Navigation Technology

The Air Force Research Laboratory (AFRL) is excited to announce that the Navigation Technology Satellite-3 (NTS-3) satellite navigation program is closer in the development of the spacecraft for its in-space demonstration, thanks to the delivery of its bus that will carry it to space in 2023.

Navigation Technology Satellite-3 (NTS-3)
The ESPAStar-D bus that will be integrated into the Air Force Research Laboratory’s Navigation Technology Satellite-3. The bus, which will serve as the body of spacecraft, was built at Northrop Grumman’s facility in Gilbert, Arizona. NTS-3 is scheduled for launch in 2023 (Courtesy photo/Northrop Grumman)

In 2019, the U.S. Air Force designated NTS-3 as one of three Vanguard programs, which are priority initiatives to deliver new, game-changing capabilities for national defense. The NTS-3 mission is to advance technologies to responsively mitigate interference to Position, Navigation and Timing (PNT) capabilities, and increase system resiliency for the U.S. Space Force’s Global Positioning System military, civil and commercial users.

Northrop Grumman Corporation recently delivered an ESPAStar-D spacecraft bus to L3Harris Technologies of Palm Bay, Florida in support of the NTS-3 mission scheduled to launch to geosynchronous orbit from Cape Canaveral in 2023.

The AFRL Transformational Capabilities Office at Wright-Patterson AFB and Space Vehicles Directorate, located at Kirtland Air Force Base (AFB) in Albuquerque, New Mexico, are in partnership with the two industry companies for the bus development and integration.

«This is the first time an ESPAStar bus has been built and delivered as a commercially-available commodity», said Arlen Biersgreen, the NTS-3 program manager. «NTS-3 is using a unique acquisition model for the ESPAStar line that fully exercises the commercial nature of Northrop Grumman’s product line, in order to provide the bus to another defense contractor for payload integration using standard interfaces».

The ESPAStar-D bus, built in Northrop Grumman’s satellite manufacturing facility in Gilbert, Arizona, includes critical subsystems such as communications, power, attitude determination and control, in addition to configurable structures to mount payloads.

A June 2021 press release from Northrop Grumman explains the company built the ESPAStar-D bus «to provide affordable, rapid access to space», and that its configuration, using an Evolved Expendable Launch Vehicle (EELV) Secondary Payload Adapter (ESPA), allows multiple separate experimental payloads to be stacked together on one launch vehicle.

It should be noted that AFRL developed the ESPA ring – a technology that revolutionized the transport of space experiments, allowing for lower-cost and more frequent «rides» to space, for government and industry users.

«The transfer of the bus allows L3Harris to move forward building the NTS-3 spacecraft», said 2nd Lt. Charles Schramka, the program’s deputy principal investigator. «L3Harris will perform tests and begin integrating the NTS-3 PNT payload onto the bus. Together the bus and payload will form the NTS-3 spacecraft».

Following L3Harris’s work, AFRL will test the bus with the NTS-3 ground control and user equipment segments, and will perform its own integrated testing on the overall NTS-3 system architecture.

Besides the bus delivery, there are other advances in the program.

Schramka said, «This month we took delivery of an experimental receiver known as Global Navigation Satellite System Test Architecture (GNSSTA), developed by our sister AFRL unit, the Sensors Directorate at Wright-Patterson AFB, Ohio and Mitre Corporation. GNSSTA is a reprogrammable software defined signal receiver that allows us to receive the legacy GPS and advanced signals generated by NTS-3».

AFRL will continue its integration efforts through 2022 to ensure all parts are working together for the fall of 2023 NTS-3 launch.

«With the delivery of the bus we are entering into the next phase of payload integration», Biersgreen said. «These recent breakthroughs allow the program to continue to move forward and prepare for launch of the first U.S. integrated satellite navigation experiment in over 45 years».

Nine additional CH-53K

A contract to build nine CH-53K King Stallion helicopters with an additional contract option for nine more aircraft was awarded to Sikorsky, a Lockheed Martin Company on June 25.

