ライフサイエンスコーパス: photopolymerization

1 lymer hologram created by two-photon-induced photopolymerization.

2 and ring-strained cyclic olefins) via living photopolymerization.

3 insights into the mechanism that drives the photopolymerization.

4 ne moieties adopt a suitable arrangement for photopolymerization.

5 nal investigation into the mechanism of this photopolymerization.

6 s) as a component photoinitiator to initiate photopolymerization.

7 ) electric field direction and mask-assisted photopolymerization.

8 in benefits of the 3D printing technology by photopolymerization.

9 eous systems, presenting a novel approach to photopolymerization.

10 dical, ii) RAFT, iii) ATRP, and iv) cationic photopolymerization.

11 desired direction, so to allow topochemical photopolymerization.

12 n micropatterned epoxy channels, followed by photopolymerization.

13 d molecular precision of the two-dimensional photopolymerization.

14 s that of materials produced by conventional photopolymerization.

15 are the molecular structure before and after photopolymerization.

16 asis on material extrusion, jetting, and vat photopolymerization.

17 xyethyl methacrylate) (pHEMA) by ultraviolet photopolymerization.

18 with use of single- or two-photon absorption photopolymerization.

19 ght is used simultaneously to deactivate the photopolymerization.

20 adient is established, it is immobilized via photopolymerization.

21 , UV-transparent fused-silica capillaries by photopolymerization.

22 fabricated inside microfluidic channels via photopolymerization.

23 protein sizing-were fabricated in situ using photopolymerization.

24 Vat photopolymerization 3D printing has proven very successf

25 Vat photopolymerization 3D printing technology combines the

26 ogical applications is made possible through photopolymerization, a process that renders mechanical r

27 taining such dense entanglements through vat photopolymerization additive manufacturing [e.g., digita

28 version, as a new type of photoinitiator for photopolymerization and 3D printing, and in novel chemic

29 discuss the chemical mechanisms that govern photopolymerization and highlight the application of nat

30 These systems support conventional radical photopolymerization and light-mediated atom transfer rad

31 brushes were generated via surface-initiated photopolymerization and sequentially functionalized usin

32 lycol) (PEG) hydrogels formed by "thiol-ene" photopolymerization and tested as a cell-based neurotoxi

33 By combining the chemical toolbox for photopolymerization and the analytical toolbox for micro

34 amolecular receptors were prepared using vat photopolymerization and their cobalt binding profiles we

35 nd a dynamic thiol-Michael bond enables both photopolymerization and thermally driven depolymerizatio

36 hed to a multimode silica fiber's tip during photopolymerization, and subsequent interrogated for glu

37 Photopolymerizations are widely used in medicine to crea

38 cation of these photoactive compounds in the photopolymerization area and to expand the use of these

39 used to fabricate polymeric microchips, the photopolymerization-based method used with the copolymer

40 Compared with all other vat photopolymerization-based techniques specialized for mic

41 not only extends the horizons of controlled photopolymerization but also broadens opportunities for

42 Photopolymerization can be used to construct materials w

43 A new radical photopolymerization developed specifically for this appl

44 erty relationships that facilitate efficient photopolymerization driven by visible to far-red light.

45 Dual wavelength vat photopolymerization (DW-VP) has emerged as a powerful ap

46 alled extrusion by self-lubricated interface photopolymerization (E-SLIP), which can continuously fab

47 yet the processing of such hydrogels via vat photopolymerization [e.g., digital light processing (DLP

48 Photopolymerization efficacies of the two self-etch adhe

49 namic or static application), to investigate photopolymerization efficacy on dentin, and to understan

50 Finally, in-air photopolymerization enables control over the curvature o

51 uring of photopolymer resins by means of vat photopolymerization enables the rapid fabrication of bes

52 ains were fixed at the oil interface through photopolymerization, enabling direct visualization of or

53 idity of these modeling studies, transdermal photopolymerization first was applied to tissue engineer

54 on and test the applicability of transdermal photopolymerization for drug release devices, albumin, a

55 nning calorimetry, we monitored the rates of photopolymerization for various experimental conditions.

56 A unified patterning strategy via frontal photopolymerization (FPP) that is robust to a wide range

57 Thermosetting materials generated by photopolymerization frequently suffer from significant s

58 tiators, permitting simultaneous and dynamic photopolymerization from positive sites to 0.5-nM target

59 ing out this grafted-to/grafted-from radical photopolymerization (GTGFRP) at >400 different condition

60 The field of photopolymerization has been dominated by photoradical g

61 While vat photopolymerization has many advantages over soft lithog

62 of additive manufacturing technologies, vat photopolymerization has unlocked the use of photopolymer

63 olvent transfer-induced phase separation and photopolymerization have exceptionally high nanoparticle

64 The effects of heat-assisted vat photopolymerization (HVPP) on the physical and mechanica

65 Conditions for photopolymerization, hybridization, and denaturation are

66 d in polycarbonate microfluidic channels via photopolymerization in a polyacrylamide matrix.

