ライフサイエンスコーパス: porous

1 as a sacrificial template for hierarchically porous 1D carbon nanotubes.

2 nergistic effects between the hierarchically porous 1D carbon structure and the embedded FeNx C activ

3 Porous 1D nanomaterials which combine the advantages of

4 This review presents an overview of porous 1D nanostructure research, from the synthesis by

5 Highlights of porous 1D nanostructures are described throughout the re

6 osensor platform using bioreceptors modified porous 2-dimensional (2D) membrane based off-surface mat

7 Lf absorption by freshly prepared porous 3 mum CaCO3 particles followed by Layer-by-Layer

8 mple strategy for the fabrication of an open porous 3D self-organized double-hierarchical carbon nano

9 e a carbonized wood (C-wood) as a 3D, highly porous (73% porosity) conductive framework with well-ali

10 Nitrogen-doped porous activated carbon monoliths (NDP-ACMs) have long b

11 omena observed included the development of a porous altered layer, flow channeling, and increasingly

12 efficient chiral selectors (sub-2 mum fully porous and 2.7 mum fused-core particles) in the second d

13 In contrast, the unique prospects these porous and crystalline materials offer for application i

14 The film microstructure was porous and heterogeneous.

15 s aspect, with numerous advantages including porous and hierarchical structure, excellent mechanical

16 lot of methods have been developed to create porous and mechanically stable 3D scaffolds, the fabrica

17 ting ITO supports resulting in a flocculent, porous and nanostructured electrode surface.

18 us phase then results in robust, conductive, porous, and inexpensive composites, with potential appli

19 a microfluidic flow-through configuration: a porous anolyte chamber is formed by filling a microfluid

20 romolecular arrangements with micro- or meso-porous apertures.

21 Moreover, the flow of sand through a fixed porous bed could be regarded as parallel flow through mu

22 r the result that the flow of sand through a porous bed or multiple parallel pipes cannot be simplifi

23 c tissue engineering cells are seeded within porous biomaterial scaffolds to create functional cardia

24 This suggests that CTCF sites are porous borders, allowing a super-enhancer to activate a

25 hat ancient fish-bone remains, despite being porous, brittle, and light, provide an excellent source

26 They are sintered into porous, bulk nanocomposites (phi 10 mmxh 10 mm) with low

27 Porous carbon is one of the most promising alternatives

28 and thus opens up a new approach to prepare porous carbon liquids.

29 in storing natural gas as hydrates in wetted porous carbon materials is also included.

30 spent Cu/Fe-LDH could be employed to produce porous carbon materials, and the generated waste metals

31 chains leads to the unexpected formation of porous carbon nanoribbons.

32 ect sites for encapsulating iodine while the porous carbon skeleton facilitates redox reactions of io

33 well-dispersed atomic Fe sites embedded into porous carbon without the formation of aggregates.

34 report N-coordinated, non-noble metal-doped porous carbons as efficient and selective electrocatalys

35 lectrocatalysis of metal- and nitrogen-doped porous carbons containing catalytically active M-N x moi

36 Porous carbons have been extensively investigated for hy

37 a and electrical conductivity, respectively, porous carbons such as activated carbon, carbon nanotube

38 This process, utilizing porous catalysts composed of clay and zeolite, converts

39 )4](4-) nanoclusters; the second is a unique porous CdSe crystal.

40 The porous CdSe crystals were isolated as red hexagonal pris

41 Two porous, chiral metal-organic frameworks (MOFs), Ca14(l-l

42 We demonstrate that porous CNT/polymer composites can be used as self-heatin

43 onstrates a novel ternary electrocatalyst of porous cobalt phosphoselenide nanosheets prepared by a c

44 nked by covalent bonds to yield crystalline, porous COFs from light elements (boron, carbon, nitrogen

45 Such lightweight conductive porous composites are considered in applications includi

46 In this process, porous composites composed of zeolite and clay crack the

47 Porous conductive polymers are one of important material

48 , an oxygen evolution reaction (OER)-active, porous, conductive, and corrosion-resistant nitride Ni3

49 This Communication describes the use of porous coordination polymers (PCP) with integrated metal

50 Metal-organic frameworks (MOFs) or porous coordination polymers (PCPs) are open, crystallin

51 ium ions, particularly to afford crystalline porous coordination polymers.

