ライフサイエンスコーパス: polymeric

1 Hereto, for the first time, a polymeric (13)C lignin was used as internal standard (IS

2 oms into the Li-C (i.e., C2 and C4) bonds in polymeric 2.

3 The polymeric Ig receptor (pIgR) transports polymeric Abs across epithelia to the mucosa, where prot

4 ated carbon (BAC, microwave-absorbing) and a polymeric adsorbent (V503, microwave transparent) were c

5 Amidoxime-functionalized polymeric adsorbents are the current state-of-the-art ma

6 ols for the study of enzymatic hydrolysis of polymeric amphiphiles due to the monodispersity and symm

7 serum proteins bind to and interact with the polymeric amphiphiles in both their assembled and monome

8 drophilic PEG chain induces self-assembly of polymeric amphiphiles to form micrometer-sized vesicles

9 hy, nonselective, and low yielding and their polymeric analogues have yet to be reported in the liter

10 layer is intended to act as a reservoir for polymeric and lipid-based nanoparticles, liposomes, viro

11 Here we discuss inorganic, metallic, polymeric, and carbon-based NEs for their outstanding ch

12 Monomeric and polymeric anthocyanins, color properties (CIELch, haze),

13 C had the highest colour density and lowest polymeric anthocyanins.

14 ocyanin with an increase in co-pigmented and polymeric anthocynins thus affecting the wine color.

15 es, highlighting a stabilizing effect of the polymeric architecture.

16 d the relations between the stability of the polymeric assemblies in biological media and their cell

17 The dynamic nature of polymeric assemblies makes their stability in biological

18 ture-dynamics relationships for a variety of polymeric assemblies.Accessing the dynamics of soft self

19 Polymeric backbone however interferes in the enrichment

20 correlated with bead mass, but only for non-polymeric beads (i.e., glass, ceramic, metallic).

21 hydrophobic effects were negligible for non-polymeric beads).

22 (alone) explain kinetic variation among non-polymeric beads, whereas surface hydrophobicity and cont

23 ntact forces explain kinetic variation among polymeric beads.

24 rophobic effects were observed, but only for polymeric beads: lag times correlated negatively with co

25 ybdenum disulfide (MoS2 ) nanoassemblies and polymeric binder is reported.

26 A loss of control in the polymeric building blocks of these assemblies can have d

27 , thereby preventing full disassembly of the polymeric calsequestrin network and catastrophic structu

28 Owing to the widespread application of polymeric capsules, the developed strategy is poised to

29 pharmaceutical application of pH-responsive polymeric carriers including hydrogels, polymer-drug con

30 This design allows using polymeric carriers with molecular weights above renal th

31 nning from the preparation of pharmaceutical polymeric carriers, to the formulation of cosmetics and

32 Diol, triol, and polymeric chain shuttling agents are used to give hydrox

33 r the first time, the successful collapse of polymeric chains into SCNPs is imaged by characteristic

34 are also amorphous in nature and consist of polymeric chains of Fe centers complexed to carboxylate

35 knotted polymers in comparison to the linear polymeric chains since these ratios should be useful in

36 uctures of the title complexes consist of 1D polymeric chains with alternating [Na] and [RE(hfac)4] u

37 dence for the absence of EA by TMBPF and the polymeric coating derived from it and that human exposur

38 either TMBPF nor the migrants from the final polymeric coating increased proliferation of estrogen-se

39 or 2',7'-dichlorofluorescein reacts with the polymeric coating matrix.

40 We extracted the polymeric coating using food simulants ethanol (50% v/v)

41 h a new bisphenol monomer used to synthesize polymeric coatings for metal food-contact applications a

42 ively) and was accompanied by an increase in polymeric color index.

43 al anode not only to incorporate ether-based polymeric components into the solid-electrolyte interpha

44 Branched aramid nanofibers (BANFs) mimicking polymeric components of biological gels were synthesized

45 the degradation of the cellulose and lignin polymeric components of the woods to be assessed.

46 n enhancement of thermal conductivity of the polymeric composites which concurrently require the elec

47 The completely polymeric composition of the cubic structure renders it

48 potential regulators of mucus structure, the polymeric composition of the gut environment has been ig

49 of conjugated dienes, total polar compounds, polymeric compounds viz., triglyceride polymers, dimers,

50 residues, present at the non-reducing end of polymeric compounds, to the coffee stimulatory activity

51 lar dynamics simulations to generate knotted polymeric configurations having different length and sti

52 The polymeric constituents of the robust exine are termed sp

53 onjugated to poly (D,L-lactide-co-glycolide) polymeric core by redox-sensitive disulfide bond, while

54 and sequence of DNA strands grafted onto the polymeric core can be controlled during the process, and

55 The nanoparticles, made by wrapping polymeric cores with cell membrane derived from macropha

56 Biocompatible polymeric device coatings were integrated to stabilize t

57 aminants and defects, ultrathin (<10 nm) CVD polymeric device layers have been fabricated in multiple

58 for designing and engineering liquid crystal polymeric devices.

59 A new concept of a high-capacitance polymeric dielectric based on high-k polymer and ion gel

60 A half-life of 280 min was measured for the polymeric donor.

61 ied core were fabricated via the assembly of polymeric droplets induced by superamphiphobic surfaces.

