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    RAFAEL Unveils Panoramic, Vehicular Electro-Optical Gunshot Detector

    At the upcoming AUSA 2007 exhibition in Washington DC, RAFAEL is planning to introduce a new vehicular version of the Spotlite electro-optical gunshot locator. The system is currently in development, with R&D funded by several customers. It’s unique sensor and signal processing provides fully panoramic coverage, initiating threat warning, detection and localization within few seconds from a gunshot, rocket or a missile being launch, well before the threat reaches its target. RAFAEL plans to complete an integrated vehicular system before the year’s end.

    The new system, designated SpotLite-M joins the SpotLite-P (portable version). Both systems are capable of accurately and immediately detecting, locating and thereby enabling reaction to enemy fire sources, such as small arms fire, RPGs and anti-tank missiles. Spotlite M provides critical early warning on an imminent attack and enables the vehicle’s crew to take evasive actions, employ effective counter-fire or deploy countermeasures against the threat within seconds from initial detection. Simultaneously, coordinates of the firing source can be sent to any shooter capable of receiving those coordinates, whether it be a tank, attack helicopter, anti-tank missile, sniper, etc. “The SpotLite-M provides the best solution for one of the most serious problems for mobile platforms on any battlefield and that, is finding the enemy and being able to react in real-time,” says David Stemer Corporate VP and General Manager of Rafael’s Missile Division. “We are confident that it will attract the attention of our customers worldwide.”

    The system comprises a unique, panoramic infrared camera developed by Rafael, enabling target detection and location at more than the effective range of the various threats. The system is effective in both day and night covering a full panoramic 360° view. In addition to land platforms, the SpotLite-M is also suitable for aerial and naval platforms.

    Washington to Invest $2.25 Billion Equipping 25 new Iraqi Battalions

    Washington is planning a massive arms sale to Iraq, to equip 25 additional battalions and brigade headquarters. If all options are exercised, this sale could be as high as $2.257 billion. According to Defense Security Cooperation Agency (DSCA), This expansion will enable Iraq to equip new forces to assume the missions currently accomplished by U.S. and coalition forces and to sustain themselves in their efforts to bring stability to the country.


    The new package includes 32 UH-1 Huey helicopters refurbished to Huey II standard. It also includes 590 armored vehicles including 336 Ukrainian made BTR-3E1 armored personnel carriers, 189 armored land cruisers, 55 ILAV Route Clearing Vehicles (Cougar based) and ten armored Mercedes trucks. 123,544 M16A4 Rifles, 12,035 M4 carbines, clothing and individual equipment. The package will also include various ammunition stocks, including 12 Gauge buckshot rounds, 9mm, 5.56mm rounds for personal weapons, 7.62 mm, 0.5 Caliber rounds and 40mm HEDP grenades, flares, smoke and stun grenades used for individual support weapons and 60 and 81mm mortar rounds.

    980 HMMWVs and 4,260 trucks of various types, 314 busses and vans, 112 motorcycles, 1,425 sedans will provide logistics infrastructure for the new formations. Engineering assets will include 33 bulldozers, ten excavators, 20 wheeled loaders and 19 wreckers, logistics vehicles etc.

    The sale also includes comprehensive communications and C4 support equipment, including 1,518 vehicular VHF radios, 4,800 VHF hand-held radios and 6,490 manpack radios. Infrastructure assets included in the package comprise communication towers, troposcatters, microwave radios, gateways and subscriber units for integration with Iraqi Defense Network (IDN) and (Iraqi) Defense Private Network (DPN), as well as Satellite Communications’ Very Small Aperture Terminal (VSAT).

    BTR-3E1 armored personnel vehicle (Photo: Thierry Lachapelle)

    British Forces Field Hermes 450 in Iraq and Afghanistan

    British troops from 32 Regiment Royal Artillery, assisted by contractor personnel, practice flight preparation of Hermes 450 UAV at a flight strip somewhere in the Middle East, representing conditions similar to those experienced in the Southern Iraqi desert.

    British Army capabilities in southern Iraq were significantly boosted since July this year when Hermes-450 (H450) unmanned aerial vehicles (UAVs) began operating in the region. The UAVs have now been delivered to Afghanistan and both will ramp up to a full operating capability by February 2008, providing almost continuous ISTAR support to theatre troops over a large area. The British forces procured the services of these UAV as an interim capability, until the Watchkeeper UAVs are fielded.


    In this contingency the UAVs owned by Thales UK are operated and maintained by 32 Regiment Royal Artillery. Contractors on deployed operations, supplied by U-TacS (a joint Thales and Elbit company) are providing support in theatre. Sofar H450 demonstrated a high safety record. To date, all take offs and landings have been successful, and no air vehicles have been lost.

    According to Drew Carmichael, special projects manager at DE&S, the first in-theatre flight of H450 was conducted on June 14, 2007 and initial operating capability (IOC) was declared three weeks later. “Since then it has been delivering an average of 14 hours ISTAR output a day and has already surged to provide 24-hours of coverage in one 25-hour period.” Said Carmichael.

    British troops from 32 Regiment Royal Artillery, assisted by contractor personnel, practice flight preparation of Hermes 450 UAV at a flight strip somewhere in the Middle East, representing conditions similar to those experienced in the Southern Iraqi desert.

