Toulouse, France, October 25, 2023 – Airbus Group SE (Paris: AIR) will renew the entire fleet of chartered vessels that transport aircraft subassemblies between production facilities in Europe and the United States with three modern, low-emission roll-on/roll-off vessels, supported by wind-assisted propulsion.
Airbus has commissioned shipowner Louis Dreyfus Armateurs to build, own and operate these new, highly efficient vessels that will enter into service from 2026. The new vessels will be powered by a combination of six Flettner rotors – large, rotating cylinders that generate lift thanks to the wind, propelling the ship forward – and two dual-fuel engines running on maritime diesel oil and e-methanol. Additionally, routing software will optimise the vessels’ journey across the Atlantic, maximising wind propulsion and avoiding drag caused by adverse ocean conditions.
The new fleet is expected to reduce average annual transatlantic CO2 emissions from 68,000 to 33,000 tonnes by 2030. This will contribute to Airbus’ commitment to reduce its overall industrial emissions by up to 63% by the end of the decade – compared to 2015 as baseline year.
Copenhagen, Denmark, October 12, 2023 – A.P. Moller – Maersk (London: 0O77) is embarking on a collaboration with Starlink, the pioneering satellite internet constellation developed by Space Exploration Technologies Corp., commonly referred to as SpaceX. SpaceX was founded in 2002 by Elon Musk of Tesla (Nasdaq: TSLA) fame.
Maersk, the global leader of integrated container logistics, will have Starlink installed on more than 330 own operated container vessels. This will enabling high-speed internet with speeds over 200 Mbps, service that is a leap forward in terms of internet speed and latency bringing significant benefits in terms of both crew welfare and business impact.
The agreement comes after a successful pilot phase where crew members on more than 30 Maersk vessels have had the opportunity to test the Starlink technology – resulting in very positive feedback.
Hapag-Lloyd AG (Frankfurt: HLAG) has officially welcomed into its fleet the “Berlin Express”, the first ship of its new Hamburg Express class. At an event attended by some 300 guests from business and politics, naming patron Elke Büdenbender performed the ceremonial christening of the ship at the Container Terminal Burchardkai (Athabaskakai) in the Port of Hamburg. Among the guests were Peter Tschentscher, the First Mayor of Hamburg, and Daniel Günther, the Minister President of Schleswig-Holstein.
The Hamburg Express class will mark the beginning of a new era for Hapag-Lloyd and its fleet. In total, a dozen state-of-the-art large container ships will be put into service by 2025. Together, these vessels will make an important contribution to Hapag-Lloyd’s efforts to operate its entire fleet in a climate-neutral manner by 2045. Thanks to their cutting-edge dual-fuel technology, they will also be able to operate using non-fossil fuels, such as bio-methane and e-methane, and thereby generate hardly any CO2 emissions.
For the time being, liquefied natural gas (LNG) will be used, which will reduce CO2 emissions by up to 25 percent and soot emissions by 95 percent. In addition, advanced components – such as an optimised hull and a highly efficient propeller – will help the vessels to reduce fuel consumption and thereby greenhouse gas emissions.
The “Berlin Express” was built at the Hanwha Ocean shipyard in South Korea. With a length of almost 400 metres and a capacity of 23,600 TEU, it is the largest cargo ship ever to sail under German flag. The container ships in the Hamburg Express class will exclusively operate on the cargo-intensive Far East route between Asia and Europe. The “Berlin Express” will operate regularly on the FE3 service, which sails between Ningbo and Hamburg, via Xiamen, Kaohsiung, Yantian, Hong Kong, Singapore and Rotterdam.
Rolls-Royce (London: RR.L) has been awarded funding by the UK Ministry of Defence (MOD) to further develop and demonstrate the Artificial Chief Engineer® technology – an autonomous machinery control system which allows Naval vessels to undertake long endurance missions with less human interaction.
Developed by Rolls-Royce, Artificial Chief Engineer® is a critical enabler for autonomous missions by acting as the equivalent of the engineering department responsible for the health and the operation of an unmanned vessel’s machinery. Navies intend to increase their use of optionally-manned and unmanned vessels to project power further for less cost by reducing reliance on manpower, allowing higher-risk or longer-endurance missions, and by lowering the procurement and operating costs of future platforms.
