Matador Rocket Launcher

MATADOR (Man-portable Anti-Tank, Anti-DOoR) is a 90 mm (3.5 in) man-portable, disposable anti-armor weapon system developed in collaboration between Singapore and Israel. It is an updated version of the German Armbrust design, and operates on the same principles. The development of this weapon began in 2000 and the MATADOR will eventually replace the German-Singaporean Armbrust Light Anti-tank Weapon which has been in service since the 1980s.

The MATADOR was developed jointly by the Singapore Armed Forces (SAF) and the Defence Science and Technology Agency (DSTA), in collaboration with Rafael Advanced Defense Systems and Dynamit Nobel Defence (DND) joint team. The MATADOR is among the lightest in its class. The warhead is effective against both vehicle armor and brick walls. The weapon has little backblast, making it safe for operation in confined spaces.

The MATADOR is supposed to be capable of defeating the armor of most known armored personnel carriers and light tanks in the world. The dual-capability warhead, when acting in the delay mode, creates an opening greater than 450 mm (18 in) in diameter in a double brickwall, and acting as an anti-personnel weapon against those behind the wall, offering an unconventional means of entry when fighting in built-up areas.

The MATADOR’s projectile is claimed to be insensitive to wind due to its propulsion system which results in a highly accurate weapon system. The warhead can be used in both High Explosive Anti-Tank (HEAT) and High Explosive Squash Head (HESH) modes against armor and walls and other fortifications respectively. Selection is done by extending a “probe” (most likely a fuse extender) for HEAT mode and leaving the “probe” retracted for HESH mode.

Similar to the Armbrust, the countermass counteracts the recoil of the weapon upon firing. The countermass consists of shredded plastic which is projected out of the rear of the weapon when it is fired. This plastic is rapidly slowed by air resistance allowing the weapon to be fired safely within an enclosed space. In addition, the positioning of the countermass takes into consideration the centre of gravity of the weapon to ensure good balance for greater accuracy.

Further variants of MATADOR have also been developed by Rafael and Dynamit Nobel, designed primarily for anti-structure use by soldiers operating in dense urban environments.

MATADOR-MP: Multi-purpose weapon with a warhead effective against a wide variety of ground targets, from light armored vehicles to fortified positions and urban walls. As with the initial MATADOR,

this is achieved with a dual-mode fuze, which has been improved on the MATADOR-MP such that it now automatically discriminates between hard and soft targets rather than requiring the operator to manually make the selection. A dedicated targeting device, mounted on its Picatinny rail, incorporates a reflex sight and laser rangefinder to provide a high hit probability.

MATADOR-WB: Specialized wall-breaching weapon, featuring an Explosively-formed Ring (EFR) warhead that breaches a man-sized hole, between 75 cm (30 in) to 100 cm (39 in) across, in typical
urban walls.

MATADOR-AS: Anti-structure weapon with an advanced tandem warhead that can also be set between two modes. The anti-emplacement mode uses an enhanced blast effect to defeat structures and fortifications, while the penetrating/mouse-holing mode defeats light armored vehicles and creates mouseholes in urban walls. MATADOR-AS has been ordered by the British Army, and is slated for service entry in 2009! The MATADOR saw its first combat deployment in January 2009, by Israeli Defence Force soldiers during Operation Cast Lead in the Gaza Strip. MATADOR-WB in particular was used to breach walls in structures, allowing IDF troops to pass through and attack opponents inside.

Specifications

Weight: 8.9 kg (19 lb 10 oz)
Length: 1 m (3 ft 3 in)
Caliber: 90 mm (3.5 in)
Muzzle velocity: 250 m/s (820 ft/s)
Effective range: 500 m (1,600 ft)
Feed system: Disposable
Sights: Integral optical sights; Night Vision Device on a Picatinny rail

Boeing X-37


The Boeing X-37 (also known as the X-37 Orbital Test Vehicle) is an American reusable unmanned spacecraft which is boosted into space by a rocket, then re-enters Earth’s atmosphere and lands as a spaceplane. The X-37 is operated by the United States Air Force for orbital spaceflight missions intended to demonstrate reusable space technologies. It is a 120%-scaled derived of the earlier Boeing X-40.

The X-37 began as a NASA project in 1999, before being reassigned to the U.S. Department of Defense in 2004. It conducted its first flight as a drop test on 7 April 2006, at Edwards Air Force Base, California. The spaceplane’s first orbital mission, USA-212, was launched on 22 April 2010 using an Atlas V rocket. Its successful return to Earth on 3 December 2010 was the first test of the vehicle’s heat shield and hypersonic aerodynamic handling. A second X-37 was launched on 5 March 2011, with the mission designation USA-226; it returned to Earth on 16 June 2012. A third X-37 mission, USA-240, was launched successfully on 11 December 2012.

