ライフサイエンスコーパス: elastomeric

1 an also be realized with mechanophore-linked elastomeric and glassy polymers, by using a mechanophore

2 ary amine groups, the bulk polymer itself is elastomeric and hydrophobic while its superhydrophilic s

3 The fluidic and elastomeric architectures required for function span sev

4 Here we show that model elastomeric artificial skins wrinkle in a hierarchical p

5 n array of hard silicon tips mounted onto an elastomeric backing.

6 analytical techniques, suggesting that their elastomeric behavior is caused by polymer chain entangle

7 ly structures with restored conductivity and elastomeric behavior.

8 n fibers exhibit properties similar to other elastomeric biopolymers.

9 esent an architected soft system composed of elastomeric bistable beam elements connected by elastome

10 LBL films of PEO and PAA behave as flexible elastomeric blends at ambient conditions and allow for n

11 terning dissociated rat cardiomyocytes on an elastomeric body enclosing a microfabricated gold skelet

12 This report describes the development of elastomeric capture microparticles (ECmuPs) and their us

13 Herein we develop an elastomeric cellular structure filled with nanoporous ma

14 Elastomeric cellular structures provide a promising solu

15 ese materials have potential applications as elastomeric components in printable materials, cargo car

16 The devices combine elastomeric compound optical elements with deformable ar

17 BPLPs can be further cross-linked into elastomeric cross-linked polymers, CBPLPs.

18 This technique is based on the transfer of elastomeric decal patterns via the engineered adhesion a

19 studies have revealed that fibrin fibers are elastomeric despite their high degree of molecular order

20 actions by collecting them directly into the elastomeric device and then subjecting them to sequentia

21 mmobilized on the hydrophobic surface of the elastomeric device for in-well trypsin digestion, follow

22 work, we describe a new approach in which an elastomeric device is reversibly sealed on the MALDI tar

23 re, we explore the use of a novel, one-piece elastomeric device, the BD MALDI sample concentrator, wh

24 that utilizes the hydrophobic surface of the elastomeric device; and (iii) sequence coverage of the p

25 silicone gels and transfer printing onto an elastomeric dielectric sheet.

26 The elastomeric electrodes of the present solid-state superc

27 plastics and for making transparent, highly elastomeric electrodes; planar sources of polarized broa

28 Natural elastomeric fibres play central structural and functiona

29 here we create spider-web mimics composed of elastomeric filaments.

30 ocal heating is used to thermally expand the elastomeric film beneath a single probe, bringing it int

31 cylindrical channels embedded inside a soft elastomeric film for sensing the effect of the interfaci

32 In this approach, a thin elastomeric film on a plastic substrate supports the ele

33 far surpassed that exhibited by unstructured elastomeric films of similar thickness, and is tunable b

34 Open-celled, elastomeric foams allow the simple design of fully 3D pn

35 butyl acrylate for the emulsion's oil phase, elastomeric foams are created by polymerizing the contin

36 ctivity of graphene, electrically conductive elastomeric foams have been synthesized by the controlle

37 cularly applicable to the development of new elastomeric graft material.

38 We designed cell-free biodegradable elastomeric grafts that degrade rapidly to yield neoarte

39 In this work, we constructed elastomeric graphene porous networks with well-defined s

40 An elastomeric, healable, supramolecular polymer blend comp

41 The proposed system comprises an array of elastomeric helices in background air and is characteriz

42 The elastomeric IVR body (matrix) was produced by hot melt e

43 ion of thin metal electrodes supported by an elastomeric layer against an electroluminescent organic.

44 ers, which are then used to mold features in elastomeric layers that are thermally bonded to form the

45 stomeric bistable beam elements connected by elastomeric linear springs.

46 lief structures present on the surface of an elastomeric master with an ultraviolet or thermally cura

47 We identify pathways to design elastomeric material structures with maximum strength, l

48 Microchannels are constructed within an elastomeric material, and channel surfaces are coated wi

49 ion is the key to forming a tough, healable, elastomeric material.

