Saab started assembly production on January 10, 2020 of its section of the T-7A Red Hawk aircraft, the advanced trainer developed and produced together with Boeing for the United States Air Force (USAF).
Saab is responsible for the development and production of the aft fuselage section for the advanced trainer, with seven aft units being produced in Linköping, Sweden for final assembly at Boeing’s U.S. facility in St. Louis, Missouri.
«In little over a year since we signed the Engineering & Manufacturing Development (EMD) contract, we are starting production of our part of the T-7A Red Hawk jet. This achievement is possible due to the great collaboration between Saab and Boeing, and it is an honour to be part of this programme for the United States Air Force», says Jonas Hjelm, head of Saab business area Aeronautics.
The work is being performed in Linkoping, Sweden, after which future production of Saab’s part for the T-7A Red Hawk will be moved to our new U.S. site in West Lafayette, Indiana.
The Saab facility in West Lafayette is an important part of Saab’s growth strategy in the United States, creating strong organic capabilities for the development, manufacturing and sales of its products.
Boeing is the designated prime contractor for the T-7A Red Hawk advanced pilot training system acquisition by the U.S. Air Force. Saab and Boeing developed the aircraft with Saab as a risk-sharing partner. Saab received the EMD order from Boeing, on September 18, 2018.
For the first time, Boeing and the U.S. Navy flew an F/A-18 Super Hornet equipped with an Infrared Search & Track (IRST) Block II pod in late 2019. IRST Block II is a critical component of the Block III Super Hornet. The Block III conversion will include enhanced network capability, longer range with conformal fuel tanks, an advanced cockpit system, signature improvements and an enhanced communication system. The updates are expected to keep the F/A-18 Super Hornet in active service for decades to come.
IRST Block II is a passive, long-range sensor incorporating infrared and other sensor technologies for highly accurate targeting.
«The IRST Block II gives the F/A-18 Super Hornet improved optics and processing power, significantly improving pilot situational awareness of the entire battle space», said Jennifer Tebo, Boeing Director of F/A-18 Super Hornet Development.
Currently in the risk reduction phase of development, IRST Block II flights on the Super Hornet allow Boeing and the U.S. Navy to collect valuable data on the system before deployment to the fleet. The IRST Block II variant will be delivered to the U.S. Navy in 2021, reaching Initial Operational Capability (IOC) shortly thereafter.
«The IRST Block II sensor gives U.S. Navy fighters extended range and increasing survivability. This technology will help the U.S. Navy maintain its advantage over potential adversaries for many years», said Kenen Nelson, Lockheed Martin Director of Fixed Wing Programs, supplier of the IRST Block II sensor.
Boeing on January 8, 2020 delivered the core stage of NASA’s first Space Launch System (SLS) deep space exploration rocket, moving it out of the NASA Michoud Assembly Facility in New Orleans to the agency’s Pegasus barge.
The event marks the first time a completed rocket stage has shipped out of Michoud since the end of the Apollo program. SLS Core Stage 1 is the largest single rocket stage ever built by NASA and its industry partners.
The rollout follows several weeks of final testing and check-outs after NASA’s declaration of «core stage complete» during a December 9 Artemis Day celebration at Michoud.
NASA will transport the SLS core stage to its Stennis Space Center in Bay St. Louis, Mississippi, in the next few days for «Green Run» hot-fire engine tests later this year. After inspection and refurbishing for launch, the stage moves to Kennedy Space Center in Florida. At Kennedy, the core stage will be integrated with the Interim Cryogenic Upper Stage (ICPS) and NASA’s Orion spacecraft for the uncrewed Artemis I mission around the moon – the first launch of a human-rated spacecraft to the Moon since Apollo 17 in 1972.
«The Boeing SLS team has worked shoulder-to-shoulder with NASA and our supplier partners to face multiple challenges with ingenuity and perseverance, while keeping safety and quality at the forefront», said John Shannon, Boeing SLS vice president and program manager.
SLS is the world’s most powerful rocket, evolvable and built to carry astronauts and cargo farther and faster than any rocket in history. Its unmatched capabilities will deliver human-rated spacecraft, habitats and science missions to the moon, Mars and beyond as part of NASA’s Artemis program.
«We are applying what we’ve learned from development of the first core stage to accelerate work on core stages 2 and 3, already in production at Michoud, as well as the Exploration Upper Stage that will power NASA’s most ambitious Artemis missions», said Shannon.
