Nonlinear quadrocopter attitude control

A platform for aerial robotics research and demonstration: The Flying Machine Arena

A flying inverted pendulum

Stability and control of a quadrocopter despite the complete loss of one, two, or three propellers

Adaptive fast open-loop maneuvers for quadrocopters

A computationally efﬁcient algorithm for state-to-state quadrocopter trajectory generation and feasibility veriﬁcation

Cooperative quadrocopter ball throwing and catching

Admittance control for physical human-quadrocopter interaction

Raffaelo D'Andrea TEDGlobal'daki bir robot laboratuvarında uçan kuadrokopterlerini sunuyor. Bunlar; atletler gibi, düşünüp öğrenmelerine yardımcı olan algoritmalarla fiziksel problemleri çözebilen robotlar. Bir dizi havalı sunumla D'Andrea atılanı tutabilen, dengede durup birlikte kararlar verebilen uzaktan kumandalı hava araçlarını gösteriyor.  Hareket kontrollü kuadların 'bundan bir tane ben de istiyorum' dedirtecek sunumu sizi bekliyor.

Kuadrokopterlerin şaşırtıcı atletik gücü

Quadcopters can now perform feats once reserved for athletes, like balancing poles, catching balls, and even flying with damaged propellers. Their agility comes from algorithms that use physics and control theory to learn and adapt, allowing these machines to make split-second decisions and recover from unexpected setbacks. In one demonstration, a quadcopter adjusted its moves every 20 milliseconds to hit a flying ball, showing how machines can master athletic skills through rapid calculation and practice. By combining machine athleticism with human gestures, new forms of collaboration and interaction are emerging.