The weapon-aircraft integration is one of the most important aspects in military aircraft design and for the study of its performances. In particular store separation problems, i.e. problems related to the release of underwing bodies during the flight, are very critical because they occur during a flight operating condition. Continue reading
The aircraft industry is an exciting place to be today. The media is full of the potential for commercial drone applications. But in the here and now we have large commercial aircraft on the market made from over 50% composite materials. These aircraft represent decades of innovation and will make a significant and positive impact on lifecycle cost of operation and the environment. You may recall that we recently shared a case study from Terrafugia where they discussed the integration of composite materials into the airframe of a car-come-aircraft. Along similar lines, EADS Innovation Works have shared details of their experiences with ANSYS composite material design tools. Continue reading
Drones have been in the news a lot recently. The near miss between a commercial flight and an unidentified drone in Florida has been broadcast around the world and has opened lots of questions about how the issue of drones in civilian airspace will be handled as the number of drones increases exponentially. This has spawned discussion regarding the safety of aircraft in the event of a collision with a drone. What is for certain is that the FAA have got their work cut out to ensure the safe management of the exponential growth of the drone phenomenon. Continue reading
You’ve probably heard about drones. And this blog will give you a deeper insight of what it takes to develop the brain that controls the drone!
First, some background. Piaggio Aero develops aircraft (first one in 1922) and engines. One of their successful project is the P180 Avanti II aircraft, which is a small Italian design. The P180 can fly at 745 km/h and has a range of operation of about 2,795 km. It is known as the fastest twin turboprop aircraft in the world with a proven uneventful service record of more than 20 years and 800,000 flight hours. Continue reading
Recently, when I attended the AIAA SciTech2014 Conference, I was impressed by a talk about electric aircraft, with a focus on distributed electric propulsion, presented by Mark Moore, a Design Engineer at NASA Langley Research Center. After returning from the conference, I started to read more about these concepts — especially looking for the benefits, challenges and most importantly to see how ANSYS simulation tools can help address the challenges.
At ANSYS, we are continually improving our turbomachinery simulation capabilities. Some recent improvements are proving useful to engine manufacturers, enabling them to better understand the on-wing performance of their new fuel-efficient engines.
Fans in modern aircraft engines are very important in that they provide most of the thrust required by the aircraft. Their environment is very challenging though as they are frequently subjected to non-uniform inflow conditions. These conditions could be either due to flight operating requirements such as take-off and landing, the engine nacelle installation configuration, wake interference from aircraft fuselage or cross-flow wind conditions. Similarly, industrial land-based gas turbines in power plants can be subjected to inlet flow distortion due to upstream ducting or installation maintenance deterioration. Continue reading
Editor’s note: A special thank you to the Terrafugia Engineering Team for compiling today’s blog post.
From conceptual design to manufacturing, we use simulation tools such as ANSYS® Mechanical™ and ANSYS Composite Prep-Post™ to significantly reduce development time and costs. Our senior engineers, Mark Corriere and Nicholas Tucker, have been leading the analysis and simulation charge on the Terrafugia Transition® and have used this iterative process to increase confidence in the physical structure.
This is a highly visible topic that we’ve found a lot of people are interested in learning more about, so we’ve teamed up with ANSYS for a webinar at 1pm ET, this Thursday, March 6th, to discuss the technical challenges and design process of developing the Terrafugia Transition®, the premier flying car. The Transition® addresses the limitations of typical general aviation aircraft by extending the multi-purpose flexibility of its driving capability. Continue reading
I knew it was just a matter of time before the technology took off. This week, Amazon founder and CEO Jeff Bezos announced that his online store is developing a drone-based delivery service.” The Amazon drones, called octopeters, are expected to deliver products to customers only a half-hour after they click the “buy” button.
This “science-fiction” approach to deliveries is still a few years away, but it’s no longer out of the range of possibilities. And won’t it be fun to watch a recently ordered item literally drop out of the sky?
The Amazon Drones
The Amazon drone is the size of a flat-screen monitor powered by electric motors. It follows GPS coordinates to drop items off at target locations. “The hard part here is putting in all the redundancy, all the reliability, all the systems you need to say, ‘Look, this thing can’t land on somebody’s head while they’re walking around their neighborhood,'” Bezos told CBS 60 Minutes.
And this is where ANSYS engineering simulation comes in. Today, product differentiation increasingly depends on embedded software, including complex control code and user-friendly human–machine interfaces — which in turn increases product complexity and risk. So the latest ANSYS capability optimizes embedded code. SCADE Suite offers the unique capability to graphically design, verify and automatically generate embedded software for smart product applications — like drones. Continue reading