ライフサイエンスコーパス: porous

1 The pure Mg anode produced a porous 0.6-4.1 mum thick film, while the AZ31 Mg alloy p

2 The unique porous 3D hierarchical architecture of the catalyst with

3 e first member of a new class of permanently porous 3D organic semiconductors.

4 Histology confirmed bone growth inside the porous 3D scaffolds with or without vascular pedicle inc

5 e complex processes involved in the creeping porous air and water flow in the presence of capillary e

6 However, practical application of porous alloying anodes is challenging because of limitat

7 ced coenosarc tissue, fewer polyps, and less porous and denser skeletons at low pH.

8 e unique features, including a significantly porous and exposed active site, and NADPH adopting a new

9 stain elevated tissue growth, resulting in a porous and fragile skeleton.

10 all molecules and the incorporation of these porous and potentially porous cages into membranes.

11 ), a phenomenon in which mitochondria become porous and release death-propagating complexes during th

12 lear secondary building unit and form cubic, porous, and intrinsically conductive structures, with el

13 Herein, a series of highly crystalline, porous, and stable new covalent organic frameworks (COFs

14 can withstand high pressure and maintain its porous architecture during electrode calendering.

15 trates over 90% of aromatic species into the porous architecture, and its affinity is one or two orde

16 Thanks to their hierarchically porous architecture, compositional and structural tunabi

17 anoparticles for composite materials, and 3D porous arrangements for hydrogels.

18 Such porous Au@Rh core-shell nanostructures are expected to e

19 3, is necessary for cells to escape from the porous biofilm matrix.

20 ed between impact force and stiffness in the porous bone mimics, which indicates a range of stiffness

21 ble to tailor the mechanical behavior of the porous bone mimics.

22 n the current study, the architecture of the porous bone within the horncore was quantified, mimicked

23 d anoxic microsites in the otherwise aerobic porous bulk soil causing reduction of ferrihydrite and c

24 We describe the synthesis of porous cages and highlight those based on monometallic,

25 ncorporation of these porous and potentially porous cages into membranes.

26 n single atom copper encapsulated on N-doped porous carbon (Cu-SA/NPC) catalysts for reducing CO(2) t

27 tal-organic framework derived hierarchically porous carbon (S-Cu-ISA/SNC).

28 ciency of capacitive deionization (CDI) with porous carbon electrodes is limited by the high ionic re

29 through electrodes were developed by coating porous carbon felt electrodes with a copper hexacyanofer

30 Notably, the as-prepared porous carbon materials possess an enhanced electrocatal

31 transferred to metal-organic frameworks and porous carbon materials.

32 olecule Se embedded in freestanding N -doped porous carbon nanofibers thin film (Se@NPCFs) as cathode

33 e as-made RuMo-nanoalloys-embedded hexagonal porous carbon nanosheets are promising for the hydrogen

34 calculations, demonstrating the potential of porous carbon nanotubes for atom sieving.

35 logically tailored nanostructure composed of porous carbon nanowires in an array as a SERS substrate

36 ic-N and pyridinic-N dopants from N-enriched porous carbon particles, to create high-density topologi

37 tives for the development of polymer derived porous carbon spheres are provided based on the controll

38 Porous carbon spheres derived from polymer colloids with

39 tion reactions for colloidal polymer derived porous carbon spheres.

40 rated single metal sites well dispersed into porous carbon.

41 nanoparticles of ~100 nm diameter linked to porous carbon.

42 Porous carbons are an important class of porous material

43 ass and volume, metal-organic frameworks and porous carbons have revolutionized many applications tha

44 The porosity space for porous carbons was explored for higher CO(2) /N(2) selec

45 logy control of metal-organic frameworks and porous carbons will facilitate the use of these material

46 e useful in guiding experimental research of porous carbons with the desired porosity for gas separat

47 mance (using CO(2) /N(2) as a test case) for porous carbons.

48 ultiphysics simulations, the hydrophobic and porous CBC layers can keep the internal V(r) -ReSe(2) @C

49 Porous cell culture inserts established a 3-D milieu for

50 ic crystals, metamaterials and templates for porous ceramics and metals.