The funding to continue the development, has been awarded under the UK MOD’s Defence and Security Accelerator Intelligent Ship Phase Two programme, which is used to de-risk and evaluate technologies and approaches to enhance the armed forces’ technical advantage.
Rapid growth in automation, autonomy, machine learning and artificial intelligence (AI) has prompted the need to investigate how human-machine teaming can effectively take place. This 16-month programme aims to investigate how effective human-AI collaboration can be best exploited to improve decision-making and planning within complex operating environments.
Artificial Chief Engineer is an on-board, secure, decision-making control system designed to intelligently operate the machinery of lean-manned and unmanned naval vessels. The technology makes condition-based decisions about how best to operate the machinery – including the engines, propulsion system, electrical network and fuel system – using algorithms to optimise the ship for maximum efficiency, lowest noise, top speed or to preserve damaged equipment as required by the ship’s mission. This reduces the workload of remote operators and allows increased mission and system complexity in future unmanned ship designs.
Intelligent Ship is a Defence Science and Technology Laboratory (Dstl) project to develop novel and innovative technologies and concepts to facilitate the use of intelligent systems within future platforms, with potential for utilisation across defence. The aim is to de-risk and evaluate technologies and approaches to enable revolutionary future platform, fleet, and cross-domain concepts to enhance UK military advantage.
Wrapping around the Artificial Chief Engineer project will be Rolls-Royce’s Aletheia FrameworkTM. This is a ground-breaking standard it has developed to ensure that before artificial intelligence is used all ethical considerations have been fully assessed, and that once an AI is deployed, its decisions are trustworthy. The Aletheia Framework is as part of a campaign led by Rolls-Royce to improve public trust in artificial intelligence so that its full potential can be realized for good across the world.
Rolls-Royce is to supply complete MTU propulsion systems for five new Type 31 general-purpose frigates for the Royal Navy. In total, the order comprises of 40 engines and generator sets to be used for main propulsion and on-board power generation, the MTU Callosum propulsion control and monitoring system, and Integrated Logistics Support (ILS).
Rolls-Royce liefert komplette MTU-Antriebssysteme für fünf neue Type-31-Mehrzweckfregatten der britischen Royal Navy. Der Auftrag umfasst insgesamt 40 MTU-Hauptantriebsmotoren und Bordstromaggregate, das Antriebssteuerungs- und Überwachungssystem MTU Callosum und die dazugehörige integrierte logistische Unterstützung (ILS).
Delivery scope: 20 main propulsion engines and 20 on-board generator sets, Callosum marine automation and integrated logistic support
MTU propulsion solutions from Rolls-Royce now feature in almost all current and future Royal Navy vessels
Each new Type 31 frigate of the Royal Navy will be powered by four MTU 20V 8000 M71 engines, each delivering over 8,000 kW.
Die neuen Type-31-Fregatten der britischen Royal Navy werden von je vier MTU-Motoren des Typs 20V 8000 M71 mit einer Leistung von über 8000 Kilowatt angetrieben.
Rolls-Royce is to supply complete MTU propulsion systems for five new Type 31 general-purpose frigates for the Royal Navy. In total, the order comprises of 40 engines and generator sets to be used for main propulsion and on-board power generation, the MTU Callosum propulsion control and monitoring system, and Integrated Logistics Support (ILS). Each new frigate will be powered by four MTU 20V 8000 M71 engines, each delivering over 8,000 kW. On-board power will be provided on each vessel by four MTU generator sets based on 16V 2000 M41B units, each delivering in excess of 900 kW. In September 2021, Rolls-Royce will deliver the first shipset comprising four main propulsion engines and four generator sets to prime contractor Babcock International Group. Integrated Logistics Support for propulsion and onboard power systems will ensure efficient and cost-effective maintenance throughout their entire service life. It is expected that the MTU Callosum propulsion control and monitoring system will be officially added to the supply contract very shortly.
Sean Donaldson, Managing Director for Energy & Marine at Babcock International, said: “We’re delighted to welcome Rolls-Royce with its MTU solutions as a supplier to our Type 31 Programme. Its engines and on-board generator sets are already proving their mettle in numerous comparable vessels worldwide.”
