ライフサイエンスコーパス: elastomer

1 uctural anisotropy (in a nominally isotropic elastomer).

2 -free brush- and comb-like polymer networks (elastomers).

3 rs and circuits in an ultrathin, low-modulus elastomer.

4 solubility of levonorgestrel in the silicone elastomer.

5 ht species that can diffuse through the ring elastomer.

6 om the interaction of the drug with the ring elastomer.

7 tchable hydrogel circuit boards patterned on elastomer.

8 with electrodeposition paint and a silicone elastomer.

9 (dimethylsiloxane), a biocompatible silicone elastomer.

10 ggered color change prior to fracture of the elastomer.

11 h compromise the mechanical integrity of the elastomer.

12 compromising the mechanical integrity of the elastomer.

13 he excellent performance of the self-healing elastomer.

14 basic phenomena associated with fracture of elastomers.

15 s to the prediction of established trends in elastomers.

16 s, RB powder and PDMS polymer within the bio-elastomers.

17 ves the twisting of strips of liquid-crystal elastomers.

18 or blending of nanofibres or nanowires into elastomers.

19 ble substrates such as paper, hydrogels, and elastomers.

20 lectrical components and tough thermoplastic elastomers.

21 ered materials referred to as liquid crystal elastomers.

22 r amorphous materials like soft cross-linked elastomers.

23 e development and applications of dielectric elastomers.

24 50% strain, and energy absorption similar to elastomers.

25 d tumor cells or are tagged with fluorescent elastomers.

26 ce, unlike commercial styrenic thermoplastic elastomers.

27 show significant potential as thermoplastic elastomers.

28 han chemically cross-linked hydrogels and LC elastomers.

29 d fibroblast polarization even on the softer elastomers.

30 enhancements in performance of a dielectric elastomer actuator and energy-harvesting transducer.

31 rent voltage combinations to thin dielectric elastomer actuator segments surrounding a soft silicone

32 Exploiting a dielectric elastomer actuator, the system's mechanical response per

33 Dielectric elastomer actuators (DEAs) are promising soft transducer

34 vel method for the fabrication of dielectric elastomer actuators (DEAs) combines acrylic polymers and

35 ry alloys (SMAs), piezoelectrics, dielectric elastomer actuators (DEAs), ionic electroactive polymers

36 miniaturized and fully integrated dielectric elastomer actuators (IDEAs) in order to perform sample i

37 re system to provide power to the dielectric elastomer actuators and to control their flight.

38 obots are driven by multi-layered dielectric elastomer actuators that weigh 100 milligrams each and h

39 ers to control the deformation of dielectric elastomer actuators, in particular to break the symmetry

40 ctuation response is proposed for dielectric elastomer actuators.

41 ; ionic-polymer/metal composites; dielectric-elastomer actuators; conducting polymers; stimuli-respon

42 Starch granules within the bio-elastomers affected the release of the antioxidant molec

43 ulus and glass transition temperature of the elastomers, allowing for the fixation of a temporary sha

44 The mini-robot is made of elastomer and constructed from 3D printed components, he

45 A soft machine composed of a composite of elastomer and fibers resists puncture from sharp objects

46 e surface of a poly(dimethylsiloxane) (PDMS) elastomer and filled with EGaIn using a micro-transfer d

47 The composite film is made from an elastomer and magnetic particles encapsulated by a phase

48 er arrays of PZT nanoribbons onto a silicone elastomer and measure mechanical deformations on a cow l

49 soft composite DEA made of strain-stiffening elastomers and carbon nanotube electrodes, which demonst

50 rns and to guide the design of this class of elastomers and devices.

51 erization, leading to a range of assemblies, elastomers and gels.

52 kins, soft hybrids integrating the merits of elastomers and hydrogels have potential applications in

53 t been previously observed in liquid crystal elastomers and may be useful for the development of self

54 Although the use of soft elastomers and microstructures have improved the sensiti

55 to formulate their own custom-made silicone elastomers and not depend on premade formulations which

56 clude direct blending of semiconductors with elastomers and synthesizing semiconductor polymers with

57 geous mechanical properties of thermoplastic elastomers and the dynamic self-healing features of supr

58 ws for covalent binding between proteins and elastomers and thus introduces a more stable immobilizat

59 des (16 electrodes in a four by four array), elastomer, and fabric.

