BAE Systems successfully tested its Advanced Precision Kill Weapon System (APKWS) laser-guidance kits with High-Explosive Anti-Tank Anti-Personnel Anti-Materiel (HEAT/APAM) warheads from General Dynamics Ordnance and Tactical Systems. Guided by APKWS guidance kits, the rockets went three for three against armored targets, demonstrating their versatility to engage a broad set of targets and enable new missions for warfighters.
APKWS guidance kits transform unguided rockets into smart munitions for precision strikes on soft targets, equipment, and armored targets.
During the test event, BAE Systems launched rockets with HEAT/APAM warheads and APKWS guidance kits against well-armored targets – including a steel plate and an armored military vehicle. All test shots were direct hits, defeating fortified targets at range. The HEAT/APAM warheads are capable of penetrating thick armor, which improves the versatility of rockets guided by APKWS guidance kits.
«We’re giving our customers more in-mission options for precision strikes against tougher targets», said Sam Kirsh, APKWS program manager at BAE Systems. «APKWS guidance kits with HEAT/APAM warheads provide a low-cost, lightweight, easy-to-deploy strike capability against armored and unarmored targets».
The APKWS guidance kits are also compatible with 2.75” (70 millimeter) Hydra rocket components – including new and existing inventories of motors, warheads, fuses, launchers, and laser target designators. They require minimal training to assemble and fire, and can be fired from a variety of launch platforms, including fighter jets, combat helicopters, ground vehicles, and remote weapon stations.
APKWS guidance kits have proven their accuracy in combat with hundreds of successful shots fired with the M151 high-explosive warhead. The guidance kit is available to allied nations via Foreign Military Sales.
Boeing and Norwegian defense and aerospace company Nammo have successfully test-fired a ramjet-powered artillery projectile, further demonstrating the viability of one of the U.S. Army’s modernization priorities – long-range precision fires.
During the June 28 test at the Andøya Test Center in Norway, a Boeing Ramjet 155 projectile was fired out of a cannon and its ramjet engine ignited successfully. It demonstrated flight stability with a well-controlled engine combustion process.
«We believe the Boeing Ramjet 155, with continued technology maturation and testing, can help the U.S. Army meet its long-range precision fires modernization priorities», said Steve Nordlund, Boeing Phantom Works vice president and general manager. «This successful test is evidence that we are making great progress».
«This is a historic moment for Nammo», said Nammo Chief Executive Officer Morten Brandtzæg. «The test results demonstrate that ramjets are viable and can fundamentally change the future of artillery».
«We have great confidence in the ramjet concept», Brandtzæg added. «The test – with all aspects from cannon firing, to the projectile body, fins, and trajectory all functioning perfectly – represents a real technological breakthrough in artillery, and a major success for Boeing, Nammo, and the U.S. Army».
The long-range test at Andøya follows years of research, development and testing by Boeing and Nammo of ramjet technology, including more than 450 static or short-range tests.
Boeing Phantom Works and Nammo have been working together under a strategic partnership to jointly develop and produce the next generation of boosted artillery projectiles. In July 2019, the Boeing-Nammo team was awarded a contract under the U.S. Army’s XM1155 program to develop and mature the Ramjet 155 projectile. In May 2021, the team was awarded a Phase II technology development contract.
Ramjet 155 uses an engine in which the air drawn in for combustion is compressed solely by the forward motion of the projectile at supersonic speeds. Considered a hybrid between guided artillery and missiles, the program has an objective of a common round design that can be used in L39 and L58 cannons.
The team continues to develop and mature the technology, with further testing and demonstrations planned in the coming months.
BAE Systems has received a $120 million contract from the U.S. Marine Corps for additional Amphibious Combat Vehicles under a third order for Low Rate Initial Production (LRIP).
This award is an important next step on the path to full rate production. This latest contract is for the ACV Personnel carrier variant (ACV-P), an eight-wheeled amphibious assault vehicle capable of transporting Marines from open-ocean ship to shore and conducting land operations. Each vehicle embarks 13 Marines in addition to a crew of three.
«This award further validates the Marine Corps’ confidence in the vehicle’s proven capability in meeting their amphibious mission, and represents an important step toward fielding the vehicle in the Fleet Marine Force. The ACV is a highly mobile, survivable and adaptable platform designed for growth to meet future mission role requirements while bringing enhanced combat power to the battlefield», said John Swift, director of amphibious programs at BAE Systems.
Current low-rate production is focused on the ACV-P variant. More variants will be added under full rate production to include the command and control (ACV-C), 30mm medium caliber turret (ACV-30) and recovery variants (ACV-R) under the ACV Family of Vehicles program. BAE Systems previously received the Lot 1 and Lot 2 awards.
The Marine Corps selected BAE Systems along with teammate Iveco Defence Vehicles for the ACV program in 2018 to replace its legacy fleet of Assault Amphibious Vehicles, which have been in service for decades and were also built by BAE Systems.
ACV production and support is taking place at BAE Systems locations in Stafford, Virginia; San Jose, California; Sterling Heights, Michigan; Aiken, South Carolina; and York, Pennsylvania.