Boeing and Bell Textron Inc., a Textron Inc. company, have delivered the first modified MV-22 Osprey to the United States Marine Corps for improved readiness and reliability of the tiltrotor fleet.
The Marines have multiple configurations of the MV-22 Osprey aircraft in service. Under the Common Configuration – Readiness and Modernization (CC-RAM) program, Bell Boeing is reducing the number of configurations by upgrading block «B» aircraft to the current block «C» configuration.
«Our first CC-RAM aircraft returning to Marine Corps Air Station New River was a key program benchmark», said U.S. Marine Corps Colonel Matthew Kelly, program manager, V-22 Osprey Joint Program Office (PMA-275). «We are excited to see the capability, commonality and readiness improvements these CC-RAM aircraft bring to the fleet as part of the Marine Corps’ V-22 Osprey readiness program».
As a block «B» configuration, this MV-22 Osprey was originally delivered to the fleet in 2005. In 2018, the aircraft flew from Marine Corps Air Station New River to the Boeing Philadelphia facility for modernization.
«This milestone marks the beginning of an Osprey evolution», said Kristin Houston, vice president, Boeing Tiltrotor Programs and director, Bell Boeing V-22 Osprey Program. «Through a shared focus on safety and quality, the Bell Boeing team is delivering modernized MV-22 Osprey aircraft that are ready to serve our dedicated servicemen and women who rely on this essential aviation resource».
The next CC-RAM delivery is expected in early 2020.
«We look forward to having the remaining MV-22 Osprey block «B» aircraft rejoin the fleet in a block «C» configuration», said Kelly.
In November 2019, the U.S. Navy awarded Bell Boeing $146,039,547 to upgrade nine additional MV-22 Osprey aircraft under the CC-RAM program, with work expected to be completed in March 2022.
Antonov Airlines flew four Apache AH-64E Attack Helicopters on behalf of Boeing, from Phoenix Mesa Gateway Airport (AZA), Arizona, USA, to Hindan Airforce Base (VIDX) in India.
An Antonov Airlines AN-124-100, which can accommodate up to five Apache helicopters, transported the aircraft, with a total payload of 39 tonnes/85,980 lbs. including their dismantled rotor blades. The mission proved highly successful.
«The Antonov Airlines team was responsive and willing to support deadlines while applying for the complex overflight permits required for military cargo», said Jon Roland, Boeing Program Manager. «Antonov Airlines partnered with us to secure the required clearance and permissions, creating a cooperative environment to ensure smooth delivery».
The Antonov and Boeing engineers collaborated closely on mission planning in real time during the loading process.
«We worked out how to best use the available space during loading to safely transport the cargo», said Amnon Ehrlich, Commercial Director, Antonov Airlines USA. «We also took into consideration the high summer temperatures in Arizona while planning the move. The loading started in the early hours to avoid the high temperatures. Following a night-time departure, the mission was completed 24 hours later».
Boeing has already contracted Antonov Airlines for further Apache helicopter shipments later this year.
The first submarine-hunting Poseidon MRA1 Maritime Patrol Aircraft (MPA) has been delivered to the Royal Air Force (RAF).
The Ministry of Defence (MOD) is investing £3 billion in nine state-of-the-art jets which will enhance the UK’s tracking of hostile maritime targets, protect the British continuous at-sea nuclear deterrent and play a central role in NATO missions across the North Atlantic.
Defence Secretary Ben Wallace said: «The arrival of the world-class Poseidon aircraft marks a step-change in the UK’s maritime patrol capability. Using the world’s most advanced sensors and operating for long periods, these aircraft will transform the quality of intelligence available to our armed forces and protect our vital nuclear deterrent».
Following an unveiling ceremony in Seattle, the aircraft was flown to Naval Air Station (NAS) Jacksonville in Florida where RAF personnel are being trained to operate the aircraft.
On arrival Michelle Sanders, Defence Equipment & Support (DE&S) Delivery Team Leader, signed the paperwork to formally transfer the aircraft, named Pride of Moray, to UK ownership.
Air Chief Marshal Mike Wigston, Chief of the Air Staff, said: «Poseidon is a game-changing maritime patrol aircraft, able to detect, track and if necessary destroy the most advanced submarines in the world today. With Poseidon MRA1, I am delighted and very proud that the Royal Air Force will once again have a maritime patrol force working alongside the Royal Navy, securing our seas to protect our nation».