51 ollapse under high pressure, attenuating the porous characteristics.

52 active, functional, and tunable hierarchical porous coated surfaces with high wickability using a com

53 emoral head) fixation via bony growth into a porous-coated implant (uncemented) or with cement.

54 el synthetic method to create hierarchically porous COF foams consisting of ordered micropores (2-2.2

55 ee-dimensional printing (3DP) technology and porous composite filaments (Lay-Fomm, Gel-Lay, and Lay-F

56 analysis system, the column packed with the porous composite Lay-Fomm 40 was found to provide the hi

57 of the three-dimensional (3D) morphology of porous composite materials is important for understandin

58 meworks (MOFs) has generated a new family of porous composite materials that will enable new applicat

59 ed Raman spectroscopy under pressure on this porous composite to understand its fundamental mechanics

60 Metal-organic frameworks are a class of porous compounds with potential applications in molecula

61 ctrode polarization mechanism with solid and porous conductive inclusions suggest a rigorous new appr

62 Two porous conductive oxide layers, separated by a porous in

63 Metal-organic frameworks and porous coordination cages have shown incredible promise

64 c framework (MOF) nanoparticles, also called porous coordination polymers, are a major part of nanoma

65 of macro and mesopores into two-dimensional porous covalent organic frameworks (COFs) could enhance

66 Ester-linked, crystalline, porous covalent organic frameworks (COFs) have been synt

67 s presented for the synthesis of crystalline porous covalent organic frameworks via topology-template

68 tal-organic frameworks (MOFs) are a class of porous crystalline materials showing great potential for

69 eworks (MOFs) represent a promising class of porous crystalline materials that have demonstrated pote

70 or the first time using novel purely organic porous crystalline materials with covalently bound two-

71 organic frameworks are an emerging class of porous crystalline organic materials that can be designe

72 organic frameworks (COFs) are highly modular porous crystalline polymers that are of interest for app

73 abilize discrete inorganic clusters within a porous crystalline support.

74 capabilities of adsorptive gas storage using porous, crystalline metal-organic frameworks (MOFs) are

75 h a sodalite (sod) topology instead of a non-porous diamondoid (dia) topology under analogous synthet

76 combining the size and shape selectivity of porous domains with the fluidity of liquids is a promisi

77 k for the study of ordered and disordered 2D porous elastic metamaterials are discussed.

78 ecent efforts to meet these challenges using porous electrocatalysts are examined.

79 Herein, the recent research advances made in porous electrocatalysts for these five important reactio

80 tempt is made to highlight the advantages of porous electrocatalysts in multiobjective optimization o

81 Finally, the future research directions on porous electrocatalysts including synthetic strategies l

82 sts of five components: thermally reversible porous electrode and electrolyte gels; conductive polyme

83 and application of novel three-dimensional, porous electrode materials and nanostructured coatings a

84 approaches, possess a unique hierarchically porous fibrous structure that offers an appealing materi

85 , moving from a homogeneous environment to a porous film necessitates the transport of both charge an

86 thermal images confirm the presence of such porous fragments and the flat diurnal temperature profil

87 and that their surroundings are covered with porous fragments more than 10 centimetres in diameter.

88 on of small organic blocks into an extended, porous framework via covalent linkages.

89 highly porous Zr-MOF NPF-200 (NPF: Nebraska Porous Framework) is examined to possess outstanding hyd

90 The porous frameworks (Hf(4) N(20) , WN(8) , and Os(5) N(28)

91 Here we report a new family of intrinsically porous frameworks made from rare-earth nitrates and hexa

92 ized by the hydrothermal treatment to form a porous g-C(3)N(4) interconnected three dimensional (3D)

93 The highly porous gels also had lower immunoassay background signal

94 The highly porous gels supported a pH gradient with slope and linea

95 Porous graphene has shown promise as a new generation of

96 CD and the high specific surface area of the porous graphene.

97 htforward method using self-packed capillary porous graphitic carbon (PGC) columns for nanoflow LC-MS

98 at the separation of glycopeptide isomers on porous graphitic carbon (PGC)-LC was significantly impro

99 olefin copolymers have been fractionated on porous graphitic carbon stationary phases.