60 tach various materials, including hydrogels, elastomers, and inorganic solids.

61 omposed of soft materials such as hydrogels, elastomers, and jammed granular media.

62 d properties of liquid crystalline polymers, elastomers, and networks have also been analyzed.

63 HWP1 promoter, biofilm formation on silicone elastomers, and pathogenesis in a nematode infection mod

64 ious types of materials, including polymers, elastomers, and semiconductors.

65 Biodegradable elastomers are a popular choice for tissue engineering s

66 raphene sheets aligned in liquid crystalline elastomers are capable of absorbing near-infrared light.

67 It is for this reason that elastomers are commonly used to coat grip surfaces.

68 Soft, solvent-free poly(dimethylsiloxane) elastomers are fabricated by a one-step process via cros

69 mal and dynamic mechanical properties of the elastomers are investigated experimentally and are corre

70 present in nature and in manufactured goods, elastomers are network polymers typically crosslinked by

71 Silicone elastomers are widely used due to the favourable propert

72 ed metamaterials, made of highly stretchable elastomers, are realized through an additive manufacturi

73 ls as ionic conductors, and uses hydrophobic elastomers as dielectrics.

74 ogy that exploits thin, low modulus silicone elastomers as substrates, with a segmented design in the

75 A soft compressible 3D printed elastomer at the base of the holder ensures a good seal

76 rted mechanical performance for self-healing elastomers at room temperature, with a tensile strength

77 s is realized through a nonfouling polymeric elastomer based on zwitterionic polycarboxybetaine deriv

78 ressable electrodes to generate a dielectric elastomer-based actuation of the membrane, so as to elec

79 focal plane and an integrated array of soft elastomer-based micropads, used together to allow for tr

80 ound a plastic pole and fully embedded in an elastomer block, which can be easily mounted onto the mi

81 el vaginal ring device comprising a silicone elastomer body into which three freeze-dried, rod-shaped

82 ical properties of the implant by tuning the elastomer branching structure, crosslink density, and mo

83 nd extensibility; for example, strengthening elastomers by increasing their cross-link density leads

84 onally large strains can be produced in soft elastomers by the application of an electric field and t

85 tre and can be converted into liquid crystal elastomers by ultraviolet curing.

86 and biologically skin-like materials (PSeD-U elastomers) by designing a unique physical and covalent

87 he design of new citrate-based biodegradable elastomers (CABEs) with greatly improved mechanical stre

88 Moreover, the elastomer can self-heal at room temperature with a recov

89 ots consisting of photoactive liquid-crystal elastomers can be driven by structured monochromatic lig

90 edible starch and RB powder the present bio-elastomers can be used in active packaging for a variety

91 Employing liquid crystal elastomer-carbon nanotube composites as artificial muscl

92 Biofilms grown on silicone-elastomer catheter discs in these media were compared fo

93 In most synthetic elastomers, changing the physical properties by monomer

94 a single crystal cholesteric liquid crystal elastomer (CLCE).

95 de hydrogels and polydimethylsiloxane (PDMS) elastomers coated with ECM proteins are widely used to a

96 nd elasticity compared to braids without the elastomer coating.

97 esive from a biocompatible and biodegradable elastomer combined with a thin tissue-reactive biocompat

98 light-induced actuation with liquid crystal elastomers combined with azobenzene photochromes.

99 Elastomer components were found to be the main contribut

100 A fiber-elastomer composite design with a vastly improved and di

101 The all-elastomer composites are capable of achieving remarkably

102 Poly(3,4-ethylenedioxythiophene)-elastomer composites have been developed to improve its

103 ort a liquid metal-filled magnetorheological elastomer comprising a hybrid of fillers of liquid metal

104 g two 1/4-length excipient-modified silicone elastomer cores - each containing lyophilised 5P12-RANTE

105 in contributor while both nylon bristles and elastomers could act as absorptive sinks for TCS during

106 Elastomers crosslinked by weak bonds usually exhibit mor

107 glyoxime-urethane-complex-based polyurethane elastomer (Cu-DOU-CPU) with synergetic triple dynamic bo

108 omponent dopant-free conductive polyurethane elastomer (DCPU) by chemically linking biodegradable seg

109 Furthermore, PSeD-U elastomers demonstrate the cytocompatibility and biodegr

110 rs a unique advantage unseen in conventional elastomer design because one ligand binds multiple metal

111 with collagen and cultured on force-sensing elastomer devices.

