Armstrong Line

Airbus Perlan Mission II, the world’s first initiative to pilot an engineless aircraft to the edge of space, made history again yesterday in El Calafate, Argentina, by soaring in the stratosphere to a pressure altitude of over 62,000 feet/18,898 m (60,669 feet/18,492 m GPS altitude). This set a new gliding altitude world record, pending official validation.

Airbus Perlan Mission II soars to over 62,000 feet/18,898 m, setting second altitude world record and crossing Armstrong Line (Airbus photo)
Airbus Perlan Mission II soars to over 62,000 feet/18,898 m, setting second altitude world record and crossing Armstrong Line (Airbus photo)

The pressurized Perlan 2 glider, which is designed to soar up to 90,000 feet/27,432 m, passed the Armstrong Line, the point in the atmosphere above which an unprotected human’s blood will boil if an aircraft loses pressurization.

This marks a second glider altitude world record for Jim Payne and Morgan Sandercock, the same two Perlan Project pilots who soared the Perlan 2 to 52,221 feet/15,917 m GPS altitude on September 3, 2017, in the same remote region of Argentine Patagonia. The 2017 record broke a previous record that was set in 2006, in the unpressurized Perlan 1, by Perlan Project founder Einar Enevoldson and Steve Fossett.

«This is a tremendous moment for all the volunteers and sponsors of Airbus Perlan Mission II who have been so dedicated to making our nonprofit aerospace initiative a reality», said Ed Warnock, CEA of The Perlan Project. «Our victory today, and whatever other milestones we achieve this year, are a testament to a pioneering spirit of exploration that runs through everyone on the project and through the organizations that support us».

«Innovation is a buzzword in aerospace today, but Perlan truly embodies the kind of bold thinking and creativity that are core Airbus values», said Tom Enders, Airbus CEO. «Perlan Project is achieving the seemingly impossible, and our support for this endeavor sends a message to our employees, suppliers and competitors that we will not settle for being anything less than extraordinary».

Another first-of-its kind achievement this year for the Perlan Project was the use of a special high-altitude tow plane rather than a conventional glider tow plane. During yesterday’s flight, Perlan 2 was towed to the base of the stratosphere by a Grob Egrett G520 turboprop, a high-altitude reconnaissance plane that was modified for the task earlier this summer. Operated by AV Experts, LLC, and flown by chief pilot Arne Vasenden, the Egrett released Perlan 2 at around 42,000 feet/12,802 m, the approximate service ceiling of an Airbus A380.

To soar into the highest areas of Earth’s atmosphere, Perlan 2 pilots catch a ride on stratospheric mountain waves, a weather phenomenon created when rising air currents behind mountain ranges are significantly strengthened by the polar vortex. The phenomenon occurs only for a brief period each year in just a few places on earth. Nestled within the Andes Mountains in Argentina, the area around El Calafate is one of those rare locations where these rising air currents can reach to 100,000 feet/30,480 m or more.

Built in Oregon and home-based in Minden, Nevada, the pressurized Perlan 2 glider incorporates a number of unique innovations to enable its mission, and reached an altitude of 62,000 feet/18,898 m during its second mission (Airbus photo)
Built in Oregon and home-based in Minden, Nevada, the pressurized Perlan 2 glider incorporates a number of unique innovations to enable its mission, and reached an altitude of 62,000 feet/18,898 m during its second mission (Airbus photo)

Built in Oregon and home-based in Minden, Nevada, the Perlan 2 glider incorporates a number of unique innovations to enable its ambitious mission:

  • A carbon-fiber capsule with a unique high-efficiency, passive cabin pressurization system that eliminates the need for heavy, power-hungry compressors.
  • A unique closed-loop rebreather system, in which the only oxygen used is what the crew metabolizes. It is the lightest and most efficient system for a sealed cabin, and its design has applications for other high-altitude aircraft.
  • An onboard «wave visualization system» that graphically displays areas of rising and sinking air in cockpits. For commercial flights, following lines of rising air would allow faster climbs and save fuel, while also helping aircraft avoid dangerous phenomena such as wind shear and severe downdrafts.