Indra has been awarded a contract to supply the Royal Air Force (RAF) of the United Kingdom with an advanced long-range air defense deployable radar.
The company was chosen after competing with the main companies in the industry. Indra will deliver the system later this year, meeting tight deadlines.
The Indra Long Tactical Range 25 (LTR25) L-band radar stands out for offering very high long-range detection capabilities, comparable to those of larger fixed radars, but with the added advantage of being able to operate very quickly and be transported in small aircraft, such as the C-130 Hercules.
It is a robust solution designed to facilitate deployments outside the national territory, to reinforce the surveillance of a specific area on a one-off basis or to be available as backup in the event that one of the fixed radars is attacked or damaged.
Indra is a leading company in the development of radars and one of the main suppliers of this type of solutions for NATO. The company has won all the tenders awarded by the Alliance in the last five years. Its systems also cover surveillance of the whole south-western flank of Europe. Indra has delivered over 50 radars in total to countries from five continents, so the capabilities of its teams have been widely demonstrated in all types of scenarios and environments. The company also has experience in the supply of integrated air defense systems for a number of countries.
A live demo was held by Estonian Defence Industry companies on 17th of May in the Defence Forces central training area to demonstrate the functioning of new refence solutions in a combat situation.
According to the Head of the Estonian Defence and Security Industry Innovation Cluster, Ingvar Pärnamäe, Estonian defence industry companies have taken a remarkable developmental leap in the last decade, and they have become reliable defence industry partners for the Defence Forces of Estonia as well as for world-leading defence companies and a number of foreign countries. Cooperation and partnerships between defence industry companies have also improved. Companies have realised that it is much better, particularly in export markets, to cooperate and reinforce each other’s strengths than to compete against each other.
«Today’s supra-company combat simulation exercise, which is carried out within the Estonian Defence Force’s annual «Spring Storm» exercise, successfully used the products of Estonian defence companies and the equipment of the Defence Forces. We saw how innovative military equipment, such as Milrem’s unmanned ground vehicles and the unmanned aerial systems of Threod Systems and ELI cooperated in a combat situation by exchanging real-time information and supporting the attack team, thereby helping to defeat the adversary», explained Pärnamäe, adding that while the ammunition used in the simulation exercise may have seemed realistic, it was actually the training ammunition developed by Bristol Trust, which is also used in everyday training for its high safety. This effectively demonstrates the capacity of Estonian defence companies to contribute to security, defence training and modern combat equipment.
«While the defence industry is often considered to be a «playground for big boys» and is inaccessible to newcomers, both ELI and Threod Systems, for example, have become world class defence equipment suppliers and have won defence tenders in both the East and West. ELI has received the largest order in the history of the Estonian defence industry from the Azerbaijan authorities. Milrem, a developer of UGVs, is participating in the US Army’s SMET programme for unmanned ground vehicles», highlighted Pärnamäe, adding that while the Estonian defence companies are small on a global scale, they show enormous potential.
Kuldar Väärsi, Chairman of the Board of Milrem, said that the development activities of Estonian defence companies are focused on long-term plans that take into account the diverse uses of the products and the changes in defence technologies. This may be why Estonian defence companies have managed to gain a foothold in the competition against large and well-established defence industry companies. «Today’s live demo shows how various smart robotic solutions developed by Estonian companies improve the combat capacity of troops in terms of both situation awareness, manoeuvrability and firepower».
Tõnu Vaher, Manager of ELI OÜ, the manufacturer of the unmanned aerial systems used in the simulation exercise and the holder of the title of «Defence Industry Company of the Year 2016», said that cooperation with both the Defence Forces and other defence companies is crucial because it provides feedback on their products, and enables the company to invest in product development that take into account the changed needs. «For example, our multirotors can be used on the battlefield in cooperation with the Defence Forces, but drones have an important role in border protection and in ensuring security in cooperation with Defendec and other defence companies», said Vaher.
Villiko Nurmoja, representative of the unmanned aerial systems developer Threod Systems OÜ, said that cooperation between Estonian defence industry companies enables operators to succeed in the world and become established in large markets. «Integrating different systems is also beneficial to end-users because it speeds up the decision-making process and enhances the effect. In order to gain and share experiences, Threod Systems is flying its UAVs throughout the Spring Storm exercise and performing different reconnaissance tasks in accordance with the exercise scenario», explained Nurmoja.
12 Estonian defence industry companies demonstrated their products during the Spring Storm exercise:
Bristol Trust, Defendec, Englo, I.V.A Leon, Milrem, Nefab, Profline, Rantelon, Samelin, Telegrupp, Tele2 and Alexela.
The U.S. Army’s Tank Automotive Research, Development and Engineering Center (TARDEC) has awarded Lockheed Martin a next-phase contract to continue maturing the Modular Active Protection Systems (MAPS) controller base kit hardware and software and to support government integration efforts ahead of platform demonstrations scheduled to take place through 2019.
MAPS is designed to enable protection of vehicles and their occupants by integrating sensors and countermeasures in a common framework to detect and defeat existing and emerging threats.
