Shape-memory surfaces for cell mechanobiology

Shape-memory polymers (SMPs) are a new class of smart materials, which have the capability to change from a temporary shape ‘A’ to a memorized permanent shape ‘B’ upon application of an external stimulus. In recent years, SMPs have attracted much attention from basic and fundamental research to indu...

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Main Author: Mitsuhiro Ebara
Format: Article
Language:English
Published: Taylor & Francis Group 2015-02-01
Series:Science and Technology of Advanced Materials
Subjects:
Online Access:http://dx.doi.org/10.1088/1468-6996/16/1/014804
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spelling doaj-d6fac28fb5a7469eb18e6199e8f18ad32020-11-25T02:52:57ZengTaylor & Francis GroupScience and Technology of Advanced Materials1468-69961878-55142015-02-0116110.1088/1468-6996/16/1/01480411661242Shape-memory surfaces for cell mechanobiologyMitsuhiro Ebara0Institute for Materials Science (NIMS)Shape-memory polymers (SMPs) are a new class of smart materials, which have the capability to change from a temporary shape ‘A’ to a memorized permanent shape ‘B’ upon application of an external stimulus. In recent years, SMPs have attracted much attention from basic and fundamental research to industrial and practical applications due to the cheap and efficient alternative to well-known metallic shape-memory alloys. Since the shape-memory effect in SMPs is not related to a specific material property of single polymers, the control of nanoarchitecture of polymer networks is particularly important for the smart functions of SMPs. Such nanoarchitectonic approaches have enabled us to further create shape-memory surfaces (SMSs) with tunable surface topography at nano scale. The present review aims to bring together the exciting design of SMSs and the ever-expanding range of their uses as tools to control cell functions. The goal for these endeavors is to mimic the surrounding mechanical cues of extracellular environments which have been considered as critical parameters in cell fate determination. The untapped potential of SMSs makes them one of the most exciting interfaces of materials science and cell mechanobiology.http://dx.doi.org/10.1088/1468-6996/16/1/014804shape-memory polymersshape-memory surfacescell mechanobiology
collection DOAJ
language English
format Article
sources DOAJ
author Mitsuhiro Ebara
spellingShingle Mitsuhiro Ebara
Shape-memory surfaces for cell mechanobiology
Science and Technology of Advanced Materials
shape-memory polymers
shape-memory surfaces
cell mechanobiology
author_facet Mitsuhiro Ebara
author_sort Mitsuhiro Ebara
title Shape-memory surfaces for cell mechanobiology
title_short Shape-memory surfaces for cell mechanobiology
title_full Shape-memory surfaces for cell mechanobiology
title_fullStr Shape-memory surfaces for cell mechanobiology
title_full_unstemmed Shape-memory surfaces for cell mechanobiology
title_sort shape-memory surfaces for cell mechanobiology
publisher Taylor & Francis Group
series Science and Technology of Advanced Materials
issn 1468-6996
1878-5514
publishDate 2015-02-01
description Shape-memory polymers (SMPs) are a new class of smart materials, which have the capability to change from a temporary shape ‘A’ to a memorized permanent shape ‘B’ upon application of an external stimulus. In recent years, SMPs have attracted much attention from basic and fundamental research to industrial and practical applications due to the cheap and efficient alternative to well-known metallic shape-memory alloys. Since the shape-memory effect in SMPs is not related to a specific material property of single polymers, the control of nanoarchitecture of polymer networks is particularly important for the smart functions of SMPs. Such nanoarchitectonic approaches have enabled us to further create shape-memory surfaces (SMSs) with tunable surface topography at nano scale. The present review aims to bring together the exciting design of SMSs and the ever-expanding range of their uses as tools to control cell functions. The goal for these endeavors is to mimic the surrounding mechanical cues of extracellular environments which have been considered as critical parameters in cell fate determination. The untapped potential of SMSs makes them one of the most exciting interfaces of materials science and cell mechanobiology.
topic shape-memory polymers
shape-memory surfaces
cell mechanobiology
url http://dx.doi.org/10.1088/1468-6996/16/1/014804
work_keys_str_mv AT mitsuhiroebara shapememorysurfacesforcellmechanobiology
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