2014
DOI: 10.1038/ncomms4066
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Reduced time as a unified parameter determining fixity and free recovery of shape memory polymers

Abstract: Shape memory polymers are at the forefront of recent materials research. Although the basic concept has been known for decades, recent advances in the research of shape memory polymers demand a unified approach to predict the shape memory performance under different thermo-temporal conditions. Here we report such an approach to predict the shape fixity and free recovery of thermo-rheologically simple shape memory polymers. The results show that the influence of programming conditions to free recovery can be un… Show more

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Cited by 228 publications
(195 citation statements)
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“…[24,34,35,105] Shape memory materials are the fundamental components of such devices, and mainly contain three types of materials, i.e., shape-memory polymers, alloys and some ceramic materials. [106][107][108] In the past two years, shape memory materials have been applied as substrates or cores to support charge-storage active components, and have been assembled into plane-or fibershaped memory supercapacitors. Yan et al reported a smart design for a watchband-like supercapacitor based on a TiNi alloy, with a shape memory ability inducible by body temperature (Figure 6a).…”
Section: Shape-memory Ability In Response To External Mechanical Defomentioning
confidence: 99%
“…[24,34,35,105] Shape memory materials are the fundamental components of such devices, and mainly contain three types of materials, i.e., shape-memory polymers, alloys and some ceramic materials. [106][107][108] In the past two years, shape memory materials have been applied as substrates or cores to support charge-storage active components, and have been assembled into plane-or fibershaped memory supercapacitors. Yan et al reported a smart design for a watchband-like supercapacitor based on a TiNi alloy, with a shape memory ability inducible by body temperature (Figure 6a).…”
Section: Shape-memory Ability In Response To External Mechanical Defomentioning
confidence: 99%
“…Nowadays, there are many stimuli for SMP deformation and recovery, mainly including temperature [4], light [5], electricity [6], magnetic field [7], moisture [8] and solution [9]. Thermally-actuated SMP has been widely applied and achieved great development.…”
Section: Introductionmentioning
confidence: 99%
“…Shape memory polymers (SMPs) are a type of polymeric smart material that can maintain one temporary form and recover the original shape under external stimuli like temperature [1], light [2,3], electricity [4], magnetism [5,6] and solvents [7]. The advantages of SMPs are their ability to undergo large-deformations and their shape memory effect.…”
Section: Introductionmentioning
confidence: 99%