52 capillary performance parameter of gradient porous copper (K eff /R eff = 10(-3) microm), comparabl

53 Here, we report the wicking performances for porous copper inverse opals having pore diameters from 3

54 of such an atmosphere and also deeper in the porous crust.

55 form consists of a linear assembly of small, porous cryogel monoliths functionalized with various bio

56 ical mechanical model of gas adsorption in a porous crystal whose cages share a common ligand that ca

57 of flexible metal-organic frameworks (MOFs)-porous crystalline materials that undergo a structural c

58 um phosphonates and SZ-3 represents the most porous crystalline zirconium phosphonate and the only po

59 microscopic liquid transport physics through porous crystals and across grain boundaries will help to

60 , using antibody-labeled and energy-focusing porous discoidal silicon nanoparticles (nanodisks) and h

61 ical conductivity of the selectrolyte-filled porous domains is substantiated through ionic conductivi

62 posited at low potentials to form nano-scale porous, electroactive conducting polymer films, exposing

63 n that electric double layer (EDL) formed on porous electrode surfaces acts as a thick EDL and modifi

64 s and graphene oxide (GO) nanosheets on a Ni porous electrode.

65 ld when the solution fills the space between porous electrodes, either bare (CDI, or capacitive deion

66 ago: the desalination of water using highly porous electrodes.

67 e characteristic time scale is necessary for porous electrodes.

68 groups in an otherwise non-functional highly porous environment.

69 ly affect how bacteria compete and evolve in porous environments, the habitat where most bacteria liv

70 ugh biofilms are commonly found in soil-like porous environments, the study of microbial interactions

71 enough (70nm in diameter) to move within the porous extracellular matrix between cells and that posse

72 pramolecular coordination architectures with porous facets.

73 etry and materials architecture of the final porous fibers.

74 ned to possess the synergistic advantages of porous filters and fibrous filters with a sievelike oute

75 e segregation of dense core-forming melts by porous flow is a natural mechanism for core formation in

76 gas cell in order to elucidate the different porous forms of the breathing framework under ethane gas

77 block for the construction of intrinsically porous framework materials by classifying and analyzing

78 CD-MOFs is a promising method for obtaining porous framework unattainable de novo.

79 -scale preparation of three-dimensional (3D) porous functional materials with special wettability is

80 e (sulphur, phosphorus, boron and iron), and porous g-C3N4 as both template and nitrogen source.

81 -printed dense silver IDEs into their highly porous gold counterparts under ambient conditions withou

82 ncept gas sensor equipped with the resulting porous gold IDEs featured a sensitivity to diethyl ethyl

83 outgassing must take place through a surface porous granular layer, and that layer must be composed o

84 alt ferrites (C) decorated onto 2D material (porous graphene (PG)) and 1D material (carbon nanofibers

85 Rich, porous graphene frameworks decorated with uniformly disp

86 combine the ion intercalation properties of porous graphitic carbons with the redox chemistry of iod

87 Here we report the use of a porous graphitized carbon (PGC) LC-MS method with effect

88 ther detailed through isomeric separation on porous graphitized carbon (PGC) packed in long capillari

89 Benefiting from the unique porous holey nanostructure and high catalytic activity o

90 tion solvent was placed into a polypropylene porous hollow fiber segment supported by capillary force

91 Realizing porous hosts for qubits would also impact the emerging f

92 re, this paper shows that the injection of a porous hyaluronic acid hydrogel into the stroke cavity s

93 Here we report an approach to synthesize porous hybrid nanostructures combining amorphous nickel-

94 diffusion of monomers/cross-linkers into the porous hydrogel similar to the mechanisms of tissue grow

95 ly of flow-induced gelled materials, such as porous hydrogels.

