The U.S. Air Force has exercised the option for the Japan Air Self-Defense Force’s (JASDF) third and fourth Boeing [NYSE: BA] KC-46 tanker through the Foreign Military Sale (FMS) process.
“Japan’s new tankers will play an invaluable role in the security alliance between our two countries,” said Col. Jason Lindsey, U.S. Air Force KC-46 System program manager.
Boeing’s KC-46 will be a force multiplier in the U.S.-Japanese defense alliance. It can refuel U.S., allied and coalition military aircraft compatible with international aerial refueling procedures, any time, on any mission, and can carry passengers, cargo and patients whenever and wherever needed.
“This order further enhances our enduring partnership with Japan,” said Will Shaffer, president of Boeing Japan. “The KC-46 will be an unparalleled asset to Japan’s air mobility fleet for decades to come.”
Boeing was awarded the initial FMS contract for Japan’s first KC-46 aircraft and logistics services in December 2017 following the Japan Ministry of Defense’s KC-X aerial refueling competition. A contract for a second KC-46 was awarded to Boeing in December 2018.
Boeing assembles KC-46A aircraft for both the U.S. Air Force and the JASDF on its 767 production line in Everett. Japan’s first KC-46 is scheduled for delivery in 2021.
All six Super Tucano aircraft ordered by The Philippine Air Force (PAF) have been officially handed over to the Air Force today. The aircraft will be deployed for close air support, light attack, surveillance, air-to-air interception, counter-insurgency missions, advanced training and are part of PAF’s ongoing modernization plan.
“The Philippine Air Force takes pride in welcoming the six A-29B Super Tucano from Embraer Defense and Security into the blue fold of our skies as part of our fleet. The addition of these close air support aircraft is a great leap in our air power capability as we soar together in our flight to a more capable and credible Air Force for the nation and its people,” Lieutenant General Allen T. Paredes AFP, Commanding General of the Philippine Air Force.
“It is an honour to deliver these six A-29 Super Tucanos to The Philippine Air Force,” said Jackson Schneider, President and CEO of Embraer Defense & Security. “Delivering an aircraft amidst a global pandemic is challenging, but we were committed to go the extra mile every step of the way to have the aircraft in the hands of PAF to fulfil their security missions.”
These aircraft will be operated and maintained by the 15th Strike Wing, the PAF’s end-user. In November 2017, a firm order of six A-29 Super Tucano light attack and advanced training aircraft for the Philippine Air Force (PAF) was made after a comprehensive public bidding process.
The A-29 Super Tucano is a durable, versatile and powerful turboprop aircraft capable of carrying out a wide range of missions, even operating from unimproved runways. To date, the Super Tucano was selected by 15 air forces worldwide.
FILE PHOTO: The logo of Airbus is pictured at the entrance of the Airbus facility in Bouguenais, near Nantes, France, July 2, 2020. REUTERS/Stephane Mahe/File Photo
TOULOUSE, France (Reuters) – Major French unions on Monday signed a keenly awaited labor deal with Europe’s Airbus <EADSY> covering job reductions and furloughs for production workers affected by coronavirus-blighted demand for passenger jets.
After three months of talks, unions representing a majority of the planemaker’s French workers signed an agreement paving the way for 4,200 job reductions in France, including 3,400 in Toulouse, Europe’s aerospace capital where Airbus is based.
Unions say the agreement will prevent compulsory redundancies, although Chief Executive Guillaume Faury recently warned staff that voluntary measures would not be enough.
Boeing [NYSE: BA] and the U.S. Space Force successfully completed the first major engineering design review for the Wideband Global SATCOM (WGS)-11+ communications satellite. This successful review demonstrates that Boeing is ready to proceed to the final system design phase. Production will begin next year at Boeing’s El Segundo factory, with delivery scheduled for 2024.
WGS-11+ features a modern digital payload that performs at twice the operational capability of its predecessors, increasing the availability of military-grade communications. Leveraging advances in Boeing commercial technologies, it will provide secure communications to connect U.S. and allied forces globally.