    Robotic Multi Terrain Loader (MTL)

    Applied Research Associates (ARA) from the USA unveiled at AUVSI 07 a new robotic application of the Caterpillar Multi Terrain Loader (MTL). ARA’s Modular Robotic Control System (MRCS) displayed at the AUVSI demonstration equipped a Cat 247B MTL customized for handling heavy unexploded ordnance. The vehicle can be fitted with various attachments, including grappler, IED disruptor, forks, bucket, backhoe, or mission specific sensors.

    A version of this vehicle is customized for the US Army Nemesis demining vehicle. Nemesis will utilize the robotic vehicle with counter-mine systems automatically detecting anti-personnel and anti-tank mine. It will be fitted with ground penetration synthetic aperture radar (GPSAR), and electromagnetic induction sensors (EMI) detecting and locating buried mines with ‘centimeter accuracy’.

    The vehicle will be able to carry out the mine detection mission automatically, moving at a slow speed, controlled by closed loop speed control, coupled with terrain sensing by ultrasonic standoff sensors mounted in front of each mine detector. These robotic platforms will also be able to carry ordnance clearing and area preparation tools for the actual demining work. ARA plans to complete the first system for testing by march 2008.

    Upgrading or New Production?

    Vehicle Armoring – MRAP and Beyond < Page 8 of 8 >

    The need for better protection for troops facing threat in the combat zone is obvious. They must be equipped with the best means available providing them the best protection suitable for their mission. However, protection is not the goal but one of the means to achieve the mission. It should assist, not hinder mission success.
    Up-armoring of existing vehicles is an ongoing process that must continue to meet prevailing threat levels regardless of the availability of other vehicles. In asymmetric warfare, all vehicles engaged in combat operations (not only the combat vehicles) should be protected. Since the threat is evolving, their protection should be upgraded continuously. This process is evident when studying the changes made to combat vehicles in Iraq since Operation Iraqi Freedom in 2003 and it is continuing today as well.

    An up-armoring project is usually part of a more comprehensive upgrade program, where the vehicle’s automotive system undergo adaptation to carry the extra loads, better handling weight distribution which may not have been the same as originally designed, particularly when the vehicle carry the new armor and full mission load.

    In the past, US forces considered armor protection only necessary for combat fighting vehicles, including armore personnel carriers, leaving most of the rest combat service and support elements virtually unprotected. Unlike current vehicles, armor upgradability was not designed into these vehicles at all. When necessary, light armor was fielded with specific vehicles (such as the armored security vehicle, used by military police for road security missions).

    This albeit shortsighted approach determined the requirements for curbs weight, (CVW) payload and gross vehicle weigh (GVW) of tactical and support vehicles, such as the HMMWV, FMTV HEMTT and other vehicles. The HMMWV was an exception, as it was also designed as a weapon carrier (missile carriers, reconnaissance vehicles) for specific combat roles and therefore, had provisions to receive add-on armor despite its inherent, limited load capacity. Yet, restricted by weight and design limitations, the armor used with HMMWVs provides good protection against some threats but leaves much to be desired against others.

    The growing demand for armor protection emerged as coalition forces realized the increasing threat encountered during the new asymmetric conflicts erupting in Southwest Asia and the Middle East. All combat vehicles, armored and unarmored, had to go through upgrades process to encounter the new threats. Modifications included some unorthodox means, such as spray-on ballistic armor, which was thought to offer an ‘instant’ protection from small-arms, application of sandbags for side and top protection and slat cages, widely deployed with almost all light combat vehicles in theater. Another concept offering rapid installation and replacement of armor tiles is the LAST armor, utilizing innovative hook-and-loop (Velcro like) attachments fasteners to keep the tiles in place. Most up-armoring upgrades are made of kits of armor tiles externally added to the vehicle’s body parts, using welded bolt mounts. This method enables rapid repair in the field by the replacement of combat damaged armor tiles. Similar applications are used for slat armor, which offer ‘statistical’ protection from shaped-charge threats, significantly enhancing the vehicle’s survivability to RPG attacks.

    Various concepts of armoring are used to minimize the down-time vehicles undergo in the process of armor installation. Trucks are particularly quick to receive added protection, replacing the original cabins with armored cabs. Much more work has to be done on light vehicles, such as the HMMWV, to fit armor on a structure that was never designed to carry these extra loads. In fact, the up-armor kit consists of considerable ‘dead weight’, designed to carry the heavy doors, or keep all elements in place. The manufacturer of the HMMWV, AM General began to produce armored versions of the vehicle last year in an effort to expedite the delivery of protected vehicles to the combat troops.

    The US military identified this weakness even before the current conflict, and outlined its Long Term Armor Strategy (LTAS) to define mandatory protection for all future wheeled tactical vehicles. These included new generations of scout cars, command vehicles, troop carriers, logistical and support vehicles. LTAS defines vehicle protection in two levels – a ‘baseline’ protection designated ‘A-kit’ and ‘improved’ add-on system known as ‘B-kit’. The baseline protection will protect from firearms, as well as mines and blasts. All military vehicles will be produced with this capability, enabling efficient air mobility, minimizing vehicle wear and improving life cycle cost. To operate in contingencies where more substantial threats exist, vehicles will be provided with an appropriate ‘B kit’ as required to meet the specific threat. This method will enable the military to match the vehicle protection to specific threats and even rotate ‘B-Kits’, between units deployed to the theater of operation, without having to build new armored vehicles for each conflict.