Knut Müller, Vice President Marine & Defense at Rolls-Royce business unit Power Systems, said: “We’re very proud of the fact that Babcock International Group has opted for MTU propulsion and on-board power solutions on this highly significant project. MTU products now feature in almost all current and future projects of the Royal Navy. That is impressive proof of the trust our British partners place in us and of the reliability and flexibility of our products.”
The Royal Navy relies on Rolls-Royce propulsion solutions across its surface and submarine fleets. MTU Series 2000, 4000 and 8000 units will feature in future in most Royal Navy warships – in destroyers (Type 45), all frigate classes (Type 23, 26, 31) and submarines (Astute class).
Rolls-Royce is to supply complete MTU propulsion systems for five new Type 31 general-purpose frigates for the Royal Navy. In total, the order comprises of 40 engines and generator sets to be used for main propulsion and on-board power generation, the MTU Callosum propulsion control and monitoring system, and Integrated Logistics Support (ILS).
Rolls-Royce liefert komplette MTU-Antriebssysteme für fünf neue Type-31-Mehrzweckfregatten der britischen Royal Navy. Der Auftrag umfasst insgesamt 40 MTU-Hauptantriebsmotoren und Bordstromaggregate, das Antriebssteuerungs- und Überwachungssystem MTU Callosum und die dazugehörige integrierte logistische Unterstützung (ILS).
On March 5th, in Rio de Janeiro, Emgepron, an independent state company, linked to the Ministry of Defense through the Brazilian Navy Command, and Águas Azuis, a company created by thyssenkrupp Marine Systems, Embraer Defense & Security and Atech, signed the contract for building four state-of-the-art Tamandaré Class Ships, with deliveries scheduled between 2025 and 2028.
The construction will take place 100% in Brazil, in Itajaí, Santa Catarina State, and is expected to have local content rates above 30% for the first vessel and 40% for the others. thyssenkrupp will supply the naval technology of its proven MEKO® Class shipbuilding platform of defence vessels that is already in operation in 15 countries. Embraer will integrate sensors and weaponry into the combat system, bringing also to the program its 50 years’ experience in systems technology solutions and in-service support.
Atech, an Embraer Group company, will be the supplier of the CMS (Combat Management System) and IPMS (Integrated Platform Management System, from L3 MAPPS), and the recipient of technology transfer in cooperation with ATLAS ELEKTRONIK, a thyssenkrupp Marine Systems subsidiary that produces the CMS and sonar systems.
“We are grateful to participate again in such important milestone in the history of Brazil’s naval defence with the most advanced ships in their class. Looking back the great achievements we had since the construction of Tupi Class submarines in 1980s, it is a recognition of the technological excellence, reliability and longevity solutions we have offered for almost two centuries. The Tamandaré Class Programme will strengthen our ties by transferring technology and generating highly qualified jobs for the country”, said Dr. Rolf Wirtz, CEO of thyssenkrupp Marine Systems.
“The partnership validates our efforts to expand our defence and security portfolio beyond the aeronautical segment. Over the past few years, we have acquired expertise in developing and integrating complex systems, among others, in order to qualify Embraer to meet the needs of the Brazilian Navy, further strengthening our position as a strategic partner of the Brazilian State”, said Embraer Defense & Security President and CEO Jackson Schneider.
In addition to construction, the contract includes a sustained transfer of technology in naval engineering for building military ships and combat and platform management systems, as well as integrated logistical support and lifecycle management.
The Tamandaré Class Programme has the potential to generate direct and indirect job opportunities of high level of qualification. It provides for a solid national partnership model with proven ability to transfer technology and qualify local labour, which guarantees the development of future strategic defence projects in Brazil.
The naval alliance between thyssenkrupp Marine Systems and Embraer Defense & Security can also enable creating a base for exporting naval defence products from Brazil.
SpaceX successfully targeted Monday, February 17 at 10:05 a.m. EST, or 15:05 UTC, for its fifth launch of Starlink satellites from Space Launch Complex 40 (SLC-40) at Cape Canaveral Air Force Station, Florida. A backup launch opportunity was available for Tuesday, February 18 at 9:42 a.m. EST, or 14:42 UTC.