96 Porous hydroxyapatite (HA) bone grafting material has be

97 ctivity of endolithic phototrophs within the porous ikaite crystal matrix.

98 eping with increasing surgeon preference for porous implants, most studies identified in this literat

99 the 7 that did evaluate this metric involved porous implants.

100 al adjacent to the ablated area was rendered porous in appearance presumably due to local thermal per

101 The current study describes a scalable, porous large-format engineered cardiac tissue (LF-ECT) c

102 Porous liquids are a newly developed porous material tha

103 idely applicated to fabricate other types of porous liquids, such as those (e.g., carbon nitride, bor

104 vancing the development and understanding of porous liquids.

105 nificantly higher AUC0-8h value than the non-porous mannitol and commercial product Pulmicort.

106 entally reconstructing the 3D structure of a porous material and a frozen-hydrated marine cyanobacter

107 qubits within the framework of a crystalline porous material is a promising approach to create precis

108 However, building viable qubits into a porous material is an appreciable challenge because of t

109 iPO, demonstrating its wide applicability in porous material synthesis.

110 Porous liquids are a newly developed porous material that combine unique fluidity with perman

111 The composite filament can be turned into a porous material through dissolution of a water-soluble m

112 Herein, an ideal porous material, SIFSIX-14-Cu-i (also termed as UTSA-200

113 OH)4(H2O)6]2, the first demonstration in any porous material.

114 tified the autoluminescence of commonly used porous materials across the visible spectrum via excitat

115 Porous materials are exceptionally effective at inducing

116 These porous materials are suitable for a wide range of applic

117 detailed explanation of the effectiveness of porous materials for nucleation of protein crystals, and

118 te the excellent performance of these hybrid porous materials in removing low-concentration SO2 .

119 to probe activity of enzymes immobilized in porous materials in the absence of confounding mass tran

120 An understanding of fluid transport through porous materials is critical for the development of late

121 Porous materials provide a plethora of technologically i

122 Porous materials such as covalent organic frameworks (CO

123 (MOFs) have emerged as an exciting class of porous materials that can be structurally designed by ch

124 Fs) are a class of modular, crystalline, and porous materials that hold promise for storage and trans

125 the main aim to develop advanced functional porous materials to be adopted as adsorbents for the eff

126 sequence of rotating ligands integrated into porous materials to harness them for gas storage and sep

127 al-organic frameworks (MOFs) are crystalline porous materials with designable topology, porosity and

128 de a blueprint for the development of hybrid porous materials with desirable electronic structures.

129 al organic linkers, are an emerging class of porous materials with extended porous structures contain

130 recent developments in the search for novel porous materials with high methane storage capacities.

131 torage of natural gas by adsorption (ANG) in porous materials, at relatively low pressures and ambien

132 forts have been made to investigate advanced porous materials, especially porous organic polymers (PO

133 n a family of isostructural (3,24)-connected porous materials, MFM-112a, MFM-115a, and MFM-132a, with

134 target ideal molecular sieves among diverse porous materials, over the past several decades, ideal m

135 es, but the concept can be extended to other porous materials.

136 ibility of tailoring the properties of these porous materials.

137 predict the capillary transport of fluid in porous materials.

138 ght into the design of hydrolytically stable porous materials.

139 nal properties within complex hierarchically porous materials.

140 reactions influence transport properties in porous media and can be coupled to advective and dispers

141 perties control flow of immiscible fluids in porous media and fluids distribution in the pore space.

142 ared with the experimental data for specific porous media and good agreement was found.

143 oneers the study of active motile systems in porous media and has the potential to impact the fields

144 from convolutions of the flow paths through porous media and predicts that the directional anisotrop

145 that CO2 increases the reactive subvolume of porous media and reduces the amount of solid residual be

146 The Haines jump of non-Darcy flow in porous media has been investigated at pore scales, but i

147 enarios and found that aqueous CO2 dissolves porous media homogeneously, leading to large breakthroug

148 anistic models, and game theory to study how porous media hydrodynamics can mediate competition betwe

149 Multiphase flow in porous media is important in a number of environmental a

150 ure of steady-state multiphase Darcy flow in porous media is that the fluid phases organize into sepa

151 engineered nanomaterials (ENMs) in saturated porous media is the occurrence of nonexponential, for ex

152 Porous media made of nitrocellulose and glass fiber are

153 t resilience is explored using a multi-layer porous media model.