CH-53K King Stallion
The CH-53K King Stallion in pre-Initial Operational Test and Evaluation training with Marine Operational Test and Evaluation Squadron One (VMX-1) at Marine Corps Air Station New River, North Carolina (U.S. Marine Corps photo)

The Low Rate Initial Production (LRIP) Fiscal Year (FY) 2021 Lot 5 contract will deliver nine aircraft in 2024 as part of a 200 aircraft program of record for the U.S. Marine Corps. The Lot 5 contract contains an option for Lot 6, for an additional nine aircraft with a contract award in FY22.

«This contract award is a testament to the hard work and dedication from the team to execute this critical program in support of the U.S. Marine Corps’ heavy lift requirement», said Colonel Jack Perrin, Program Manager, PMA-261 heavy lift helicopter program manager.

The Lot 5 contract is for $878.7 million, bringing the Sikorsky element of the aircraft cost of those nine aircraft to $97.6 million each. The Lot 6 aircraft cost reduces to $94.7 million each, for a Lot 6 total contract cost of $852.5 million. These costs do not include engine and other Government Furnished Equipment.

The FY21 Lot 5 and FY22 Lot 6 contracts represent an average unit airframe cost reduction of $7.4M from FY20 Lot 4 to FY22 Lot 6.

The program will start Initial Operational Test and Evaluation (IOT&E) in July 2021 and is poised to support the Marine Corps’ declaration of Initial Operational Capability. In preparation for commencement of IOT&E, three System Demonstration Test Article aircraft are currently being operated by Marine Corps’ Operational Test and Evaluation squadron, VMX-1, at Marine Corps Air Station New River, North Carolina.

«As the long-range logistic support backbone for the U.S. Marine Corps, it is essential that we get this critical capability to the fleet as quickly and as affordably as possible», said Perrin.

The Lot 5 award brings the program total aircraft, either delivered or on contract, to 33.

 

General Characteristics

Number of Engines 3
Engine Type T408-GE-400
T408 Engine 7,500 shp/5,595 kw
Maximum Gross Weight (Internal Load) 74,000 lbs/33,566 kg
Maximum Gross Weight (External Load) 88,000 lbs/39,916 kg
Cruise Speed 141 knots/162 mph/261 km/h
Range 460 NM/530 miles/852 km
AEO* Service Ceiling 14,380 feet/4,383 m
HIGE** Ceiling (MAGW) 13,630 feet/4,155 m
HOGE*** Ceiling (MAGW) 10,080 feet/3,073 m
Cabin Length 30 feet/9.1 m
Cabin Width 9 feet/2.7 m
Cabin Height 6.5 feet/2.0 m
Cabin Area 264.47 feet2/24.57 m2
Cabin Volume 1,735.36 feet3/49.14 m3

* All Engines Operating

** Hover Ceiling In Ground Effect

*** Hover Ceiling Out of Ground Effect

Intrepid Tiger II

The U.S. Marine Corps’ newest Intrepid Tiger II (IT II) Electronic Warfare (EW) capability flew for the first time on an MV-22B Osprey June 15.

MV-22B Osprey
The MV-22B Osprey flies for the first time June 15 with the latest Intrepid Tiger II (V)4 (IT II) Electronic Warfare payload. This marked the start of developmental flight testing for IT II (V)4 and the first time the payload is mounted internally on an aircraft (U.S. Navy photo)

«The significance of this developmental test flight was two-fold», said U.S. Navy Captain Michael Orr, Airborne Electronic Attack (AEA) Systems (PMA-234) program manager. «Not only was this the first time we’ve integrated the Intrepid Tiger II capability onto an Osprey but also the first time the capability has been incorporated internal to a platform».

PMA-234 Marine Air-Ground Task Force EW Team Lead Bill Mellen said the typical, externally mounted pod was not an option because the MV-22B Osprey tilt rotor aircraft does not have traditional wing stations from which to mount podded payloads. The AN/ALQ-231(V)4 IT II system’s upgraded design consists of a roll-on/roll-off rack-mounted payload, controlled from a laptop in the aircraft cabin.