The current WGS constellation, consisting of 10 satellites, is the backbone of the U.S. military’s global communications system, providing flexible, high data-rate connectivity. Users include all U.S. military services, the White House Communications Agency, the U.S. State Department and international partners.
“Completing this engineering design review is a key milestone and brings us one step closer to delivering this groundbreaking satellite to the warfighter in record time, significantly improving capacity and coverage to our soldiers, sailors, airmen, Marines and allies,” said Col. John Dukes, chief of the Geosynchronous/Polar Division at Space and Missile Systems Center Production Corps.
“WGS-11+ uses narrower spot beams to deliver a stronger, more reliable connection exactly where it’s needed, which means better performance and greater flexibility than ever before,” said Troy Dawson, vice president of Boeing Government Satellite Systems.
In addition to U.S. military forces, the WGS constellation provides service to international partners including Australia, Canada, Denmark, Luxembourg, New Zealand, the Netherlands, the Czech Republic and Norway.
Queensland is poised to take another bold step in aerospace and advanced manufacturing with an historic opportunity to be the final production home for unmanned defence aircraft – the first military aircraft to be designed, engineered and manufactured in Australia in more than 50 years.
Premier Annastacia Palaszczuk said a visionary new partnership with Boeing Australia means more high-skilled jobs, local supply opportunities and defence industry stimulus as Queensland continues to recover and grow from the COVID downturn.
Our investment in this advanced manufacturing project will provide critical skills for suppliers, academia and Boeing, and culminate in Queensland becoming the primary final assembly facility for the Boeing Airpower Teaming System, conditional on orders.
The first aircraft prototype, called the Loyal Wingman, was unveiled with the Royal Australian Air Force in May this year.
Treasurer Cameron Dick said the Boeing partnership demonstrated the Palaszczuk government’s commitment to advanced manufacturing.
“Manufacturing is a vital part of the Queensland economy, which is why supporting manufacturing is one of the centrepieces of our Unite and Recover Economic Recovery Plan,” the treasurer said.
“Our government’s longstanding commitment to advanced manufacturing is one of the reasons Queensland is already home to Boeing’s largest workforce outside the United States.
“Boeing has 1,700 staff in Queensland and supports 400 Queensland-based suppliers.
Boeing Australia, New Zealand and South Pacific President Brendan Nelson said the partnership with the Queensland government to develop an advanced manufacturing capability was a significant milestone for the company.
“This includes introducing technologies such as advanced robotics; investment in universities, small-to-medium enterprises and start-up companies; as well as creating global export opportunities for Australia’s supply chain.
The first Brazilian Gripen E, designated by Brazilian Air Force (FAB) as F-39 Gripen, concluded its first flight in Brazil. The aircraft flew from the airport in Navegantes to Embraer’s facility in Gavião Peixoto. The official presentation of the aircraft is scheduled to take place during the Aviator’s Day and the Brazilian Air Force Day ceremony in Brasilia, celebrated on the 23rd of October.
The President and CEO of Embraer Defense & Security, Jackson Schneider, highlighted the scope of this partnership: “Embraer will play a leading role in the execution of the Gripen programme in Brazil and will be responsible for systems development, integration, flight testing, final assembly, and delivery of the aircraft in support of Brazilian Air Force operations. In terms of technology transfer, the Gripen programme is a great opportunity to increase our knowledge in the development and manufacturing of advanced combat aircraft.”
The Brazilian Minister of Defence, Fernando Azevedo e Silva also highlighted the importance of sharing experiences arising from cooperation between Brazil and Sweden: “Gripen increases the operational capacity of the Brazilian Air Force and promotes a partnership that fosters research and industrial development in both countries,” the Minister of Defence declared.