In 1999, NASA preferred Boeing Integrated Defense Systems to design and develop an orbital vehicle, built by the California branch of Boeing’s Phantom Works. Over a four-year period, a total of $192 million was contributed to the project, with NASA contributing $109 million, the U.S. Air Force $16 million, and Boeing $67 million. In late 2002, a new $301-million contract was awarded to Boeing as part of NASA’s Space Launch Initiative framework.

The X-37 was at first designed to be carried into orbit in the Space Shuttle’s cargo bay, but underwent redesign for launch on a Delta IV or comparable rocket after it was determined that a shuttle flight would be uneconomical. The X-37′s aerodynamic design was derived from the Space Shuttle, therefore the X-37 has a parallel lift-to-drag ratio, and a lower cross range at higher altitudes and Mach numbers compared to DARPA’s Hypersonic Technology Vehicle.

As part of its mission goals, the X-37 was designed to meet with friendly satellites to refill them, or to replace failed solar arrays using a robotic arm. Its payload could also support Space Control (Defensive Counter-Space, Offensive Counter-Space), Force Enhancement and Force Application systems. An early requirement for the spacecraft called for a delta-v of 7,000 mph (3.1 km/s) to change its orbit.

Among the technologies demonstrated in the X-37 include an improved thermal protection system, enhanced avionics, an autonomous guidance system and an advanced airframe. The spaceplane’s thermal protection system is built upon previous generations of atmospheric reentry spacecraft, incorporating silica ceramic tiles. The X-37′s avionics suite was used by Boeing to develop itsCST-100 manned spacecraft. According to NASA, the development of the X-37 will “aid in the design and development of NASA’s Orbital Space Plane, designed to provide a crew rescue and crew transport capability to and from the International Space Station”.

The X-37 is independently powered by one Aerojet AR2-3 engine using storable propellants, providing thrust of 6,600 pounds-force (29.341 kN). The human-rated AR2-3 engine had been used on the dual-power NF-104A astronaut training vehicle, and was given a new flight certification for use on the X-37 with hydrogen peroxide/JP-8 propellants.

The X-37 lands automatically upon returning from orbit, and is the second reusable spacecraft to have such a capability, after the Soviet Buran shuttle. The X-37 is the smallest and lightest orbital spaceplane flown to date; it is approximately a quarter the size of the Space Shuttle orbiter.

The X-37A was the initial NASA version of the spacecraft; the X-37A Approach and Landing Test Vehicle (ALTV) was used in drop glide tests in 2005 and 2006. The X-37B is a modified version of the NASA X-37A, intended for the U.S. Air Force. It conducted orbital test missions in 2010, 2011 and 2012. In 2011, Boeing announced plans for a scaled-up variant of the X-37B, referring to the spacecraft as the X-37C. The X-37C would be between 165% and 180% larger than the X-37B, allowing it to transport up to six astronauts inside a pressurized compartment housed in the cargo bay. Its proposed launch vehicle is the Atlas V Evolved Expendable Launch Vehicle. The X-37C may compete with Boeing’s CST-100 commercial space capsule.

Specifications

Crew: None
Length: 29 ft 3 in (8.9 m)
Wingspan: 14 ft 11 in (4.5 m)
Height: 9 ft 6 in (2.9 m)
Loaded weight: 11,000 lb (4,990 kg)
Powerplant: 1 × Aerojet AR2-3 rocket engine (hydrazine), 6,600 lbf (29.3 kN)
Power: Gallium arsenide solar cells with lithium-ion batteries
Payload bay: 7 ft × 4 ft (2.1 m × 1.2 m)
Orbital speed: 28,044 km/h (17,426 mph)
Orbit: Low Earth orbit
Orbital time: 270 days (design)

Amazing Unmanned Military Vehicles

Yeah, you read it right. Beside the vehicles that need human operation, there are amazing vehicles with technology that needs to human being to operate them. Here is the list of some advanced unmanned military vehicles.

1.MQ-9 Reaper/Predator B

The plane was developed by General Atomics Aeronautical Systems to satisfy what the American Airforces and Navy need. They already participated in several missions in Afghanistan, Iraq and Africa. Every Reaper can carry up to 14 Hellfire air to ground missiles, or 4 Hellfire missiles and 2 x 230 kg laser guided bombs.

2.Predator C “Avenger”

It is more advanced version of Predator B. It has improved electronics, some stealth solutions such as internal weapon storage and S-shaped exhaust for reducing thermal signature. It can carry the same types of armament as Predator B, but more of it. It is still in development phase and has not participated in military missions.

3.Boeing X-45

The Unmanned Combat Air Vehicle (UCAV) is a development of Phantom Works and manufactured by Boeing Integrated Defense Systems, built in 13 years ago. It is armed with 2 weapon bays (with 4 weapons in each) and is able to wear small bombs.

