TheBlindJugglerThe Circular Cloverleaf Blind Juggler further pushes the boundary of sensorless robotic juggling. Featuring four tilted paddles, the machine can bounce balls from paddle to paddle in a circular motion. The machine has no sensors to detect the ball - it was designed to be able to juggle without any sensing.
This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
The Circular Cloverleaf Blind Juggler - IDSC ETH ZurichTheBlindJuggler2015-06-03 | The Circular Cloverleaf Blind Juggler further pushes the boundary of sensorless robotic juggling. Featuring four tilted paddles, the machine can bounce balls from paddle to paddle in a circular motion. The machine has no sensors to detect the ball - it was designed to be able to juggle without any sensing.
This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info: http://www.blindjuggler.org.First Experiments with Automatic Juggling Pattern GenerationTheBlindJuggler2025-01-18 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
The video shows how chaotic ball trajectories can be used to control multiple balls to a predetermined juggling pattern.
Lead researchers: Philipp Reist and Raffaello D'AndreaECC13: The Swinging Blind Juggler at 30 DegreesTheBlindJuggler2025-01-18 | More information on www.blindjuggler.org.The Juggling Ensemble - IDSC ETH ZurichTheBlindJuggler2015-06-04 | The Juggling Ensemble is a concept for an installation based on the Blind Juggler.
The computer animation was designed and rendered by Carolina Flores based on physical simulation data. The physics-based simulation includes a process-noise model derived from measurement data obtained with the Blind Juggler. Therefore, the animation is a realistic depiction of what can be achieved with an implementation of the concept.Feedback Control - Swinging Blind Juggler - IDSC ETH ZurichTheBlindJuggler2013-01-31 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info: http://www.blindjuggler.org.
The Swinging Blind is a robot juggles a ball from side-to-side without any sensors to detect the ball. In this video, we present a feedback strategy that uses the paddle motions to control the swinging of the pendulum.
Lead researchers: Flavio Fontana, Philipp Reist, and Raffaello D'AndreaECC13: The Swinging Blind Juggler 25 Degrees ExperimentTheBlindJuggler2012-11-01 | More information may be found at www.blindjuggler.org.Apex Closeup - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2012-03-26 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info: http://www.blindjuggler.org.
Close up of the ball apex when the Blind Juggler is juggling open-loop (no sensors detecting the ball) at 1.05 meters . Two different paddle accelerations at ball impact are compared. The former, ap = -1.75m/s was obtained minimizing the expected apex height deviation given measured process noise statistics. The ball we use is a high precision Nylon ball made for valve applications.
Lead researchers: Philipp Reist and Raffaello D'AndreaPeriodic Orbits - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2012-01-17 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
We demonstrate the different stable periodic orbits that exist for the Blind Juggler using the Cloverleaf paddle. Each of these periodic orbits (= repetitive ball motions) is locally stable. The balls need to be dropped at the right time and from the right height such that the ball ends up in the desired orbit. We use this paddle for research in the control of nonlinear dynamic systems.
Lead researchers: Philipp Reist and Raffaello D'AndreaWill It Juggle - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2011-11-29 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
We conducted extended experiments to evaluate the juggleability of different objects.
Lead researchers: Philipp Reist and Raffaello D'AndreaRobustness Demo - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2011-11-29 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
Demonstration of juggling robustness of the Blind Juggler. Vertical as well as horizontal stability is demonstrated.
Lead researchers: Philipp Reist and Raffaello D'AndreaHigh Bounces - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2011-11-29 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
The Blind Juggler demonstrates high apex juggling (2.0 meters, almost 7 feet). The robot has no sensors to detect the ball.
Lead researchers: Philipp Reist and Raffaello D'AndreaBall Comparison - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2011-11-29 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
Comparison of three different balls on the Blind Juggler. The high precision Nylon ball (D=12mm (=0.5 inch)) is clearly the best candidate.
Lead researchers: Philipp Reist and Raffaello D'AndreaApex Closeup - Blind Juggler - IDSC ETH ZurichTheBlindJuggler2011-11-29 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
Close up of the ball apex when the Blind Juggler is juggling at 1.05 meters . Open-loop vs. closed-loop (H2-optimal control) performance is compared. The ball we use is a high precision Nylon ball made for valve applications.
Lead researchers: Philipp Reist and Raffaello D'AndreaThe Swinging Blind Juggler - IDSC ETH ZurichTheBlindJuggler2011-11-29 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
The Swinging Blind Juggler is able to juggle unconstrained balls from side-to-side without any sensors to detect the ball. The only sensors we use is to control the paddle motion and to keep the pendulum motion synchronized with the ball.
Lead researchers: Philipp Reist and Raffaello D'AndreaBlind Juggler Measurement VideoTheBlindJuggler2011-11-28 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
Video used for measuring impact locations of the ball on the Blind Juggler. The impact is detected by a microphone and the red LEDs light up. Then, the frame where the LEDs light up is analyzed and the ball impact location and the paddle center are extracted. The measured data allowed us to assess the juggling performance and identify the process noise introduced into the system.
Lead researchers: Philipp Reist and Raffaello D'AndreaThe Blind Juggler Cloverleaf Paddle - IDSC - ETH ZurichTheBlindJuggler2011-01-27 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
The Blind Juggler is a robot that is able to juggle balls without any sensors detecting the ball. We developed the Cloverleaf Paddle, which allows the Blind Juggler to juggle up to 4 balls at the same time. We can illustrate properties of nonlinear systems with the Cloverleaf: For the same paddle motion, there exist multiple stable ball modes (stable periodic orbits), as shown in the video, at the end.
Lead researchers: Philipp Reist and Raffaello D'AndreaChaos on the Blind Juggler - IDSC - ETH ZurichTheBlindJuggler2011-01-27 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
We demonstrate chaos on the Blind Juggler using the Cloverleaf Paddle. When the paddle is moving with an appropriate amplitude and frequency, the ball starts to move chaotically. We are exploring how we can use this effect for controlled state transitions. The basic idea is illustrated in this video: After activating chaos, we switch back to the motion that stabilizes multiple different ball trajectories. Depending on the states of the balls at switching time, a different juggling pattern evolves after switching. If we measure the states of all balls and if we could predict which pattern evolves after switching, we could create arbitrary patterns autonomously.
Lead researchers: Philipp Reist and Raffaello D'AndreaThe Blind Juggler - IDSC - ETH ZurichTheBlindJuggler2011-01-27 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
The Blind Juggler is a robot that is able to juggle a ball on a paddle. The robot does this without any sensing; there are no cameras, no microphones, or any other sensors that could tell the robot where the ball is. Imagine yourself juggling a ball blindfolded. Try it: it's no easy task!
Lead researchers: Philipp Reist and Raffaello D'AndreaThe Pendulum Juggler - IDSC - ETH ZurichTheBlindJuggler2011-01-27 | This video was produced by the Institute for Dynamic Systems and Control (IDSC) at ETH Zurich, Switzerland - http://www.idsc.ethz.ch/
More info about the Blind Juggler: http://www.blindjuggler.org.
The Pendulum Juggler is able to juggle unconstrained balls from side-to-side without any sensors to detect the ball. The only sensors we use is to control the paddle motion and to keep the pendulum motion synchronized with the ball.
Lead researchers: Philipp Reist and Raffaello D'Andrea