Latest updates[?]: Bell Boeing won a $13.4 million contract by the Navy. The deal provides engineering, management, technical, and acquisition support for the implementation and sustainment of V-22 capability defect packages for V-22 avionics and flight controls systems. Work will take place in Pennsylvania, Texas and Missouri. Estimated completion will be by September 2026.
In March 2008, the Bell Boeing Joint Project Office in Amarillo, TX received a $10.4 billion modification that converted the previous N00019-07-C-0001 advance acquisition contract to a fixed-price-incentive-fee, multi-year contract. The new contract rose to $10.92 billion, and was used to buy 143 MV-22 (for USMC) and 31 CV-22 (Air Force Special Operations) Osprey aircraft, plus associated manufacturing tooling to move the aircraft into full production. A follow-on MYP-II contract covered another 99 Ospreys (92 MV-22, 7 CV-22) for $6.524 billion. Totals: $17.444 billion for 235 MV-22s and 38 CV-22s, an average of $63.9 million each.
The V-22 tilt-rotor program has been beset by controversy throughout its 20-year development period. Despite these issues, and the emergence of competitive but more conventional compound helicopter technologies like Piasecki’s X-49 Speedhawk and Sikorsky’s X2, the V-22 program continues to move forward. This DID Spotlight article looks at the V-22’s multi-year purchase contract from 2008-12 and 2013-2017, plus associated contracts for key V-22 systems, program developments, and research sources.
In an age of non-linear warfare, where front lines are nebulous at best and non-existent at worst, one of the biggest casualties is… the concept of unprotected rear echelon vehicles, designed with the idea that they’d never see serious combat. That imperative is being driven home on 2 fronts. One front is operational. The other front is buying trends.
These trends, and their design imperatives, found their way into the USA’s Joint Light Tactical Vehicle (JLTV) program, which aims to replace many of the US military’s 120,000 or so Humvees. The US military’s goal is a 7-10 ton vehicle that’s lighter than its MRAPs and easier to transport aboard ship, while offering substantially better protection ad durability than existing up-armored Humvees. They’d also like a vehicle that can address front-line issues like power generation, in order to recharge all of the batteries troops require for electronic gadgets like night sights, GPS devices, etc.
DID’s FOCUS articles offer in-depth, updated looks at significant military programs of record. JLTV certainly qualifies, and recent budget planning endorsements have solidifed a future that was looking shaky. Now, can the Army’s program deliver?
Latest updates[?]: Raytheon announced that the US Air Force used the company’s GPS Next-Generation Operational Control System, known as GPS OCX, to support the launch of its second GPS III satellite into space. The ground system will spend 10 days maneuvering the satellite into its final orbit, demonstrating GPS OCX's ability to simultaneously support multiple GPS III spacecraft on-orbit throughout the checkout and calibration process. GPS III SV02 is the newest generation of GPS satellites designed and built to deliver positioning, navigation and timing information apparently with three times better accuracy, and up to eight times improved anti-jamming capability than its predecessor. Prime contractor is Lockheed Martin. The GPS III satellite, also called Magellan, was launched on August 22 after years of delays. United Launch Alliance used a Delta IV rocket to launch the second Global Positioning System III (GPS III) satellite for the US Air Force Space and Missile Systems Center.
GPS IIIA concept
GPS-III satellites, in conjunction with their companion OCX ground control, system are the Global Positioning System (GPS) future. They offer big advantages over existing GPS-II satellites and GCS, but most of all, they have to work. Disruption or decay of the critical capabilities provided by the USA’s Navstar satellites would cripple both the US military, and many aspects of the global economy.
The time-based GPS service is the most-used application of Einstein’s Theories of Relativity. GPS has become part of civilian life in ways that go go far beyond those handy driving maps, including crop planting, timing services for stock trades, and a key role in credit card processing. At the same time, military class (M-code) GPS guidance can now be found in everything from cruise missiles and various precision-guided bombs, to battlefield rockets and even artillery shells. Combat search and rescue radios rely on this line of communication, and so does a broadening array of individual soldier equipment.
This DII FOCUS article looks at the existing constellation, GPS-III improvements, the program’s structure, its progress through contracts and key milestones, and extensive PTN (Positioning, Timing & Navigation)/ GNSS (Global Navigation Satellite System) research links.