For the Air Force Commander, Lt. Brig. Antonio Carlos Moretti Bermudez, the arrival of the first F-39 Gripen aircraft is a major milestone for the project: “It is an immense satisfaction for the Brazilian Air Force to see this aircraft flying on national territory. The F-39 Gripen, the new Brazilian Air Force multi-mission aircraft, will be the backbone of Fighter Aviation and it reaffirms the FAB’s commitment to maintaining the country’s sovereignty and to defend the twenty-two million square kilometres under its responsibility”, Lt. Brig. Antonio Carlos Moretti Bermudez points out.
The flight test programme will be expanded to include the Gripen Flight Test Center at Embraer in Gavião Peixoto, which will be fully integrated with the test programme already running at full phase at Saab in Linköping since 2017. Activities in Brazil will include testing of flight control system, environmental control system as well as tests in the aircraft in tropical climate conditions. In addition to the testing that is common for the Gripen E Programme, unique features of the Brazilian aircraft, such as weapons integration as well as the Link BR2 communication system – which provides encrypted data and voice communication between the aircraft – will be tested in Brazil.
The production aircraft will be delivered to the Brazilian Air Force, at Wing 2 in Anápolis (Goiás State), by the end of 2021.
Expanded SES constellation to deliver enhanced global connectivity services
Boeing [NYSE: BA] has received a contract to build four additional 702X satellites from SES as the leading global content connectivity provider increases the number of O3b mPOWER satellites in its Medium Earth Orbit (MEO) to 11.
These four additional O3b mPOWER satellites will enhance SES’s next-generation MEO constellation throughput and efficiency as well as expand its unique capabilities to deliver connectivity services ranging from 50Mbps to multiple gigabits per second to a single user. The system will allow telecommunications companies, mobile network operators, governments, enterprises, aircraft and ship operators, and more, to connect with their core network or extend cloud access worldwide.
Boeing is currently building the first seven O3b mPOWER satellites for SES. The first set of satellites will be launched in late 2021.
SES’ O3b mPOWER software-defined satellites are based on Boeing’s multi-orbit 702X satellite portfolio, which employs Boeing’s most advanced digital payload to date. The O3b mPOWER satellite constellation will integrate with existing network architectures to deliver global, end-to-end managed network services on land, sea and in the air.
Additionally, Boeing and SES have agreed to collaborate to develop commercially-based service offerings and capabilities that can be derived from current and future SES MEO satellites. Working together, the companies will develop resilient, interoperable MILSATCOM-COMSATCOM architectures to provide U.S. and other government users with robust connectivity across mission domains.
The 702X is a family of software-defined satellites that incorporates digital processors, advanced thermal management, optimized manufacturing technologies and simplified ground resource management tools. With thousands of beams that are formed in real time and can be pointed and shaped where needed, 702X allows operators the flexibility to specifically distribute power and bandwidth among users, maximizing useable capacity and eliminating wasted energy.
SpaceX is targeting Monday, July 20 for Falcon 9’s launch of the ANASIS-II mission, which will lift off from Space Launch Complex 40 (SLC-40) at Cape Canaveral Air Force Station in Florida. The primary launch window opens at 5:00 p.m. EDT, or 21:00 UTC, and closes at 8:55 p.m. EDT, or 00:55 UTC on July 21.Falcon 9’s first stage previously launched Crew Dragon to the International Space Station with NASA astronauts Bob Behnken and Doug Hurley on board.
Following stage separation, SpaceX will land Falcon 9’s first stage on the “Just Read the Instructions” droneship, which will be stationed in the Atlantic Ocean. The ANASIS-II spacecraft will deploy about 32 minutes after liftoff. Per the customer’s request, live coverage will end shortly after first stage landing.You can watch the launch webcast here, starting about 15 minutes before liftoff.
Having earned its reputation as the new-generation aerial tanker of choice for military services worldwide, Airbus’ A330 Multi Role Tanker Transports (MRTT’s) are now being outfitted for their multi-mission duties in an optimised industrial process – enabling five aircraft to undergo the conversion every year.