4. Northrop Grumman X-47B Pegasus

Following the Boeing’s X-45, Pegasus flew in 2011 for the first time. The vehicle has two weapon bays allowing bomb armament with 2,000kg weight.

5. Black Knight

This is not an American Project. The tank was developed by BAE Systems, and carries no soldiers on inside, but it houses many systems that allows him to make an obstacle avoiding route autonomously and giving some autonomous functions to the turret. Armed with 30mm cannon and a machine gun, this is probably the light tank of the future.

6. MQ-8 Fire Scout:

This is a remotely controlled helicopter created with the purpose to be a scout. However, it has a payload of 272kg and is able to perform small supplying missions or even carry weapons. A development of Northrop Grumman.

7. Protector

This belongs to a defense system. In fact, this is a 9 meter long stealthy and fast boat, armed with a Mini-Typhoon system that can be modified by attaching a .50caliber machine gun, a 40mm grenade launcher or a 7.62 machine gun.

8. Talon Swords

This is a mobile hand weapons platform that can travel through different terrains like mud, sand, snow, water and even climb stairs. It can be armed with several different weapons, including M16 rifle, 5.56mm SAW M249, 7.62mm M240 machine gun, .50 caliber M82 Barrett rifle, a six barreled 40mm grenade launcher or quad 66mm M202A1 FLASH incendiary weapon.

9.Carnegie Melon’s Crusher

The robot has a hybrid propulsion system, as the batteries allow it to run over a distance of several miles. Then a diesel engine is activated to recharge the batteries and to power the vehicle. The Crusher can carry up to 3600kg of cargo and has many cameras and detector devices.

10. MDARS – Mobile Detection Assessment and Response System

It was designed to be autonomous, unmanned patrol where needed. For that purpose, it is equipped with realtime obstacle avoidance systems, 360 degree sensors and many detector devices.

BMP-3

The BMP-3 is a Soviet amphibious infantry fighting vehicle, descendant to the BMP-1 and BMP-2. BMP stands for Boevaya Mashina Pehoty. The design of the BMP-3 or Obyekt 688M can be traced back to the Obyekt 685 light tank sample with 100mm gun 2A48-1 from 1975. This vehicle didn’t enter chain production but the armature, with a new engine, was used for the next-generation infantry combat vehicle Obyekt 688 from A. Blagonravov’s design bureau. The Ob. 688 weapons configuration, an externally-mounted 30 mm gun and twin Konkurs ATGM launcher was rejected; instead the new 2K23 armament system was chosen. The resulting BMP-3 was developed in the early 1980s and entered service with the Soviet Army officially in 1987. It was exposed for the first time in public during the 1990 May Day parade and was given the NATO code IFV M1990/1.

The BMP-3 is designed and produced by the Kurganmashzavod (“Kurgan Machine Building Plant”) some variants however are build by the Rubtsovsk Machine Building Plant (RMZ), for example the BRM-3K. The BMP-3 is one of the most greatly armed infantry combat vehicles in service, fitted with a low-velocity 2A70 100mm rifled gun, which can fire predictable shells or 9M117 ATGMs, a 2A72 30mm dual feed autocannon with 500 rounds and a rate of fire of 350 to 400 RPM, and a 7.62mm PKT machine gun with 2,000 rounds, all mounted coaxially in the turret. The main gun elevates from −5° to +60°. There are also two 7.62mm PKT bow machine guns, again with 2,000 rounds each. The BMP-3 is accomplished of engaging targets out to 5,000–6,000 meters with its ATGM weapon system 9K116-3 “Basnya”. The minimum engagement distance, flight time and vulnerability of launcher are typical of command-guided, rather than fire-and-forget, ATGM systems. With predictable ammunition, such as the HE-Frag shell 3OF32, the 2A70 gun has a range of 4,000 meters.

The turret is fitted with the 2K23 system which comprises of an automatic loader with 22 rounds, a ballistic computer 1V539, a cross-wind sensor, a 2E52-2 stabilising system, the 1D16-3 laser range finder, the 1K13-2 gunner’s sight/guidance device, the PPB-1 gunner’s sight and an OU-5-1 IR search light. The commander has a combined optical sight 1PZ-10, a day/night vision device TKN-3MB and an IR search light OU-3GA2. Since 2005, the BMP-3 can be fitted with a new fire control system from “Peleng” Joint Stock Company from Belarus. This consists of the SOZH-M gunner’s main sight with included laser range-finder and missile-guidance channel, the Vesna-K targeting system with thermal imaging camera and automatic target tracker AST-B, an armament stabilisation system, a ballistic computer with data input sensors and a PL-1 IR laser projector.

