Skywings Flight Training, a Belgium-based flight academy, recently took receipt of two new Diamond Aircraft DA40 NG aircraft at Diamond Aircraft’s headquarters in Wiener Neustadt, Austria. The new single-engine DA40 NG aircraft are the first of four that Diamond will provide Skywings in 2024, adding to the four Diamond aircraft already in the flight school’s fleet. The aircraft will be used to train future airline pilots at Skywings’ bases in Antwerp, Belgium, and Alicante, Spain. Skywings also installed a new, convertible DA40/42 FNPT II simulator at their Antwerp Airport campus earlier this year. Skywings signed the order for four new aircraft and a simulator at the European Airline Training Symposium in Cascais, Portugal, in November 2023.
Schlagwort-Archive: Engine
Cessna Caravan Flight Deck to Feature Cockpit Advancements
Textron Aviation Inc. announced significant enhancements to its legendary Cessna Caravan and Cessna Grand Caravan EX utility turboprop aircraft. A brighter, modernized flight deck with new backlit panels, along with other amenities designed to elevate the pilot experience, are the direct result of continuous conversations with customers. The enhancements, which are expected to be available in 2025, will be standard on all new Caravan and Grand Caravan EX aircraft.
One of the most notable changes to both aircraft is the all-new black cockpit panels, creating a more contemporary appearance. The Caravan will also have Electroluminescent Lighting panels to match current Grand Caravan EX models, providing additional backlight for greater visibility in dimly lit environments.
Other enhancements to the Cessna Caravan and Grand Caravan EX include:
- A wider cockpit boarding ladder for easier access to the captain’s side of the aircraft
- Four circular, adjustable air nozzles to replace the previous two rectangular cockpit air vents
- Two USB-C charging ports to replace the 12V power adapter on the lower center pedestal of the cockpit
- Two USB-C charging ports on the right-hand subpanel for the copilot
- Standard power headset jacks (LEMO plugs) alongside the existing General Aviation plugs, offering operators greater flexibility in powering active noise-cancelling headsets
- Headset hooks underneath the cockpit glare shield.
Source: ‚Textron‚.
Mandatory Service Bulletin for Continental 360, 470, 520, and 550 series engines
The Federal Aviation Administration (FAA) issued an Airworthiness Directive (AD 2023-04-08) on February 23, 2023, related to the Mandatory Service Bulletin (MSB23-01). Please be aware that AD 2023-04-08 takes precedence over MSB23-01 making the AD the governing document and rule for this issue.
Continental recently identified a potential safety of flight issue for aircraft equipped with Continental 360, 470, 520, and 550 series engines and replacement crankshaft assemblies. As the manufacturer of the part, Continental reported this to the authorities and released an MSB on February 13, 2023. MSB23-01 preemptively advises that an inspection should be performed to confirm that the crankshaft counterweight retaining ring was properly installed in new and rebuilt engines assembled between June 1, 2021, and February 7, 2023. This advice also applies to replacement crankshaft assemblies manufactured between June 1, 2021, through February 7, 2023. To further clarify, the MSB stated that Continental engines with over 200 hours may continue normal flight operations; however, this is no longer valid after the release of the AD. The AD takes precedence over the MSB and now requires an inspection of all affected engines and crankshaft assemblies listed in the MSB.
This page provides answers to some of the most asked questions regarding the MSB23-01 for crankshaft assemblies. Should you have additional questions, please review the full MSB or contact the Continental MSB Support Team. Source: ‚Continental‚.
Rolls-Royce tests its first hydrogen-powered plane engine
A modern plane engine has been powered by hydrogen fuel for the first time — putting the aviation industry a step closer to its goal of going green. The challenge: Aviation is responsible for 1.9% of the world’s greenhouse gas emissions. When you compare that to, say, ground transportation, which is responsible for 11.9%, the industry doesn’t seem like a major part of our climate crisis. However, there is a straightforward way to decarbonize ground transportation: transition to electric vehicles, while decarbonizing the electric grid. We don’t have a comparable plan for aviation.
Aviation is responsible for 1.9% of the world’s greenhouse gas emissions.
The use of sustainable aviation fuel, made from biomass, can reduce an aircraft’s emissions by as much as 80%, but it doesn’t eliminate them. Today’s batteries, meanwhile, can power small planes on short flights, but they’re too heavy for large jets or longer trips. We need to figure out some way to do better than that, though, as UN experts predict emissions from aviation could triple by 2050, due to the steady increase of passenger and freight air transport.
The idea: Hydrogen fuel is a promising alternative for the aviation industry. It provides much more power by weight than batteries, and unlike other jet fuels, it doesn’t produce any lasting greenhouse emissions when burned — the only byproduct is water. If the fuel can be made to work with existing engines, it would also avoid the need to replace aircraft or engines to mitigate emissions.
What’s new? Now, British engineering firm Rolls-Royce and the airline easyJet have demonstrated for the first time that a modern plane engine can be safely powered by hydrogen fuel. The companies’ ground test took place at the UK’s Boscombe Down military aircraft testing site, and the engine was a converted Rolls-Royce AE 2100-A turboprop, which is used to power regional aircraft. If additional tests go well, the next step will be ground testing of hydrogen fuel in a Rolls-Royce Pearl 15 jet engine, designed for business jets, before moving on to flight tests.
The cold H2O: Hydrogen is abundant on Earth, but most of it is tied up with other elements, and the most common technique for producing pure hydrogen pulls it out of methane, releasing carbon dioxide in the process.
Alternatively, an electric current can be used to extract hydrogen from water, leaving behind only oxygen, but the process is expensive, and if the electricity is produced by fossil fuels, the climate benefits of the hydrogen fuel are minimized. Looking ahead: The electricity used to create Rolls-Royce’s hydrogen fuel came from wind and tidal power, but “green hydrogen” like that is scarce. For green hydrogen to play a significant role in aviation, we’ll need to dramatically increase the supply. Thankfully, while Rolls Royce works out the kinks of converting jet engines to run on hydrogen, others are looking for ways to scale up production, such as by using clean geothermal energy sourced from abandoned oil wells to power the process or by extracting hydrogen from saltwater at massive offshore wind farms. Source: ‚freethink.com‚.