First Sea Lord, Admiral Tony Radakin, said: «Poseidon marks a superb upgrade in the UK’s ability to conduct anti-submarine operations. This will give the UK the ability to conduct long range patrols and integrate seamlessly with our NATO allies to provide a world-leading capability. This will maintain operational freedom for our own submarines, and apply pressure to those of our potential foes. I look forward to working with the RAF and our international partners on this superb capability».
The Poseidon MRA1 is designed to carry out extended surveillance missions at both high and low altitudes. The aircraft is equipped with cutting-edge sensors which use high-resolution area mapping to find both surface and sub-surface threats.
The aircraft can carry up to 129 sonobuoys, small detection devices which are dropped from the aircraft into the sea to search for enemy submarines. The systems survey the battlespace under the surface of the sea and relay acoustic information via radio transmitter back to the aircraft.
The aircraft will also be armed with Harpoon anti-surface ship missiles and Mk-54 torpedoes capable of attacking both surface and sub-surface targets.
Michelle Sanders, DE&S Delivery Team Leader, said: «Seeing the first Poseidon MRA1 handed over to the Royal Air Force is an incredibly proud moment for all of the team at DE&S. Close, collaborative working with colleagues in Air Capability, the US Navy and industry has helped us deliver this very capable aircraft».
As leading members of NATO, the UK has signed agreements with both the US and Norwegian militaries to cooperate closely on operating their Poseidon fleets across the North Atlantic.
In August this year, Defence Minister Anne Marie-Trevelyan hosted Norwegian State Secretary Tone Skogen at RAF Lossiemouth to deepen the two country’s partnership on the Poseidon programme.
To maintain the skills required to deliver this vital capability, the RAF has embedded aircrew within MPA squadrons in Australia, Canada, New Zealand and the USA.
The first aircraft will arrive in Scotland in early 2020, with the fleet to be based at RAF Lossiemouth in Moray. All nine aircraft will be delivered by November 2021.
The aircraft will be flown initially by 120 Squadron which was originally stood up on 1 January 1918 and was the leading anti-submarine warfare squadron in WWII. 201 Squadron will also join the programme in due course.
The Poseidon MRA1 programme is bringing significant economic benefits to the communities near RAF Lossiemouth. A total of £460 million is being invested in the station to prepare for the arrival of the new aircraft, including the construction of a £132 million strategic facility for the fleet to be completed next year.
The programme will also bring around 700 additional personnel to Moray, taking the total number of employees there to approximately 2,500.
123.6 feet/37.64 m
42.1 feet/12.83 m
129.5 feet/39.47 m
2 × CFM56-7B engines
27,000 lbs./12,237 kgf/120 kN thrust
490 knots/564 mph/908 km/h
1,200 NM/1,381 miles/2,222 km with 4 hours on station
NASA and Boeing have initiated a contract for the production of 10 Space Launch System core stages and up to eight Exploration Upper Stages to support the third through the twelfth Artemis missions.
Up to 10 additional core stages may be ordered under the contract, leveraging active labor, materials, and facility resources and supply chain efficiencies for production savings.
SLS is NASA’s deep space exploration rocket that will launch astronauts in the 27-metric ton Orion crew vehicle, plus cargo, from Earth to the moon and eventually to Mars. Boeing is the prime contractor for the rocket’s core stage, avionics, and variations of the upper stage. The rocket is designed to be evolvable for missions beyond the moon.
«We greatly appreciate the confidence NASA has placed in Boeing to deliver this deep space rocket and their endorsement of our team’s approach to meeting this unprecedented technological and manufacturing challenge in support of NASA’s Artemis program», said Jim Chilton, senior vice president of Boeing’s Space and Launch division.
«Together with a nationwide network of engaged and innovative suppliers we will deliver the first core stage to NASA this year for Artemis I», Chilton added. «This team is already implementing lessons learned and innovative practices from the first build to produce a second core stage more efficiently than the first. We are committed to continuous improvement as they execute on this new contract».
Boeing designed, developed, tested and built the first SLS core stage under the original NASA Stages contract, including refurbishing the company’s manufacturing area at the Michoud Assembly Facility (MAF) in New Orleans, building test versions of the SLS structures, and designing more efficient, modern tooling, all while abiding by stringent safety and quality standards for human spaceflight. The second core stage is simultaneously in production at MAF.