Lockheed Martin delivered five MAPS controllers to TARDEC in 2017. As part of the 16-month follow-on effort, its engineers will work with TARDEC to mature the base kit hardware and software and to support integration of the MAPS Base Kit with existing sensors and countermeasures for U.S. Army virtual and range demonstrations on combat vehicles.
«Our MAPS offering is ready to support field tests using today’s platforms and active protection system components», said Paul Lemmo, vice president of Sensors & Global Sustainment at Lockheed Martin Missiles and Fire Control. «A modular and open-architecture design means any component can be selectively upgraded across all MAPS-enabled platforms to address emerging threats. That promotes affordability by extending the system’s life cycle, and boosts protection for the warfighter without increasing vehicle weight».
The TARDEC MAPS Base Kit, delivered by Lockheed Martin, consists of a controller, user interface, power management distribution system and application software. It integrates Modular APS Framework (MAF)-compliant components, sensors and countermeasures to detect and defeat threats targeting MAPS-equipped vehicles. In addition to current combat vehicle platforms, it is designed to support future vehicle protection system capabilities.
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Modular Active Protection Systems: Ahead of the Threat Curve
The Mechanically Based Antenna program could enable radio communication through seawater and the ground and directly between warfighters hundreds and ultimately thousands of kilometers apart.
Here’s something easy to forget when you are chatting on your cell phone or flipping channels on your smart TV: although wireless communication seems nothing short of magic, it is a brilliant, reality-anchored application of physics and engineering in which radio signals travel from a transmitter to a receiver in the form of electric and magnetic fields woven into fast-as-light electromagnetic waves. That very same physics imposes some strict limits, including ones that frustrate the Department of Defense (DoD). Key among these is that radio frequency signals hit veritable and literal walls when they encounter materials like water, soil, and stone, which can block or otherwise ruin those radio signals. This is why scuba buddies rely on sign language and there are radio-dead zones inside tunnels and caves.
With his newly announced A MEchanically Based Antenna (AMEBA) effort, program manager Troy Olsson of DARPA’s Microsystems Technology Office is betting on a little-exploited aspect of electromagnetic physics that could expand wireless communication and data transfer into undersea, underground, and other settings where such capabilities essentially have been absent. The basis for these potential new abilities are ultra-low-frequency (ULF) electromagnetic waves, ones between hundreds of hertz and 3 kilohertz (KHz), which can penetrate some distance into media like water, soil, rock, metal, and building materials. A nearby band of very-low-frequency (VLF) signals (3 KHz to 30 KHz) opens additional communications possibilities because for these wavelengths the atmospheric corridor between the Earth’s surface and the ionosphere – the highest and electric-charge-rich portion of the upper atmosphere – behaves like a radio waveguide in which the signals can propagate halfway around the planet.
«If we are successful, scuba divers would be able to use a ULF channel for low bit-rate communications, like text messages, to communicate with each other or with nearby submarines, ships, relay buoys, Unmanned Aerial Vehicles (UAVs), and ground-based assets, Through-ground communication with people in deep bunkers, mines, or caves could also become possible», Olsson said. And because of that atmospheric waveguide effect, VLF systems might ultimately enable direct soldier-to-soldier text and voice communication across continents and oceans.
To date, there’s been a huge and expensive rub to actually pulling off low-frequency radio communication in the versatile ways that Olsson has in mind. The wavelengths of VLF and ULF radio signals rival the distances across cities and states, respectively. And since longer wavelengths have required taller antennas, communications in these frequency bands have entailed the construction of enormous and costly transmitter structures. A VLF antenna that the U.S. Navy built on a remote peninsula in Cutler, Maine, in the heat of the Cold War just to send a trickle of data to submarines makes the point: the gargantuan transmitter complex occupies 2,000 acres/8 square kilometers, features 26 towers up to 1,000 feet/305 m high, and operates with megawatt levels of power.
With the AMEBA program, Olsson aims to develop entirely new types of VLF and ULF transmitters that are sufficiently small, light, and power efficient to be carried by individual warfighters, whether they are on land, in the water, or underground. Rather than relying on electronic circuits and power amplifiers to create oscillating electric currents that, when driven into antennas, initiate radio signals, the new low-frequency VLF and ULF antennas sought in the AMEBA program would generate the signals by mechanically moving materials harboring strong electric or magnetic fields.
In principle, this is as simple as taking a bar magnet or an electret – an insulating substance, such as a cylinder of quartz (silica) glass, in which positive and negative electric charges are permanently segregated to create an electric dipole – and moving it at rates that will generate ULF and VLF frequencies. To open up practical new capabilities in national security contexts, however, the challenges include packing more powerful magnetic and electric fields into smaller volumes with smaller power requirements than has ever been achieved before for a ULF or VLF transmitter. That will require innovations in chemistry and materials (new magnets and electrets), design (shapes and packing geometries of these materials), and mechanical engineering (means of mechanically moving the magnets and electrets to generate the RF signals).
«Mobile low-frequency communication has been such a hard-technological problem, especially for long-distance linkages, that we have seen little progress in many years», said Olsson. «With AMEBA, we expect to change that. And if we do catalyze the innovations we have in mind, we should be able to give our warfighters extremely valuable mission-expanding channels of communications that no one has had before».