    The first family of vehicles designed to LTAS standards from the start is the Joint Light Tactical Vehicle (JLTV), a family of new combat and combat support vehicles designed for all contingencies, offering the use of threat-adaptive ‘B-kit’. All JLTVs will have V shaped hulls, protecting from explosions and mines, as well as basic bulletproof armor. Since the baseline armor is part of the vehicle, additional armor weight will facilitate net protection, since all the structural elements and attachments carrying the appliqués armor kit will already be provided in the baseline. LTAS concepts have partially been applied to existing vehicles upgrades, including the FMTV family of medium trucks (FMTV), and Heavy Expeditionary Transporter (HEMTT/HET), M939, M915 and HET and, to some extent, to the HMMWV. Yet, the current designs and limited payload capacity are limiting the full utilization of the new strategy.

    This strategy is also implemented into the Pentagon’s MRAP acquisition program. Responding to the urgent need of heavy armor in Iraq, the initial 6,000+ vehicles produced under the current MRAP program do have the full protective suite expected to be fielded in the future model. The Marine Corps Systems Command already embarked on a follow-on MRAP program called MRAP II, offering better protection and mobility. This new program will open new opportunities for manufacturers that have not been qualified for the first MRAP program. Armor upgrades will also be applicable to all MRAP vehicles. Some of the armor upgrades of MRAP II are expected to be retrofitted to the early production batches MRAP vehicles.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    A Different Approach?

    Vehicle Armoring – MRAP and Beyond < Page 7 of 8 >

    While MMPV is designed for the specific use by combat engineers, MRAP should offer more capabilities. Yet, it is designed primarily as a protected vehicle, and this capability comes with a price, not only in US$, but also in mobility. MRAPs are designed for aerial mobility inside large military transports, as well as C-130, (the first production vehicles are expedited to Iraq by airlift). However, these heavy vehicles will consume excessive capacity of the limited airlift assets available to US forces. In fact, a MRAP requires as much space as a Bradley armored vehicle, and even more space than the Bradley’s future successor, the Mounted Ground Vehicle (MGV). For the Marines, MRAP poses a serious challenge as it is much too high for safe accomodation on shipping vessels, therefore limiting the numbers and use of storage space in the lower decks. If the military plans to use MRAPs beyond the current conflicts in Iraq and Afghanistan, they must plan and field enough airlift and sealift capacity to deploy these heavy vehicles.

    Another consideration is the combat effectiveness of the vehicle. In practical terms, MRAP is a monster. Noisy, slow, big and hot, this vehicle is the opposite of modern tactical vehicle designs. The entire concept is designed for defensive, rather then active-offensive role, motivating troops to encapsulate within the relative safety of well protected vehicles, resulting in less effective control of their surrounding. Therefore, when hit by an ambush, they would take more time to recover, assemble and strike back. By no means should troops be unprotected in such missions, but they should not sacrifice their mobility or situational awareness either, they should be equipped with the best combination of protection, mobility and firepower to gain and maintain the upper hand under all battle conditions.

    The heavy armor is offering the safety and security for the troops inside, offering good visibility of the area through the surrounding windows, which also have some firing ports and remotely controlled weapon station on top, enabling the crew to employ effective counter-fire. However, the vehicle also poses a big, clear and lucrative target – its noisy engine and high silhouette are clearly distinguished from a distance. Based on an automotive system of a heavy truck, its acceleration, turning radius, negotiating gradient and vertical obstacles is limited, especially in confined areas and narrow streets or in situations requiring the vehicle to go off-road. The height, contributing to the effective IED protection, also restricts the weapon station’s coverage. Fortunately, firing ports installed on both sides enable the crew to cover this area with their personal weapons. The high ground clearing and lack of side doors pose some difficulties for embarkation and dismounting with full combat loads. (In contrast, the ASV which has not been selected for MRAP, has doors on both sides and back, enabling troops to always move in or out of the vehicle under cover).

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Countering the EFP & Anti-Armor Threats

    Vehicle Armoring – MRAP and Beyond < Page 6 of 8 >

    Sophisticated IEDs pose a significant challenge to armor designers, since they are less predictable in nature. Yet, advanced armoring concepts are being fielded, offering improved protection against the myriad of threats posed by an EFP, while reducing the total weight of the armor. Several counter EFP armor materials have been introduced recently. In the USA, PVI recently demonstrated its ShieldAll as an effective counter EFP material while Ceradyne introduced its own counter EFP armor with its new Bull armored vehicle. In Israel, RAFAEL is believed to have designed and operationally deployed armor capable of countering EFPs, According to the Golan armored vehicle manufacturer, PVI, RAFAEL’s EFP armor is also used in its Golan vehicle, selected for the US MRAP program. IMI is offering another counter EFP armor known as “Iron Wall’ in the new Urban Fighter up-armored M-113 program.

    IMI built the new armor from hybrid, passive modules, combining several materials designed to absorb the kinetic energy, mechanical deformation and ballistic damage created by the threat by mitigating and dissipating blast energy, and absorbing the kinetic energy of projectiles, fragments and EFP slugs, stopping multiple hits from small and medium caliber projectiles which is equal to 45-up to 60 mm of Rolled Homogenous Armor (RHA) while weighing half the weight of comparable steel. Due As EFPs rapidly becoming a major threat in most theaters, more companies are expected to field new defenses against this menace.