154 ucted using a climate-controlled wind tunnel-porous media test facility to simulate the soil-plant-at

155 Our results show that for intermediate-wet porous media, pore geometry has a strong influence on in

156 tial design of next-generation heterogeneous porous media.

157 e of ENMs transport experiments in saturated porous media.

158 re the lower surface was replaced by various porous media.

159 ration-dependency of transport and mixing in porous media.

160 s in confined systems as well as unsaturated porous media.

161 erogeneity determines interstitial fluxes in porous media.

162 the study of reactive transport processes in porous media.

163 ultiple localized contaminant sources within porous media.

164 cles obtained by flowing particles through a porous medium are constrained by the types of materials

165 quantitatively investigated the flow over a porous medium by developing a framework to model flow of

166 del to simulate the flow inside a homogenous porous medium containing discretely distributed fracture

167 tended by adding a thin layer of homogeneous porous medium to its inlet.

168 he cytoplasm-filled astral MTs behave like a porous medium, with its permeability decreasing with inc

169 r investigating transport in a heterogeneous porous medium.

170 ency are achieved by using a novel composite porous membrane and hydrophobic anode.

171 duced superoxides from C2C12 cells through a porous membrane.

172 ng monomers in poly(dimethylsiloxane) (PDMS) porous membrane.

173 Supported ionic liquid membranes (SILMs) are porous membranes impregnated with ionic liquids (ILs) an

174 regulation of substance permeability through porous membranes is highly desirable for membrane applic

175 /ultrafiltration and reverse osmosis utilize porous membranes to remove suspended particles and solut

176 autoluminescence wavelengths or lifetimes of porous membranes used in lateral flow assays.

177 The decoration of porous membranes with a dense layer of nanoparticles imp

178 eparated from living cells and attached to a porous mesh in the absence of intracellular factors orig

179 We report here the synthesis of a robust and porous metal-organic framework (MOF), Zr12-TPDC, constru

180 Porous metal-organic frameworks (MOFs) are the subject o

181 connectivity is the crowning achievement for porous metal-organic frameworks (MOFs).

182 e d(10) Ni(0) precursor Ni(COD)2, produces a porous metal-organic material featuring tetrahedral [Ni(

183 ort high I2 adsorption in a series of robust porous metal-organic materials, MFM-300(M) (M = Al, Sc,

184 ctional oxygen electrocatalyst consisting of porous metallic nickel-iron nitride (Ni3 FeN) supporting

185 n convert the insulating paper to the highly porous metallic paper with large surface areas that can

186 Delivering liquid through the void spaces in porous metals is a daunting challenge for a variety of e

187 ary breakup of cylindrical porous structures porous microspheres within the fiber core.Porous polymer

188 are viscoelastic soft solids that display a porous microstructure filled with water at 90% w/w or mo

189 Porous mineral formations near subsea alkaline hydrother

190 tween sublimating CO2 ice blocks and a warm, porous, mobile regolith can generate features similar in

191 ystalline zirconium phosphonate and the only porous MOF material reported to survive in aqua regia.

192 ors through design of organic linkers within porous MOF materials.

193 kinetic aspects of substrate binding within porous MOFs.

194 Composed from discrete units, porous molecular materials (PMMs) possess unique propert

195 For the first time, structural defects in porous molecular materials were observed directly and th

196 ecular requirements for rationally designing porous molecular solids.