The US military needs a bigger data firehose. In an era of streaming data from proliferating UAVs and other persistent surveillance platforms, and the need for control of those systems anywhere in the world, bandwidth is almost as important as fuel. Commercial satellite communications (SATCOM) can fill some of the gaps, but it’s expensive, and may not be available when needed. The Wideband Gapfiller SATCOM (now Wideband Global SATCOM) program began as a way to ease these problems in the near term, but went on to become one of the twin pillars of US military communications, alongside the hardened AEHF constellation. Both satellite types expanded their roles after the super-high bandwidth T-SAT program was canceled. Instead, the USA is adding WGS and AEHF satellites in space, even as it makes both programs multi-national efforts here on earth.
WGS is a set of 13-kilowatt spacecraft based on Boeing’s model 702 commercial satellite. These satellites will handle a significant portion of the USA’s warfighting bandwidth requirements, supporting tactical C4ISR(command, control, communications, and computers; intelligence, surveillance, and reconnaissance); battle management; and combat support needs. Upon its 2007 launch into geosynchronous orbit, WGS Flight 1 became the U.S. Department of Defense’s highest capacity communication satellite. WGS F4, launched in January 2012, offers further improvements, as do satellites from WGS F8. The constellation is set to grow to 10, including international participation.
This is DID’s FOCUS Article covering the WGS program’s specifications, budgets, travails, international partnerships, and contracts, with links to additional research materials.
Latest updates[?]: Russia has announced that it is developing its own rail gun technology as the first pictures of US efforts made their way to press. The "battlefield meteorite" is capable of firing a projectile at an initial speed of 4,500 miles per hour, piercing seven steel plates, and leaving a 5-inch hole -- able to "blow holes in enemy ships, destroy tanks and level terrorist camps." For Russia, the new weapon will not replace traditional weapons "even in the mid-term perspective," as much time needs to pass from the first tests to the mass production, especially considering the high price of the production, according to Russian senator Franz Klintsevich.
Back in March 2006, BAE Systems received a contract for “design and production of the 32 MJ Laboratory Launcher for the U.S. Navy.” Some hint of what they are talking about can be gleaned from the name. BAE isn’t the only firm that’s working on this program, which the US Navy sees as its gateway to a game-changing technology. The project is an electro-magnetic rail gun, which accelerates a projectile to incredibly high speeds without using explosives.
The attraction of such systems is no mystery – they promise to fire their ammunition 10 or more times farther than conventional naval gun shells, while sharply reducing both the required size of each shell, and the amount of dangerous explosive material carried on board ship. Progress is being made, but there are still major technical challenges to overcome before a working rail gun becomes a serious naval option. This DID FOCUS article looks at the key technical challenges, the programs, and the history of key contracts and events.
Latest updates[?]: Leondardo Helicopters is in talks with the Japanese government over the potential sale of a further 12 AW101 helicopters for the Japan Maritime Self-Defense Force. Tokyo already operates seven of an eventual 11-strong fleet of the heavy helicopters configured for minesweeping missions, designated as the MCH-101, plus two of an eventual three CH-101 utility transports. Giovanni Soccodato, Leonardo’s executive vice-president for strategies, markets, and business development, said the company was “close to finalizing” a new contract with the Japanese.
MCH-101 AMCM concept
Japan is a trading and shipping power, so it isn’t unreasonable for them to be very concerned about mines. Helicopters are an important adjunct to Japan’s large fleet of 25+ minesweeping ships, and can even serve as a substitute in some situations. Japan’s fleet of 11 MCH-101 airborne mine counter-measures helicopters are closely derived from AgustaWestland’s 3-engined AW101 heavy maritime helicopter, and most are being built in Japan under license by Kawasaki. Mission equipment will include the AN/AQS-24A mine hunting side scan sonar, the AN/AES-1 airborne laser mine detection system, and the MK-104 acoustic minesweeping system.
ECH-101s have good range, and can operate from shore. As an alternative, they can be embarked aboard Japanese ships, especially the JMSDF’s 19,000 ton Hyuga Class “helicopter destroyers” (LPH anywhere else).
2010 – 2016
DDH-181 Hyuga & USN’s LHD-2, post-tsunami (click to view entire)
June 27/16: Leondardo Helicopters is in talks with the Japanese government over the potential sale of a further 12 AW101 helicopters for the Japan Maritime Self-Defense Force. Tokyo already operates seven of an eventual 11-strong fleet of the heavy helicopters configured for minesweeping missions, designated as the MCH-101, plus two of an eventual three CH-101 utility transports. Giovanni Soccodato, Leonardo’s executive vice-president for strategies, markets, and business development, said the company was “close to finalizing” a new contract with the Japanese.