Boeing last year delivered the first upper stage, the Interim Cryogenic Propulsion System, built by United Launch Alliance in Decatur, Alabama, for the Block 1 version of the evolvable vehicle. The more powerful Exploration Upper Stage design for the Block 1B version is in development, while the MAF facility is being prepared for that build.
SLS is the only rocket that can carry the Orion, and necessary cargo, beyond Earth orbit in a single mission, making it a critical capability for NASA’s deep-space Artemis program.
«Boeing has implemented advanced manufacturing technologies for design, test, and production of the core stages, which will make both core stage production and upper stage development faster, more efficient, and safer», said John Shannon, Boeing vice president and Space Launch System program manager. «The evolvable nature of the rocket will allow us to onboard new advances in materials and production technologies as we move forward to the moon and on to Mars».
The U.S. Army is looking to improve its aviation technology and recently called upon the Arnold Engineering Development Complex (AEDC) – National Full-Scale Aerodynamics Complex (NFAC) at Moffett Field in Mountain View, California, to advance this effort.
Engineers from Sikorsky Aircraft Corporation and The Boeing Company, in partnership with the U.S. Army Combat Capabilities Development Command Aviation & Missile Center Army Aviation Development Directorate, recently conducted a series of tests at NFAC to support the development of the SB>1 DEFIANT, a military helicopter being developed for the Army’s Joint Multi-Role Technology Demonstrator (JMR TD) program.
The goal of this wind tunnel test was to validate the aerodynamic performance and flight mechanics of Sikorsky’s X2 Technology aircraft. These configurations, which are being utilized on the SB>1 DEFIANT, include a lift-offset coaxial rotor system, composite fuselage and rear-mounted pusher propulsor that provides increased speed.
The SB>1 DEFIANT, which made its first flight in March, is a technology demonstrator for a medium-lift utility helicopter. Future uses of this type of air vehicle could include attack and assault, troop transport or medical evacuation (MEDEVAC).
The testing was conducted throughout the first half of 2019 and concluded in mid-June. To accomplish the tests, a 1/5 scale model of the SB>1 DEFIANT airframe with powered coaxial main rotors was placed in the NFAC 40- by 80-foot/12.2- by 24.4-meter wind tunnel.
Measurements included forces and moments on the various components, as well as fuselage, empennage and blade surface pressures.
David Wang, NFAC test engineer, said the recent tests expanded on data collected from a JMR wind tunnel entry conducted at NFAC in 2016 by gathering data at faster speed ranges.
«From the NFAC perspective, the wind tunnel test was successful», Wang said. «The test customer was able to collect performance and handling qualities data for their subscale model up to their maximum design flight speed».
Data collected during the recent tests is undergoing review and analysis. It is unknown at this time if there will be future testing of the SB>1 DEFIANT model at NFAC.
The full-scale SB>1 DEFIANT flight demonstrator is currently undergoing ground and flight tests at Sikorsky’s flight test facility. According to the Sikorsky-Boeing JMR Team, data from SB>1 DEFIANT will help the Army develop requirements for new utility helicopters expected to enter service in the early 2030s.
A previous Department of Defense (DOD) study concluded that upgrades to the aging DOD rotary wing aviation fleet would not provide the capabilities required for future operations. Significant improvement in several attributes of fleet aircraft, such as speed, payload, range, survivability and vertical lift are required to meet future needs. It was determined this improvement could be achieved through application of new technologies and designs.
To accomplish its goal, the Army has been executing a Science & Technology (S&T) effort to mitigate risk associated with maturity of critical technologies, feasibility of desired capabilities and cost of a technical solution. An aspect of this effort is the air vehicle development associated with the JMR TD program.
JMR TD is the alignment of Army Aviation’s S&T with the Future Vertical Lift initiative, which seeks to develop a new family of system to modernize and replace the government’s current fleet of rotorcraft. According to the Army, the intent of the JMR TD is to mitigate risk for the Future Vertical Lift program through means that include the testing of advanced technologies and efficient vehicle configurations.
NFAC, managed and operated by AEDC, is the largest wind tunnel complex in the world. It consists of both the 40- by 80-foot/12.2- by 24.4-meter and 80- by 120- foot/24.4- by 36.6-meter wind tunnels. These tunnels, which share a common drive system, are primarily used for aerodynamic and acoustic tests of rotorcraft and fixed wing, powered-lift Vertical and/or Short Take-Off and Landing (V/STOL) aircraft and developing advanced technologies for these vehicles.