197 on the in-tip fabrication of lanthanum oxide porous monolith and its application in the enrichment of

198 e polymeric porogen components, a library of porous monolithic materials was produced, covering a ran

199 The porous MSNP interior allows contemporaneous delivery of

200 lymer solution phase separation to fabricate porous multimaterial fibers with complex internal archit

201 We fabricate free standing porous multiwalled carbon nanotube (MWCNT) films using c

202 we demonstrate the synthesis of novel highly porous N-doped carbon nanoplatelets (N-HPCNPs) derived f

203 ic liquids, we demonstrate that carbon-based porous nanoarchitectures can be well stabilized in liqui

204 anical constraints is used to form oriented, porous nanofibrillar networks within predesigned macrosc

205 is unclear, a problem that is compounded on porous nanoparticles due to penetration of proteins with

206 penetration depth of several proteins within porous nanoparticles.

207 ticles (NPs) can spontaneously organize into porous nanoshells.

208 3D porous nanostructures built from 2D delta-MnO2 nanosheet

209 of tubular covalent cages to create both 1D porous nanotubes and 3D diamondoid pillared porous netwo

210 Given their highly porous nature and excellent water retention, hydrogel-ba

211 nge drives Au nanocrystal fusion and forms a porous network, imparting the nanorods with high mechani

212 es due to penetration of proteins within the porous network.

213 tallic surfaces) and potential applications (porous networks and organic surfaces).

214 porous nanotubes and 3D diamondoid pillared porous networks.

215 Chitosan-derived, porous nitrogen-enriched carbonaceous carbon nitride cat

216 nchymal stem cells dynamically seeded on 85% porous nonwoven spunbonded poly(l-lactic acid) fiber mes

217 addressed by creating a thiol functionalized porous organic polymer (POP) using simple free radical p

218 tigate advanced porous materials, especially porous organic polymers (POPs), as one type of the most

219 materials such as metal-organic frameworks, porous-organic polymers, and mesoporous carbons.

220 core within a hollow cavity surrounded by a porous outer shell have received tremendous research int

221 The pyrene accumulation kinetics into the porous particle, expressed as a heterogeneous rate const

222 included pharmacophores (or from drug loaded porous particles).

223 nate the interconnected pathways through the porous/permeable phases in shales.

224 Thus, we prepared porous PLGA particles of sildenafil using a water-in-oil

225 iments conducted to detect CK17 trapped in a porous polyacrylamide gel matrix have highlighted the sp

226 es porous microspheres within the fiber core.Porous polymer fibers show great potential for a range o

227 Molecularly imprinted porous polymer microspheres selective to Alternaria myco

228 r and reactive species diffusion through the porous polymer network, as well as the synergistic inter

229 Porous polymer networks based on sterically encumbered t

230 paper in autoclave, we fabricated a flexible porous polymer/paper hybrid membrane.

231 advancement in the preparation of functional porous polymers through a fast and scalable yet environm

232 osite material (LAY-FOMM 60), which presents porous properties after PVA removal, is useful for the e

233 report the design and synthesis of a highly porous pure carbon material with multifractal structures

234 ase that hosts multiple windows containing a porous regenerated-cellulose membrane with a molecular-w

235 teomics pipeline that combines superficially porous reversed-phase liquid chromatography (SPLC), Four

236 drodeoxygenation of organosolv lignin over a porous Ru/Nb2O5 catalyst that enabled the complete remov

237 also take place through the uniform macro - porous scaffold.

238 Three-dimensional porous scaffolds play a pivotal role in tissue engineeri

239 techniques have been developed to fabricate porous scaffolds, most of them rely on stochastic proces

240 simple particles directionally sintered into porous sheets.

241 ction of highly luminescent, nanocrystalline porous Si from the reaction of V2 O5 in HF(aq) as Ox1 an

242 Molecular transport in porous silica has been explored previously by measuring

243 Porous silica is an attractive biomaterial in many appli

244 an the resistance of solid silica or regular porous silica.

245 This immunosensor was based on porous silicon (PSi) and modified by antibodies against

246 A label-free porous silicon (pSi) based, optical biosensor, using bot

247 Immunoadjuvant porous silicon (PSi)-based nanovaccines are prepared by

248 This article emphasized porous silicon as a host material for enzyme immobilizat

249 photolytically stable, NIR photoluminescent, porous silicon nanoparticles with a relatively high two-

250 r cell membrane material in combination with porous silicon nanoparticles.