Standard equipment includes five firing ports with associated vision blocks, a transceiver R-173, a receiver R-173P, a GO-27 radiation and chemical agent detector, an FVU filtration system, an automatic fire extinguisher and six smoke grenade launchers 81mm 902V “Tucha-2″. The vehicle has an unconventional layout. The engine is in the back of the vehicle to the right. As a result the driver is seated forward in the hull (in the center) together with two infantrymen. The vehicle has a double bottom and the engine is located under the floor of the vehicle. In an attempt to improve battlefield survivability the fuel tanks are also located in the floor of the vehicle. The remaining five infantrymen are seated aft of the two man turret.

The hull and turret are made of aluminium, with the front being provided with a layer of spaced armor. Over the frontal 60 degree arc the vehicle is protected against 30 mm armor-piercing rounds of 2A42 gun at a range of 300 m. In an effort to improve battlefield survivability the fuel tanks are also located in the floor of the vehicle. The BMP-3 can lay its own smoke screen by injecting fuel into the exhaust. A chemical agent detector, an FVU filtration system, an automatic fire extinguisher and six smoke grenade launchers 81mm 902V “Tucha-2″ are standard.

An ERA reactive armor kit is currently available providing increased protection, however, using ERA on an IFV is considered knotty by some experts since in the event of the malfunction of the ERA, it can possibly pose a risk to friendly troops located in the surrounding area of the vehicle. The BMP-3 has also an ability to carry Shtora electro-optical jammer that disrupts semiautomatic command to line of sight (SACLOS) antitank guided missiles, laser rangefinders and target designators. Shtora is a soft-kill, or passive-countermeasure system.

For more details you must refer to Steven Zaloga’s book, BMP Infantry Fighting Vehicle. This richly illustrated book examines the development and design of the BMP, detailing its armaments, performance in combat and variants.

Specifications

Weight: 18.7 tonnes (18.4 long tons; 20.6 short tons)
Length: 7.14 m (23 ft 5 in)
Width: 3.2 m (10 ft 6 in)
Height: 2.4 m (7 ft 10 in)
Crew: 3 (commander, gunner, driver); 7 troopers (+ 2 additional seats)
Armor: 35 mm (1.4 in) max. Frontal armor (est.)
Main armament: 100 mm gun/launcher 2A70 (able to fire shells or the AT-10 ATGM), 30 mm autocannon 2A72
Secondary armament: 2×7.62 mm PKT machine guns, 1×5.45mm machine gun, 1x40mm grenade launcher
Engine: UTD-29M diesel; 500 hp (375 kW)
Power/ weight: 27 hp/tone
Operational range: 600 km (370 mi)
Speed: 72 km/h (45 mph) (road); 45 km/h (28 mph) (off-road); 10 km/h (6.2 mph) (water)

Black Prince tank A43

Tank, Infantry, Black Prince (A43) was the name given to a tentative development of the Churchill tank with a better, wider hull and a QF 17-pounder (76 mm) gun. It was named after Edward, the Black Prince who was a famous 14th century military leader.

As an improvement from the Churchill, the Black Prince was a prolongation of the line of Infantry tanks, that is slower, heavier tanks planned to maneuver in close hold up of infantry. The similar improvement in British tank design was the Cruiser tanks, which were planned for additional mobile operations. A43 was the General Staff Specification number issued in 1943, for a temporary tank that would ultimately be superseded by a “Universal tank” that would replace both Infantry and Cruiser tanks.

The cruiser line led to the Cromwell tank (and the 17 pounder armed Challenger variant) and then the Comet tank, (which had a variant of the 17 pounder gun) entering service during the war. While not as heavily cosseted as the Churchill, the Comet showed the way tank development was going. This led to the last of the cruiser line and the first of the Universal tanks, the very flourishing Centurion tank.

A larger gun than a usual Churchill required a larger turret on a wider turret ring and therefore a widening of the tank hull to carry this. The Black Prince weighed around ten tons more than the Churchill so the suspension was modified and the tracks widened by 10 inches to carry the extra load. However, the Churchill’s 350-horsepower (260 kW) engine was preserved, leading to the tank being underpowered and slow, with utmost speeds of 10.5 mph (16.9 km/h) on roads and 7.5 mph (12.1 km/h) cross country. This was so slow that the tank’s tactical worth would have been restricted. Consideration was given to the use of the Rolls-Royce Meteor engine; this would have increased the available power to 600 hp (450 kW), but the idea never left the drawing–board. Likewise, plans to fit the Black Prince with the turret from the Centurion were never carried out.

By the time the Black Prince prototypes had appeared in May 1945, the Sherman Firefly had attained an established combat record, the Comet tank was in service and the beginning of Centurion was about to happen. All these tanks carried the QF 17-pounder or a derivative; all had better mobility than the Black Prince and the Centurion had frontal armor of comparable effectiveness. The Black Prince had become superfluous and the project was dumped.

The Black Prince marked the end of the development of the Churchill tank, and the end of the Infantry tank concept in British tank design. The only surviving Black Prince tank is held by the Bovington Tank Museum in Bovington, UK; it is the fourth of the six prototypes that were built. It has recently been restored to running condition.