Falcon 9’s first stage previously launched the CRS-17 mission in May 2019, the CRS-18 mission in July 2019, and the JCSAT-18/Kacific1 mission in December 2019. Following stage separation, SpaceX will land Falcon 9’s first stage on the “Of Course I Still Love You” droneship, which will be stationed in the Atlantic Ocean. Approximately 45 minutes after liftoff, SpaceX’s two fairing recoveryvessels, “Ms. Tree” and “Ms. Chief,” will attempt to recover the two fairing halves.
The Starlink satellites will deploy in an elliptical orbit approximately 15 minutes after liftoff. Prior to orbit raise, SpaceX engineers will conduct data reviews to ensure all Starlink satellites are operating as intended. Once the checkouts are complete, the satellites will then use their onboard ion thrusters to move into their intended orbits and operational altitude of 550 km.
PAYLOAD DESCRIPTION
SpaceX is leveraging its experience in building rockets and spacecraft to deploy the world’s most advanced broadband internet system. With performance that far surpasses that of traditional satellite internet and a global network unbounded by ground infrastructure limitations, Starlink will deliver high speed broadband internet to locations where access has been unreliable, expensive, or completely unavailable.
Each Starlink satellite weights approximately 260 kg and features a compact, flat-panel design that minimizes volume, allowing for a dense launch stack to take full advantage of Falcon 9’s launch capabilities. With four powerful phased array and two parabolic antennas on each satellite, an enormous amount of throughput can be placed and redirected in a short time, for an order of magnitude lower cost than traditional satellite-based internet.
Starlink satellites are on the leading edge of on-orbit debris mitigation, meeting or exceeding all regulatory and industry standards. At end of their life cycle, the satellites will utilize their on-board propulsion system to deorbit over the course of a few months. In the unlikely event their propulsion system becomes inoperable, the satellites will burn up in Earth’s atmosphere within 1-5 years, significantly less than the hundreds or thousands of years required at higher altitudes. Further, Starlink components are designed for full demisability.
Starlink is targeting service in the Northern U.S. and Canada in 2020, rapidly expanding to near global coverage of the populated world by 2021. Additional information on the system can be found at starlink.com.
Toulouse, 18 September 2019 – Airbus Defence and Space has released the latest version of OceanFinder, its digital maritime service to detect, identify and track collaborative and non-collaborative vessels around the globe.
First launched in 2018, OceanFinder leverages Airbus’ advanced constellation of optical and radar satellites, combined with real-time global Automatic Identification System (AIS) data, and the latest in automated analytics, to support a broad range of critical applications across defence and security, shipping, oil and gas, and insurance markets.
OceanFinder’s latest updates introduce a number of innovative features – extending the service’s capabilities in several key areas. From today, users will benefit from enhanced imagery and AIS data correlation to identify the precise location of a non-responding vessel in near real-time. This development has been combined with the latest in fully-automated detection and classification, which utilises powerful proprietary algorithms to determine a vessel’s identity in just a few seconds. Subsequently, Airbus’ human analysts are able to focus on providing additional, value-added intelligence, such as interpretation of specific behaviour or threats, without delaying a report’s delivery. New tools have also been incorporated to provide the most relevant acquisition plan to predict routes and projected locations of vessels, based on last position, date, trajectory and speed.
Several of the unique features have been made possible through a multi-year partnership with exactEarth, a leading provider of satellite-AIS data services. The agreement, which provides OceanFinder with access to exactView RT – exactEarth’s second-generation real-time satellite-AIS data platform – includes all live and archived data.
“By combining Airbus’ satellite imagery with the most advanced AIS data services and analytics, we are positioning OceanFinder as a key reference for maritime detection and identification” said François Lombard, Director of the Intelligence Business for Airbus Defence and Space. “Automation and near real-time are the two pillars through which we will provide our customers with the insights they need to make decisions faster, whether for real-time situational awareness, Search and Rescue operations or location and tracking of illegal maritime activities.”
OceanFinder is accessible through the OneAtlas web portal (oneatlas.airbus.com), enabling customers to ‘self-order’ the required products through a simple user interface that is available 24/7.