The IT II is a precision, on-demand, EW weapon system designed to provide Marine Corps fixed and rotary wing aircraft with an organic, distributed, and networked EW payload that can be controlled from the cockpit or by a ground operator.

The (V)4 system design will include state-of-the art upgrades, utilizing government and commercial-off-the-shelf technologies and jammer techniques that will allow the Marine Corps to keep pace with the ever-evolving threats on the battlefield, and provide the needed adaptability to allow for future iterations of expanded frequency coverage and advanced capabilities, said Mellen.

«As the 21st Century Battlespace becomes more complex and more contested, military assets must support themselves across the entire spectrum of threats», said U.S. Marine Corps Colonel Brian Taylor, MV-22B Osprey Joint Program Office program manager. «The fielding of this upgrade provides a significant and incremental improvement in the V-22’s organic electronic warfare capability, providing commanders more options to support our Marine Corps ground forces. This improves both operational safety to our aircrews and operational success to the commander, our ultimate goals in everything we do».

Following successful integration on the MV-22B Osprey, the IT II team will further expand the V4 design to include a counter-radar capability on the KC-130J Super Hercules aircraft, hoping to leverage much of the MV-22B Osprey technology, including the in-cabin rack-mounted payload design, Mellen said.

The IT II (V)4 is scheduled to begin fleet deliveries for the MV-22B Osprey in Fiscal Year (FY) 2023 to achieve Initial Operating Capability by the end of FY24 with an inventory objective of 42 total systems.

The IT II (V)1 is flown on the AV-8B Harrier, F/A-18 A++/C/D Hornets, and KC-130J Super Hercules aircraft, while the IT II (V)3 is flown on the UH-1Y Huey helicopter.

AEA Systems Program Office is responsible for acquiring, delivering, and sustaining AEA systems that provides combatant commanders with EW capabilities that are critical to operational mission success.

Air defence missile

MBDA has successfully completed a firing of the Common Anti-Air Modular Missile Extended Range CAMM-ER air defence missile against a manoeuvring target, confirming the excellent capability of the CAMM family system.

CAMM-ER
MBDA’s CAMM-ER successfully completes major milestone

The trial took place at an Italian firing range. CAMM-ER is the extended range member of the new-generation CAMM air defence family of systems.

All members of the CAMM family share the same cutting-edge active radar seeker and soft-launch system, with CAMM-ER featuring a larger rocket motor designed by AVIO to provide extended range out beyond 40 km/24.85 miles.

CAMM-ER was designed to replace the Aspide munition in the Medium Advanced Air Defence System (MAADS) of the Italian Air Force and the GRIFO air defence system of the Italian Army. CAMM-ER is the missile that will be used in the Albatros NG system, which provides an optimized Naval Based Air Defence (NBAD) solution to enhance the defence capabilities of naval fleets.

Terracotta sensor

Northrop Grumman Corporation has successfully flight demonstrated its new Terracotta sensor – a fully-digital Open Mission Systems (OMS)-compliant wideband Active Electronically Scanned Array (AESA).

Terracotta sensor
Terracotta’s nearly 200 wideband digital channels can be molded cooperatively or segmented for unique purposes

The flight test was a follow-on to successful ground and flight demonstrations of Terracotta conducted last fall. This most recent flight verified Terracotta’s ability to simultaneously perform active and passive radio frequency capabilities. Terracotta’s nearly 200 wideband digital channels can be molded cooperatively or segmented for unique purposes, including electronic warfare, airborne early warning radar, active and passive sensing, and communications.

«As a fully-digital multifunction sensor with a wide operating bandwidth, Terracotta can seamlessly provide adaptive spectrum maneuverability», said Paul Kalafos, vice president, surveillance and electromagnetic maneuver warfare. «The sensor’s architecture is easily scaled and configured for many applications and systems across all domains. It represents a key enabling technology for joint all domain operations».