251 e silicon microcantilever (MC) system with a porous silicon oxide layer deposited on the active side

252 Included is the evaluation of porous silicon oxide present on different geometries of

253 r pore-spanning membranes (PSMs) prepared on porous silicon substrates with large pore diameters of 5

254 Further, several schemes on porous silicon-based immobilized enzyme biosensors for t

255 r makes it the first example of a degradable porous solid carrier for such fumigants.

256 Using these maps, we identify a highly porous solid, which has the lowest density reported for

257 Recently, porous solids fabricated from discrete organic cages hav

258 1 bar) being the highest value observed for porous solids under these conditions to the best of our

259 t value reported to date for conformed shape porous solids, and represents a greater than 50% improve

260 vants, namely strontium-doped hydroxyapatite porous spheres (SHAS), which we suggest for the use as a

261 Strontium-doped hydroxyapatite porous spheres bound and released proteins such as ovalb

262 MSH1 immobilized in an alginate matrix in porous stones was tested in a pilot system as an alterna

263 n-plane wavefields, which for reticulated or porous structural assemblies is an open challenge.

264 The connectivity of rocks' porous structure and the presence of fractures influence

265 ofibril based aerogel microspheres with high porous structure and water storage capacity were prepare

266 n transport properties, and its hierarchical porous structure facilitates rapid ion transport.

267 ct of multiple surface encounters within the porous structure leading to much greater capture efficie

268 The unique porous structure of this construct, along with the abund

269 tive charging behavior in different confined porous structure was investigated by solid-state nuclear

270 It was found that only the porous structure, and hence the specific surface area an

271 f crystalline goethite or lepidocrocite with porous structure.

272 f their highly tunable functional groups and porous structure.

273 a-phase and the creation of an electret-like porous structure.

274 anical, and morphological properties of such porous structures as a function of CNT loading and the m

275 ging class of porous materials with extended porous structures containing periodic binding sites.

276 e the advantages of 1D nanoarchitectures and porous structures have had a significant impact in the f

277 method can create controllable hierarchical porous structures in stable MOFs, which facilitates the

278 demonstrate capillary breakup of cylindrical porous structures porous microspheres within the fiber c

279 s the layer-by-layer manufacture of ordered, porous structures whose mechanical behavior is driven by

280 hetic porogens provide an easy way to create porous structures, but their usage is limited due to syn

281 eramic architectures composed of closed-cell porous struts patterned in the form of hexagonal and tri

282 bility, and deposited particulate inside the porous substrate) during filtration can be probed.

283 a sievelike outer surface and a fibrouslike porous substrate.

284 In this study, we used porous substrates with different pore radii to address p

285 defect-free coatings that effectively cover porous substrates.

286 id-foulant mixture from penetrating into the porous support during acid treatment.

287 layers of zeolite nanosheets on nonporous or porous supports.

288 s over an immiscible liquid immobilized on a porous surface.

289 This layer is covered by a hydrophobic porous Teflon membrane used as an additional proton barr

290 c-framework-engaged synthesis route based on porous tellurium nanotubes as a sacrificial template for

291 ting at sufficiently high frequencies, these porous thin-films can be directly immersed in highly ion

292 A permanently porous, three-dimensional metal-organic material formed

293 The protein is porous to water penetration and the hydration level of t

294 -ordered MOFs could be a productive route to porous two-dimensional materials.

295 ameworks (COFs) are crystalline, permanently porous, two-dimensional or three-dimensional polymers wi

296 y, focusing on systems utilizing hydrophobic porous vapor-gap membranes and water as a working fluid.

297 hrough small open pores at the bottom of the porous well arrays.

298 r atomic structure shows that the S-layer is porous, with a largest gap dimension of 27 A, and is sta

299 The product layer was not highly porous, with a specific surface area 10 times smaller th

300 A soft porous Zn(II)-MOF (1) displays distinctive three-step hy