June 18/13: Northrop Grumman announces that they’ve has delivered the 1st of 4 AQS-24A airborne mine-hunting sonars to the Japanese Maritime Self-Defense Force (q.v. July 11/12). The 1st ALMDS wide-area laser mine detection system is slated for delivery “later this summer.”
There’s always a follow-on period of training and tactics development, so it will be a little while before Japan can make full use of these new capabilities. NGC.
Nov 6/12: MEDAL. Science Applications International Corporation (SAIC) announces that Japan has picked its Mine Warfare and Environmental Decision Aids Library (MEDAL) counter-mine software control system, for installation into the corresponding ground system for the JMSDF’s MCH-101 helicopters. MEDAL has played a similar role in the US Navy since the mid-1990s, and the USN’s compatible MEDAL system performs the same mission planning, evaluation, and command and control functions.
SAIC will be assisting with engineering and training services as MEDAL is integrated within NEC Corporation’s broader MCH-101 ground support system.
July 11/12: AQS-24. Northrop Grumman Corporation announces follow-on contracts by the Japanese Maritime Self-Defense Force (JMSDF) to supply 3 more AQS-24A airborne mine hunting systems, plus ground-based support equipment. The AN/AQS-24 is a towed sonar with an accompanying laser line scanner for optical identification, and the sonar and laser both operate at the same time. It’s deployed from the rear ramp of helicopters like the US Navy’s MH-53s, and the JMSDF will use all 4 systems ordered to date on its new MCH-101 helicopters.
The award of the airborne electronics work marks the culmination of a technology transition that allows some local manufacturing in Japan, and will eventually enable the JMSDF to provide full logistics support for the AQS-24A systems. Additional follow-on efforts for more systems, electronics and support equipment are anticipated in 2013, and will continue until the JMSDF reaches its full operational inventory objective. NGC.
AQS-24 detection sonars
Feb 2/12: ALMDS. Japan becomes the AN/AES-1 ALMDS’ first export customer, buying 4 of the laser mine detection pods to equip its MCH-101 (AW101) medium-heavy naval helicopters. Northrop Grumman will work with Kawasaki Heavy Industries, Ltd., and Fujitsu Ltd. on delivery and installation.
ALMDS uses a fan-shaped beam of laser light detection and ranging (LIDAR) to detect, classify and localize near-surface moored sea mines. The forward motion of the helicopter sweeps the light over the water in a “push broom” manner, and 4 cameras are arranged to cover the same swath illuminated by the laser fan beam. As images are received by the system, an automatic target recognition algorithm picks out potential mine-like objects and stores their images for later classification by fleet operators, using computer-aided post-mission analysis tools. The new system has had some trouble in American tests with false positives, but Japan has worked with Northrop Grumman for a long time, and seems willing to go ahead anyway. Northrop Grumman | Read more in “LCS & MH-60S Mine Counter-Measures Continue Development“.
ALMDS laser mine detection pods
Oct 24/11: AQS-24. Northrop Grumman announces that its AN/AQS-24 towed mine-hunting sonar has been “competitively selected” by the Japan Maritime Self-Defense Force. Under the initial contract, Northrop Grumman’s Undersea Systems business unit will deliver 1 system to Kawasaki Heavy Industries, for integration into Japan’s new Airborne Mine Countermeasures MCH-101 helicopter.
The AQS-24 is currently deployed aboard the US Navy’s even larger MH-53E mine hunting helicopters.
1994 – 2009
From initial teaming through 1st delivery; 1st assembled in Japan MCH-101.
MCH-101 click for video
June 17/09: Local spares.AgustaWestland announces an agreement with Marubeni Aerospace Corporation of Tokyo, Japan to establish a local MCH-101/ CH-101 Spare Parts Depot. That will certainly cut turnaround time for spares.
The Spare Parts Depot has been privately funded and will operate initially for a period of 5 years.
March 26/07: Kawasaki Heavy Industries (KHI) has delivered the JMSDF’s 1st licence-built MCH-101. It’s the first EH101/AW101 to be assembled outside AgustaWestland’s production facilities in Italy and the UK, and has 35% local content. Flight International.
March 2006: Japan takes delivery of its 1st MCH-101. It was assembled at AgustaWestland’s Yeovil, UK plan before undergoing conversion at Kawasaki Heavy Industries’ Gifu works. Source.
1st MCH-101 delivery
2003: The first of 14 MCH-101 (Airborne Mine Counter Measures, 11) and CH-101 (Antarctic Support, 3) helicopters was delivered to the Japan Maritime Self Defense Force. Subsequent releases indicate that it was a CH-101. Source.