Unlike traditional sensors, multifunction apertures consolidate multiple capabilities into a single sensor, decreasing both the number of apertures needed and the size, weight, and power requirements for the advanced capabilities. Sophisticated multifunction apertures like Terracotta can deploy several functions simultaneously.

OMS compliance offers an interface solution based on open architecture design allowing customers to rapidly add new or improved capabilities, regardless of supplier, at a reduced cost. Northrop Grumman plans to integrate a combination of OMS/Open Communication Systems sensors and software-defined radios across multiple platforms, networks and nodes to address driving mission needs and ensure multi-domain interoperability. To learn more about Northrop Grumman’s role in advancing the DOD’s Joint All Domain Command and Control (JADC2) vision, visit the company’s website.

Northrop Grumman solves the toughest problems in space, aeronautics, defense and cyberspace to meet the ever evolving needs of our customers worldwide. Our 90,000 employees define possible every day using science, technology and engineering to create and deliver advanced systems, products and services.

Third 30FFM Frigate

According to Naval News, Japanese shipbuilder Mitsubishi Heavy Industries (MHI) in Nagasaki launched on Jun 22, 2021 JS Noshiro (FFM-3), the third Mogami-class vessel. Also known as 30FFM, it is a next generation frigate for the Japan Maritime Self-Defense Force (JMSDF).

JS Noshiro (FFM-3)
Japan’s MHI launches JS Noshiro (FFM-3) the third 30FFM Mogami-class frigate for the JMSDF

The first ship-in-class, JS Mogami (FFM-1), was launched in March 2021 by MHI (Naval News was on site to cover the event) while another shipyard, Mitsui E & S Shipbuilding located in Okayama launched the second ship of the class, JS Kumano (FFM-2), back in November 2020. This is because Mitsui E&S received a subcontracting order from MHI (the main contractor) for the construction of the 3,900-ton frigate for the JMSDF.

The vessel is named after the Noshiro River (Noshiro-gawa) located in Akita Prefecture, Japan. According to the JMSDF «The Noshiro River has supported tens of thousands of people since ancient times». The shipyard will now proceed to the fitting out stage of the frigate, ahead of its delivery and commissioning set for 2022

30FFM (also known as FFM and previously known as 30DX) is the next generation multi-mission frigate designed for the Japan Maritime Self-Defense Force. A total number of 22 Frigates are expected to be procured for the JMSDF.

The two shipyards in charge of building the first two frigates of the class are Mitsubishi Heavy Industries (MHI) in Nagasaki and Mitsui E&S in Okayama.

According to MHI, the 30FFM multi-mission frigate will have a full load displacement of about 5,500 tons, with a length of 132.5 meters/434.7 feet and a beam of 16.3 meters/53.5 feet. It will have a maximum speed in excess of 30 knots/34.5 mph/55.5 km/h. The crew complement will be quite low, at about 90 sailors, indicating a high level of automation on board.

The 30FFM will be equipped with a wide variety of weapons and systems as listed below.

  • BAE Systems Mk.45 mod.4 5-inch/127-mm naval gun system × 1
  • Japan Steel Works 12.7-mm Remote Weapon System × 2
  • 41 Vertical Launching System (VLS) fitted for but not with
  • Raytheon SeaRAM × 1
  • MHI Type 17 anti-ship missiles × 8
  • Mitsubishi Electric OPY-2 multifunction Radar
  • Mitsubishi Electric OAX-3EO/IR sensors
  • Hitachi OQQ-11 anti-mine sonar
  • NEC OQQ-25 anti-submarine sonar (VDS/TASS)
  • Unmanned Underwater Vehicles (UUV) OZZ-5 by MHI and Unmanned Surface Vehicles (USV) unknown type for mine counter measures
  • Sea mines for offensive mine warfare

Organic Precision Fire

UVision Air Ltd. – a global leader in aerial loitering munitions systems of all sizes for a variety of missions, and the design and production company of the Hero-120 system, has been awarded through its Business Development partner, Mistral Inc. to supply the Hero-120 for the U.S. Marine Corps Organic Precision Fire Mounted (OPF-M) System. The system will be integrated with Light Armored Vehicle-Medium (LAV-M), Joint Light Tactical Vehicle (JLTV), and Long-Range Unmanned Surface Vessel (LRUSV).

