Demonstration of high-speed and precise actuation.

Slides:



Advertisements
Similar presentations
Demonstrations I, II, and III.
Advertisements

Self-folding triangular devices at two scales.
Degradation of MSP samples in 37°C DPBS solution.
Comparison of predicted and measured forces and moments.
Basic design concept of human mimetic humanoid.
TPAD controller performance for three force components.
Cable-driven system diagram for structure matrix.
Fabrication process for Peano-HASEL actuators.
Three different types of transfer functions with a codomain of [0,1].
Robot surface tension experiments.
TPAD training protocol.
Basic components of Peano-HASEL actuators and principles of operation.
Scaling up forces with arrays of Peano-HASEL actuators.
Force-strain characteristics of Peano-HASEL actuators using hydrogel and aluminum electrodes. Force-strain characteristics of Peano-HASEL actuators using.
Fabrication of bilayer actuator composed of a hygroscopically active layer with aligned nanofibers and an inactive layer. Fabrication of bilayer actuator.
Self-sensing of actuator position.
Invisible Peano-HASEL actuators.
Examples of AEGIS autonomous target selection.
Workspace comparison of Delta robots.
T2-weighted cross-sectional MR imaging of MSP swarms inside SD rats.
Demonstration of aerial-aquatic locomotion and transition.
Schematic representation of the milliDelta.
Impulsive takeoff from the water surface.
Soft robotic device applied to the left side in a coronary ligation HF model. Soft robotic device applied to the left side in a coronary ligation HF model.
Group data during free walking between sessions 1 and 16.
Distribution of the number of collisions and the average closest-neighbor distance as a function of communication range and delay. Distribution of the.
Gripper that grasps autonomously.
Power-free sterilization of culture plate.
The foldable robotic arm with seven modules assembled in series.
Prosthesis grasping and control.
The milliDelta: a millimeter-scale Delta robot.
Quasi-static and dynamic trajectories.
Online verification using reachable occupancies.
Cell viability tests. Cell viability tests. SEM images of (A) MC3T3-E1 cells and (B) MSCs on days 1, 3, and 5 of culture. (C) Survival rates of MC3T3-E1.
Experimental characterization of the milliDelta’s quasi-static workspace (yellow) compared with the theoretical workspace (blue) generated by the kinematic.
T2-weighted cross-sectional MR imaging of MSP swarms inside SD rats.
Experimental results for tremor reduction.
Effect of slenderness on optimal shapes.
SoFi system overview. SoFi system overview. (Top, left to right) Soft robotic fish and diver interface module. (Bottom, left to right) Subcomponents of.
A summary of different energy sources for robotics.
Soft robotic device applied to the left side in a coronary ligation HF model. Soft robotic device applied to the left side in a coronary ligation HF model.
Translation of a spherical object.
Self-sensing of actuator position.
2D motility characterization and external magnetic steering of RBC microswimmers. 2D motility characterization and external magnetic steering of RBC microswimmers.
The applications of the biohybrid structural color hydrogels in a heart-on-a-chip system. The applications of the biohybrid structural color hydrogels.
Brain-computer interfaces.
Schematic of experimental setup and screen captures from swimming.
Experimental setup for workspace, bandwidth, and force characterization of the milliDelta. Experimental setup for workspace, bandwidth, and force characterization.
Basic components of Peano-HASEL actuators and principles of operation.
Active deformation of an RBC cargo propelled and pushed by a single bacterium through a 2-μm gap. Active deformation of an RBC cargo propelled and pushed.
Untethered kirigami-skinned soft crawlers.
Force-strain characteristics of Peano-HASEL actuators using hydrogel and aluminum electrodes. Force-strain characteristics of Peano-HASEL actuators using.
Degradation of MSP samples in 37°C DPBS solution.
Underwater observatory.
Fluorescence response of actuator.
Potential applications of the light-induced actuator.
Collision resilience and foldability of the origami drone.
Comparison of predicted and measured forces and moments.
RAD sampler design. RAD sampler design. (A) One arm of the RAD sampler with revolute joints shown as dotted lines. A fold is initiated by rotating the.
Object manipulations performed by our biohybrid robots.
Overhead snapshots. Overhead snapshots. (A to E) Mark I3, robot experiments (movie S1). (F) Mark I3, simulation (movie S2, side by side with a run on the.
Universal soft robotic activation based on reversible assembly.
Galloping-like gait with the design of a two-legged robot.
AEGIS autonomous targeting process.
Examples of AEGIS autonomous target selection.
Overview of the experimental setup and visual stimulus.
Growth enables a soft robot to move its tip through constrained environments and to form 3D structures defined by the path of its tip. Growth enables a.
Fig. 2 Sampling. Sampling. (A) Extant stratigraphic section. Zenithal (B) and frontal (C) views of the flowstone capping the excavated deposit. The rectangle.
Comparison of children’s behavior between the three conditions.
Setup used in the study. Setup used in the study. A child interacts with the robot tutor with a large touchscreen sitting between them, displaying the.
Presentation transcript:

Demonstration of high-speed and precise actuation. Demonstration of high-speed and precise actuation. (A) A lever-arm setup was connected to two Peano-HASEL actuators in parallel for demonstrating fast and controllable actuation. (B) By applying a 13-kV voltage step, these actuators contracted fast enough to throw a ping-pong ball 24 cm into the air. Labeled times are measured from the start of contraction. (C) Incrementing voltage allowed controllable actuation of the arm, as shown in the progression of images with increasing voltage left to right. The yellow lines mark the position of the top of the ball for comparison. The ruler to the left of each picture shows 1-cm increments for scale. Nicholas Kellaris et al. Sci. Robotics 2018;3:eaar3276 Copyright © 2018 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works