    The shaped-charge threat poses a different risk. Triggered by percussion fuze the conical warhead forms into a molten jet that can penetrate thick steel armor. To protect against these, armor designers employ various means to avoid contact with the incoming warhead. The slat armor ‘cage’ provides a passive anti-RPG armor which effectively keeps most RPGs away from the protected vehicle. Reactive tiles provide similar protection by triggering a ‘counter-explosive’ which disrupts the RPG’s fuse, causing premature explosion or deactivating it by smashing the ogive. Another concept is active protection, utilizing various interceptors to eliminate the threat at a safe distance. Active protection is considered the only reliable protection from tandem warheads.

    Protection against these weapons is much more complex, and requires a mix of physical means, countermeasures and operational procedures.

    While the US Army neglected its light vehicle armoring, other armies did not follow opted to equip their vehicles with bullet-proof protection. As the threat level increased in Afghanistan, mine and IED protection had to be added to bring their units up-to-date with the threats. The solutions were mostly similar to the US choices, mostly focusing on the RG-31 and Cougar models for the Canadian and British forces. Interestingly, the South African companies that led this market are selling some vehicles to civilian contractors but rarely to the militaries. South African based OMG which produces the RG-31 MPVs and RG-33 MRAP models is now operated under BAE systems.

    The German and Italian Armies fielded several models of indigenously developed mine protected vehicles. Among these are the lightweight LMV and Dingo, designed for command vehicles, liaison and patrols. The German Army is saving no effort to protect its vehicles. Protected cabins and command and control shelters are fitted to supply trucks, heavy transporters, and light vehicles. Some models were designed specifically for troop transport, including the Dingo II from KMW, and future GEFAS concept vehicle, developed by Rheinmetall Defense (RDE). KMW is also developing a new mine protected vehicle designated Grizzly, to address the German Army requirements for highly protected vehicles.

    The Australian Army uses the indigenously developed the Bushmaster mine protected vehicle for troop transport and patrol duties. This bullet-proof vehicle was designed to offer effective mine protection, utilizing the V Hull design, while the slat armor added in theater provides improved protection against RPGs.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Anti-Armor IEDs are Becoming More Sophisticated

    Vehicle Armoring – MRAP and Beyond < Page 5 of 8 >

    No armor is capable of rendering total protection. Armor is designed as a combination of one or more materials constructed into a system, designed to defeat specific threats with high probability of success. Different armor materials have their strengths and weaknesses. Metals (mainly steel) offer effective protection from small arms threats and have reasonable multi-hit capability, but is relatively heavy. Ceramics such as alumina, boron carbide, titanium oxide are lighter than steel and when produced into smaller panels, have good multi-hit capability, but the material is degraded after sustaining certain hit damage.

    Composites are both lightweight and offer good multi-hit protection. Today, the stopping power of composites is limited due to practical considerations (size, weight and cost) but future fibers are expected to increase the strength bringing advanced composites to equal, and even surpass the protection levels of steel and ceramics. Composites also have the advantage of being able to be shaped into larger, curved structures which is not the case with most ceramics. Some composites also contribute to reduce behind-armor interior damage effect (spall, blunt trauma). Certain composites can be formed into blast mitigating structures reducing blast effects.

    When used in combination with ceramics, they also improve the ceramic’s damage tolerance in multi-hit attacks. Such combinations of armor materials provide the ‘first line of defense’ against most threats, including small arms, fragments, and simple explosives.

    Buried ‘belly charges’ pose even more complex threats, utilizing devastating ‘mega-IEDs’ weighing hundreds of kilograms, they can take out heavy armored vehicles, including tanks. Since they are activated below the vehicle, most of their effect is directed upwards, at the target. When such charges rupture the target’s bottom hull floor, the internal effects are devastating. Some improvised belly charges are made from cylindrical containers such as water tanks filled with explosives; the cylindrical shape and explosive’s design create directional effect, focusing most of the explosion upward at the target. Furthermore, the barrel-shape is easier to handle in the field, enabling small team to roll it into position and rapidly emplace it below the surface.

    Other mega IEDs are the Vehicle Borne IEDs (VBIED) operated by suicide bomber or remotely controlled, VBIEDs were used with devastating efficiency since the early 1980s in Lebanon, and since then, proliferated worldwide, used by terrorists and insurgents. The VBIED uses the vehicle’s mobility, momentum and loading capacity to form a deadly ‘guided weapon’, which can break through roadblocks into a protected perimeter, to explode inside a well defended target. Recent incidents in Iraq included dual-effect VBIEDs, where vehicles were loaded with chemical substances in addition to explosives, dispersing lethal gases to enhance the bomb’s effect. A ‘dirty bomb’, if ever employed by terrorists, could follow this principle of attack.

    Directional IEDs are the Road-Side IEDs (RSIED) utilizing EFP and EFF. These weapons combine a conically shaped explosive charge covered by a metal liner. When activated, the explosion forms the liner into a projectile that blasts into the target with high kinetic energy. EFPs placed at the road side can hit vehicles traveling on the road. Usually, EFPs are employed against ‘quality targets’, where insurgents aim exactly at certain areas of the target where they expect to cause the desired effect. Insurgents are trying different tactics to lure potential target into the EFP’s kill-zone, such as emplacing dummy IED or clearly visible ‘IED baits’ to get more forces into a well orchestrated killing field known as ‘IED arena’.