67 , the popular applications of 3D printing by photopolymerization in biomedical science, electronic in

68 s media, efforts have been made to implement photopolymerization in emulsions as a practical and gree

69 characteristics were produced by solid-state photopolymerization in the presence of template molecule

70 esters that exhibits efficient topochemical photopolymerization in the solid phase to furnish polydi

71 exclusively rely on light energy to trigger photopolymerization in transparent inks, limiting materi

72 exclusively rely on light energy to trigger photopolymerization in transparent inks, limiting the ma

73 etrates tissue including skin, could cause a photopolymerization indirectly.

74 block copolymers, interpenetrating networks, photopolymerization induced phase separation) of photopo

75 een demonstrated through digital printing of photopolymerization-induced multiphase materials and pho

76 stabilize the monolayer, in situ ultraviolet photopolymerization induces covalent bonding between nei

77 age makes the NHC-boryl sulfides good type I photopolymerization initiators for the polymerization of

78 e number of polymers that can be prepared by photopolymerization, intensive research has been devoted

79 ate-based materials were designed to undergo photopolymerization into supportive soft tissue engineer

80 Although photopolymerization is generally considered a green tech

81 At the same time, the rate of photopolymerization is getting threefold larger if monom

82 ad zone" (persistent liquid interface) where photopolymerization is inhibited between the window and

83 a 3D printing process - in-situ transfer vat photopolymerization is reported to solve this critical o

84 e the presented methodology was utilized for photopolymerization, it can also be employed for any oth

85 Photopolymerization kinetic studies demonstrate that the

86 ace plasmon resonance is applied to induce a photopolymerization leading to a nanoscopic polymer shel

87 w of radical initiation with LEDs (i.e., the photopolymerization LED technology, the photoinitiating

88 The platform combines liquid-phase photopolymerization, lithography, and laminar flow to al

89 substrate surfaces using controlled radical photopolymerization, maintaining the advantages of class

90 edia) and of the main 3D printing methods by photopolymerization, materials, and their applications i

91 rein, we reported a facile surface-initiated photopolymerization method that introduced polymers on a

92 We describe a novel photopolymerization method to coat quantum dots (QDs) wi

93 In this study, we disclose photopolymerization methods to make poly(trisulfides) wi

94 Here we present two novel photopolymerization methods utilizing biomass-derived CD

95 Besides traditional photopolymerization methods, namely free radical and cat

96 These photopolymerizations occur by directly exposing material

97 Photopolymerization occurred upon X-ray exposure to the

98 ctions are confined to the organic phase and photopolymerization occurs in the aqueous phase.

99 ed effects of metal-dielectric substrates on photopolymerization of [2,2'-Bi-1H-indene]-1,1'-dione-3,

100 frits made of macroporous polymers by the UV photopolymerization of a solution of glycidyl methacryla

101 icated in fused-silica capillaries by the UV photopolymerization of a solution of glycidyl methacryla

102 JP) concept with simultaneously performed UV photopolymerization of a specifically prepared acrylamid

103 e, and laser flash photolysis in addition to photopolymerization of acrylates were performed to eluci

104 This analysis indicates that the photopolymerization of appropriately designed LUV can de

105 In each case, photopolymerization of bis-SorbPC lowered the critical f

106 three-dimensional printing products based on photopolymerization of cycloaddition reactions.

107 ficiencies of the sulfonium salts toward the photopolymerization of cyclohexene oxide depend on the c

108 We recently reported a photopolymerization of electron-deficient heteroaryl Gri

109 anical injector is implemented using in situ photopolymerization of fluorinated acrylates inside wet-

110 the mesoscale by the two-staged topochemical photopolymerization of fluorinated anthracene triptycene

111 r (sodium diethyl dithiocarbamate) initiated photopolymerization of functional monomer (2,4,6-trisacr

112 mobilization were prepared by direct in situ photopolymerization of glycidyl methacrylate and ethylen

113 er was prepared in a microfluidic channel by photopolymerization of glycidyl methacrylate and trimeth

114 ation involved constructing frits by in situ photopolymerization of glycidyl methacrylate and trimeth

115 heavy water, the chemical conversion during photopolymerization of hydrogel precursor formulations c

116 with two classes of photoreactions: (1) the photopolymerization of methyl methacrylate and (2) photo

117 ation of methacrylate-based monomers and the photopolymerization of methyl methacrylate and made it p

118 The first bulk photopolymerization of multifunctional alkyne and azide

119 We also demonstrate the photopolymerization of plugs containing different DNA pr

120 ) demonstrates high activity to initiate the photopolymerization of previously hard-to-print inorgani

121 id monomer bearing three photoreactive arms, photopolymerization of the crystalline monomers by [4 +

122 This emission, however, disappears upon photopolymerization of the NPs.

123 ic additive manufacturing (VAM) enables fast photopolymerization of three-dimensional constructs by i

124 ed hydrogel sensors are fabricated by facile photopolymerizations of acryloylated FRET pairs and gluc

125 ed beforehand, or in-situ by evanescent-wave photopolymerization on the fiber.

126 Compression followed by photopolymerization on the interface provides the two-di

127 Photopolymerization, or the use of light to trigger poly

128 onal gradients using perfusion-based frontal photopolymerization (PBFP).