100 a nanoLC-chip-QTOF mass spectrometer with a porous graphitized carbon (PGC) column, while the N-glyc

101 light scattering events, enabled by a highly porous (>99.99%) non-absorbing nanoarchitecture, resulti

102 osed, which consists of a short segment of a porous HF attached to a tapered polypropylene holder.

103 The porous HOF, ABTPA-2, has robust dynamic porosity (SA(BET

104 the guest-occupiable space of a potentially porous host is determined as that available to a virtual

105 Detailed characterization of hierarchically porous (HP) SAPO-37 reveals enhanced mass-transport char

106 tube) covalently to obtain three dimensional porous hybrid material (SWCNT-Pc 3D) and its copper comp

107 Relatively recently, however, porous hybrid metal-organic molecular complexes have rec

108 rous conductive oxide layers, separated by a porous insulator, serve as a chemically stable substrate

109 cific anionic porous organic cages affords a porous ionic liquid with anionic porous organic cages as

110 More specifically, the combination of porous ionic molecules of opposite charge affords framew

111 will be widely applicable to all families of porous ions and represents a new and powerful method for

112 ased on the affinity of the analyte with the porous layer coated on the NEMS surface.

113 le where this is translated into a molecular porous liquid formed from organic cage molecules.

114 ition of excess 15-crown-5 affords a Type II porous liquid.

115 e fluidity of liquids is a promising one and porous liquids composed of functionalized organic cages

116 The permanent porosity in the cage-based porous liquids has been also confirmed by molecular simu

117 findings will lead to the synthesis of other porous liquids whose guest-uptake properties may be tail

118 plementing the gas binding observed in other porous liquids, this material also encapsulates non-gase

119 enge is to build a continuous hierarchically porous macro-architecture of crystalline organic materia

120 bly of graphene oxide and M13, and a similar porous macro-structure was observed.

121 The device incorporates a multi-scale porous material architecture, an interdigitated microele

122 have been used for more than 30 years in the porous material fields, routine integration of experimen

123 he novelty of modeling the human tongue as a porous material to drastically simplify computational ap

124 of the enzymes upon encapsulation within the porous material, which are closely related to their acti

125 work into pacs (partitioned acs) crystalline porous materials (CPM).

126 family of pore-space-partitioned crystalline porous materials (CPMs) with exceptional C(2)H(6) uptake

127 Porous materials are widely employed in a large range of

128 Porous materials are widely used in industry for applica

129 Restricted diffusion of fluids in porous materials can be studied by pulsed field gradient

130 Development of porous materials combining stability and high performanc

131 ults show that the pore size of the prepared porous materials could be controlled by the proportion o

132 Subcutaneous implantation of the porous materials did not cause intense inflammatory resp

133 of intrinsic microporosity (or PIMs) provide porous materials due to their highly contorted and rigid

134 Porous materials exhibiting framework flexibility offer

135 ams are a desirable class of low-density and porous materials for their potential in many application

136 sing approach for developing next-generation porous materials for various applications.

137 The encapsulation of enzymes within porous materials has shown great promise, not only in pr

138 itro degradation suggests that the PBS-based porous materials have a good corrosion resistance but th

139 good corrosion resistance but the PLA-based porous materials have degradability in simulated body fl

140 Porous materials have great potential in preparing impla

141 Solute transport in unsaturated porous materials is a complex process, which exhibits so

142 The design of highly stable and efficient porous materials is essential for developing breakthroug

143 chrome staining assays demonstrated that the porous materials promote chondrocyte production.