Both subscale and full-scale models are tested at NFAC. The speed range of the 40- by 80-foot/12.2- by 24.4-meter wind tunnel test section is continuously variable from 0 to 300 knots/345 mph/555 km/h, while the speed range in the 80- by 120-foot/24.4- by 36.6-meter wind tunnel section is continuously variable from 0 to 100 knots/115 mph/185 km/h.
Boeing and the U.S. Navy successfully completed the first test flight of the MQ-25 Stingray unmanned aerial refueler on 19 September 2019.
The MQ-25 Stingray test asset, known as T1, completed the autonomous two-hour flight under the direction of Boeing test pilots operating from a ground control station at MidAmerica St. Louis Airport in Mascoutah, Illinois, where the test program is based. The aircraft completed an autonomous taxi and takeoff and then flew a pre-determined route to validate the aircraft’s basic flight functions and operations with the ground control station.
«Seeing MQ-25 Stingray in the sky is a testament to our Boeing and U.S. Navy team working the technology, systems and processes that are helping get MQ-25 Stingray to the carrier», said Boeing MQ-25 Stingray Program Director Dave Bujold. «This aircraft and its flight test program ensure we’re delivering the MQ-25 Stingray to the carrier fleet with the safety, reliability and capability the U.S. Navy needs to conduct its vital mission».
The Boeing-owned test asset is a predecessor to the Engineering Development Model (EDM) aircraft and is being used for early learning and discovery to meet the goals of the U.S. Navy’s accelerated acquisition program. Boeing will produce four EDM MQ-25 Stingray air vehicles for the U.S. Navy under an $805 million contract awarded in August 2018.
The MQ-25 Stingray will provide the U.S. Navy with a much-needed carrier-based unmanned aerial refueling capability. It will allow for better use of the combat strike fighters currently performing the tanking role and will extend the range of the carrier air wing.
«Today’s flight is an exciting and significant milestone for our program and the Navy», said the U.S. Navy’s Unmanned Carrier Aviation (PMA-268) Program Manager Captain Chad Reed. «The flight of this test asset two years before our first MQ-25 Stingray arrives represents the first big step in a series of early learning opportunities that are helping us progress toward delivery of a game-changing capability for the carrier air wing and strike group commanders».
T1 received its experimental airworthiness certificate from the Federal Aviation Administration (FAA) in September, verifying that the air vehicle meets the agency’s requirements for safe flight. Testing will continue with T1 to further early learning and discovery that advances major systems and software development.
Boeing MQ-25 Unmanned Aerial Refueler Completes First Test Flight
For years, NATO artillery and missile systems have been at a range disadvantage compared to its future potential adversaries. New ramjet technology, however, has the potential to completely reverse the situation by closing the range gap.
In the summer of 2016, Russia rolled out the latest version of the 9A52-4 Tornado rocket launcher. The «S»-variant now has the ability to fire shells at an enemy 120 kilometers/74.5 miles away, a remarkable improvement on the previous version. But even the previous version could reach targets 70 km/43.5 miles away.
At the same time, the country appears to be investing in other, more untraditional long-range missile systems. The recent accident near Severodvinsk – in what appears to have been a test of a new nuclear-powered cruise missile – is just one indication of this investment, as is the use of conventional cruise missiles in Syria.
NATO has favored a different approach: For decades, the alliance relied on air superiority. That situation is however changing rapidly. As air defense systems like the S-400 proliferate, Russian planners apparently hope to deny their opponents free use of the skies.
U.S. Army Chief of Staff, General Mark Milley, is one of many experts who now believe the situation has changed fundamentally – and put NATO forces at a disadvantage. When he appeared before the U.S. Senate Armed Services Committee in April 2016, Milley was asked whether the army was «outranged».
«We don’t like it, we don’t want it, but yes, technically [we are] outranged, outgunned on the ground», Milley said.
The importance of range
Range – and especially the ability to hit at a distance where an opponent cannot retaliate – has been a prime concern on the battlefield since the days of the Romans. Sometimes, such an advantage has proven to be a deciding factor.
Roman triumvir Crassus is one who certainly would attest to that. When facing Parthian horse archers at the battle of Carrhae in 53 BC, his legions were wiped out when they could not counter their opponents’ range and mobility advantage.