    As charges are laid down to attack a point where insurgents expect security forces to stop, they can employ several IEDs pointing at one target, or multiple charges linked through a ‘daisy chain’ to achieve an effect over a larger area, or attack a certain length of the road, where a convoy is expected to pass or forced to stop. While the EFP employs a single projectile, other directional IEDs known as EFF can generate multiple projectiles or ‘fragments’, while the most devastating ‘multislug’ explodes into several projectiles aimed roughly at the same point – the first devastates the armored vehicle and the second penetrates and kills the target. RoadSide Improvised Explosive Devices (RSIED) are activated by various types of triggering mechanisms, from pressure plates, electrical wires, and various types of wireless devices or, ultimately, autonomous guidance and control by using a trained human, committing a suicide act.

    IEDs do not go off by chance. Meticulous tracking and recording of every engagement provides insurgents with valuable feedback for future actions. The art of battlefield intelligence was mastered by Hezbollah in Lebanon through the 1990s, where units employed video cameras to record combat activities. While the main reason for these actions was to capture ‘victory photos’, analyzing the footage could provide a lot of information for debriefing and further improvements. Similar actions were ‘exported’ to the Gaza strip, and are considered a central element of insurgent operations in Iraq. Distribution and analysis of the data by experts and rapid dissemination, via human channels and electronic means provides insurgents with a powerful and adaptive strategy and improvement. As such functions are embedded into ordinary mobile phones; modern insurgency is becoming network-centric, driving an ever steeper learning curve.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Meet the Asymmetric Threat!

    Vehicle Armoring – MRAP and Beyond < Page 4 of 8 >

    While the first MRAPs are arriving in the combat zone, threats are already deteriorating almost daily, necessitating further armor improvements on all vehicles. Many new potential threats are lurking in a combat zone. The most common and most lethal so far were ‘kinetic’ weapons – i.e. fast projectiles, fragments or debris causing lethal effect by impact on the target. Their lethality is determined by the amount of kinetic energy transferred to the human body and the level of damage they cause (concussions, tissues damage, ruptured blood vessels etc.)

    Other threats are caused by a combination of kinetic energy and explosion-generated heat – these are the shaped charges, which are highly lethal against ballistic armor. Small arms fire from hand guns, rifles, machine guns or heavier automatic cannons are the most common kinetic weapons, but fragments and or metal shrapnel dispersed by mortar bombs small rockets, Improvised Explosive Devices (IED), dispersing nails, screws or metal balls at high velocity, over a large area are also effective and highly lethal kinetic weapons. Heavy explosion blasts also have a devastating effect on targets, particularly the human body. More specific weapons designed to affect human targets include Chemical, Biological or Radiological weapons (CBR). More recently, directed energy weapons (including laser dazzlers, and temporary or permanent ‘blinding’ by laser or application of high-power microwave beams – all offer new ways to quietly and effectively incapacitate humans at relatively long distance.

    Other threats are caused by a combination of kinetic energy and explosion-generated heat – these are the shaped charges, which are highly lethal against ballistic armor. Small arms fire from hand guns, rifles, machine guns or heavier automatic cannons are the most common kinetic weapons, but fragments and or metal shrapnel dispersed by mortar bombs small rockets, IEDs, dispersing nails, screws or metal balls at high velocity, over a large area are also effective and highly lethal kinetic weapons. Heavy explosion blasts also have a devastating effect on targets, particularly the human body. More specific weapons designed to affect human targets include Chemical, Biological or Radiological weapons (CBR). More recently, directed energy weapons (including laser dazzlers, and temporary or permanent ‘blinding’ by laser or application of high-power microwave beams – all offer new ways to quietly and effectively incapacitate humans at relatively long distance.

    Explosive devices pose various levels of threats. Originally, when used as an individual device, IEDs caused limited damage and could be avoided by careful adherence to operational procedures. Yet, these procedures are also acting against the military force, as in many cases, IED are triggered used to “shape the battle”, causing the military unit to respond in a predicted procedure, where more sophisticated devices are employed, aimed specifically at certain weak points identified by the insurgents.

    Firearms are the #2 cause of casualties among US troops in Iraq and Afghanistan. Small-arms are employed in firefights erupting in urban, open terrain combat, or by ambush teams covering an IED event, as well as by snipers. Most vulnerable are foot patrols, troops dismounting from their vehicles (for example, at an area where an IED went off) and exposed warfighters in armored vehicles. Armor piercing rounds are now common almost everywhere, augmenting standard ‘Full Metal Jacket’ (FMJ) rounds which could be stopped with the most common types of body armor and vehicle protection. Properly used body armor and helmet can usually reduce the risk from most kinetic threats, but cannot guarantee full protection.

    Effective vehicular protection against basic small arms threats is provided by hard steel plates, composites or ceramic armor. As mentioned above, 7.62mm AP poses a major threat requiring heavier armor, which can be attained by beefing-up the protective layers, either by additional elements placed outside the vehicle (supply boxes, spare wheels, spare tracks etc) or beefing-up the vehicle’s armor with appliqué ceramic tiles, composites or hard steel plates. The larger, more capable small-and medium- caliber rounds are associated mainly with higher intensity conflict, include heavier weapons such as 12.7, 14.5, 23 and 30mm rounds.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Introducing the MRAP

    Vehicle Armoring – MRAP and Beyond < Page 3 of 8 >

    The current Mine Resistant Ambush Protected (MRAP) vehicle is built as a mine protected, bulletproof heavily armored truck, offering reasonable highway mobility and off-road capability in an urban and open combat environment. The MRAP is designed to provide the crew with a comprehensive protective envelope. 