Get more insight into this tank from Mark Bannerman’s book, Modelling the Churchill Tank. Mark Bannerman is a finance manager with the Department of Education, Canada, and lives with his wife Elizabeth in Halifax. He has been modelling for over ten years, with a special interest in modelling

armour and painting figures. He also enjoys the theatre, sailing, and travelling, and is an avid collector of music and antiques. Get the book here!

Specifications

Place of origin: United Kingdom
Designer: Vauxhall Motors
Numbers built: 6 prototypes
Weight: 50 long tons (51 t)
Length: 28 ft 11 in (8.81 m)
Width: 11 ft 3.5 in (3.442 m)
Height: 9 ft (2.7 m)
Crew: 5 (Commander, gunner, loader, driver, co-driver/hull gunner)
Armor: 152 mm (6.0 in)
Main armament: QF 17 pdr with 89 rounds
Secondary armament: 2 x 7.92 mm Besa machine guns
Engine: Bedford Type 120 horizontally opposed 12-cylinder
350 hp (260 kW)
Power: 7 hp/ton
Suspension: sprung bogie
Operational range: ~ 100 miles (160 km)
Speed: 10.5 mph (16.9 km/h) on road; 7.5 mph (12.1 km/h) off road

The Polish AHS Krab

The AHS Krab is a self-propelled howitzer designed to a NATO-friendly standard for the Polish Army. As an indigenous product, the Krab relies on proven components borrowed from the PT-91 Twardy Main Battle Tank (a highly modified Russian T-72) and features a turret based on the British AS-90 Braveheart self-propelled gun series as well as a barrel from French-based Nexter. Design work on the vehicle began in 2000 and gas been ongoing since, producing atleast three prototypes as of this writing, the first being completed in 2008.

The self-propelled gun or self-propelled artillery system has long held a place in a war and systems such as the American M109 Paladin, the British AS-90 Braveheart and the German Panzerhaubitze 2000 carry the tradition of long range barrage support to further offensive ground actions at distance.

Design of the AHS Krab centers around its 155mm main gun barrel which was completed by CPWHSW. The barrels were then installed into AS-90 turrets as supplied by the British concern of BAe Systems. Firing trials were undertaking in 2011. To date, the Polish Army is intending to build up an inventory of seventy-two Krab gun systems divided into three 24-strong squadrons. As can be expected with technologically-heavy programs such as the Krab, development has been costly and rather ponderous but all current details point to the Krab as being a formidable battlefield system when completed.

The AHS Krab exhibits a completely conventional design though no less intimidating compared to her contemporaries. The design is essentially a turret mounting a large caliber main gun with a tracked chassis. There are seven road wheels to a track side with the drive sprocket at the front and the track idler at the rear. The road wheels are lifted from the PT-91 Twardy Main Battle tank of the Polish Army. The glacis plate is well-formed and sloped to the hull roof line for basic ballistics protection. The sides of the hull are vertical with the hull roof being completely horizontal. The driver is situated in the front left hull with the powerpack to his right while the turret is set to the rear of the hull roof with full 360 degree traverse. The turret showcases well-sloped facings and, along its forward plate, sports the heavy duty gun mount and recoil mechanism to manage the 155mm main gun barrel. The gunnery crew and vehicle commander take their place in the turret which features a flat roof and rounded access hatches. Storage compartments are fitted to the turret sides while pioneer tools can be affixed to the hull roof and sides. The upper track sections are lightly protected over in armor skirts. There is a travel lock at the extreme front edge of the glacis plate for containing the main gun during travel. The crew of five consists of the driver, vehicle commander, gunner and two ammunition handlers. NBC (Nuclear, Biological, Chemical) protection is standard as is night-vision equipment.

The Krab is to be powered by an S-12U diesel engine of 850 horsepower. Maximum speed is listed at 37 miles per hour with an average road speed of up to 20 miles per hour in ideal conditions. The Krab weighs in at 115,000lbs and sports a running length of over 38 feet with a width in excess of 11 feet and a height to the turret roof of 12.5 feet.

Primary armament of the Krab is its 155mm/52 caliber, twin-baffle main gun barrel that is designed to fire all manner of NATO-cleared projectiles. Sustained rates of fire are approximately 18 rounds in three minutes. Range of the 155mm main gun is just under 20 miles while assisted projectiles can reach out to 25 miles which put her on par with her contemporaries. There is a 60-round storage capacity for the 155mm ammunition throughout the turret and hull. There are two banks of four electrically-operated 81mm smoke grenade dischargers to either side of the main gun mount on the turret.