112 n most other commercially available silicone elastomers, due to the fact that the premixes have low v

113 In contrast, elastomers embedded with microscale droplets exhibit sim

114 n deterministic fractal motifs and bonded to elastomers enable unusual mechanics with important impli

115 Thermoplastic polyurethane elastomers enjoy an exceptionally wide range of applicat

116 ot melt extrusion of the non-water swellable elastomer, ethylene vinyl acetate (EVA-28), containing t

117 hanical properties of the liquid crystalline elastomers examined here enables strain to be locally re

118 The synthesized elastomers exhibit active responses to both light and he

119 The bottlebrush melts and elastomers exhibit an unprecedented combination of low m

120 The elastomer exhibits this distinguishable color change at

121 f a mechanical instability on a polyurethane elastomer film, we show that wettability patterns on bot

122 nt thin-film transistors that behave like an elastomer film.

123 A metal-elastomer-foam composite that varies in stiffness, that

124 (dimethylsiloxane) (PDMS) is a commonly used elastomer for fabricating microfluidic devices, but it h

125 viable approach to sustainable plastics and elastomers for a broad range of applications.

126 tory of incorporating steroids into silicone elastomers for drug delivery applications, little is pre

127 rch in the area of tailor-made soft silicone elastomers for novel applications and allow researchers

128 with plasticizers or polymers, deposition on elastomers, formation of fibers and gels, and the use of

129 ologies, the most commonly utilised silicone elastomer formulation is Sylgard 184 which is easier to

130 y the use of commercially available silicone elastomer formulations.

131 as sensitive to poisoning as other silicone elastomer formulations.

132 proach to preparing sustainable ultra-strong elastomers from biomass-derived long-chain polyamides by

133 monstrated in the formation of reprocessable elastomers from Lewis base-decorated high molecular weig

134 Applying hierarchical cuts to thin sheets of elastomer generates super-stretchable and reconfigurable

135 hieve high energy density of soft dielectric elastomer generators for energy harvesting.

136 ling abilities of a range of thiol-anhydride elastomers, glasses, composites and photopolymers are di

137 hydrosilane groups in addition-cure silicone elastomers has been thoroughly investigated.

138 However, shape morphing with dielectric elastomers has not been possible since no generalizable

139 ectricity, thermoelectricity, and dielectric elastomers have been largely developed and the progress

140 from hard plastics, ceramic precursors, and elastomers have been printed.

141 ally deformable surfaces based on dielectric elastomers have recently demonstrated controllable micro

142 However, existing hydrogel-elastomer hybrids have limitations such as weak interfac

143 d by the robust and microstructured hydrogel-elastomer hybrids including anti-dehydration hydrogel-el

144 tretchability and robustness of the hydrogel-elastomer hybrids prevent leakage of cells from the livi

145 etchable, robust, and biocompatible hydrogel-elastomer hybrids that host various types of genetically

146 hybrids including anti-dehydration hydrogel-elastomer hybrids, stretchable and reactive hydrogel-ela

147 n AM encompasses thermoplastics, thermosets, elastomers, hydrogels, functional polymers, polymer blen

148 e to demonstrate the potential use of PSeD-U elastomers in bio-integrated electronics.

149 allenge: integrate hydrogels and hydrophobic elastomers-in various manufacturing processes-with stron

150 of tough hydrogels and diverse commonly used elastomers including polydimethylsiloxane Sylgard 184, p

151 eport that polydomain nematic liquid crystal elastomers increase in stiffness by up to 90% when subje

152 s by co-printing multiple epoxy and silicone elastomer inks of stiffness varying by several orders of

153 bonded at selective sites on a prestretched elastomer into folded 3D microstructures, in a reversibl

154 t versatile method to assemble hydrogels and elastomers into hybrids with extremely robust interfaces

155 This coating-free nonfouling elastomer is a highly promising biomaterial for biomedic

156 ble supplies of water and nutrients, and the elastomer is air-permeable, maintaining long-term viabil

157 The elastic modulus of the elastomer is controlled simultaneously by the crosslinke

158 A self-healing thermo-reversible elastomer is synthesized by cross-linking a hydrogen bon

159 tion as a mechanism to produce biodegradable elastomers is reported.