Hero-120 OPF-M
The HERO-120 OPF-M systems will be integrated into the Marines’ armoured vehicles, under a multi-year program

UVision’s Hero-120 OPF-M has been selected after the completion of several successful demonstrations, tests and evaluation processes, proving the remarkable performance capabilities of the system. The Hero-120 OPF-M will provide the Marines Corps with Intelligence, Surveillance and Reconnaissance (ISR), highly accurate and precision indirect fire strike capabilities. In addition, UVision will supply its MultiCanister Launcher tailored to the specific requirements of the USMC and integrate onto the LAV, JLTV and the LRUSV.

The Hero-120 is a mid-range, anti-armor weapon system which meets the complex requirements of the modern battlefield. Hero-120 is a high precision smart loitering munition system with a unique aerodynamic structure that carries out pinpoint strikes against antiarmor, anti-material and anti-personnel targets including tanks, vehicles, concrete fortifications, and other soft targets in populated urban areas. The Hero-120’s high precision capability ensures minimal collateral damage. Its wide range of multi-purpose warheads enable the operational user to effectively engage all targets.

«We are proud to be selected by the Marines to provide advanced solutions for the U.S. frontline forces», says Major General (Retired) Avi Mizrachi, CEO of UVision. «The contract is a testament of our customers’ strong belief in our systems and their impressive technical performance. Our subsidiary, UVision USA, is in a process of establishing our U.S. based production facility to support the USMC OPF-M program».

 

Characteristics

Weight 12.5 kg
Warhead 4.5 kg
Range, Line of Sight (LOS) 40 km
Endurance 60 min
Engine Electrical
Launch method Canister

 

Future USS Cleveland

The laying of the keel celebrates an important milestone in the life of the future USS Cleveland (LCS-31) and marks a significant event for the construction of the nation’s 31st Littoral Combat Ship (LCS). The USS Cleveland (LCS-31) will be the fourth commissioned ship in naval service, since World War I, named after Cleveland, the second-largest city in Ohio and home to countless Navy and Marine Corps veterans. With the city’s deep ties to maritime service since the turn of the 20th century, LCS-31 will honor Cleveland’s longstanding naval history.

USS Cleveland (LCS-31)
A welder authenticates the keel of Littoral Combat Ship (LCS) 31, the future USS Cleveland, by welding the initials of the ship’s sponsor, Robyn Modly, wife of a Clevelander and former U.S. Navy Secretary, who has embraced the city as her own

«We are proud to build another proven warship that allows our Navy to carry out missions around the world. All of us at Lockheed Martin, including our hardworking team in Marinette, Wisconsin, look forward to working with the U.S. Navy to continue delivering highly capable and adaptable Freedom-variant Littoral Combat Ships to the fleet». – Steve Allen, Lockheed Martin Vice President of Small Combatants and Ship Systems.

«I am humbled and honored to be the sponsor of a ship that bears the name of the great city of Cleveland, with its rich and storied history of support to our armed services. I look forward to a lifelong relationship with the ship and her crew as they proudly serve the Navy and our nation». – Robyn Modly, Ship Sponsor of the future USS Cleveland (LCS-31).

«Our team at Fincantieri Marinette Marine is proud to celebrate the keel laying of the LCS-31 with the gracious citizens of Cleveland. This milestone is a testament to the power of cooperation and forward thinking by the entire Freedom Team and our customer, the United States Navy. It also bears witness to all the dedicated craftsmen and women working in our FMG system of shipyards». – Jan Allman, CEO of Fincantieri Marinette Marine

The Freedom-variant Littoral Combat Ship is a resilient, flexible warship, designed from the keel up to affordably take on new capabilities including advanced sensors, missiles and cutting-edge cyber systems. Its speed, strength and versatility make it a critical tool to help sailors achieve their missions.