50 Fabricated by elastomeric materials and a helix inner electrode sticki

51 Elastomeric materials are designed to have load bearing

52 Here, a review of alpha-helix based elastomeric materials is presented that encompasses exam

53 introduced that exploit the deformability of elastomeric materials like polydimethylsiloxane (PDMS).

54 onent fibrous biomaterials, they are used as elastomeric materials or hydrogel systems.

55 that uses replica molding of nontraditional elastomeric materials to fabricate stamps and microfluid

56 ect ink writing of conductive and dielectric elastomeric materials with automated pick-and-place of s

57 nsors within highly conformal and extensible elastomeric matrices.

58 gative effects of insulating sulfur, and the elastomeric matrix accommodates sulfur volume expansion.

59 activity and the mechanical behavior of the elastomeric matrix in which the mechanophore is embedded

60 Elastomeric membrane valving isolates each distinct func

61 integrin-based cell attachments through our elastomeric membrane-based approach and optical magnetic

62 h microstructured sensor, conjugated with an elastomeric membrane.

63 The synthetic tissue groupings consisted of elastomeric membranes embedded with inextensible textile

64 inal uniaxial stretch to adhered cells using elastomeric membranes to study mechanical biosensors.

65 Furthermore, after adhering cells to elastomeric membranes via syndecan-4-specific attachment

66 by MSCs, we used soft lithography to create elastomeric membranes with parallel microgrooves.

67 ies, advanced electrode materials, and thin, elastomeric membranes yield a class of device capable of

68 ough the use of photodetector arrays on thin elastomeric membranes, capable of reversible deformation

69 istry that was designed to anchor the DNA to elastomeric microchannels is useful in a broad range of

70 crofluidic device that contains two parallel elastomeric microchannels separated by a thin porous fle

71 nstrate the unique abilities and benefits of elastomeric microchannels to characterize complex behavi

72 Composed of a gecko-inspired elastomeric microfibrillar adhesive membrane supported b

73 The culture system is composed of elastomeric microfluidic cell shearing chambers interfac

74 An integrated elastomeric microfluidic device, with a footprint the si

75 ubstrates by using microfabricated arrays of elastomeric, microneedle-like posts.

76 which uniquely integrates high aspect-ratio elastomeric micropillars and microspheres self-aligned t

77 High aspect-ratio elastomeric micropillars play important roles as the pla

78 he establishment of a library of micromolded elastomeric micropost arrays to modulate substrate rigid

79 Using synthetic extracellular matrix and elastomeric micropost arrays with tunable rigidity, we f

80 Elastomeric micropost substrates are micromolded from si

81 The tips of the elastomeric microposts are functionalized with extracell

82 a uniform array of closely spaced, vertical, elastomeric microposts, to study the effects of substrat

83 ographic methods such as AFM, electron-beam, elastomeric microprinting, and photolithography and is c

84 minar fluid flow through a three-dimensional elastomeric microstructure formed by two microfluidic ch

85 rabbing modality, the direct peeling-enabled elastomeric microtube fabrication technique, and the con

86 Here we present an elastomeric microtube-based pneumatic actuator that can

87 is technique was first validated by means of elastomeric models (polyacrylamide or polydimethylsiloxa

88 We accomplish this using an elastomeric mold with two different sets of embedded mic

89 We demonstrate the versatility of the elastomeric nanochannels through tuneable sieving and tr

90 ssemblies to form mechanically resilient and elastomeric nanocomposite hydrogels.

91 ne and a surface-bound azide was examined in elastomeric nanoreactors.

92 The elastomeric nature of PDMS makes it possible to make rev

93 sence of any interfaces in the chips and the elastomeric nature of the PDMS allowed us to pull the mi

94 (LM) or low-melting-point alloy (LMPA) in an elastomeric or fluidic carrier medium can exhibit unique

95 f hemiaminal dynamic covalent network (HDCN) elastomeric organogels.

