Javascript must be enabled to continue!
Rigid-flexible coupled origami robots via multimaterial 3D printing
View through CrossRef
Abstract
Soft robots have significant advantages in flexibility and adaptability and have potential applications in the field of engineering. Unlike traditional manufacturing methods, three-dimensional (3D) printing provides a fast way to fabricate customized and multi-functional robots. However, the fabrication of soft robots requires multimaterial printers and the high-accuracy multi-step assembly process. Among them, fused deposition modeling (FDM) technology has taken the lead compared to other 3D printing methods due to its ease of use, accuracy, and repeatability. However, the FDM multimaterial printing has not been thoroughly explored. Here, we proposed a rigid and flexible material integrated printing approach based on FDM 3D printing technology and reported a cable-driven flexible pipe robot based on Yoshimura origami crease patterns. The implementations show that the robot can realize four-direction bending effectively by the corresponding drive control, which indicates the feasibility of our design and manufacturing method. The proposed approach paves an effective way to design and fabricate the rigid-flexible robot and other devices in the future.
Title: Rigid-flexible coupled origami robots via multimaterial 3D printing
Description:
Abstract
Soft robots have significant advantages in flexibility and adaptability and have potential applications in the field of engineering.
Unlike traditional manufacturing methods, three-dimensional (3D) printing provides a fast way to fabricate customized and multi-functional robots.
However, the fabrication of soft robots requires multimaterial printers and the high-accuracy multi-step assembly process.
Among them, fused deposition modeling (FDM) technology has taken the lead compared to other 3D printing methods due to its ease of use, accuracy, and repeatability.
However, the FDM multimaterial printing has not been thoroughly explored.
Here, we proposed a rigid and flexible material integrated printing approach based on FDM 3D printing technology and reported a cable-driven flexible pipe robot based on Yoshimura origami crease patterns.
The implementations show that the robot can realize four-direction bending effectively by the corresponding drive control, which indicates the feasibility of our design and manufacturing method.
The proposed approach paves an effective way to design and fabricate the rigid-flexible robot and other devices in the future.
Related Results
Foundations of ontology-based explainable robots
Foundations of ontology-based explainable robots
(English) A critical challenge in the design of robots that operate while interacting with humans is to ensure mutual understanding, which contributes to build reliable human-robot...
Spatial control of protein binding with DNA nanostructures
Spatial control of protein binding with DNA nanostructures
<p dir="ltr">The physical and chemical properties of DNA, including its structure predictability thanks to Watson-Crick base pairing, make it into an obvious polymer of choic...
Spatial control of protein binding with DNA nanostructures
Spatial control of protein binding with DNA nanostructures
<p dir="ltr">The physical and chemical properties of DNA, including its structure predictability thanks to Watson-Crick base pairing, make it into an obvious polymer of choic...
Origami Robots: Design, Actuation, and 3D Printing Methods
Origami Robots: Design, Actuation, and 3D Printing Methods
AbstractTraditional robots, with their rigid structures and precise mechanical designs, have proven invaluable in industrial automation and structured environments but face challen...
Origami-Based Flexible Robotic Grippers via Hard-Soft Coupled Multimaterial 3D Printing
Origami-Based Flexible Robotic Grippers via Hard-Soft Coupled Multimaterial 3D Printing
This study explores the design and performance of origami robotic grippers fabricated through hard-soft coupled multimaterial three-dimensional (3D) printing. We evaluate the impac...
Research Status and Development Trend of Multi-arm Collaborative Robots
Research Status and Development Trend of Multi-arm Collaborative Robots
Industrial robots are mainly used in metal forming, automotive, and electrical and electronics
industries. After decades of unremitting efforts, industrial robots have achieved gre...
Study on Hydraulic Dampers Using a Foldable Inverted Spiral Origami Structure
Study on Hydraulic Dampers Using a Foldable Inverted Spiral Origami Structure
Hydraulic dampers for the vibration damping of industrial machinery and building structures are typically cylindrical. This study proposes a novel, axially free-folding hydraulic d...
4D Printing of Origami Structures for Minimally Invasive Surgeries Using Functional Scaffold
4D Printing of Origami Structures for Minimally Invasive Surgeries Using Functional Scaffold
Origami structures have attracted attention in biomedical applications due to their ability to develop surgical tools that can be expanded from a minimal volume to a larger and fun...