The A330 MRTT is based on Airbus’ popular A330 widebody passenger airliner, with the aircraft produced on the company’s commercial airplane final assembly line in Toulouse, France. Once their initial built-up is complete, they are flown to Airbus’ military aircraft facility in Getafe, Spain to be transformed with hardware and systems for their dual roles as an air-to-air refuelling platform and an airlifter for troops and cargo.
Thousands of new parts integrated
During the conversion, Airbus teams install some 16,000 types of new components and approximately 450 new electrical harnesses (for a total cabling length of more than 50 km.), as well as 6,000 brackets and 1,700 connectors.
With 42 A330 MRTTs delivered to date, Airbus’ has reduced the end-to-end transformation time by one month, introducing increased digitalization and applying the “takt” principle of lean production methodology – in which the aircraft moves through the conversion with zero hours pending and zero work orders open.
The digitalization includes the increasing use of Microsoft HoloLens mixed reality headsets instead of computer tablets. With 80 to 90 work orders now produced with HoloLens, the goal is to apply the system during 2020 for 50% of overall work orders, mainly for electrical and hydraulic installations.
A key element of the conversion is installing the A330 MRTT’s air-to-air refuelling hardware. All aircraft are equipped with hose and drogue units, and most customers have opted for Airbus’ highly capable fly-by-wire Aerial Refuelling Boom System (ARBS) – which provides enhanced controllability during in-flight fuel transfers to receiver airplanes.
The A330 MRTT transformation process includes locating the Airbus-developed Air Refuelling Console in the cockpit area behind the pilots. Containing seats for two crew members, this station enables the aerial refuelling to be remotely controlled, aided by an advanced high-resolution observation system with panoramic 3D-vision for operations day and night.
On the A330 MRTT’s main deck, the aircraft’s widebody cross-section can be configured a variety of roles, from the transportation of troops and personnel with capacities for 268 passengers in a two-class configuration, to aeromedical evacuation – accommodating two intensive care units, 16 stretchers, along with seating for medical staff and passengers.
Customers from around the world
Airbus delivered its initial A330 MRTT in December 2009, with this no. 1 aircraft received by the Royal Australian Air Force. Today, A330 MRTTs are flown by Australia, France, Singapore, Saudi Arabia, South Korea, the United Emirates and United Kingdom – logging a combined total of more than 200,000 flight hours.
A total of 60 A330 MRTTs have been ordered for operations at the service of 13 nations.
The Boeing [NYSE: BA]-built X-37B autonomous spaceplane today launched on top of a uniquely configured United Launch Alliance Atlas V rocket.
Boeing is the prime contractor for the X-37B spaceplane and facilitates the integration of all experiments into the vehicle ensuring they receive the correct power, thermal and data services required. Boeing also works to identify future reusable platform experiment opportunities on each mission.
The X-37B’s sixth mission is the first to use a service module with additional payload capability to support a variety of experiments for multiple government partners. The mission will deploy FalconSAT-8, a small satellite developed by the U.S. Air Force Academy and sponsored by the Air Force Research Laboratory, to conduct experiments on orbit. Further, two NASA experiments will study the impact of radiation and other space effects on certain materials and seeds used to grow food. Another experiment by the Naval Research Laboratory will transform solar power into radio frequency microwave energy which could then be transmitted to the ground. In addition, the mission will test reusable space vehicle technologies.
The X-37B first launched in April 2010. Originally designed for missions of 270 days duration, the X-37B has set endurance records during each of its five previous flights. Most recently, X-37B spent 780 days on orbit before returning to Earth in October 2019.
“The X-37B has shifted the paradigm and redefined efficiency in space development, said Jim Chilton, Boeing Space and Launch senior vice president. “The rapid technology advancements enabled by the program will benefit the entire space community and influence the next generation of spacecraft design.”
The X-37B program is a partnership between the Department of the Air Force Rapid Capabilities Office and the United States Space Force. Boeing program management, engineering, test and mission support functions for the Orbital Test Vehicle (OTV) program are conducted at Boeing sites in Southern California and Florida.