96 ass microfibers in a defined pattern onto an elastomeric (PDMS) hydrophobic film.

97 minated film and color of the mechanochromic elastomeric photonic crystal layer in the same region.

98 omposite actuator layer and a mechanochromic elastomeric photonic crystal layer.

99 b-micron spherical nanoparticles, this gives elastomeric photonic crystals termed polymer opals showi

100 In this work a disposable elastomeric piezoresistive strain sensor was used over a

101 We have used high-speed pressure clamp and elastomeric pillar arrays to apply distinct mechanical s

102 dity-sensing events occur, using a series of elastomeric pillar arrays with dimensions extending to t

103 Protein precoating of elastomeric poly (glycerol sebacate) scaffolds revealed

104 Elastomeric poly (glycerol sebacate) scaffolds were prec

105 otein precoatings on a single scaffold type (elastomeric poly (glycerol sebacate)) with a single cell

106 ion of tilted micropillar arrays on wrinkled elastomeric poly(dimethylsiloxane) as a reversibly switc

107 is fabricated from a composite consisting of elastomeric poly(dimethylsiloxane) embedded with a thin

108 sure can significantly alter the rigidity of elastomeric poly(dimethylsiloxane) substrates and a new

109 precipitated PS phases dispersed throughout elastomeric poly(thioether) networks.

110 d and patterned using a reversibly sealable, elastomeric polydimethylsiloxane cassette, fabricated wi

111 eads are packed in a rod-shaped cavity in an elastomeric polymer (poly(dimethylsiloxane), PDMS); (ii)

112 lt alloy-based coronary stent with a durable elastomeric polymer eluting the antiproliferative agent

113 omposite film of carbon nanotubes (CNTs) and elastomeric polymer is formed on concave lenses, and use

114 Inspired by ordered structure fabrication on elastomeric polymer, we develop a new method to fabricat

115 iac tissue are fabricated from biodegradable elastomeric polymers by pairwise stacking of heart-cell

116 bot, composed exclusively of soft materials (elastomeric polymers), which is inspired by animals (e.g

117 crofluidic devices made of thermoplastic and elastomeric polymers.

118 challenge, particularly for those made from elastomeric polymers.

119 Elastomeric polysiloxane nanocomposites with elongations

120 does not lead to main chain scission and an elastomeric polyurethane enabled consecutive compression

121 ric ligaments with different arrangements in elastomeric porous membranes of pre-twisted kagome latti

122 ntact printing and microfabricated arrays of elastomeric posts to independently and simultaneously co

123 alt nanowires interspersed among an array of elastomeric posts, which acted as independent sensors to

124 tures, and therefore they maintain excellent elastomeric properties at high temperatures.

125 (SEBS) copolymers combine thermoplastic and elastomeric properties to provide microdevices with the

126 Copolymers with elastomeric properties were synthesized by grafting n-bu

127 was synthesized that also shows exceptional elastomeric properties.

128 its low cost, simple fabrication, and rugged elastomeric properties.

129 of elastin monomers and the basis for their elastomeric properties.

130 ents within mammalian elastin, a rubber-like elastomeric protein that interfaces with collagen.

131 In atomic force spectroscopic studies of the elastomeric protein ubiquitin, the beta-strands 1-5 serv

132 The nanomechanical properties of elastomeric proteins determine the elasticity of a varie

133 Furthermore, this model offers a view of elastomeric proteins in general where beta-turn-related

134 ghly extended proteins, including nonfolding elastomeric proteins like PEVK from titin.

135 may also provide some insights for designing elastomeric proteins with tailored mechanical properties

136 However, the PEVK region, similar to other elastomeric proteins, is thought to form a random coil a

137 chanically important alpha/beta and all-beta elastomeric proteins.

138 scale has also been observed for individual elastomeric proteins.