M4 Sherman

The M4 Sherman, officially known as Medium Tank, M4, was the most important tank used by the United States during World War II. Thousands were also circulated to the Allies, including the British Commonwealth and the Soviet Union, via lend-lease. In the United Kingdom, the M4 was named after Union General William Tecumseh Sherman, following the British practice of naming their American-built tanks after famous American Civil War generals. Afterward, the British name found its way into regular use in the U.S.

The Sherman developed from the Grant and Lee medium tanks, which had an extraordinary side-sponson mounted 75 mm gun. It preserved much of the preceding perfunctory design, but added the first American main 75 mm gun mounted on a fully navigating turret, with a gyrostabilizer allowing the crew to fire with sensible precision while the tank was on the stir. The designers frazzled mechanical dependability, easiness of manufacture and upholding, toughness, consistency of parts and ammunition in a restricted number of variants, and modest size and weight. These features made the Sherman advanced in some regards to the earlier German light and medium tanks of 1939-41. The Sherman ended up being created in large numbers and formed the backbone of most Allied offensives, starting in late 1942.

The original Shermans were able to crush the relatively small German tanks such as the Panzer III and IV they faced when first deployed in North Africa. Later, they found themselves more consistently harmonized against the newer up-gunned and up-armored Pz.Kpfw. IV medium tanks. Shermans were often outmatched by the 45 ton Panther tank and completely insufficient against the 56 ton Tiger I and later 72 ton Tiger II heavy tanks, suffering high casualties against their heavier armor and more dominant 88 mm L/56 and L/71 cannons. Mobility, mechanical dependability and sheer numbers, supported by growing dominance in supporting fighter-bombers and artillery, helped counterbalance these shortcomings purposefully.

Production of the Sherman was favored by the commander of the Armored Ground Forces, albeit controversially, over the heavier M26 Pershing, which resulted in the latter being deployed too late to play any significant role in the war. In the Pacific Theater, the Sherman was used mainly against Japanese infantry and fortifications; in its rare encounters with much lighter Japanese tanks with weaker armor and guns, the Sherman’s dominance was vast. Production of the M4 exceeded 50,000 units, and its chassis also served as the basis for numerous other armored vehicles such as tank destroyers, tank retrievers, and self-propelled artillery. Only the Soviet T-34 tank was produced in larger numbers during World War II.

The Sherman relented to post-war tanks developed from the M26. Various unique and restructured versions of the Sherman prolonged to see combat successfully in many later conflicts, including the Korean War, Arab-Israeli Wars, and Indo-Pakistani War into the late 20th century.

The U.S. Army Ordnance Department designed the Medium Tank M4 as a substitute for the M3 Lee and Grant Medium Tanks. The M3 was an up-gunned development of the M2 Medium Tank of 1939, itself derived from the M2 Light Tank of 1935. The M3 was developed as a temporary solution until a new turret mounting a 75 mm gun could be devised. While it was a large development when tried by the British in Africa against early German panzers, the placement of a 37 mm gun turret on top gave it a very high profile, and the unusual inflexible side-sponson mounted main gun could not be aimed across the other side of the tank.

Detailed design characteristics for the M4 were submitted by the Ordnance Department on 31 August 1940, but development of a prototype had to be deferred while the final production designs of the M3 were finished and the M3 entered full-scale production. On 18 April 1941, the U.S. Armored Force Board opted for the simplest of five designs. Known as the T6, the design was a customized M3 hull and chassis, carrying a newly designed turret mounting the Lee’s main gun which became the Sherman.

The T6 prototype was completed 2 September 1941. Unlike later M4s, the hull was cast and had a side hatch, which was eradicated from production models. The T6 was standardized as the M4 and production began in October. During World War II, approximately 19,247 Shermans were issued to the US Army and about 1,114 to the US Marine Corps. The U.S. also supplied 17,184 to Great Britain (some of which went to the Canadians and the Free Poles); while the Soviet Union received 4,102 and an estimated 812 were transferred to China. These numbers were distributed further to the respective countries’ allied nations.

The U.S. Marine Corps used the diesel M4A2 and gasoline-powered M4A3 in the Pacific. However, the Chief of the Army’s Armored Force, Lt. Gen. Jacob L. Devers, ordered no diesel-engine Shermans be used by the Army outside the Zone of Interior (the continental U.S.). The Army used all types for either training or testing within the United States, but intended the M4A2 and M4A4 (with the A57 Multibank engine) to be the primary Lend-Lease exports. For more details refer to David Fletcher’s Sherman Crab Flail Tank. In this book, David Fletcher relates the story of the Sherman Crab Flail using rare sources and photographs. Among the first tanks ashore on D-Day, the “Crab” proved its worth both in its mine-clearing role and as a fighting machine. Get the book here!