    In this design, some of the truck’s payload capacity is traded off for the armor suit, while retaining capacity for mission payload. Utilizing a standard 20 ton Mack chassis, rigged to carry the heavy armor and endure explosions, the vehicle uses a V shaped armored hull, deflecting the blast from underneath the vehicle. The hull is designed to withstand the mine blast effects without breach of the bottom floor when a mine is detonated under any wheel or directly under the crew compartment. Thick bullet-proof steel plates are welded to create the body, offering effective blast mitigation while protecting from fragments and debris. Even after suffering significant damage, the MRAP can continue moving, having ‘residual mobility’ using Hutchinson runflat tires, fitted with steel inserts, retaining residual mobility to break contact. The MRAP is capable of traveling 30-miles (48 km) at a speed of 30 mph (48 km/h) on a hard surface road after complete loss of air pressure in any two tires. However, the larger 6×6 MRAP is quite limited in its ability to navigate in confined areas, where a smaller vehicle is required. For such missions the military will utilize the 4×4 MRAP, which has the same protection but uses a smaller wheelbase offering better mobility and steering.


    Unlike other armored vehicles, MRAP is also fitted with large windows offering the troops clear visibility and combat situational awareness. The vehicle is also equipped with an overhead, remotely controlled weapon station (RCWS) or an armored gunner position fitted with transparent shield. The US Army already plans to boost the MRAP armor with add-on armor called Frag Kit #6, offering enhanced protection against explosively formed penetrator EFPs.

    Further improvements are expected to be fielded with the next model of MRAP, expected next year. The Marine Corps Systems Command is planning to buy up to 20,000 improved MRAP vehicles, currently known as MRAP II. This vehicle will offer enhanced performance and protection against more sophisticated threats. The Marines are planning to test some of these vehicles this autumn and awards for initial orders for the MRAP II are expected by January 2008.

    Current MRAP vehicles consist of three categories: Category I vehicles (6 persons or more including driver) support operations in an urban environment and other restricted/confined spaces; including mounted patrols, reconnaissance, communications, and command and control. Category II vehicles carrying 10 persons or more, including the driver will provide a reconfigurable vehicle that is capable of supporting multi-mission operations such as convoy lead, troop transport, ambulance, and combat engineering. Category III (Buffalo) is designed strictly for explosive ordnance disposal missions.

    All MRAP models are required to travel distances of 300 statute miles (480 km) at a cruising speed 45 mph (72 km/h). Road speed is 65 mph (105 km/h), 25 mph (40 km/h) on unpaved trails or five mp/h (eight km/h) off-road. The vehicles are required to ascend a paved road at a 40% grade at a speed of 10 mph (16 km/h) and descend a 60% longitudinal grade maintaining a speed of two mph (three km/h). MRAPs are designed to fit for self-deployment on highways worldwide and be transported by rail, marine, and air modes in C-17 and C-5 aircraft. Some of the models could also be prepared for transportation in C-130 aircraft after 60 minutes of preparation.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Special Vehicles for Different Missions?

    Vehicle Armoring – MRAP and Beyond < Page 2 of 8 >

    By the early 2000s, a new class of ‘mine protected vehicles’ was introduced in the US, and slowly fielded to support combat in most high-risk deadly missions of Explosive Ordnance Disposal (EOD) units. Initially, mine protected vehicles such as the Buffalo, built by Force protection inc. were supplied to Explosive Ordnance Disposal (EOD) teams which handled the removal of IEDs in Iraq. These vehicles were designed from the outset to survive mine blasts and explosions and protection against small arms fire. In addition, the Army fielded some route-clearing vehicles, utilizing the South African Meerkat (Husky) system.

    The US Marine Corps were faster to identify the need for a mine and explosive protected vehicle, fielding smaller Mine Protected Vehicles also developed by Force Protection – the Cougar. Initially the corps selected the heavier 6×6 vehicle, configured to carry EOD teams. Since these vehicles were specifically planned for EOD missions, they were designed as highly protected, but heavier and less mobile platforms, more flexible to handle suspicious objects rather than employing firepower.

    Soldiers liked these monsters, and commanders repeatedly stressed their desire to get more Cougars in theater. However, due to the limited production capacities, only few trickled through to the frontline troops. Their survivability brought the Cougars to become favorable troop transporters, employing their unique protection as lead elements for convoys and road patrols. The fact that no marine was killed in a Cougar, despite more than 300 attacks on the vehicle, led Secretary of defense Robert Gates to press the Army to dramatically increase its plans to field a new family of vehicles, based on the USMC Mine Resistant Ambush Protective (MRAP), to fill urgently needed protection gaps protecting troops deployed in Iraq.

    Gates, directed the services to regard the MRAP program as urgent requirement, encouraging them to buy as many vehicles as the industry can produce. Therefore, the Army could get some 17,000 MRAPs, making this vehicle the third largest acquisition program in the next two – three years. Originally the Army planned to buy around 3,000 vehicles, since two parallel programs, Medium Mine Protected Vehicle’ (MMPV) and Joint Light Tactical Vehicle (JTLV) would have closed the current vulnerability gap within few years. By 2010, with over 22,000 MRAPs in service, the funding and justification for the procurement of thousands more new vehicles will certainly be questioned.

