1.Mechatronic assist devices
Two topics options:
1)Mechanical walking assist devices
If Ankle motions(dorsiflexion and plantar flexion) can be done by using only mechanism, It is possible to make a product reasonably. As a research, we will find light weight and compact mechanisms to assist both motions. we already proposed 4types of mechanism, by referring them we can design really usable device.
2) Joint keeping devices
The device can easily and immediately fix and unlock some joints, ex, knee, hip, back, shoulder, elbow, It is very useful for farmers, workers in the assembly factory, and so on
Relatore: Giuseppe Quaglia
Università partner: Waseda University
Durata della mobilità: 3-6 mesi
Capacità specifiche richieste: Mechanics Engineering
2.Swarm Robot Project
The laboratory is interested in the swarm intelligence exhibited by social insects such as ants and bees. Although the intelligence and capabilities of each individual are limited, the collective behavior of the entire swarm can be highly intelligent and adaptive.
In this project, the aim is to reproduce with a swarm of robots the cooperative bridging behavior observed in army ants. Army ants exhibit altruistic behavior in which individuals interlock their bodies to form a living bridge, allowing other ants to cross obstacles and thereby creating more efficient routes for foraging.
1.Design and fabricate a swarm robotic system.
2.Develop a decentralized autonomous algorithm that enables multiple robots to cooperatively form a bridge.
3.Implement the developed algorithm on the swarm robots and conduct experiments using the actual robotic system to demonstrate and evaluate the proposed bridging behavior
Relatore: Giuseppe Quaglia
Università partner: Osaka Institute of Technology
Durata della mobilità: 3-6 mesi
Capacità specifiche richieste: Mechanics Engineering, Robotics
3.Development of foot operation interface considering foot characteristics
In applications such as virtual reality (VR), augmented reality (AR), human-machine interfaces, medical rehabilitation, and industrial control, more natural, intuitive, and efficient multidimensional interaction methods are required. One interaction method is direct mapping, where the movement of an upper limb corresponds directly to the movement of the controlled object. For example, if the operator moves their upper limb forward, the controlled object also moves forward. This method provides a natural and intuitive control experience. Studies on such interaction methods have primarily focused on the upper limbs. However, in recent years, there has been increasing research interest in foot-based control methods. Given that the number of the degrees of freedom of the lower limbs is comparable to that of the upper limbs, foot-operated interaction devices have attracted significant attention. These devices introduce a new dimension of interaction, expanding the possibilities of human-machine interfaces. However, foot has its characteristics during operation and foot operation interfaces should be
designed considering them. This study investigates foot characteristics during operation and develops foot operation interface appropriate for foot characteristics.
Relatore: Giuseppe Quaglia
Università partner: Kyoto University
Durata della mobilità: 3-6 mesi
Capacità specifiche richieste: Mechanics Engineering, Robotics