160 c change of the surface area and topology of elastomers is used as a general, environmentally friendl

161 ing, however, to apply this concept to "dry" elastomers, largely because reversible crosslinks such a

162 des sandwich a ZnS phosphor-doped dielectric elastomer layer, creating thin rubber sheets that change

163 of a compliant and deformable liquid crystal elastomer (LCE) matrix that can achieve macroscopic shap

164 eguided light is harnessed by liquid crystal elastomer (LCE) nanocomposites to drive actuation.

165 Here, we develop patterned liquid crystal elastomer (LCE) particles by recapitulating the biophysi

166 thus DLP-printable main-chain liquid crystal elastomer (LCE) resin is reported and used to print a va

167 Two-dimensional liquid-crystal elastomer (LCE) sheets with preprogrammed topological de

168 hography on a backing splayed liquid-crystal elastomer (LCE).

169 Liquid crystalline elastomers (LCE) undergo reversible shape changes in res

170 ic soft elasticity in nematic liquid crystal elastomers (LCE), the temperature-dependent control of a

171 rs (SMPs), hydrogels, and liquid crystalline elastomers (LCEs) and networks (LCNs).

172 Liquid-crystal elastomers (LCEs) are a class of actively moving polymer

173 Photoresponsive liquid crystal elastomers (LCEs) are a unique class of anisotropic mate

174 Liquid crystal elastomers (LCEs) are an attractive platform for dynamic

175 Liquid crystal elastomers (LCEs) are anisotropic polymeric materials.

176 Liquid crystalline elastomers (LCEs) are biocompatible polymers able to rev

177 Monodomain liquid crystal elastomers (LCEs) are new materials uniquely suitable fo

178 Liquid crystal elastomers (LCEs) are of interest for applications such

179 printable and reconfigurable liquid crystal elastomers (LCEs) that reversibly shape-morph when cycle

180 igger the nematic-to-isotropic transition of elastomers, leading to macroscopic mechanical deformatio

181 The coating of the scaffold with the elastomer led to higher mechanical strength in terms of

182 Swollen elastomer liquid crystals undergo significant deformatio

183 rned LM microfluidics, LMPA- and LM-embedded elastomer (LMEE) composites are statistically homogenous

184 le and transparent Au nanomesh electrodes on elastomers made by grain boundary lithography.

185 paraffin wax-polyolefin thermoplastic blend (elastomer matrix binder) with bulk-produced carbon nanof

186 iquid metal microdroplets embedded in a soft elastomer matrix is presented by C. Majidi and co-worker

187 etallic nanowires and carbon nanotubes in an elastomer matrix to accommodate large external deformati

188 d by embedding liquid-metal inclusions in an elastomer matrix.

189 howed a range of synthetic materials such as elastomers (MED: 61.2%; PAC: 3.4%), thermoplastics (ATL:

190 escent beads, and transmission efficiency of elastomer membrane stretch to cellular area change in He

191 al features into both single, and dual layer elastomer membranes that exhibit uniform thickness.

192 r hybrids, stretchable and reactive hydrogel-elastomer microfluidics, and stretchable hydrogel circui

193 that T cells form complex interactions with elastomer micropillar arrays, extending processes into s

194 of magnetic nanoparticles within individual elastomer micropillars, a wide range of the magnetomecha

195 00 kPa, below the lower limit of traditional elastomers; moreover, the solvent-free nature enables th

196 ate through the rapid heat dissipation of an elastomer-mounted extreme high-power LED lamp and a swim

197 ipper with an inflatable membrane covered by elastomer mushroom-shaped microfibers have a superior co

198 e enabling properties and practicality of LM-elastomer nanocomposites for use in soft machines and el

199 Here, a class of liquid metal (LM)-elastomer nanocomposites is presented with elastic and d

200 ich either anions or cations are fixed to an elastomer network and the other ionic species are mobile

201 e knowledge to formulate recipes and process elastomer networks, targeting specific properties relate

202 hesion based on heterojunctions between iono-elastomer of opposite polarity is demonstrated, which ca

203 ) acid which were braided and coated with an elastomer of poly(glycolide-co-caprolactone) and crossli

204 rmeability in the non-biodegradable silicone elastomer or thermoplastic polymers.