 

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 11-17-2018 Mayport, Florida
USS Wichita (LCS-13) 02-09-2015 09-17-2016 01-12-2019 Mayport, Florida
USS Billings (LCS-15) 11-02-2015 07-01-2017 08-03-2019 Mayport, Florida
USS Indianapolis (LCS-17) 07-18-2016 04-18-2018 10-26-2019 Mayport, Florida
USS St. Louis (LCS-19) 05-17-2017 12-15-2018 08-08-2020 Mayport, Florida
USS Minneapolis/St. Paul (LCS-21) 02-22-2018 06-15-2019
USS Cooperstown (LCS-23) 08-14-2018 01-19-2020
USS Marinette (LCS-25) 03-27-2019 10-31-2020
USS Nantucket (LCS-27) 10-09-2019
USS Beloit (LCS-29) 07-22-2020
USS Cleveland (LCS-31) 06-20-2021

 

Full Ship Shock Trials

On Friday, June 18, the USS Gerald R. Ford (CVN-78) successfully completed the first scheduled explosive event as part of Full Ship Shock Trials (FSST).

USS Gerald R. Ford (CVN-78)
USS Gerald R. Ford (CVN-78) Completes First Full Ship Shock Trial Event

The first-in-class aircraft carrier was designed using advanced computer modeling methods, testing, and analysis to ensure the ship is hardened to withstand battle conditions, and these shock trials provide data used in validating the shock hardness of the ship.

The U.S. Navy has conducted FSSTs over several decades, most recently for the Littoral Combat Ships USS Jackson (LCS-6) and USS Milwaukee (LCS-5) in 2016; as well as for the San Antonio-class amphibious transport dock USS Mesa Verde (LPD-19) in 2008, the amphibious assault ship USS Wasp (LHD-1) in 1990, and the guided missile cruiser USS Mobile Bay (CG 53) in 1987. The last aircraft carrier to execute FSST was USS Theodore Roosevelt (CVN-71) in 1987.

The Navy is conducting the shock trial testing in accordance with Office of the Chief of Naval Operations Instruction 9072.2, and as mandated by the National Defense Authorization Act of 2016.

Ford’s shock trials are being conducted off the East Coast of the United States, within a narrow schedule that complies with environmental mitigation requirements, respecting known migration patterns of marine life in the test area. The Navy also has employed extensive protocols throughout FSST to ensure the safety of military and civilian personnel participating in the testing evolution.

Ford is the newest and most advanced aircraft carrier in the U.S. Navy. The ship closed out a successful 18-month Post Delivery Test & Trials period in April, during which the crew completed all required testing, accomplished planned improvements and maintenance ahead of schedule, and learned valuable lessons to increase the reliability of Ford-Class systems. At the same time, the ship also served as the sole East Coast platform for conducting carrier qualifications.

Upon completion of FSST later this summer, Ford will enter a Planned Incremental Availability for six months of modernization, maintenance, and repairs prior to its operational employment.


Full Ship Shock Trials Aboard USS Gerald R. Ford (CVN-78)

 

General Characteristics

Builder Huntington Ingalls Industries Newport News Shipbuilding, Newport News, Virginia
Propulsion 2 A1B* nuclear reactors, 4 shafts
Length 1,092 feet/333 m
Beam 134 feet/41 m
Flight Deck Width 256 feet/78 m
Flight Deck Square 217,796 feet2/20,234 m2
Displacement approximately 100,000 long tons full load
Speed 30+ knots/34.5+ mph/55.5+ km/h
Crew 4,539 (ship, air wing and staff)
Armament ESSM (Evolved Sea Sparrow Missile), RAM (Rolling Airframe Missile), Mk-15 Phalanx CIWS (Close-In Weapon System)
Aircraft 75+

* – Bechtel Plant Machinery, Inc. serves the U.S. Naval Nuclear Propulsion Program

 

Ships

Ship Laid down Launched Commissioned Homeport
USS Gerald R. Ford (CVN-78) 11-13-2009 11-09-2013 07-22-2017 Norfolk, Virginia
USS John F. Kennedy (CVN-79) 08-22-2015 10-29-2019
USS Enterprise (CVN-80)
USS Doris Miller (CVN-81)
CVN-82

 

Earth Return Orbiter

Airbus has passed an important milestone for the Earth Return Orbiter (ERO) mission, which will bring the first Mars samples back to Earth: it has passed the Preliminary Design Review (PDR) with the European Space Agency (ESA) and with the participation of NASA.