    In the years 2008 – 2010 the US Army planned to expand the fielding of these mine protected vehicles, through the introduction of the Mine Protected Vehicle (MPV) family, consisting of the Buffalo Mine Protected Clearance Vehicle (MPCV), a Vehicle Mounted Mine Detection (VMMD) system, based on a more advanced version of the South African vehicle, and a new class of vehicles designated ‘Medium Mine Protected Vehicle’ (MMPV). This vehicle will be designed to mobilize the Future Engineer Force (FEF) – a ‘transformational’ combat engineer unit that will provide route clearing, breaching and other engineer services to all combat formations, including the future Brigade Combat Teams (BCT) and Heavy Brigades. The army plans to deploy over a thousand MMPVs in the next five – seven years, forming 12 combat engineer companies. Some of the units will be embedded with Brigade Combat Teams (BCT), support brigades and division corps headquarters while others will form engineer force pools.

    MMPV will be designed as blast protected wheeled vehicle, assuring the FEF full mobility in ‘explosive hazardous’ environments, also operating in route and area clearance operations, deactivating IEDs and other explosive hazards. In contrast to the MRAP designed by the US Marine Corps as an urgent requirement, fulfilled by multiple producers, in different models – the Army MMPV program will be awarded to a single contractor scheduled to provide at least 1,030 field-proven blast protected armored vehicles.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Vehicle Armoring – MRAP and Beyond

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    In July 2007, U.S. Defense Secretary Robert M. Gates asked Congress for approval to transfer nearly $1.2 billion to the Pentagon’s Mine Resistant Ambush Protected (MRAP) program to procure an additional 2,650 vehicles. SInce then, the program further evolved and is now about to include some over 15,000 vehicles. With an estimated budget of over $25 billion, MRAP is positioned to become the Defense Department’s third-largest acquisition program, behind only the missile defense and Joint Strike Fighter programs. Is it the right choice? When will the money come from? What will the military do with these vehicles as the current conflict wind down? This article does not have the answers, but reading through the lines, one realizes there are many open questions, and only few answers.

    Vehicle Armoring

    There are basic elements linking key elements in planning war machines – mobility, firepower and protection. One does not go without the other. Through trial and error, military designers learned to balance between the three, creating highly effective, efficient machines that won the trust of the soldiers while spreading fear and terror among their opponents. However, sensitive and highly dangerous vulnerability gaps emerge wherever this balance is tipped.

    This, in a nutshell, is the motivation behind armoring a soldier or a vehicle – applying sufficient armor for optimal protection, without jeopardizing mobility, situational awareness and firepower. As armor is always heavy, there will always be demand for better protection ‘somewhere’, but maximizing protection under any circumstances is the wrong approach- it has its price.

    Asymmetric warfare that has emerged since the second half of the 20th century, challenged the military to adapt doctrines and means to fight a protracted war. In past conflicts, there were clear definitions between ‘front line’ elements, which were normally better protected, particularly in the frontal area facing the enemy, while rear echelons, which were not armored at all, since they rarely had to engage in severe fighting and then, using only weapons for self defense. Modern asymmetrical warfare has emphazised the fluid battlespace, and since insurgents might appear everywhere, this type of warfare requires a different approach to enhance survivability. Operation Iraqi Freedom highlights this trend. During the first phase, US and coalition armies used weapon systems designed for high intensity warfare, offering mobility over any terrain with high level of protection and strong firepower. Yet, the same units were also assigned for the follow-on security and sustainment phase, which, initially required only civic, logistical supply and support activities using unarmored vehicles (like HMMWVs and trucks).

    Unprotected vehicles rapidly became easy prey to irregular insurgent ambush attacks first from firearms and later, improvised explosive devices (IEDs). Every success boosted the insurgent’s moral, encouraging them to be more sophisticated and daring, while the coalition troops turned defensive, applying makeshift armor to the unprotected vehicles. At the beginning, the Coalition deliberately tried to avoid throwing in their heavy armor, in an attempt to de-escalate the situation and maintain ‘low signature’ presence in the city streets. However, suffering mounting casualties, the rag-tag makeshift armor had to be replaced by more standardized up-armoring kits installed in-theater by the support teams or back at the depots in Kuwait. The armor kits provided reasonable protection against small arms but, as proven by the mounting casualties, were totally inadequate against the growing IED threat.

    During this period the Army increased the procurement of ad-on armor for HMMWVs, and purchased thousands of new armored HMMWVs, installed protected cabins for trucks, and bought over a hundreds of new Armored Security Vehicles (ASV), for convoy escort security and routine patrols. Other efforts were made to protect troops during transit and transport, as well as at checkpoints and guard posts. Armor improvements were provided to Bradley tracked armored vehicles applying reactive armor kits and counter IED appliqués, while slat armor was installed on the Strykers to augment their protection against deadly RPGs. Even the heavily armored Abrams tanks received new armor upgrades, as part of the Tank Urban Survival Kit (TUSK), enhancing their protection beyond the frontal arc, into an all-round armor suit meeting various threats encountered in typical urban area combat.