1st AW101 delivery
2002: The ECH-101 partners enter into a general consultancy and distributorship agreement for the promotion and sales of the AW101. Source.
1994: Teaming agreement signed by AgustaWestland, Kawasaki Heavy Industries and Marubeni to compete for Japan’s mine warfare helicopter needs. Source.
A USA Today article, dramatically demonstrates the advantage night vision capabilities provide to US troops on the ground in Iraq and Afghanistan.
It was Christmas Eve 2007, and US Army Rangers were searching for suspected Al-Qaeda members in Mosul, Iraq. Using their night vision goggles to avoid alerting the enemy, the Rangers found 2 Al-Qaeda suspects who were holding an 11-year-old Iraqi boy hostage. Thanks to their night vision capabilities, they were able to shoot the suspects without harming the boy. After that encounter, a firefight erupted between the Army rangers and Al-Qaeda insurgents, with 10 insurgents killed, including the head of an assassination cell. Army ranger losses? Zero. As former General Barry McCaffrey, commander of the US Army’s 24th Infantry Division in the 1991 Desert Storm conflict, commented: “Our night vision capability provided the single greatest mismatch of the war.”
It still does. This free DID Spotlight Article will examine how this technology works, how its military application has developed over years, how the technology is used by troops in the field, as well as major contracts for procuring night vision goggles.
Latest updates[?]: The USMC is to receive upgrades to their Amphibious Assault Vehicles (AAV) as their replacement, the Amphibious Combat Vehicle (ACV), will not be operational until the 2020s. 392 AAV7A1s are to receive an extensive survivability upgrade in a $194 million contract. The USMC has found that AAVs have been vulnerable to improvised explosive devices (IED) and other weapons when operating in Iraq and elsewhere. Improvements to be made include flat-sided buoyant ceramic armor panels, new shock-mitigation seats, replacing benches in older AAVs, and a new transmission, increasing the vehicle's top speed.
AAV7 to LHD 2
The USMC needs to keep its 40+ year old AAV Amtracs in service, after destroying the EFV amphibious armored personnel carrier replacement program in 2011 with over-ambitious requirements. Iraq taught the USMC that the Amtracs didn’t offer enough protection, and so the latest refurbishment effort plans to improve the AAVP-7A1 personnel carrier’s protection levels. Deliveries are expected to take place between 2018 – 2023…
The rise of modern terrorism, sharply increasing costs to recruit and equip professional soldiers, and issues of energy security, are forcing 2 imperatives on modern armies. Modern militaries need to be able to watch wide areas for very long periods of time. Not just minutes, or even hours any more, but days if necessary. The second imperative, beyond the need for that persistent, unblinking stare up high in the air, is the need to field aerial platforms whose operating costs won’t bankrupt the budget.
These pressures are forcing an eventual convergence toward very long endurance, low operating cost platforms. Many are lighter-than-air vehicles or hybrid airships, whose technologies have advanced to make them safe and militarily useful again. On the ground near military bases, Raytheon’s RAID program fielded aerostats, and then surveillance towers. Lockheed Martin has also fielded tethered aerostats: TARS along the USA’s southern border, and PTDS aerostats on the front lines. The same trend can be observed in places like Thailand and in Israel; and Israeli experience has led to export orders in Mexico and India. At a higher technical level, Raytheon’s large JLENS aerostats are set to play a major role in American aerial awareness and cruise missile defense, and a huge ground and air scanning ISIS radar is under development under a DARPA project, to pair with Lockheed Martin’s fully mobile High Altitude Airship.
The Army’s Long-Endurance Multi-intelligence Vehicle (LEMV) project fitted in between RAID and HAA/ISIS, in order to give that service mobile, affordable, very long term surveillance in uncontested airspace. Its technologies and flight data may eventually wind up playing a role in other projects. This would help the Army recoup some of its investment, as it sold its prototype back to its manufacturer in the fall of 2013, for the price of a luxury car.
In 2009, the US Defense Advanced Research Projects Agency (DARPA) began awarding contracts for innovative research proposals under its Terahertz (THz) Electronics Program. Readers will probably be asking the same question that crossed our mind: “when can I expect this in my laptop?”
Chip frequency has stalled out as a measure of computing power, but DARPA has a long history of helping to fund computing breakthroughs – from that minor nuisance we call the Internet to modern work on Gallium Nitride (GaN) semiconductors, non-thermionic transistors, research into graphene circuits, and more. Now, their Terahertz (THz) Electronics program is looking for technologies to enable revolutionary advances in electronic devices and integrated circuits, allowing them to reach THz frequencies of at least a trillion cycles per second…