Specifications

Numbers built: 49,234
Weight: 66,800 pounds (30.3 tonnes; 29.8 long tons; 33.4 short tons)
Length: 19 ft 2 in (5.84 m)
Width: 8 ft 7 in (2.62 m)
Height: 9 ft (2.74 m)
Crew: 5 (Commander, gunner, loader, driver, co-driver)
Armor: 76 mm maximum
Main armament: 75 mm M3 L/40 gun (90 rounds) or 76 mm gun M1 (55 rounds)
Secondary armament: .50 cal Browning M2HB machine gun (300 rounds), 2 × .30-06 Browning M1919A4machine guns (4,750 rounds)
Operational range: 120 miles (193 km) at 175 U.S. gal (660 L); 80 octanes
Speed: 25 to 30 mph (40 to 48 km/h)

Military Vehicles from Mercedes Benz

With more than 200 standard and custom-built solutions models, including vans, extreme off-roaders, heavy-duty trucks, you can rest assured that Mercedes Benz has the perfect vehicle solution to meet your logistical and tactical requirements.

Mercedes Benz military vehicles are developed using the most modern resources and comprehensive data derived from extreme global operations. Here are the outstanding features which no other manufacturer offers:

1. Full line military programme (o.5t and 100t military payload) for a broad range of missions.
2. All wheel drive, differential locks and high torque engines for extreme conditions and terrains
3. Advanced vehicle technologies (focusing on lifecycle costs)
4. Logistic Support Analysis (LSA)
5. Integrated Logistic Support (ILS)
6. Worldwide logistic field service experience
7. Financial services (financing, leasing, fleet management and more)

MB Cross Country Vehicle:

G-Wagon models offer two wheelbases and payload capacities from 0.7t up to 2t. The power comes from a 2.8L five cylinder turbocharged intercooled diesel engine producing 130kW (190hp) 370Nm. The off-road capability is supported by an automatic transmission and a two shaft transfer case plus 100%locking differentials on both axles.

MB Military Van Range:

The Vito is available with a payload capacity up to 1.1t and is powered by two engines producing 80kW (109hp) 290Nm and 110kW (150hp) 330Nm.

Sprinter models have a payload capacity from 1t to 2.7t and are powered by three engines producing 80kW (102hp) 109Nm to 135kW (184hp) 400Nm.

The Vario 4×4 boasts a climbing ability of up to 73% and an outstanding payload capacity from 2.5t to 4.2t when considering its GVW of 7.5t. the power comes from three engines producing 95kW (129hp) 520Nm to 130kW (177hp) 675Nm.

MB Military Truck Range:

Atego, the light weight, medium duty truck range, offers a GVW range from 10t to 15t. Power comes from four inline engines producing 130kW (177hp) 675Nm up to 210kW (286hp) 1,120Nm, which can move 3t to 5t payloads effortlessly. It is also available as a two axle, all wheel drive truck.

Axor, the semi-heavy duty vehicle offers a GVW of 18t. Power comes from four inline engines producing 175kW (238hp) 850Nm up to 240kW (326hp) 1,300Nm which transport 5t to 7t payloads.

Actros is the heavy duty truck range with a GVW up to 41t. It is available with a range of powerful V6 and V8 engines, which offer various output versions from 235kW (320hp) up to 375kW (510hp) with maximum torque of 2400Nm.

Zetros, the medium and heavy duty truck range with a GVW up to 27t, offer two axle variations: 4×4 and 6×6. Its payload capacities range from 4t up to 10t. Power comes from a V6 engine which offers an output of 240kW (326hp) producing 1300Nm.

MB Extreme Offroader:

The Unimog, with its unsurpassed off-road capability, offers three 4×4 model variations with payloads from 1.5t to 7t. Portal axles and 100% differential locks give the Unimog its outstanding off-roadability. The Unimog U3000 to U5000 model range offers three engine output ratings, from engines producing 115kW (156hp) 610Nm to 160kW (218hp) 810Nm.

Mercedes Benz vehicles prove their economic efficiency, thanks to their reliability during on and off-road missions, and in everyday practical operations throughout the world.

RhinoRUNNER

RhinoRUNNER is an armoured bus manufactured by Armour Group. It provides safe transportation for personnel working in high-risk areas. The vehicle protects the occupants from small arms fire, armour piercing rounds, road-side bombs and improvised explosive device (IED) attacks. The bus was originally developed by Labock Technologies.

RhinoRUNNER is used for the transportation of civilian contractors, armed forces, VIPs and prisoners prosecuted by Iraqi Special Tribunal. It is regularly used to carry civilians and press personnel between Baghdad International Airport and the Green Zone in Baghdad. The US Army operating in Afghanistan and Iraq uses the RhinoRUNNER for the troop transportation between bases.

The US Secretary of Defence Donald Rumsfeld, General Richard Myers and Matthew Roloff are well-known VIPs who have used the RhinoRUNNER bus. The bus was also used to move Saddam Hussain for prosecution by the Iraqi Special Tribunal.

