near-real-time transmission of images from TARS to a surface terminal, or to any other compatible ground-based receiving equipment.

    “The new data link capability provides a significant operational enhancement, as image specialists can review these images while the reconnaissance mission unfolds,” said Mario Vega, TARS program manager for BAE Systems in Greenlawn, New York. “Based on the received imagery, missions can be altered within a given sortie based on information about prospective new targets of interest.”

    New Hyper-spectral Sensor Automatically Finds Targets over a Wide Area

    The US Army is fielding a new hyper-spectral sensor integrated into the Aurora electro-optical payload developed by BAE Systems. The company delivered the Army five target detection systems for use on the Shadow TUAV. The payload is fitted on a stabilized gimbal and is designed for operation by low- and medium altitude UAVs supporting payload capacity of about 35 kg.

    Aurora combines imaging arrays and sensors based on BAE Systems’ Adaptive Spectral Processing and Identification System (ASPIS) to provide automated target recognition. ASPIS detects and identifies known or potential threats and then downlinks target imagery and other data to ground operators for rapid delivery into intelligence databases.

    The new payload defined as ‘Generation IV’ remote sensing system comprises a daytime, high-resolution electro-optic hyper-spectral sensor supporting video-framing HDTV color / monochrome camera with a resolution of 6.6 Megapixels, coupled with a GPS/IMU sensors producing precise geolocation independent of ground control points. The sensor feeds an airborne processing system to automatically detect and identify targets over a wide-area. Target detection and identification is performed by analysing spectral and spatial anomalies. The system also supports movement detection employing optical moving target indicator. It also produces continuous, wide-area image mosaicking. Development of even more advanced algorithm and image processing continues under joint DARPA – Army funding.

    “AURORA is the first system that puts hyperspectral technology in operational use for U.S. forces,” said John Antoniades, director of remote sensing technologies for BAE Systems. “This is important because the combination of hyperspectral and electro-optic technology offers an objective tool to detect and identify targets, relieving the stress on operators who are constantly watching video imagery.” BAE received the development contract in 2006.

    Northrop Grumman Realigns its Shipbuilding, Missiles Operations

    Northrop Grumman Corporation announced a strategic realignment of several of its operating sectors in an effort to improve customer support and utilization of resources. Under this realignment the company created a single shipbuilding sector called Northrop Grumman Shipbuilding which will merge its Newport News and Ship Systems operations creating a single management for the company’s annual turnover of approximately $5.5 billion in revenues from military shipbuilding and support. 

    The realignment and transition process for the new Shipbuilding sector is expected to continue throughout 2008. C. Michael Petters, currently corporate vice president and president of Newport News, has been elected corporate vice president and president of the new division. Petters will assume day-to-day responsibility for the Gulf Coast operations of Shipbuilding and will operate from Pascagoula, Miss., during this transition phase. The new operation will manage about 40,000 employees in four principal shipbuilding operations located in Virginia, Mississippi, Louisiana and California. The company does not anticipate any facility closures or significant reductions in yard employment levels as a result of this realignment.

    In addition, Missiles business will now report to the Space Technology sector, effective July 1, 2008. This change will enable Mission Systems, currently responsible for the missiles business, to focus on the rapidly growing C4ISR business, while enabling the missiles business will be an integrated element of the company’s Aerospace business growth strategy. The $900 million missiles business employs approximately 750 people and has operations in Utah, Alabama., Virginia and California. Northrop Grumman’s missiles business includes the ICBM Prime Integration program, the Kinetic Energy Interceptor program and the Missile Engineering Center, will be led by John Clay, vice president and general manager, reporting to Alexis Livanos, corporate vice president and president of Space Technology.

    Mississippi State University to Develop Portable Fuel-Cell Battery with Ultralife

    The Mississippi State University (MSU) will develop a portable power system to support long endurance military applications. The development is funded by a $1.6 million program awarded by a U.S. Defense Department. MSU established a ‘technology partnership’ with Ultralife (NASDAQ: ULBI) for the development, awarding the company $475,000 contract to participate in this program as a subcontractor.