205 and degradation properties of the resulting elastomers over such a broad range.

206 The high viscosity of the nanotube/elastomer paste has been exploited for the fabrication.

207 in 96-well microtiter plates and on silicon elastomer pieces using both SU and RPMI media.

208 uman cells interacting with micrometer-scale elastomer pillar arrays presenting activation antibodies

209 user applies the paint on various materials (elastomer, plastic, glass, ceramic, or metal), and by va

210 ustainable materials and products, including elastomers, plastics, hydrogels, flexible electronics, r

211 evice is made of a single mold of a silicone elastomer poly(dimethylsiloxane) (PDMS) sealed with a co

212 Specifically, when the polar elastomer poly(vinylidene fluoride-co-hexafluoropropylen

213 ar scaffolds fabricated from a biodegradable elastomer, poly(glycerol sebacate) (PGS) and cultured in

214 We demonstrate that a thermoplastic elastomer-poly(vinyl alcohol) (PVA) composite material (

215 ructuring of thin films of the biocompatible elastomer polydimethylsiloxane.

216 ibers, engineered plastics and thermoplastic elastomers, polymeric foams, fungible fuels, and commodi

217 er glass spheres traveling at 700-900 m/s on elastomer polymers.

218 arly 1300 % relative to a chemically similar elastomer prepared from wholly isotropic precursors.

219 The printing process combines soft silicone elastomer printing and liquid metal processing on a sing

220 character parallels the behaviour of nematic elastomers, promises tailored membrane conduction and po

221 CE compositions examined here, the isotropic elastomers rapidly recover after deformation.

222 The biodegradable elastomers reported here would enable new materials and

223 spheres are good candidates for shape memory elastomers requiring structural complexity, with potenti

224 d from a commercially available photocurable elastomer resin.

225 aterials including hydrogels, liquid-crystal elastomers, shape-memory polymers, and aqueous droplets.

226 strates such as silicon microcantilevers and elastomer sheets, creating bio-hybrid hygromorph actuato

227 rbon-nanotubes-based electrodes between thin elastomer sheets.

228 These enteric elastomers should increase the safety profile for a wide

229 owing mechanical damage, these thermoplastic elastomers show excellent self-healing ability under amb

230 Besides, the PSeD-U elastomers show nonlinear mechanical behavior similar to

231 that occurs in a highly stretchable silicone elastomer (Smooth-On Ecoflex 00-30).

232 ng buckypaper electrodes cured on a silicone elastomer soft contact lens.

233 n on measurements of pigmented maxillofacial elastomer specimens having human skin colors.

234 and comparisons in accuracy and precision on elastomer specimens were made.

235 A method is put forth that utilizes elastomer stamps to manipulate and position isolated fib

236 Elastomer stiffening is influenced by liquid crystal con

237 d by holes are fabricated into a three-layer elastomer structure to form networks of fluidic gates th

238 the strain field in a hybrid nanoelectronic elastomer structures subject to uniaxial and bending for

239 e stratum corneum and an adherent deformable elastomer substrate.

240 ED structure conformed on a surface-wrinkled elastomer substrate.

241 ge instabilities in gold nanofilms coated on elastomer substrates (a); a theoretical model to calcula

242 piezoelectric and semiconductor materials on elastomer substrates enable amplified, low hysteresis me

243 ason for this behavior the inability of soft elastomer substrates to resist traction forces rather th

244 ing structures are direct-written on silicon/elastomer substrates with a resolution of 200 nm.

245 Weakly cross-linked elastomers supported efficient focal adhesion maturation

246 various patterns of large deformation on the elastomer surface, which displays versatile fluorescent

247 t explores mechanosensing of microstructured elastomer surfaces by CD4(+) T cells, key mediators of t

248 Deformation of elastomer surfaces under electrical or pneumatic actuati

249 - and macro-fouling organisms adhered on the elastomer surfaces.