RhinoRUNNER bus design:

RhinoRUNNER was designed to deliver maximum protection using components of lowest possible weight and cost. The bus is made in various sizes with different purposes. The armoured hull is based on either a 4×4 or 6×6 all-wheel drive chassis. The bus integrates common off-the-shelf components to achieve reductions in lifecycle support costs.

The bus can be figured to house 19 to 40 passengers or a mobile command and control centre, or a mobile hospital. Passengers can enter and exit through side and back doors, as well as through a roof hatch. Gun ports on the vehicle allow the troops to fire their individual weapons from inside the vehicle. The bus is also equipped with dual air conditioning system and run-flat tyres.

Self protection and engine of the armoured bus:

The bus can protect occupants from small arms fire, armour piercing rounds, rockets, grenades, landmines and improvised explosive devices. The bus was extensively field tested to withstand bomb and IED threats. It is field proven to protect against improvised explosive devices and hand grenades.

Bullet proof glass and composite armour on the sides, front, back, roof and floor of the vehicle offer protection up to Type IV (NIJ standard). The special composite bullet proof armour is made of light weight materials.

RhinoRUNNER is also fitted with standard RhinoGLASS which offers superior protection. It was tested and certified by H.P. White Laboratories. The one way return fire glass prevents the penetration of bullets fired by the occupants from inside the vehicle. It offers protection of up to NIJ Level IV and can withstand extreme combat conditions of the Middle Eastern theatre.

RhinoRUNNER is powered by a 5.88L, six cylinder turbo diesel engine delivering a maximum power output of 240hp.

Altay MBT

Altay is one of the latest Main Battle Tanks currently in development. It is to become world’s most advanced combat platforms and considered to become the national pride as the first MBT designed in Turkish history. The Altay is expected to be introduced into operational service in 2015-2016, assuming it successfully passes it testing and evaluation of its automotive and technological systems. The Turkish government is planning to procure about 250 vehicles in early batch.

The Altay MBT program can compete with the modern systems of the world. Turkey maintains one of the world’s largest and most powerful militaries. Production is set to ensue out of the 1st Army Maintenance Center Command facility with each Altay system costing approximately $5.5 million USD. The Altay should favorably compare with other famous combat tank systems, like M1 Abrams, Merkava, Challenger II and Leopard 2.

This project was commissioned early in 2005. Then, the agreements were signed in 2007 and the design work of Altay started in 2008. Altay looks like South Korean tank designs. Otokar will the primary defense contractor, Roketsan will handle the armor development, MKE will be charge with development of the main gun and applicable systems and various other sub contractors for further development. The basic mock-up of Altay was first unveiled during the International Defense Industry Fair in mid 2011.

Outwardly, the Altay has a modern appearance with sharp lines all over. The turret and the hull will have a low profile design. There will be seven double-tired road wheels to a track side with drive sprocket at the rear and the track idler at the front. The engine will reside in a rear set compartment. Altay will have a longer hull and more armor when compared to the South Korean K2.

The Altay will field a 120mm smoothbore main gun in a 360 degree powered traversing turret allowing unfettered engagement of targets from any angle. The main gun will be digitally stabilized for firing on the move and the Aselsan/STM Volkan III modular fire control system will be computer assisted. The gun will sport a thermal sleeve and will have a fume extractor. A 7.62mm coaxial machine gun will be fitted next to the main gun and a 12.7mm heavy machine gun is intended to counter threats from light armored vehicles and low flying aircrafts. Smoke grenade dischargers will be featured in twin banks of four along the turret sides.

The crew consists of a driver in the front right hull and the tank commander, gunner and loader in the turret. The vehicle will support a weight of 66 tons. The Altay will have standard MBT fixtures like, integrated NBC( Nuclear, Biological, Chemical) system, laser range finders, night vision and thermal imaging.

The multi-fuel diesel engine is of 1,800 horsepower. Top speed is estimated to be 43 miles per hour.

The name Altay has multiple origins. It comes from the Turkish Army General Fahrettin Altay who commanded during the Turkish War of Independence (1919-1923). The name Altai itself comes from the Altai Mountains of Central Asia, the ancestral homeland of the Turkish people. Translation of Altay becomes Red Pony in reference to the mounts of their early warriors.

Specifications:

Manufacturer: Otokar/Aseslan/Roketsan – Turkey; ROTEM – South Korea
Initial Year of Service: 2015
Focus Model: Altay MBT
Crew – 4
Weight: 72.8 US Short Tons (66,000 kgs)
Powerplant: 1 x MTU Diesel engine developing 1,500 early /1800 late horsepower
Maximum Speed: 43 mph (70 kmph)
NBC Protection: Yes
Night Vision: Yes
Operators: Turkey
Ammunition:
40×120 mm projectiles
3,200×12.7 mm ammunition
10,000×7.62 mm ammunition
16x smoke grenades
Operators: Turkey

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