Special session on Clinging Robots

Organizer of the session: Professor Evgenii S. Briskin
Volgograd State Technical University, Volgograd, Russia; E-mail: dtm AT vstu DOT ru

This special session is aimed at the exchange of ideas and results related to mobile robots with clinging propelling devices of various design. These devices must be adapted to the physical and mechanical properties of the environment in which they move.

Mobile robots are distinguished by various types of the propelling devices and the environmental conditions. For each environment, a specific type of the propelling device is most appropriate, which requires specific approaches to the control of the robots. The control strategy should take into account the physical characteristics of the environment (rigid or deformable underlying surface, regular or irregular shape of this surface, the motion in air or liquid medium).

The distinguishing feature of the clinging propelling devices that allows them to be combined into a single class is the fact that when operating they cling to the supporting body and hang on it. The clinging contact may be temporary or permanent, it may allow the motion with respect to some degrees of freedom or be rigid (jamming). The actuators with flexible links (cables) can operate only in the pulling mode. The robots with rigid links may either pull toward or push away from the supporting base.

You are invited to submit contributions that deal with the laws of interaction of the propelling devices with the supporting surface, control algorithms, and optimization of the design, parameters, and operating modes of the clinging robots for various environments.

Special session on Mobile Robots for Applications in Space

Organizers of the session:
Professor Nikolay N. Bolotnik, Institute for Problems in Mechanics of the Russian Academy of Sciences, Moscow, Russia, E-mail: bolotnik AT ipmnet DOT ru;
Professor Andrei A. Zhukov, Joint Stock Company «Russian Space Systems» (JSC «RSS») Moscow, Russia, E-mail: lidro AT yandex DOT ru

This special session is aimed at the exchange of ideas and results related to mobile robots designed for applications in space. Such robots must be adapted to specific conditions that are characteristic of the operation in space, including, microgravity, radiation, vacuum, physical properties of soil on the celestial bodies (e.g., planets or asteroids), etc.

We are about to discuss the following topics:

  • Planet rangers
  • Robots for planet exploration
  • Inspection robots for spacecraft
  • Miniature robots
  • Energy supply for robots operating in space

This list does not exhaust the topics that may be discussed at the special session.

You are invited to submit your contributions to this session.

Special session on Human-Robot Interaction and CLAWAR Technologies

Organizers of the session:
Taro NAKAMURA (Chuo University, JAPAN), nakamura AT mech DOT chuo-u DOT ac DOT jp (Corresponding organizer)
Daisuke Chugo (Kwansei University, JAPAN), Chugo AT kwansei DOT ac DOT jp
Manabu Okui (Chuo University, JAPAN), m_okui AT mech DOT chuo-u DOT ac DOT jp
Yasuyuki Yamada (Hosei University, JAPAN), y DOT yamada AT hosei DOT ac DOT jp
Sho Yokota (Toyo University, JAPAN), yokota DOT sho AT gmail DOT com

In the field of VR/AR technologies, rehabilitation, power assist and sports training etc., human-robot physical interaction will be even more important. In this special session, we focus on human centered robotics based on a human walking locomotion.

The aim of this session is to provide an opportunity to have fruitful discussions on fusing CLAWAR technologies and Human -Robot Interaction in order to create new innovations for a mobile robot;

In this session, any topic related to robotics will be covered, such as

  • Assistive Technologies for standing, walking and sitting operation
  • Force feedback for VR/AR space, rehabilitation and sports training
  • Human motion analysis
  • Soft Robotics, soft actuators for human-robot interaction
  • CLAWAR technology for human-robot interaction
  • Human-robot cooperative motion generated by CLAWAR technologies