In recent years, soft robotic grasping has rapidly spread through the academic robotics community and pushed into industrial applications. At the same time, multimaterial 3D printing has become widely available, enabling monolithic manufacture of devices containing rigid and elastic section. We propose a novel design technique which leverages both of these technologies and is able to automatically design bespoke soft robotic grippers for fruit-picking and similar applications. We demonstrate the novel topology optimisation formulation which generates multi-material soft gippers and is able to solve both the internal and external pressure boundaries, and investigate methods to produce air-tight designs. Compared to existing methods, it vastl...
In this thesis, the design and optimization process of a novel soft intelligent modular pad (Intelli...
Numerous soft grippers have been developed based on smart materials, pneumatic soft actuators, and u...
The development of robotic devices able to perform manipulation tasks mimicking the human hand has b...
In this work, we present a novel framework for synthesizing the design of pressure-driven soft robot...
The recent advances in material science and engineering disciplines have had a significant impact on...
Applications as robotic harvesting or pick and place in the agrifood domain require robotic grippers...
Pneumatically-driven soft robotic grippers can elastically deform to grasp delicate, curved organic ...
A widespread methodology to enhance the design of robotic devices is represented by topology optimiz...
We present two frameworks for design optimization of a multi-chamber pneumatic-driven soft actuator ...
Grippers have existed for a long time and have contributed to the development of automation. Soft gr...
Soft robotic hands allow to fully exploit hand-object-environment interactions to complete grasping ...
Development of soft robotic devices with grasping capabilities is an active research area. The inher...
Soft and compliant robotic systems have the potential to interact with humans and complex environmen...
In this thesis, the design and optimization process of a novel soft intelligent modular pad (Intelli...
Numerous soft grippers have been developed based on smart materials, pneumatic soft actuators, and u...
The development of robotic devices able to perform manipulation tasks mimicking the human hand has b...
In this work, we present a novel framework for synthesizing the design of pressure-driven soft robot...
The recent advances in material science and engineering disciplines have had a significant impact on...
Applications as robotic harvesting or pick and place in the agrifood domain require robotic grippers...
Pneumatically-driven soft robotic grippers can elastically deform to grasp delicate, curved organic ...
A widespread methodology to enhance the design of robotic devices is represented by topology optimiz...
We present two frameworks for design optimization of a multi-chamber pneumatic-driven soft actuator ...
Grippers have existed for a long time and have contributed to the development of automation. Soft gr...
Soft robotic hands allow to fully exploit hand-object-environment interactions to complete grasping ...
Development of soft robotic devices with grasping capabilities is an active research area. The inher...
Soft and compliant robotic systems have the potential to interact with humans and complex environmen...
In this thesis, the design and optimization process of a novel soft intelligent modular pad (Intelli...
Numerous soft grippers have been developed based on smart materials, pneumatic soft actuators, and u...
The development of robotic devices able to perform manipulation tasks mimicking the human hand has b...