144 wt% to 50 wt%, the mean pore diameter of the porous materials significantly increased from 6.91 um to

145 (MOFs) are an intriguing type of crystalline porous materials that can be readily built from metal io

146 frameworks (MOFs) provide a rare example of porous materials that can efficiently transport electric

147 r, a major challenge today is to shape these porous materials to translate their enhanced performance

148 To gain insight into chiral recognition in porous materials we have prepared a family of fourth gen

149 The porous materials were characterized with respect to thei

150 The porous materials were investigated in vitro degradation

151 rganic frameworks (COFs) are crystalline and porous materials with bi- or three-dimensional structure

152 Porous carbons are an important class of porous materials with many applications, including gas s

153 Porous materials with sensitive nanospace and selective

154 as single layers on surfaces have emerged as porous materials with tunable chemical and electronic st

155 transport processes in natural and synthetic porous materials, beyond the current dispersion paradigm

156 For fluid flow in porous materials, characterizing the geometry of the por

157 As a class of crystalline porous materials, metal-organic frameworks (MOFs) have a

158 as a relatively new class of multifunctional porous materials, metal-organic frameworks (MOFs) hold s

159 Amongst various porous materials, noble metal aerogels attract wide atte

160 ly superior stability in comparison to other porous materials.

161 come established as an important subclass of porous materials.

162 idimensional and multifunctional crystalline porous materials.

163 hes of machine learning have been applied to porous materials.

164 enetration of a range of analytes within the porous matrix.

165 implications on electrokinetic transport in porous media and may greatly impact injection and delive

166 roscale mixing patterns in three-dimensional porous media and uncover an unexpected and general mixin

167 Fluid flow in porous media drives the transport, mixing, and reaction

168 Electrokinetics in porous media entails complex transport processes occurri

169 A porous media filtration model was used to determine the

170 Deposition of engineered nanoparticles onto porous media from flowing suspensions is important for s

171 It routinely occurs in granular and porous media, can strongly alter such properties as adhe

172 ganese-mediated redox reactions in saturated porous media.

173 aracterizes transport through an unsaturated porous medium in three spatial dimensions at the resolut

174 bulk liquid state and when imbibed within a porous medium of mean pore diameter 28.6 nm.

175 nt tools for drug release to the surrounding porous medium or biological tissue.

176 electrolyte in the pore water of a saturated porous medium, exert a key control on the macroscopic tr

177 sludge cake was affixed atop an unsaturated porous-medium column of glass beads to assess: (i) the r

178 Finally, the hydrophilic porous membrane containing the analytes was transferred

179 elatin/elastin/sodium-hyaluronate soft thick porous membrane with large pores to accommodate chondroc

180 one may mimic nature to fabricate patterned porous membranes as the support, so that it optimizes hy

181 Porous membranes derivatized with such small molecules m

182 Porous metal-organic frameworks (MOFs) capable of storin

183 Recently, porous metal-organic frameworks (MOFs) have arisen as a

184 a refinement of the pore size in a series of porous metal-organic frameworks, MFM-300, at sub-angstro

185 ting a general method to form functionalized porous metal-organic networks on surfaces.

186 e 2D crystal overlayer, and form an oriented porous metallic network (OPEN) structure in which the 2D

187 is, and functional testing of enzyme-powered porous micromotors built from a metal-organic framework

188 Here, porous microparticles with such a structure are produced

189 A large data set of 30,000 virtual, porous microstructures of different types, including bot

190 ation-lithiation processes, meaning that the porous Mo framework derived from Fe-Mo alloy simultaneou

191 tegy is proposed to fabricate hierarchically porous MOFs (HP-MOFs).

192 e varying materials including hierarchically porous MOFs, monolayer MOF nanosheets, amorphous MOF liq

193 Porous molecular materials combine benefits such as conv

194 78 g g(-1) ), which is among the highest for porous molecular materials.

195 and analyte uptake ability of intrinsically porous molecular nanocarbons.

196 Additionally, within porous molecular space, porous organic cages (POCs) have

197 of MOF-nanoparticle composites forms highly porous N- or P-doped graphitized MOF-derived nanomateria

198 Porous, nano-architected metals with dimensions down to

199 a conceptually simple class of intrinsically porous nanocarbons to serve as a platform for studying t

200 However, many commercial irregular porous nanomaterials face the challenge to realize satis

201 different MNPs, corresponding modifiers, and porous nanomaterials makes our strategy promising in sel

202 oncept of creating shape selectivity in MNPs/porous nanomaterials through intentionally poisoning cer

203 Porous nanomaterials with uniform pore structures are id

204 pproach, to generate a bioinspired hybrid 3D porous nanoscaffold platform for delivering anti-inflamm

205 uctural and biochemical properties of the 3D porous nanoscaffold, enhanced axonal growth from the dua

206 These membranes have a multimodal porous network structure with tunable surface charge, po

207 MOFs and limited tuning of the hierarchical porous network.

208 cells in confined space by virtue of the 3D porous networked structure and great biocompatibility.