Unlike powered research aircraft, Perlan 2 does not affect the temperature or chemistry of the air around it, making it an ideal platform to study the atmosphere. The experiments carried aloft in its instrument bay are yielding new discoveries related to high-altitude flight, weather and climate change.

Perlan’s other sponsors: United Technologies; Weather Extreme Ltd.; BRS Aerospace (Airbus photo)
Perlan’s other sponsors: United Technologies; Weather Extreme Ltd.; BRS Aerospace (Airbus photo)

This season, Perlan 2 is flying with experiments developed by The Perlan Project’s science and research committee, as well as projects created in collaboration with organizations and schools in the U.S. and Argentina. Perlan 2 research projects currently include:

  • An experiment measuring radiation effects at high altitudes, designed by students from Cazenovia Central School & Ashford School in Connecticut. This project is in coordination with Teachers in Space, Inc., a nonprofit educational organization that stimulates student interest in science, technology, engineering and mathematics;
  • A flight data recorder, developed by Argentina’s Instituto de Investigaciones Científicas y Técnicas para la Defensa (CITEDEF);
  • A second flight data recorder, designed by students at Argentina’s La Universidad Tecnológica Nacional (UTN);
  • A space weather (radiation) instrument;
  • An experiment titled «Marshmallows in Space», developed by the Oregon Museum of Science & Discovery to teach the scientific process to preschoolers.
  • Two new environmental sensors, developed by The Perlan Project.

The Perlan 2 will continue to pursue higher altitude flights and conduct research in the stratosphere as weather and winds permit through the middle of September.

 

About Airbus Perlan Mission II

Airbus Perlan Mission II is an initiative to fly an engineless glider to the edge of space, higher than any other winged aircraft has operated in level, controlled flight, to open up a world of new discoveries related to high-altitude flight, weather and climate change. This historic endeavor is the culmination of decades of research and engineering innovation, and the work of a tireless international team of aviators and scientists who volunteer their time and expertise for the non-profit Perlan Project. The project is supported by Airbus and a group of other sponsors that includes Weather Extreme Ltd., United Technologies and BRS Aerospace.

The pressurized Perlan 2 glider, which is designed to soar up to 90,000 feet/27,432 m, passed the Armstrong Line (Airbus photo)
The pressurized Perlan 2 glider, which is designed to soar up to 90,000 feet/27,432 m, passed the Armstrong Line (Airbus photo)

Ready for Training

The U.S. Air Force will announce a winner in its T-X Advanced Pilot Training System competition this summer, and Boeing’s T-X team is ready.

Boeing T-X is the right choice for the U.S. Air Force Training Mission. Meet the people who helped make it possible
Boeing T-X is the right choice for the U.S. Air Force Training Mission. Meet the people who helped make it possible

«This is an exciting time», said Ted Torgerson, T-X senior director. «Only our (Boeing) T-X is built specifically for the U.S. Air Force. Our new, flexible design meets all requirements and can evolve as technologies, missions and training needs change».

Boeing designed, built and flew the first T-X in only 36 months. «We built a special culture here with T-X. Our team dedicated a lot of time and talent to it, and we have already accomplished incredible things. I’m proud to be a member of this team», added Torgerson.

Boeing’s T-X team shares a common view of the program and each other.

«Collectively we’ve worked hard and have been dedicated to developing new techniques and shaping new ideas for the common goal of delivering a new T-X aircraft and ground-based training system that will help train the next generation of pilots», said Jim Robinson, T-X ground-based training systems lead engineer.

A Boeing T-X win will support 17,000 U.S. jobs in 34 states.

Upgrade RBS 70

The Ministry of National and the Lithuanian Armed Forces enhances the present air defence capabilities and functionality of the weaponry in their possession by procuring improved missiles and BORC night-capability sights on the basis of a contract signed with Swedish manufacturer Saab. The new procurement will upgrade the RBS 70 short-range air defence capability the Lithuanian Armed Forces currently has.

Lithuanian Armed Forces upgrade RBS 70 short-range air defence system, procure new missiles
Lithuanian Armed Forces upgrade RBS 70 short-range air defence system, procure new missiles

«Enhancement of air defences is one of the key priorities of our defence, therefore we are continuing upgrading our short-range air defence system: the RBS 70 will be improved with night-capability sights and new missiles will be acquired», Minister of National Defence Raimundas Karoblis says.