250 Using this approach to elastomer synthesis, further end group modification and

251 ign an electro-mechano-chemically responsive elastomer system that can exhibit a wide variety of fluo

252 A hydrogel-dielectric-elastomer system, polyacrylamide and poly(dimethylsiloxa

253 This enables a hybrid "dry" elastomer that is very tough with fracture energy 13500

254 n of multiphase supramolecular thermoplastic elastomers that combine high modulus and toughness with

255 actuators are designed based on bottlebrush elastomers that enable giant reversible strokes at relat

256 e use of fibronectin-functionalized silicone elastomers that exhibit considerable frequency dependenc

257 realm to a new and easily scalable class of elastomers that will have unique chemical handles for fu

258 for incorporation into the Shore 40 silicone elastomer to generate a prosthesis that approximates the

259 EGaIn microdroplets can be incorporated into elastomers to fabricate highly stretchable, mechanically

260 nally, the mechanotropic displacement of the elastomers to load is also nonlinear.

261 owder was incorporated into starch-based bio-elastomers to obtain flexible biocomposites with tunable

262 glass transition temperature and allows the elastomers to recover their original shapes.

263 diene monomer rubber (EPDM) or thermoplastic elastomer (TPE) eluates, reflect the stronger mechanical

264 uced softening of thermoplastic polyurethane elastomers (TPUs), known as the Mullins effect, arises f

265 The FO-TENG consists of a deformable elastomer tube filled with a ferrofluid, as a triboelect

266 semblies of thin, highly stretchable (>400%) elastomer tubules filled with liquid conductor (eutectic

267 initial levonorgestrel loading and silicone elastomer type were demonstrated to be key parameters im

268 tablished interpretation of the behaviour of elastomers under high-velocity impact.

269 The isotropic (amorphous) elastomers undergo significant directional orientation u

270 ated from thermoplastic polymers or silicone elastomers, used to administer pharmaceutical drugs to t

271 lastic nanoparticle suspensions toward tough elastomers via Digital Light Synthesis (DLS) (an inverte

272 ated with other materials such as insulating elastomers via multi-material 3D printing.

273 ique combinations of colored visible implant elastomer (VIE).

274 nocomposites, a MOP-composited thermoplastic elastomer was obtained, providing practical solutions to

275 liquid metal (LM) microdroplets into a soft elastomer, we achieve a approximately 25x increase in th

276 Using prototypical poly(dimethylsiloxane) elastomers, we illustrate how this parametric triplet en

277 The bio-elastomers were hydrophobic and resisted dissolution in

278 thiols to activated alkynes, high-molar-mass elastomers were isolated via step-growth polymerization.

279 Omniphobic fluorogel elastomers were prepared by photocuring perfluorinated a

280 with potential applications as thermoplastic elastomers, were synthesized by combining both strategie

281 sented by exploiting networked nanocomposite elastomers where high quality metal nanowires serve as c

282 the mechanoacid is demonstrated in silicone elastomers, where its mechanical activation leads to a s

283 with softer types of commercially available elastomers, which compromise the mechanical integrity of

284 es the strength of covalent crosslinked PSeD elastomers, while maintaining a low modulus.

285 re made from polydimethylsiloxane (PDMS), an elastomer widely used in microfluidic prototyping, but p

286 s examined and it is found that embedding an elastomer with a polydisperse distribution of nanoscale

287 surface area on the skin and the breathable elastomer with fabric is biocompatible and comfortable f

288 We covalently couple a stretchable elastomer with mechanochromic molecules, which emit stro

289 onds significantly strengthens the resultant elastomers with 11 times the toughness and 3 times the s

290 ng these nanomolded pillars of biodegradable elastomers with a thin layer of oxidized dextran signifi

291 y explore mechanotropic phase transitions in elastomers with appreciable mesogenic content and compar

292 ization are fabricated by composing flexible elastomers with different tensile strengths using soft l

293 Liquid-crystal elastomers with exchangeable links (xLCEs) are mouldable

294 le cytoskeletal and fibroblast polarization; elastomers with high cross-linking and low deformability

295 the formation of entanglements, resulting in elastomers with precisely controllable low moduli from 1

296 In this work, epoxy elastomers with reversible crosslinks are synthesized by

297 force the hard microdomains of thermoplastic elastomers with smectic clay of similar characteristic d

298 ordinated with different metal ions produces elastomers with vastly different characteristics.

299 d to increase the Young's modulus of the bio-elastomers without compromising their elongation ability

300 oxide FNs can be laminated/embedded on/into elastomers, yielding multifunctional single-sensing resi