    “Portable fuel cells offer the promise to power battery chargers for soldiers that can effectively extend mission times and reduce a soldier’s carrying weight by allowing use of smaller batteries that are both lighter and last longer,” said John D. Kavazanjian, Ultralife’s president and chief executive officer.

    Under this contract Ultralife will oversee the development, testing, approval and manufacturing of prototypes of a new compact military battery to be used with handheld tactical radios, building on its ongoing development work under the Land Warrior System Stryker Interoperable Program. Under the new partnership Ultralife is establishing a development and assembly operation in a 14,000 square-foot facility located in West Point, Mississippi. The company plans to commence operations in the first half of 2008.

    RAF Upgrades Tornados, Harriers with Aerial Datalinks

    The RAF will upgrade its strike aircraft installing secure communications and datalinks in Tornado GR4 and Harrier GR9s. The British Ministry of Defense announced the two programs this week (January 14, 2008) at a cost of about £350 million.


    The Harrier GR9s will receive a second secure communications channel and a Tactical Information Exchange Capability (TIEC), as part of a £99 communications upgrade that will improving their close-air support operability. The secure communications is made by made by Ultra Electronics while TIEC is produced by BAE Systems.

    TIEC is an implementation of NATO standard Link-16 Joint Tactical Information Distribution Standard (JTIDS), integrating the Link 16 and Improved Data Modem (IDM) on the aircraft. TIEC was developed by an industry team formed in 2004 by BAE Systems Customer Solutions and Support, including General Dynamics UK, Rockwell Collins UK and US based Innovative Concepts Inc. The tactical data link send operational information in text format direct to the cockpit, enhancing the crew’s awareness of the surrounding situation and reducing the possibilities of friendly fire engagements. The improved secure communications will allow pilots to talk securely to air controllers on the ground, the AWACS surveillance platform as well as other combat aircraft on the same operation, thereby minimising the risk of hostile forces intercepting information.

    Under the £253 million Capability Upgrade Strategy (Pilot) program CUS(P) the Tornado GR4 will receive a similar communications suite comprising the secure communications, and TIEC channel and, an integration of new, enhanced laser/GPS Paveway IV precision guided weapons made by Raytheon.

    The contract is only the first phase of the CUS(P) program, which is expected to follow with the introduction of a targeting pod (the RAF evaluates both Litening III which is already integrated with the Tornado and Typhoon, and locally supported by Ultra Electronics and the Sniper from Lockheed Martin, used with the Harrier GR9. According to Aviation Week & Space Technology, Future upgrades to be considered under CUS(P) also include the ntegration of a new active AESA radar.

    GoldenEye 80 VT-UAV

    GoldenEye 80 is an advanced ducted-fan unmanned aircraft developed by Aurora Flight Sciences for DARPA’s OAV-II program. It is developed by Aurora Flight Sciences in cooperation with General Dynamics Robotic Systems and Northrop Grumman. In addition to the ducted fan design, previously used in the Golden 100, the ’80 also uses free floating 9.6 ft wings which contribute lift on a forward flight, significantly extending endurance and speed. The vehicle’s design is acoustically focused to enable to GoldenEye 80 to operate effectively and remain undetected in most background noise environments. It is powered by an air-cooled rotary engine derived from the RQ-7 Shadow UAV, running on heavy fuel (Jet-A and JP8) as well as on gasoline.

     

    GoldenEye 80 is designed autonomous vertical takeoff and landing, launched from a container or flat surface. The vehicle has a maximum takeoff weight of 180 lbs carrying an electro-optical payload and fuel for an eight hour mission. It can also be used in continuous hover mode for three hours. The whole system is packed into four containers carried on two HMMWVs and is air transportable using a single MV-22 Osprey tilt-rotor aircraft.

    The system is designed for use by a single operator controlling a single or multiple vehicles.

    A GoldenEye 80 system will comprise of three vehicles, performing fully autonomous flights, with mission controlled from standard US Army STANAG 4586 compatible One System control station. On a gimbaled payload installed over the outer fan’s rim, the vehicle carries a stabilized electro-optical payload with daylight video or infrared cameras, laser designator or rangefinder.

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