Airspeeder is building the world’s most progressive motorsport. It will see a full-grid of electric flying cars racing closely at high speed above some of the most visually arresting scenery in the world.
Airspeeder is building the world’s most progressive motorsport. It will see a full-grid of electric flying cars racing closely at high speed above some of the most visually arresting scenery in the world.
Airspeeder desert and sea races will feature slide and lock swappable batteries and teams competing will have the pressure of deciding when to make a pit stop.
Unveiling the Duel of Digital Design - A Comprehensive Exploration of History, Syntax, and Applications of the two popular hardware description languages
Learn why growing hardware teams slow down as they scale, and how aligned workflows, parallel collaboration, and real-time design visibility restore speed and momentum.
In this episode, we explore how the mechanics of bird wings are inspiring new approaches to prevent airplanes from stalling and learn how bio-mimetic designs from nature are paving the way for innovations in aviation, enhancing stability and safety for future flights.
Taking inspiration from bird feathers, Princeton engineers have found that adding rows of flaps to a remote-controlled aircraft’s wings improves flight performance and helps prevent stalling, a condition that can jeopardize a plane’s ability to stay aloft.
Airspeeder is building the world’s most progressive motorsport. It will see a full-grid of electric flying cars racing closely at high speed above some of the most visually arresting scenery in the world.
Airspeeder desert and sea races will feature slide and lock swappable batteries and teams competing will have the pressure of deciding when to make a pit stop.
Explore what an eVTOL multicopter grand prix could look like across different terrains including desert, ice and snow, and how teams can use pit stops to their advantage during a race.
Researchers in A&A’s Computational Fluid Mechanics Lab discovered a new law of fluid mechanics, a branch of physics, that will aid the future of aircraft design.
The Chair for Aerospace Systems is an integrating chair dealing with the aircraft in its entirety and the integration within civil and/or military aviation.
Aerospace and government defense program users have unique needs when it comes to FPGA (field-programmable gate array) devices, both in terms of security and in terms of long-term deployments. Increasing use of unmanned systems and other autonomous assets has created new security challenges.
Robots are gradually permeating into more and more areas of our daily life: smart cars are at work on storage facilities and production sites, they test delivery services.
Drones are being used for a growing number of purposes. Their designs are ever more efficient, and techniques for flying them are being further refined all the time.