The phrase "soft device" is grammatically correct and can be used in written English.
It refers to a piece of technology or equipment that is flexible or easily adaptable. One example of using "soft device" in a sentence is: The company's latest product is a soft device that can be seamlessly integrated into any existing system.
Moreover, this study offers a fundamental understanding of the surface properties in realizing LM amoeba transformations, which would shed light on packing and structure design of liquid metal-based soft device within multi-material system.
In the present paper, which extends our previous study of the static equilibria in this system (Puglisi and Truskinovsky, J. Mech. Phys. Solids (2000) 1), we analyze the behavior of a bi-stable chain in a soft device under quasi-static loading.
In addition, Wood, together with other Wyss Core and Associate Faculty Members, is exploring soft-bodied autonomous robots and soft devices for human-robot interaction and rehabilitation.
This work provides a guideline in designing reliable soft devices featured with membrane structures, which are present in a wide variety of applications.
Implementation of the poroelasticity theory in the framework of finite element method would aid the design and optimization of hydrogel-based soft devices.
By creating a common resource for sharing design approaches, prototyping and fabrication techniques, and technical knowledge, the toolkit's developers hope to stimulate the creation of new kinds of soft devices, tools, and methods.
One of these projects, called "Second Skin," is a system in which sensing, actuation, and control mechanisms are embedded in soft devices that can be worn by patients with neuromuscular disorders to help them regain function.
These properties are being exploited to develop biomimetic reactive and soft devices: artificial muscles and polymeric actuators; supercapacitors and all organic batteries; smart membranes; electron-ion transducers; nervous interfaces and artificial synapses, or drug delivery devices.
We argue that both, the synchronization and the non-equivalence of the mechanical responses in hard and soft devices, have their origin in the dominance of long-range interactions.
The analytical results obtained in this paper is helpful for understanding the mechanical behaviours of hyperelastic plates in free growth, which would also be useful for the design of soft devices.
"We study and mimic the characteristics of biological organisms to create soft robots and soft devices," says Dr Rossiter.