Lithuania is buying from the Swedish manufacturer RBS 70s of a newer generation greater range, higher altitude coverage and an enhanced effect against armoured targets. With improved missiles the RBS 70 system will be even more effective and dangerous to hostile aircraft, and the advanced BORC night sights will allow soldiers to stay operational during the dark part of the day.

Approximate value of both contracts is EUR 9.7 million (without VAT), the procurement contracts were signed in July.

The improved missiles and night vision equipment will be delivered to the Lithuanian Air Forces starting with 2019.

The Swedish-manufactured RBS 70 missile system is a short-range air defence capability based on control beam, i.e. laser equipment guides the missile. The greatest advantage of RBS 70 is that there has not been electromagnetic equipment so far created in the world capable of producing jamming that could disrupt RBS 70. The RBS 70 in possession of the Air Defence Battalion of the Lithuanian Armed Forces comprises RBS 70 missile systems with Giraffe Mk-IV surveillance radars.

Also, the Lithuanian Ministry of National Defence is strengthening Lithuania’s mid-range air defence capabilities: in October 2017 NASAMS mid-range air defence systems was bought for EUR 110 million from Norwegian enterprise Kongsberg and is expected to be delivered by 2021.

Airspace protection is one of the keys guarantees the allies are able to enter the region if a necessity arises. Upgrading of the possessed air defence capabilities and procurement of new ones is Lithuania’s steps to at least partly fill one of the most important gaps in its defence – airspace protection.

Viper

Bell Helicopter Textron Inc., Fort Worth, Texas, is awarded $509,750,754 for modification P00005 to definitize a previously awarded advance acquisition contract (N00019-17-C-0030) for the manufacture and delivery of 29 Lot 15 production AH-1Z Build New aircraft in support of the Marine Corps H-1 upgrade program.

The Bell AH-1Z is purpose built to meet the stringent performance and readiness requirements of the USMC
The Bell AH-1Z is purpose built to meet the stringent performance and readiness requirements of the USMC

In addition, this modification provides for long lead material and components for an additional seven Lot 16 aircraft.

Work will be performed in Fort Worth, Texas (60 percent); and Amarillo, Texas (40 percent), and is expected to be completed in February 2021.

Fiscal 2018 aircraft procurement (Navy) funding in the amount of $509,750,754 will be obligated at time of award, none of which will expire at the end of the current fiscal year.

The Naval Air Systems Command, Patuxent River, Maryland, is the contracting activity.

 

Specifications

PERFORMANCE
Maximum Speed 200 Knots-Indicated Air Speed (KIAS)/230 mph/370 km/h
Maximum Autorotation Speed 120 KIAS/138 mph/222 km/h
Combat Radius 131 NM/151 miles/243 km
Maneuverability -0.5 to +2.5 g
Cruise Speed 139 Knots True AirSpeed (KTAS)/160 mph/257 km/h
Sideward/Rearward Flight 45 KIAS/52 mph/83 km/h
CAPACITIES
Maximum Gross Weight (MGW) 18,500 lbs./8,391 kg
Maximum Useful Load 5,764 lbs./2,615 kg
Fuel Capacity 412.5 gal/1,561 L
POWERPLANT
Model T700-GE-401C
Output, Uninstalled, Each Engine 1,800 shp/1,342 kW
CREW
Pilots 2

 

Navy Accepts Delivery

The U.S. Navy accepted delivery of two Littoral Combat Ships (LCSs), the future USS Sioux City (LCS-11) and USS Wichita (LCS-13), during a ceremony at the Fincantieri Marinette Marine shipyard on August 22.