Earth Return Orbiter (ERO)
ESA/NASA validate Airbus design

With technical specifications and designs validated, suppliers from eight European countries are on board for nearly all components and sub-assemblies. Development and testing of equipments and sub-systems can now start to ensure the mission moves ahead on schedule.

«This PDR has been managed and closed in a record time of less than a year, an amazing achievement considering the complexity of the mission. The entire ERO team, including suppliers and agencies, has really pulled together and we are on target to achieve delivery in 2025 – only five and a half years after being selected as prime contractor», said Andreas Hammer, Head of Space Exploration at Airbus.

The next milestone will be the Critical Design Review in two years after which production and assembly will start, to secure delivery of the full spacecraft in 2025.

After launch in 2026, on an Ariane 64 launcher, the satellite will begin a five year mission to Mars, acting as a communication relay with the surface missions (including Perseverance and Sample Fetch Rovers), performing a rendezvous with the orbiting samples and bringing them safely back to Earth.

Dave Parker, Director of human and robotic exploration at ESA, said: «On behalf of all European citizens, I am proud to see ESA leading the first ever mission to return from Mars. As part of our strong cooperation with NASA, we are working to return pristine material from Mars – scientific treasure that the world’s scientists will study for generations to come and help reveal the history of the Red Planet».

Airbus has overall responsibility for the ERO mission, developing the spacecraft in Toulouse, and conducting mission analysis in Stevenage. Thales Alenia Space will also have an important role, assembling the spacecraft, developing the communication system and providing the Orbit Insertion Module from its plant in Turin. Other suppliers come from Germany, France, UK, Italy, Spain, Norway, Denmark and The Netherlands.

The record development and design for ERO was only possible thanks to Airbus building on already mature and proven technologies, instead of developing brand new technologies with risk associated delays.

Proven Airbus technologies include the decades of experience in plasma (electric) propulsion, acquired through station keeping and in orbit operations of full electric telecom satellites, as well as its expertise on large solar arrays (telecoms and exploration missions, including JUICE, the biggest solar panels for an interplanetary mission until ERO) and complex planetary missions like BepiColombo, launched in 2018.

Airbus will also leverage its vision based navigation technological lead (RemoveDEBRIS, Automatic Air to Air refueling), and autonomous navigation expertise (Rosalind Franklin and Sample Fetch Rovers) and rendezvous and docking expertise built up over decades, using technologies from the successful ATV (Automated Transfer Vehicle) and recent developments from JUICE, Europe’s first mission to Jupiter.

The seven ton, seven metre high spacecraft, equipped with 144 m² solar arrays with a span of over 40 m – the largest ever built – will take about a year to reach Mars. It will use a mass-efficient hybrid propulsion system combining electric propulsion for the cruise and spiral down phases and chemical propulsion for Mars orbit insertion. Upon arrival, it will provide communications coverage for the NASA Perseverance Rover and Sample Retrieval Lander (SRL) missions, two essential parts of the Mars Sample Return campaign.

For the second part of its mission, ERO will have to detect, rendezvous with, and capture a basketball-size object called the Orbiting Sample (OS), which houses the sample tubes collected by the Sample Fetch Rover (SFR, also to be designed and built by Airbus); all this over 50 million km away from ground control.

Once captured, the OS will be bio-sealed in a secondary containment system and placed inside the Earth Entry Vehicle (EEV), effectively a third containment system, to ensure that the precious samples reach the Earth’s surface intact for maximum scientific return.

It will then take another year for ERO to make its way back to Earth, where it will send the EEV on a precision trajectory towards a pre-defined landing site, before itself entering into a stable orbit around the Sun.