Technical specifications and details of the muscle-driven biorobotic arm ATARO (doi:10.18419/darus-3813)

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Document Description

Citation

Title:

Technical specifications and details of the muscle-driven biorobotic arm ATARO

Identification Number:

doi:10.18419/darus-3813

Distributor:

DaRUS

Date of Distribution:

2024-01-16

Version:

1

Bibliographic Citation:

Nadler, Tobias; Wolfen, Simon; Häufle, Daniel F. B.; Schmitt, Syn, 2024, "Technical specifications and details of the muscle-driven biorobotic arm ATARO", https://doi.org/10.18419/darus-3813, DaRUS, V1

Study Description

Citation

Title:

Technical specifications and details of the muscle-driven biorobotic arm ATARO

Identification Number:

doi:10.18419/darus-3813

Authoring Entity:

Nadler, Tobias (Universität Stuttgart)

Wolfen, Simon (Universität Stuttgart)

Häufle, Daniel F. B. (Universität Heidelberg; Universität Tübingen)

Schmitt, Syn (Universität Stuttgart)

Grant Number:

Az: 33-7533.-30-20/7/2

Grant Number:

EXC 2075 - 390740016

Grant Number:

EXC 310 - 50131014

Distributor:

DaRUS

Access Authority:

Nadler, Tobias

Access Authority:

Schmitt, Syn

Depositor:

Nadler, Tobias

Date of Deposit:

2023-11-28

Holdings Information:

https://doi.org/10.18419/darus-3813

Study Scope

Keywords:

Engineering, Mathematical Sciences, Medicine, Health and Life Sciences, Physics, Pneumatic Artificial Muscle, FESTO Muscle, Biorobot, Robotic Arm Model

Topic Classification:

Biomechanics, Robotics

Abstract:

ATARO is a bio-inspired arm robot with two degrees of freedom. Five artificial muscle-spring units (MSUs) are used for actuation. The MSUs, each consisting of a pneumatic artificial muscle (PAM) and a spring in series, mimic the characteristics of the human muscle-tendon complex. Five proportional control valves actuate the PAMs. To mimic biological proprioception, a force sensor and a length sensor in each muscle, and an angle sensor in each joint are used. A computer with an I/O board is used to control the arm robot in a real-time hardware-in-the-loop setup. The controller is implemented using Matlab 2016b®/Simulink®. This dataset entails detailed technical specifications and exemplary videos showing different movement patterns derived from bio-inspired control concepts.

Methodology and Processing

Sources Statement

Data Access

Other Study Description Materials

Related Publications

Citation

Title:

Driess, D., Zimmermann, H., Wolfen, S., Suissa, D., Haeufle, D., Hennes, D., Toussaint, M. & Schmitt, S. (2018, May). Learning to control redundant musculoskeletal systems with neural networks and SQP: exploiting muscle properties. In 2018 IEEE International Conference on robotics and automation (ICRA) (pp. 6461-6468). IEEE.

Identification Number:

10.1109/ICRA.2018.8463160

Bibliographic Citation:

Driess, D., Zimmermann, H., Wolfen, S., Suissa, D., Haeufle, D., Hennes, D., Toussaint, M. & Schmitt, S. (2018, May). Learning to control redundant musculoskeletal systems with neural networks and SQP: exploiting muscle properties. In 2018 IEEE International Conference on robotics and automation (ICRA) (pp. 6461-6468). IEEE.

Citation

Title:

Wolfen, S. Control framework for muscle-driven systems: Exploiting bi-articular muscles in antagonistic setups to reduce control complexity and solve the muscle redundancy problem. University of Stuttgart, (CBB-002-2022), 2022.

Identification Number:

10.18419/opus-13846

Bibliographic Citation:

Wolfen, S. Control framework for muscle-driven systems: Exploiting bi-articular muscles in antagonistic setups to reduce control complexity and solve the muscle redundancy problem. University of Stuttgart, (CBB-002-2022), 2022.

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