    Additional parts of “Vehicle Armoring – MRAP and Beyond” article:

    Golan Wheeled Armored Vehicle

    Responding to the need for wheeled armored vehicles for use in asymmetric warfare, RAFAEL developed the Zeev (Wolf) armored utility vehicle. More recently, RAFAEL teamed with US based PVI and the Merkava program Office (Mantak), to develop the Golan Heavy Wheeled Armored vehicle. This 15 ton armored, wheeled troop carrier is configured to accommodate 10 troops in a highly protected environment. Golan has been proposed for the IDF and USMC. Testing of the vehicle began in September 2006. In January 2007 Golan was selected, along with nine other candidates, to compete for the Joint US Marines/NavyArmy Mine Resistant Ambush Protected (MRAP) Program. PVI is leading the team for the MRAP opportunity while RAFAEL is in the lead for Israeli and other overseas sales. On February 23, 2007 the USMC awarded PVI a first order for 60 low rate initial production vehicles, representing the first order for Golan vehicles.

    The vehicle uses an armored monocoque structure. The integrity of this structure provides the strength to absorb the deformations generated by mines and IED blasts. The V shaped hull has a “floating floor” panel to mitigate the blast effects of mines. It thereby provides an optimal solution to protect the crew and vehicle against the identified threats. The vehicle has an effective armor suite to defeat small arms and RPG threats, medium size IED’s, 7 kg mines under belly and 14 kg under wheels. The spall liner was eliminated, assuming the efficiency of external armor to prevent hull penetration by most threats.

    Unlike vehicles utilizing off-the-shelf commercial chassis, the Golan does not have a chassis at all. Instead, the 4×4 automotive system axles, and suspensions link directly to the armored structure, which acts as a frame. This approach is similar to that used with tracked APCs and tanks. It retains good off-road mobility, and is particularly suitable for operations in dense urban terrain.

    This approach enables the designers to dedicate 50% of the vehicle’s weight to protection, providing effective protection from IEDs, land mines and small arms. The vehicle will be produced in three protection levels. The intermediate level provides protection from small arms, up to 14.5 mm AP and 20mm, and effective roof protection. The passive armor utilizes a combination of protection technologies including metals, composites, slat and transparent armor. The maximum protection level includes reactive modular armor tiles while the medium and light levels are based on passive modular armor. Protection from anti-tank rockets (Such as RPGs) can be provided by appliqué reactive armor modules or an active protection system which are “plug-in” add-ons to the basic design. Other “plug-ins” include counter IED and counter sniper systems. The add-on reactive armor system utilizes the Insensitive Explosive Reactive Armor (I-ERA) tiles installed on the side walls. The I-ERA is based on the same technology provided for the US Bradley Infantry Fighting Vehicle. The reactive (I-ERA) add-on armor is an insensitive explosive known as Low Burn Rate (LBR) or Low Flammability (LF2) that was approved by both the Israeli Defense Force and the US Army.

    All three protection level configurations present the same physical silhouette. In the light and medium level configurations, there are no reactive armor tiles attached to the outer crew compartment structure. In their place, passive armor tiles (that include storage boxes) with an identical outer shape are attached.

    The vehicle can be equipped with remotely controlled weapon station mounting a machine gun, and optronic equipment, as well as the gunshot detection system.

    September 2007: The Golan was displayed here at DSEi 2007, equipped with a new lightweight version of the Trophy active protection system and the ‘Samson Junior’, a lightweight weapon station designed specifically for light automatic weapons (7.62 and 5.56mm). The vehicle was also fitted with an acoustic gunshot locator, utilizing RAFAEL’s SADS system. It will also be able to employ the company’s Spotlite M – electro-optically based threat locator which can serve as a gunshot locator, and threat alerting system, as it can detecting launch sources and approaching RPGs.

    The Golan with Trophy Light APS at DSEi 2007. Photo: Tamir Eshel, Defense-Update

     

    AeroVironment Launches Global Observer Program for the US Special Operations Command

    AeroVironment, Inc. (AV) (NASDAQ:AVAV) will develop and build a hydrogen-powered high altitude, long endurance (HALE) unmanned aerial systems for the US Special Operations Command (USSOCOM). The $57 million contract is calling for ‘development and military utility assessment’ initiates a Joint Capabilities Technology Demonstration (JCTD) sponsored by multiple other government organizations, Multiple government organizations are sponsoring the JCTD program, reflecting broad interest in its potential capabilities for military applications. The contract includes options for the development and delivery of two additional Global Observer aircraft and one more ground station, resulting in a potential contract value of $108 million. The work is scheduled to conclude by April 2011.


    Under the contract AeroVironment will develop and build up to three Global Observer aircraft over the next three years to demonstrate the ability to operate in the stratosphere for up to seven days without landing. The program is intended to demonstrate the tactical utility of a hydrogen-powered UAS for long duration (five to seven day) missions at altitudes from 55,000 to 65,000 feet. A system consisting of two or three aircraft will provide continuous ISR or communications relay over an area of interest.

    Tim Conver, chairman and chief executive officer of AV Considers the new platform to introduce a brand new value proposition – affordable persistence in the stratosphere. “We believe that Global Observer represents a game-changing new capability for defense, homeland security and, ultimately, commercial applications,” commented Conver. “We have developed the unique sub-systems necessary to enable this new category of aircraft.”

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    TADTE 2025: Reflecting Taiwan’s Strategic Themes

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