129 o-initiators in increasing the efficiency of photopolymerization (polymer chains formed per excitatio

130 crofluidic channels using the high-speed vat photopolymerization process and broadens the material op

131 The photopolymerization process is accompanied by a large ma

132 Through careful optimization of the photopolymerization process, resulting OMIECs possess st

133 rinting of polymer matrix composites through photopolymerization processes as a benchmark for future

134 efore, the 3D printing of composites through photopolymerization processes is developing rapidly in t

135 One of the key components in the photopolymerization processes is the photoactive compoun

136 A films can be prepared based on chemical or photopolymerization processes.

137 Bulk photopolymerization produces stratified three-dimensiona

138 y the smectic layering dramatically enhanced photopolymerization rates; for HDDA, termination rates w

139 al and mechanical characteristics during the photopolymerization reaction is desired.

140 heating hood enable the characterization of photopolymerization reactions at elevated temperatures,

141 In photopolymerization reactions, mostly multifunctional mo

142 as a key mechanistic step to achieving rapid photopolymerization reactions.

143 polymeric matrix, and fabricated via in situ photopolymerization, regulated blood glucose in insulin-

144 It also significantly advances vat photopolymerization's use in applications requiring smal

145 The first photopolymerization step uses a thiolene-based resin wit

146 gle-cell sorting method using two sequential photopolymerization steps that enables sorting based upo

147 AM techniques covered include vat photopolymerization (stereolithography), powder bed fusi

148 However, current photopolymerization strategies are limited by long react

149 Current photopolymerization strategies used to prepare hydrogels

150 report a single component near UV responsive photopolymerization system for step-growth polymerizatio

151 incoherent forms spontaneously in a nascent photopolymerization system.

152 oinitiators (PIs), an essential component of photopolymerization systems, has recently attracted noti

153 A gel photopolymerization technique is introduced to produce m

154 logies including inkjet 3D printing, and vat photopolymerization techniques including stereolithograp

155 articular, by taking advantage of two-photon photopolymerization techniques to make knot-shaped micro

156 s work opens new avenues for robust emulsion photopolymerization techniques, offering a greener and m

157 e we report a multi-wavelength method of vat photopolymerization that provides chemoselective wavelen

158 lent interactions to template a topochemical photopolymerization that yields a polydiphenyldiacetylen

159 te the possibility of the opposite reaction (photopolymerization), the photo-oxidation of small PAHs

160 Upon photopolymerization, the director field can be faithfull

161 posome fusion was dependent on the extent of photopolymerization, the temperature, and the pH.

162 mpared to other traditional step-growth bulk photopolymerization, this approach readily provides cros

163 show that C4N2 ices undergo condensed-phase photopolymerization (tholin formation) at wavelengths as

164 ce a previously unexplored ultraviolet-based photopolymerization three-dimensional printing process.

165 Due to the short photopolymerization time, low intensity (27 mW/cm(2)), a

166 The monomer was solidified via photopolymerization to form the above-mentioned membrane

167 he fundamental principle of oxygen-inhibited photopolymerization to generate a continual liquid inter

168 absorption of light, this technique requires photopolymerization to occur at the surface of the print

169 ated into PEG hydrogels via a thiol-acrylate photopolymerization to render an otherwise inert PEG hyd

170 lymer monoliths were cast in the channels by photopolymerization to serve as a robust and uniform sta

171 inting based on triplet-triplet-annihilation photopolymerization (TTAP), which achieves submicron res

172 The second photopolymerization uses (poly)ethylene glycol diacrylat

173 tural polymers in cells through free radical photopolymerization using a number of biocompatible acry

174 ingle crystal analysis have been prepared by photopolymerization using digital light projection stere

175 cule-free crystals of 1 undergo topochemical photopolymerization via an unusual olefin-naphthyl ring

176 Vat photopolymerization (VP) additive manufacturing enables

177 Creating multimaterial objects through vat photopolymerization (VP) is challenging due to difficult

178 Among AM methods vat photopolymerization (VP) is desired owing to improved ef

179 nd alloys with microscale resolution via vat photopolymerization (VP).

180 11) material are developed by means of a vat photopolymerization (VPP) process combined with an innov

181 Photopolymerization was used to attach the microspots to

182 Using two-photon photopolymerization, we fabricate colloidal microparticl

183 ase in the number of polymer vesicles during photopolymerization which can only be ascribed to their

184 copolymer template enhances the topochemical photopolymerization, which is complete within a 20 s exp

185 rapped air" metamaterial, fabricated via vat photopolymerization, which makes ultrasonic sub-waveleng

186 rent statistical limitations of conventional photopolymerizations, which traditionally result in high

187 a versatile platform for the next generation photopolymerization with NIR light, solar energy utiliza

188 se nonuniform temperature changes and uneven photopolymerization within the resin restoration.

189 in PEG hydrogel spheres by reverse emulsion photopolymerization, yielding spheres with a size range

190 Single step surface-initiated photopolymerization yields a covalently attached polymer