USS Wichita (LCS-13) and USS Sioux City (LCS-11) are berthed bow to bow at Lockheed Martin in Marinette, Wisconsin on Wednesday (on August 22, 2018) as both ships were delivered to the U.S. Navy during ceremonies held at the shipyard (U.S. Navy Photo by Brian Kriese, SUPSHIP Bath Det. Marinette/Released)
USS Wichita (LCS-13) and USS Sioux City (LCS-11) are berthed bow to bow at Lockheed Martin in Marinette, Wisconsin on Wednesday (on August 22, 2018) as both ships were delivered to the U.S. Navy during ceremonies held at the shipyard (U.S. Navy Photo by Brian Kriese, SUPSHIP Bath Det. Marinette/Released)

Sioux City and Wichita, respectively, are the 14th and 15th Littoral Combat Ships (LCSs) to be delivered to the U.S. Navy and the sixth and seventh of the Freedom variant to join the fleet. These deliveries mark the official transfer of the ships from the shipbuilder, part of a Lockheed Martin-led team, to the U.S. Navy. It is the final milestone prior to commissioning. Both ships will be commissioned later this year, USS Sioux City (LCS-11) in Annapolis, Maryland, and USS Wichita (LCS-13) in Jacksonville, Florida.

Regarding the LCS deliveries, Captain Mike Taylor, LCS program manager, said, «The future USS Sioux City (LCS-11) is a remarkable ship which will bring tremendous capability to the Fleet. I am excited to join with her crew and celebrate her upcoming commissioning at the home of the U.S. Naval Academy in Annapolis».

«Today also marks a significant milestone in the life of the future USS Wichita (LCS-13), an exceptional ship which will conduct operations around the globe», he said. «I look forward to seeing Wichita join her sister ships this winter».

Captain Shawn Johnston, commander, LCS Squadron Two, welcomed the ships to the fleet, saying, «The future USS Sioux City (LCS-11) is a welcome addition to the East Coast Surface Warfare Division. Both her Blue and Gold crews are ready to put this ship though her paces and prepare the ship to deploy».

«The future USS Wichita (LCS-13) is the first East Coast Mine Warfare Division ship», he said. «She will have a chance to test some of the latest and greatest mine warfare systems after she completes her remaining combat systems trials».

Several additional Freedom variant ships are under construction at Fincantieri Marinette Marine. The future USS Billings (LCS-15) is preparing for trials in spring 2019. The future USS Indianapolis (LCS-17) was christened/launched in April. The future USS St. Louis (LCS-19) is scheduled for christening and launch in the fall. The future USS Minneapolis-Saint Paul (LCS-21) is preparing for launch and christening in spring of 2019, while the future USS Cooperstown (LCS-23)’s keel was laid earlier this month and is undergoing construction in the shipyard’s erection bays. The future USS Marinette (LCS-25) started fabrication in February, while the future USS Nantucket (LCS-27) is scheduled to begin fabrication in the fall.

LCS is a modular, reconfigurable ship designed to meet validated fleet requirements for surface warfare, anti-submarine warfare and mine countermeasures missions in the littoral region. An interchangeable mission package is embarked on each LCS and provides the primary mission systems in one of these warfare areas. Using an open architecture design, modular weapons, sensor systems and a variety of manned and unmanned vehicles to gain, sustain and exploit littoral maritime supremacy, LCS provides U.S. joint force access to critical theaters.

The LCS class consists of the Freedom variant and Independence variant, designed and built by two industry teams. The Freedom variant team is led by Lockheed Martin (for the odd-numbered hulls, e.g., LCS-1). The Independence variant team is led by Austal USA (for LCS-6 and follow-on even-numbered hulls). Twenty-nine LCSs have been awarded to date, with 15 delivered to the U.S. Navy, 11 in various stages of construction and three in pre-production states.

Program Executive Office for Unmanned and Small Combatants is responsible for delivering and sustaining littoral mission capabilities to the fleet. Delivering high-quality warfighting assets while balancing affordability and capability is key to supporting the nation’s maritime strategy.

 

Ship Design Specifications

Hull Advanced semiplaning steel monohull
Length Overall 389 feet/118.6 m
Beam Overall 57 feet/17.5 m
Draft 13.5 feet/4.1 m
Full Load Displacement Approximately 3,200 metric tons
Top Speed Greater than 40 knots/46 mph/74 km/h
Range at top speed 1,000 NM/1,151 miles/1,852 km
Range at cruise speed 4,000 NM/4,603 miles/7,408 km
Watercraft Launch and Recovery Up to Sea State 4
Aircraft Launch and Recovery Up to Sea State 5
Propulsion Combined diesel and gas turbine with steerable water jet propulsion
Power 85 MW/113,600 horsepower
Hangar Space Two MH-60 Romeo Helicopters
One MH-60 Romeo Helicopter and three Vertical Take-off and Land Tactical Unmanned Air Vehicles (VTUAVs)
Core Crew Less than 50
Accommodations for 75 sailors provide higher sailor quality of life than current fleet
Integrated Bridge System Fully digital nautical charts are interfaced to ship sensors to support safe ship operation
Core Self-Defense Suite Includes 3D air search radar
Electro-Optical/Infrared (EO/IR) gunfire control system
Rolling-Airframe Missile Launching System
57-mm Main Gun
Mine, Torpedo Detection
Decoy Launching System