209 00 degrees C to transform the coating into a porous NiCo(2)O(4) nanosheet.

210 The materials are tuned to exhibit porous or pinhole-free morphologies and are engineered f

211 Additionally, within porous molecular space, porous organic cages (POCs) have been the most widely re

212 ing of 18-crown-6 with task-specific anionic porous organic cages affords a porous ionic liquid with

213 s affords a porous ionic liquid with anionic porous organic cages as the anionic parts and 18-crown-6

214 n contrast, mixing of 15-crown-5 and anionic porous organic cages in a 2:1 ratio gives only solids, w

215 investigation on the catalytic properties of porous organic cages is still in an initial stage.

216 Porous organic frameworks (POFs) with pure organic surfa

217 ly fast kinetics, the fastest among reported porous organic materials to date.

218 thylene ureas, which drive the assembly into porous organic materials.

219 Porous organic polymers (POPs) have shown significant pr

220 rporation of supramolecular macrocycles into porous organic polymers may endow the material with enha

221 toxicity was not observed for the small non-porous particles and for the mesoporous particles.

222 However, poor mechanical strength of these porous particles has limited their volumetric energy den

223 with state-of-the-art 2.7 mum superficially porous particles with 5, 50, 100, and 150 mm lengths hav

224 complex microparticle geometries, including porous particles, core-shell and hollow shell structures

225 for the direct 3D printing of hierarchically porous parts with arbitrary shapes, as well as tunable i

226 Porous PLA film, was fabricated using calcium carbonate

227 s are deemed too low for quantification when porous polyacrylonitrile (PAN)-based biocompatible thin

228 lood purification therapy with CytoSorb (CS) porous polymer beads could improve survival after a leth

229 se materials unique among the wider class of porous polymeric materials.

230 Conjugated porous polymers (CPPs) are a class of amorphous polymer

231 ave entered the stage as a new generation of porous polymers which stand out by virtue of their cryst

232 (COFs) are an emerging class of crystalline porous polymers with tailor-made structures and function

233 xide) with high crystallinity and remarkable porous properties by grinding and heating raw materials.

234 mation of trichloroethene (TCE) in fractured porous rock such as sandstone is challenging to characte

235 The resulting doubly porous salt displays the spectroscopic signatures of the

236 tal-organic materials via the preparation of porous salts.

237 ace area were revealed in the interconnected porous scaffold, affording it sufficiently efficient and

238 y printing of silver nanowires on multiscale porous SEBS substrates.

239 Here, we report that a porous self-supported NHC-iridium coordination polymer c

240 leads to short-circuiting by puncturing the porous separator.

241 stinct optoelectronic characteristics of the porous Si/SiO(x) shell correlated to their chemical comp

242 i micropillars produced by MACE often show a porous Si/SiO(x) shell on crystalline pillar cores intro

243 s study, we developed transferrin-conjugated porous silicon nanoparticles (Tf@pSiNP) and studied thei

244 This biocompatible hybrid of porous silicon nanoparticles and lipids has demonstrated

245 tor complex DeltaN49 prepared on gold-coated porous silicon substrates.

246 commercial infrared laser into a homogeneous porous SiO(x) layer deposited directly over the current

247 lization could form a nanoparticle-assembled porous solid biomaterial after freezing and lyophilizati

248 The cathode and anode were separated by a porous solid electrolyte (PSE) layer, where electrochemi

249 hanical metamaterials, and highly deformable porous solids in general, are rich and complex due to th

250 new and powerful method for the synthesis of porous solids with tailored functionalities.

251 These materials are typically porous solids, although the liquid state can be easier t

252 ndard approach for tuning gas selectivity in porous solids.

