In this work, a novel, monolithic fabrication method is proposed and developed. The proposed process aims at the fabrication of low profile, pneumatic soft robots powered by pouch actuators and combines the concepts of lamination, 3d printing and thermal bonding. Two different fabrication approaches, the filament welding fabrication and the mask heat pressing fabrication were introduced and tested, preferred manufacturing parameters were obtained by experiments. The fabrication, due to its simplicity and flexibility, enable prototyping of soft actuators with different applications and properties and therefore has potential for future application in soft robotics
Four-dimensional (4D) printing has set the stage for a new generation of soft robotics. The applicat...
Soft pneumatic actuators can produce a range of motions and deliver a high force-to-mass ratio whils...
Soft robotic grippers are required for power grasping of objects without inducing damage. Additive m...
In this work, a novel, monolithic fabrication method is proposed and developed. The proposed process...
Soft materials have been incorporated in the design of robotic systems particularly as a damper, cov...
Soft robotics has recently gained a significant momentum as a newly emerging field in robotics that ...
In soft robotics, the fabrication of extremely soft structures capable of performing bio-inspired co...
Most soft robots are pneumatically actuated and fabricated by molding and assembling processes that ...
Soft actuation allows robots to interact safely with humans, other machines, and their surroundings....
Soft actuators are one of the primary and critical components of a soft robot. Soft robots demand de...
The growing interest in soft robots comes from the new possibilities offered by these systems to cop...
We propose pouch motors, a new family of printable soft actuators integrated with computational desi...
Pneumatic soft robotic systems show remarkable potentials in producing versatile locomotion and mani...
Unlike traditional hard grippers, soft robotic grippers are commonly made of soft materials so that ...
Soft robots possess many attributes that are difficult, if not impossible, to achieve with conventio...
Four-dimensional (4D) printing has set the stage for a new generation of soft robotics. The applicat...
Soft pneumatic actuators can produce a range of motions and deliver a high force-to-mass ratio whils...
Soft robotic grippers are required for power grasping of objects without inducing damage. Additive m...
In this work, a novel, monolithic fabrication method is proposed and developed. The proposed process...
Soft materials have been incorporated in the design of robotic systems particularly as a damper, cov...
Soft robotics has recently gained a significant momentum as a newly emerging field in robotics that ...
In soft robotics, the fabrication of extremely soft structures capable of performing bio-inspired co...
Most soft robots are pneumatically actuated and fabricated by molding and assembling processes that ...
Soft actuation allows robots to interact safely with humans, other machines, and their surroundings....
Soft actuators are one of the primary and critical components of a soft robot. Soft robots demand de...
The growing interest in soft robots comes from the new possibilities offered by these systems to cop...
We propose pouch motors, a new family of printable soft actuators integrated with computational desi...
Pneumatic soft robotic systems show remarkable potentials in producing versatile locomotion and mani...
Unlike traditional hard grippers, soft robotic grippers are commonly made of soft materials so that ...
Soft robots possess many attributes that are difficult, if not impossible, to achieve with conventio...
Four-dimensional (4D) printing has set the stage for a new generation of soft robotics. The applicat...
Soft pneumatic actuators can produce a range of motions and deliver a high force-to-mass ratio whils...
Soft robotic grippers are required for power grasping of objects without inducing damage. Additive m...