 

Freedom-class

Ship Laid down Launched Commissioned Homeport
USS Freedom (LCS-1) 06-02-2005 09-23-2006 11-08-2008 San Diego, California
USS Fort Worth (LCS-3) 07-11-2009 12-07-2010 09-22-2012 San Diego, California
USS Milwaukee (LCS-5) 10-27-2011 12-18-2013 11-21-2015 San Diego, California
USS Detroit (LCS-7) 08-11-2012 10-18-2014 10-22-2016 San Diego, California
USS Little Rock (LCS-9) 06-27-2013 07-18-2015 12-16-2017 San Diego, California
USS Sioux City (LCS-11) 02-19-2014 01-30-2016
USS Wichita (LCS-13) 02-09-2015 09-17-2016
USS Billings (LCS-15) 11-02-2015 07-01-2017
USS Indianapolis (LCS-17) 07-18-2016 04-18-2018
USS St. Louis (LCS-19) 05-17-2017
USS Minneapolis/St. Paul (LCS-21) 02-22-2018
USS Cooperstown (LCS-23) 08-14-2018
USS Marinette LCS-25
USS Nantucket (LCS-27)

 

Wireless Transmission

Northrop Grumman Corporation and the Defense Advanced Research Projects Agency (DARPA) have set a new standard for wireless transmission by operating a data link at 100 gigabits per second (Gbps) over a distance of 20 kilometers/12.4 miles in a city environment.

100G hardware will be flown aboard the Proteus demonstration aircraft developed by Northrop Grumman subsidiary Scaled Composites
100G hardware will be flown aboard the Proteus demonstration aircraft developed by Northrop Grumman subsidiary Scaled Composites

The two-way data link, which featured active pointing and tracking, was demonstrated January 19, 2018 in Los Angeles.

The blazing data rate is fast enough to download a 50 Gigabyte blue ray video in four seconds. The demonstration marked the successful completion of Northrop Grumman’s Phase 2 contract for DARPA’s 100 Gbps (100G) RF Backbone program.

The 100G system is capable of rate adaptation on a frame by frame basis from 9 Gbps to 102 Gbps to maximize data rate throughout dynamic channel variations. Extensive link characterization demonstrated short-term error-free performance from 9 to 91 Gbps, and a maximum data rate of 102 Gbps with 1 erroneous bit received per ten thousand bits transmitted.

The successful data link results from the integration of several key technologies. The link operates at millimeter wave frequencies (in this case, 71-76 gigahertz and 81-86 gigahertz) with 5 gigahertz of bandwidth, or data carrying capacity, and uses a bandwidth efficient signal modulation technique to transmit 25 Gbps data streams on each 5 gigahertz channel. To double the rate within the fixed bandwidth, the data link transmits dual orthogonally polarized signals from each antenna. Additionally, the link transmits from two antennas simultaneously (spatial multiplexing) and uses Multiple-Input-Multiple-Output (MIMO) signal processing techniques to separate the signals at two receiving antennas, thus again doubling the data rate within the fixed bandwidth.

According to Louis Christen, director, research and technology, Northrop Grumman, «This dramatic improvement in data transmission performance could significantly increase the volume of airborne sensor data that can be gathered and reduce the time needed to exploit sensor data».

«Next generation sensors such as hyperspectral imagers typically collect data faster, and in larger quantity than most air-to-ground data links can comfortably transmit», said Christen. «Without such a high data rate link data would need to be reviewed and analyzed after the aircraft lands».

By contrast, a 100G data link could transmit high-rate data directly from the aircraft to commanders on the ground in near real time, allowing them to respond more quickly to dynamic operations.