253 of magnitude higher than those of classical porous solids.

254 ions the sharing of genetic variation across porous species boundaries can facilitate adaptation to n

255 cases, Keplerate-type molybdenum oxide-based porous, spherical clusters, shorthand notation {Mo(132)}

256 We experimentally show this with porous SrTiO(3) -SrIrO(3) solid-solution nanotubes synth

257 Porous strategies based on nanoengineering successfully

258 he hydrogel derived three-dimensionally (3D) porous structure and immobilize the metal precursors wit

259 al nonphosphate corrosion inhibitors) on the porous structure and stiffness of three types of multisp

260 M13, forms a 3D large-scale multifunctional porous structure by self-assembly, with considerable pot

261 raphitic carbon support with unique trimodal-porous structure configured by highly ordered macropores

262 en atoms for the octahedra, an amorphous and porous structure is formed.

263 both high flexural strength and hierarchical porous structure is reported via a 3D printing strategy.

264 sulted in a network with a highly organized, porous structure of increased ductility.

265 ate and a higher hardness value, with a more porous structure of the surface layer.

266 e-scale applications; and ii) a hierarchical porous structure that offers large surface area and inte

267 el cobaltite (NiCo(2)O(4)) nanosheets with a porous structure were fabricated on nickel foam as a wor

268 stic outermost carbon covering, a nonfilling porous structure, and a graphite core.

269 advances of carbon materials in terms of the porous structure, chemical composition, and interlayer s

270 fe disposal of medications due to its highly porous structure, which exerts strong physical adsorptio

271 ed alumina as a support material resulted in porous structure, which in turn ensured prolonged contac

272 NPs (~3 nm) due to confinement effect of 3D porous structure.

273 Porous structured silicon has been regarded as a promisi

274 of two-dimensional MOLs can generate tunable porous structures and environments, which may facilitate

275 it is unclear how three-dimensional flow in porous structures govern the microscale chemical gradien

276 In particular, during calendering, porous structures in alloying-based composites easily co

277 The variety of functionalities and porous structures inherent to metal-organic frameworks (

278 g active site density, and attaining optimal porous structures of catalysts.

279 The unique interconnected porous structures of hydrogels enable fast charge/mass t

280 y design as it highly depends on the complex porous structures that holds the liquid electrolyte.

281 PL enhancements are mainly attributed to the porous structures, a similar behavior observed in previo

282 nsors thanks to their electronic properties, porous structures, and large surface area that can suppo

283 orks (COFs)-extended, covalently bonded, and porous structures-have been realized through molecular a

284 rust are able to survive within fractures or porous substrates by coupling sources of energy to organ

285 everal of the tests were conducted with nano-porous sulfides (pyrite) produced by sulfate-reducing ba

286 a building block to assemble the permanently porous supramolecular cage Co-PB-1(6) bearing six Co-TPP

287 thacrylate [p(HEMA-GMA)] cryogels with large porous surface were prepared, and then the epoxy groups

288 imaging could not be used to develop LFM on porous surfaces due to the difficulties with selective b

289 in suspension in liquids, and especially on porous surfaces.

290 ram-negative (E. coli) bacteria on solid and porous surfaces.

291 ion of superimposed tree-shaped networks and porous system.

292 Here we describe an ionic-liquid, porous, tetrahedral coordination cage.

293 inertia suggests that the boulders are more porous than typical carbonaceous chondrites(6) and that

294 g that the hydrogel waveguide film is highly porous to both sizes of molecule, thus potentially allow

295 ) for water harvesting and report here a new porous, two-dimensional imine-linked COF with a voided s

296 gy can be further extended to generate other porous vinylene-linked frameworks.

297 elets and treats the thrombus as an evolving porous, viscoelastic material, which moves differently f

298 ck, the Pd-FeO(x) NPs are transformed into a porous yolk-shell structure along with the formation of

299 In this work, porous Zn nanoparticles (P-Zn) were adopted as a model c

300 uided by these empirical equations, a highly porous Zr-MOF NPF-200 (NPF: Nebraska Porous Framework) i