139 method for investigating the design of novel elastomeric proteins.

140 -controlled analgesia, through electronic or elastomeric pumps, is recommended for postoperative pain

141 ful analytical method that utilizes a tilted elastomeric pyramidal pen array in the context of a scan

142 requires no special equipment except for an elastomeric relief that can be readily prepared by rapid

143 Their elastomeric response is then associated with conformatio

144 tile mechanical response (elastic-brittle to elastomeric, reversible deformation, high energy absorpt

145 Unique elastomeric rotary actuators based on pneumatically driv

146 r cells used in combination with a synthetic elastomeric scaffold that provides a unique and alternat

147 Microfabricated elastomeric scaffolds with 3D structural patterns are cr

148 aluminum nanoparticle arrays embedded in an elastomeric slab may exhibit high-quality resonances wit

149 These "hard tops" are bonded to elastomeric "soft bottoms" (polyurethane (PU) or PDMS-pa

150 consists of a cylindrical mass suspended by elastomeric springs within a concrete case and can be tu

151 ormation of several photomasks onto a single elastomeric stamp by mapping each photomask onto distinc

152 An elastomeric stamp containing an array of posts of define

153 d on printing, molding and embossing with an elastomeric stamp.

154 tolithographic process simply to produce the elastomeric stamp.

155 imprint lithography (S-FIL), micromolding by elastomeric stamps and micro- and nano-contact printing

156 the resolution limits imposed by the use of elastomeric stamps and tips: it is capable of delivering

157 e present mechanics and materials aspects of elastomeric stamps that have angled features of relief o

158 Soft, 3D elastomeric structures and composite structures are easy

159 en thermally cross-linked to form degradable elastomeric structures.

160 and degradation properties of the resulting elastomeric structures.

161 anical stimulation through indentation of an elastomeric substrate and combines this mechanical stimu

162 lar, we show that real-time wrinkling of the elastomeric substrate prompts a dynamic domain reorganiz

163 ost array masters (~2 weeks to complete) and elastomeric substrates (3 d), as well as how to perform

164 Soft skin layers on elastomeric substrates are demonstrated to support mecha

165 demonstrate plasma lithography patterning on elastomeric substrates for elucidating the influences of

166 stal ribbons of silicon covalently bonded to elastomeric substrates of poly(dimethylsiloxane) reveal

167 ylsiloxane) substrates and a new class of 2D elastomeric substrates with controlled patterned rigidit

168 structured forms, intimately integrated with elastomeric substrates, offer particularly attractive ch

169 stalline silicon, with ultrathin plastic and elastomeric substrates.

170 ateral forces in lipid bilayers supported on elastomeric substrates.

171 d into large-scale, pixelated arrays on thin elastomeric substrates; the electronics provide means fo

172 ty of stretched DNA deposited in arrays onto elastomeric surfaces and thin membranes.

173 We show that elastomeric surfaces can be tailored using "mechanically

174 ted adhesion between flat, stiff objects and elastomeric surfaces with sharp features of surface reli

175 oly(glycerol sebacate), which yields porous, elastomeric three-dimensional (3D) scaffolds with contro

176 ng probe lithography method that uses a soft elastomeric tip array, rather than tips mounted on indiv

177 ent two-dimensional arrays of pyramid-shaped elastomeric tips (or 'pens') for large-area, high-throug

178 ) reactions that were induced by an array of elastomeric tips mounted onto the piezoelectric actuator

179 imensionally compressible configurations and elastomeric transfer elements capable of transforming th

180 s are constructed by laminating a monolithic elastomeric transistor stamp against the surface of a cr

181 is demonstrated based on the operation of an elastomeric valve in a poly(dimethylsiloxane) (PDMS) fab

182 c systems with the increasing application of elastomeric valves in these systems.

183 ed to investigate the mechanical response of elastomeric webs under multiple loading conditions.

184 Mechanical testing has revealed that each is elastomeric with elongations at break between approximat