The successful 100G ground demonstration sets the stage for the flight test phase of the 100G RF Backbone program. This next phase, which started in June, demonstrates the 100G air-to-ground link up to 100 Gbps over a 100 km/62.1 miles range and extended ranges with lower data rates. The 100G hardware will be flown aboard the Proteus demonstration aircraft developed by Northrop Grumman subsidiary Scaled Composites.

Northrop Grumman’s 100G industry team includes Raytheon, which developed the millimeter wave antennas and related RF electronics and Silvus Technologies, which provides the key spatial multiplexing and MIMO signal processing technologies.

Northrop Grumman and DARPA 100 gigabits per second link demonstrated over 20 kilometer city environment on January 19, 2018 in Los Angeles
Northrop Grumman and DARPA 100 gigabits per second link demonstrated over 20 kilometer city environment on January 19, 2018 in Los Angeles

Sharp spikes

The Hon. Christopher Pyne MP, Minister for Defence Industry and Senator the Hon. Marise Payne, Minister for Defence, today confirmed that the Rafael Spike LR2 missile will be the anti-tank guided missile that will arm the Boxer combat reconnaissance vehicle.

A Rheinmetall Lance turret, seen here fitted to a Puma IFV but which will also be fitted to Australia’s Boxer Combat Reconnaissance Vehicle, fires a Spike LR anti-tank missile during German army trials (Rafael photo)
A Rheinmetall Lance turret, seen here fitted to a Puma IFV but which will also be fitted to Australia’s Boxer Combat Reconnaissance Vehicle, fires a Spike LR anti-tank missile during German army trials (Rafael photo)

Under project Land 400 Phase 2, Defence will acquire 211 Rheinmetall Boxer combat reconnaissance vehicles which will provide vital mobility, lethality and protection for the Australian Army. The Boxer will be manufactured in Queensland, creating up to 1450 jobs across the supply chain.

The Spike was selected after an independent comparative evaluation of potential missile options for the vehicle was conducted by the Defence Science and Technology Group. The missile will offer long range, light weight, high resistance to countermeasures and higher technical maturity in the anti-tank role.

«The Spike missile is the best anti-tank guided missile for the Boxer», said Minister Payne. «It will give the Boxer the range and lethality it needs to fight and win the land battle».

Varley Rafael Australia has committed to building the Spike LR2 in Australia, employing up to 70 Australians directly with hundreds more in the supply chain.

«This commitment by Varley Rafael Australia is a great vote of confidence in Australian industry, and will bring jobs and high-tech knowledge to Australia’s defence industry», said Minister Pyne.

Coming soon after the contract signing with Rheinmetall for the acquisition of the Boxer, this is the next step in delivering Australia’s future land combat capability.

Qatar Contract

Leonardo announces that it has made effective the contract, signed on March 14, 2018, for the supply of 28 NH90 medium twin-engine multirole military helicopters to the Ministry of Defense of Qatar and has therefore booked the order in its backlog and received the advance payment relating to the contract. Leonardo acts as overall prime contractor with responsibility for the management of the entire programme valued at more than €3 billion to the NHI consortium.

Qatar’s contract for 28 NH90 helicopters has come into force after Qatar made the first down payment on its $3.4 billion value; the order covers 16 TTHs tactical transports and 12 NFHs naval helicopters (MMI photo)
Qatar’s contract for 28 NH90 helicopters has come into force after Qatar made the first down payment on its $3.4 billion value; the order covers 16 TTHs tactical transports and 12 NFHs naval helicopters (MMI photo)

Alessandro Profumo, Leonardo CEO, stated: «We are proud to have made this important contract effective. We continue to be fully focused on executing our Industrial Plan aimed at ensuring long-term sustainable growth for the Group, also strengthening our commercial approach».

The Group Guidance for the full year 2018 is confirmed, as revised upwards on 30th of July in respect of higher order intake and FOCF to reflect the expected effectiveness of the NH90 Qatar contract, that had been only partially factored into Group Guidance, and the potential for certain export campaigns not to be full finalised by year-end.