Later, the English would inflict enormous damage on French forces in the Hundred Years’ war. At Crecy, Poitiers and Agincourt, English longbowmen significantly outranged their opponents. The great English victories here would effectively end the primacy of heavily armored knights, as well as adding decades to a conflict where the French held a great advantage in both resources and manpower.
Range also played a part in the U.S. War of Independence. Morgan’s Riflemen (famous for their long-range rifles) played their part in securing victory at important battles like Saratoga.
«There’s a race going on»
Longbows are however a thing of the past. But Nammo artillery and munitions expert Thomas Danbolt believes range is still of great importance to contemporary weapons, like artillery.
«Range is important. If you can shoot much farther than your opponent, counter-battery fire can simply be disregarded. Your own artillery will be safe, while at the same time you can strike enemy positions with impunity. I think we should not underestimate the consequences of having a range advantage», says Thomas Danbolt, Nammo’s Vice President Large Caliber Ammunition.
Danbolt thinks major nation-states have seen the importance of this, and are now scrambling to improve their defenses. His colleague, Frank Møller, has been part of designing rocket motors for missiles for decades. He sees a big change in that field as well.
«I think there’s a race going on internationally. Propulsion technology has improved. Cruise missiles are getting longer ranges, better sensors, improved accuracy, and the cost has gone down. But a reaction is coming: armed forces everywhere are scrambling to improve their missile defenses», says Frank Møller, Nammo’s VP of Strategy and Business Development (Aerospace Propulsion).
150 km artillery range
As demand for longer range options increases, ramjet technology has been advancing steadily. It has now come to a point where it can has several new potential applications – both in missiles and artillery.
Nammo already has a long history of producing high-performing artillery ammunition. Now, it once again wants to be at the forefront, developing a new generation of shells covering all range requirements.
Nammo’s most ambitious project to date has been a Ramjet-powered, guided artillery shell with a range of up to 150 km/93 miles, now the subject of a development partnership with Boeing’s Phantom Works. The new design is expected to see its first live-fire tests in 2020.
«In practice, this is a mix of a missile and an artillery shell. We are talking about a range that is five to eight times greater than conventional artillery. With the guidance system, we believe we can consistently hit an area as small as the center of a football field. And even though the payload is somewhat smaller, the destructive force will likely be greater because of the accuracy», Danbolt says.
The Ramjet shell can be fired from every modern 155-mm L52 artillery gun – a trait it shares with all of Nammo’s other long-range shells.
The Ramjet revolution
Ramjets are also very well suited for missiles. In a conventional rocket motor, oxygen accounts for 80 percent of the fuel weight. But a Ramjet instead uses oxygen from the outside air. As a consequence, oxygen can be replaced with fuel, increasing the capacity four or five times. Erland Ørbekk, Nammo’s VP of Technology for Aerospace Propulsion, explains that the advantages are great if a missile can reach high enough speeds.
«In a traditional air breathing motor, you need a compressor, a combustion chamber and a turbine. But in a Ramjet, the oxygen pressure and temperature will be high enough just from reaching a high enough speed (roughly Mach 2.5). A Ramjet missile can have a burn time of up to 300 seconds (5 minutes), and can be throttled up and down, or even turned on and off», Ørbekk says.
What operational advantages can we expect?
«A Ramjet-powered missile will be superior to a conventional missile in all possible ways. Ground-based Ramjet missiles will be able to take out high-altitude targets. And if fired from aircraft, they will be effective against high-speed and highly maneuverable fighter jets at much greater distances than today. We believe they could even be effective against some of the new high-speed missiles being introduced outside NATO. If you have a good enough sensor system on the ground, it will be possible for Ramjet-powered missiles to intercept them».
Ready in a few years
Ramjet-powered artillery and missiles could be ready sooner than you think. Nammo has already completed more than 150 successful tests of its ramjet engines. While artillery ramjets could reach up to 150 km/93 miles, some air-to-air missiles could hit targets from an even more impressive 500 km/310 miles distance.
Frank Møller is sure we will see products on the market within a few years.
«Long-range Ramjet artillery will likely be on the market within two to four years. For missiles, it will take a bit longer, but we are confident that the technology is ready. What we are working on now is more focused on the practical applications and technical solutions».
Are you sure of that? Are you sure the technology will work?