Leonardo acts as overall prime contractor with responsibility for the management of the entire programme which includes 16 NH90 TTH for land operations, 12 NH90 NFH for naval missions, a comprehensive support, maintenance training services package and associated infrastructure. The programme could be further extended in the future with the addition of 6 + 6 units in a mix of TTH and NFH variants. Leonardo will be also responsible for the final assembly and delivery of the 12 NH90 NFH helicopters from its Venice – Tessera facility in Northern Italy and an eight-year support and training services package for crews and maintenance technicians. Meanwhile Airbus will be responsible for the final assembly of the16 NH90 TTH aircraft. Deliveries are expected to start before June 2022 and to continue through to 2025. Leonardo will also supply, contribute to and integrate various equipment, avionics and sensors.

Leonardo is responsible for or contributes to the design, production and integration of a wide range of NH90 critical components and systems. These include the rear fuselage, main gearbox, hydraulic system, Automatic Flight Control System (AFCS), plant management system, NFH mission system, power plant integration and final assembly of TTH and NFH aircraft for various customers at its Venice – Tessera facility in Northern Italy. Leonardo also integrates additional dedicated systems, avionics and sensors such as the Laser Obstacle Avoidance Monitoring (LOAM) system, radar, digital map generator, sonar and naval mission console. Weapon systems Leonardo contributes to comprise pintle mounted Gatling-type guns, torpedoes and air-to-surface missiles for Anti-Surface Warfare (ASuW) missions.

The largest military helicopter programme in Europe, the NH90 is the optimal choice for modern operations thanks to its fully composite airframe with a large cabin, its excellent power-to-weight ratio and its wide range of role equipment. It features a quadraplex fly-by-wire flight control system for reduced pilot workload and enhanced flight handling characteristics.

The NH90 is available in two main variants, one dedicated to naval operations, the NH90 NFH (NATO Frigate Helicopter) and the TTH (Tactical Transport Helicopter) for land-based operations. As of today, over 350 helicopters have been delivered in NFH and TTH variants to customers in 13 nations. Aircraft in service have logged nearly 180,000 flight hours in a wide range of weather and environmental conditions, over land and sea. 543 NH90s have been ordered by customers worldwide to date.

The twin-engine, medium-size NH90 helicopter programme is managed by NHIndustries, which is owned by Leonardo, Airbus, and Fokker.

Fighter jet trials

Eight years since a British aircraft carrier last flew a fast jet from her decks, the 65,000-tonne carrier will embark two F-35B Lightning II test aircraft, from the Integrated Test Force (ITF), based out of Naval Air Station (NAS) Patuxent River, Maryland.

HMS Queen Elizabeth (R08) departs for the USA to land fast jets on deck for the very first time (Crown copyright)
HMS Queen Elizabeth (R08) departs for the USA to land fast jets on deck for the very first time (Crown copyright)

Around 200 supporting staff, including pilots, engineers, maintainers and data analysts will be joined by two «orange wired» test aircraft, belonging to the ITF, which are expected to conduct 500 take offs and landings during their 11-week period at sea.

The aim of these initial, or «developmental» trials are to ascertain, through the specially equipped aircraft and sensors around the ship, the operating parameters of the aircraft and ship, in a range of conditions. Similar successful trials were conducted by HMS Queen Elizabeth (R08) at sea earlier this year for Rotary Wing aircraft.

Defence Secretary Gavin Williamson said: «HMS Queen Elizabeth (R08) is a true statement of our national power, and the whole country can be proud to see this magnificent symbol of our engineering prowess and international ambition leaving port to sail onto the world stage. Her voyage to America not only shows her global reach, but strengthens our special relationship with the U.S. Forces who we have worked hand-in-hand with on this iconic programme. As she sails along the east coast of the USA, she will signal our determination to keep fighting alongside our allies in all corners of an ever more complex and uncertain world».

Four F-35B Lightning II developmental test pilots, who are members of the ITF, will embark to fly the aircraft; three British, one American. The British personnel comprise a Royal Navy Commander, a Squadron Leader from the Royal Air Force (RAF) and one civilian test pilot. They will be joined by a Major from the U.S. Marine Corps.

The trials follow the recent arrival into the UK of the first joint Royal Navy, Royal Air Force F-35B jets, based at RAF Marham. «Operational testing», utilising British F-35B Lightning II aircraft are scheduled to take place on board HMS Queen Elizabeth (R08) next year.

F-35B Lightning II aircraft will join HMS Queen Elizabeth (R08) when she arrives in the USA (Crown copyright)
F-35B Lightning II aircraft will join HMS Queen Elizabeth (R08) when she arrives in the USA (Crown copyright)

The deployment, known as «WESTLANT 18», will be the first-time HMS Queen Elizabeth (R08) will have sailed across the Atlantic. As well as the vital deck trials, it will also involve exercises to prove the ability to operate with other nations’ maritime and aviation assets, as well as the landing of Royal Marines and their equipment ashore in the United States, to conduct training with their U.S. counterparts.

HMS Queen Elizabeth (R08) Commanding Officer, Captain Jerry Kyd said: «This deployment to the United States will be another first for my ship. Crossing a major ocean with 1500 sailors, aircrew and Marines embarked and the spectre of the first F-35B Lightning II landing on the deck in September is very exciting for us all. It has been an incredible journey since we left Rosyth just over a year ago and we are all looking forward to this next, seminal chapter in HMS Queen Elizabeth’s life».

As the ship’s work-up continues, so too does the regeneration of the UK’s Carrier Strike capability. Commander UK Carrier Strike Group (COMUKCSG), Commodore Andrew Betton, will take command of the ship and other units of his task group, embarking in HMS Queen Elizabeth (R08) with his Carrier Strike Group headquarters staff.

He said: «As a critical step towards delivering the UK’s new Carrier Strike Group, this deployment demonstrates the astonishing collaborative effort that will enable the new F-35B Lightning II jets to fly routinely from our Queen Elizabeth class aircraft carriers. At the heart of the Maritime Task Group, the aircraft carrier is well protected and sustained, ready to operate around the world as a potent and exceptionally flexible instrument of our foreign policy. These first F-35B Lightning II embarked trials in a UK aircraft carrier are not only key to future operational success, but represent an iconic moment for the modern Royal Navy».

The ship will conduct trials in UK waters over the coming days, before departing for the USA later this month. She will be joined by Royal Fleet Auxiliary (RFA) Tiderace (A137) and Plymouth-based type-23 frigate HMS Monmouth (F235), as well as Merlin Mk-2 helicopters from 820 Naval Air Squadron, Royal Naval Air Station (RNAS) Culdrose, Mk-4 Merlins from 845 Naval Air Squadron, RNAS Yeovilton and a contingent of Royal Marines from 42 Commando, Plymouth.

Seventh LMV

ST Engineering’s Marine sector on August 18, 2018 launched the seventh Littoral Mission Vessel (LMV), Dauntless, designed and built for the Republic of Singapore Navy (RSN).

The Republic of Singapore Navy's 7th Littoral Mission Vessel (LMV), Dauntless was launched on August 18, 2018
The Republic of Singapore Navy’s 7th Littoral Mission Vessel (LMV), Dauntless was launched on August 18, 2018

Held in a ceremony at ST Engineering’s Benoi Yard, the launch was officiated by Mr. Heng Swee Keat, Minister for Finance. Mr. Heng’s spouse, Mrs. Heng Hwee Nee was the lady sponsor who named and launched the vessel in accordance with naval traditions. The event was witnessed by senior officials from the Ministry of Defence and the Singapore Armed Forces.

The LMV programme that started in 2013 will replace the RSN’s current fleet of Fearless-class Patrol Vessels, also designed and built by ST Engineering’s Marine sector in the 1990s. The LMVs are 2.5 times larger, and possess better seakeeping capabilities to operate in higher sea state conditions, amongst other attributes.

«We are excited to launch the seventh of eight LMVs that we are designing and building for the RSN. We are committed to continue the good progress we have made thus far, and look forward to completing the programme with the last and final LMV», said Ng Sing Chan, President for ST Engineering’s Marine sector.

ST Engineering’s Marine sector has delivered five vessels till date – LMV Independence, LMV Sovereignty, LMV Unity, LMV Justice and LMV Indomitable. The sixth vessel, LMV Fortitude was launched in March this year, and the keel for the eighth LMV was laid a month after.