62 In the current study, a polymeric drug depot-anchoring hydrogel scaffold was dev

63 We aim on developing a polymeric ectopic scaffold in a readily accessible site

64 mation of polar compounds and showed an anti-polymeric effect with respect to oils without extracts,

65 Here, we extended our work and developed polymeric EGCG-encapsulated nanoparticles (NPs) targeted

66 This is realized through a nonfouling polymeric elastomer based on zwitterionic polycarboxybet

67 Commercially available polymeric embolics range from gelatin foam to synthetic

68 lectric Pb0.95Zr0.05TiO3, Pb0.8Ba0.2ZrO3 and polymeric ferroelectrics scales proportionally with V cr

69 Polymeric fibres with small radii (such as </=125 nm) ar

70 binding of single alphaIIbbeta3 molecules to polymeric fibrin and compare it to alphaIIbbeta3 binding

71 brin, we found that alphaIIbbeta3 binding to polymeric fibrin can be segregated into two binding regi

72 a soluble plasma protein, fibrinogen, into a polymeric fibrin clot, is conserved in all vertebrates.

73 ain crosslinking leading to the formation of polymeric film.

74 ayer ( approximately 200 nm) ionophore-based polymeric films of defined ion-exchange capacity have re

75 plasticity-induced bonding; where amorphous polymeric films were bonded together in a period of time

76 over a limited depth of bulk heterojunction polymeric films, in which amine-containing polymers were

77 on of anthocyanins, oligomeric flavanols and polymeric flavanols from withered grape skins during sim

78 enols, flavonoids, monomeric, oligomeric and polymeric flavanols, and color intensity and hue.

79 ants with greater flavonol, anthocyanin, and polymeric flavonoid intakes and greater total flavonoid

80 The nontubular polymeric form of tubulin found in the conoid is not fou

81 which lignin phenols occur predominantly in polymeric form.

82 (6-) chains in P1 Li3(CO2)2, one-dimensional polymeric forms based on 1,4-dioxane rings in P2/c LiCO2

83 The PRn poly-dipeptide binds to polymeric forms of the phenylalanine:glycine (FG) repeat

84 al modification that exists in monomeric and polymeric forms.

85 th a simple, low-cost UV-ozone (UVO)-treated polymeric gate dielectric is reported here.

86 s then discussed, followed by an overview of polymeric gels in intravaginal drug delivery.

87 The glycosylated exterior of the resulting polymeric giant unilamellar vesicles (GUVs) allows their

88 cal differences between a bulk and thin film polymeric glass former can be understood by differences

89 y of a chemically cross-linked biocompatible polymeric hydrogel is developed.

90 The polymeric Ig receptor (pIgR) transports polymeric Abs ac

91 ic immunoglobulin receptor (pIgR) transports polymeric IgA and IgM across epithelia to mucosal secret

92 Owing to their multivalency, polymeric IgM antibodies provide an efficient first-line

93 lize with the two BBB endothelial receptors: polymeric immunoglobulin receptor (pIgR) and platelet en

94 a first-line vertebrate immune defense, the polymeric immunoglobulin receptor (pIgR) transports poly

95 ithelial barriers, which is achieved via the polymeric immunoglobulin receptor (pIgR).

96 ding protein A (CbpA)/laminin receptor, CbpA/polymeric immunoglobulin receptor, or cell wall phosphor

97 retion of IgA into the intestinal lumen, the polymeric immunoglobulin receptor, was also dependent on

98 pired bonding for processing a wide range of polymeric interfaces, including structural, load-bearing

99 Solid contact polymeric ion-selective electrodes (SC-ISEs) have been f

100 The chemical composition of the polymeric ionic liquid (PIL) and a polyacrylate (PA) SPM

101 Deposited IgA has been reported as polymeric, J chain associated, and often, hypogalactosyl

102 ac enhanced the release of acid-precipitable polymeric lignin (APPL) by 6-fold, and reduced the amou

103 onstrates benign methods for valorization of polymeric lignin that is inherently heterogeneous and re

104 and magnetic properties of two metal-organic polymeric magnets, the quasi-one-dimensional (1D) Cu(pyz

105 Wine polymeric material (WPM), which includes polysaccharides

106 ion in markedly different materials, i.e., a polymeric material, Sylgard-184 and a ceramic aluminosil

107 engineering principles for the selection of polymeric materials for the manufacturing of dynamic nan

108 m for expanding the availability of tailored polymeric materials from readily available monomers.

109 olecular structure of amorphous cross-linked polymeric materials is a longstanding challenge.

110 examples of a broader class of dynamic bulk polymeric materials that (self-) assemble via the transp

111 pand the access and availability of tailored polymeric materials to all researchers.

112 The concept of using crack propagation in polymeric materials to control drug release and its firs

113 approach to generate stiffness gradients in polymeric materials via incorporation of dynamic monoden

114 nctional two-dimensional (2D) porous organic polymeric materials with a high accessible surface, dive

115 efficient strategy to obtain supramolecular polymeric materials with desirable functionality.

116 The formation of the oligomeric/polymeric materials within the wood following this react

117 mation and properties of many biological and polymeric materials, and is typically initiated by aqueo

118 icient route to prepare a range of different polymeric materials, especially polymer-biohybrids.

119 bility with a wide range of nanoparticle and polymeric materials, renders SCPINS (soft-confinement pa

120 ally and industrially important cross-linked polymeric materials, such as resins and gels.

121 used for the synthesis of dimer, triad, and polymeric materials.

122 into proteins and other sequence-programmed polymeric materials.

123 ture-property relationships of sophisticated polymeric materials.

124 rporation of small amounts of nanofillers in polymeric matrices has enabled new applications in sever

125 t diverse nanoparticulate species.Biological polymeric matrices often use molecular anchors, such as

126 molecules) into ZIFs, and hybridization with polymeric matrices to form mixed matrix membranes for in

127 g p-tertbutyl calix[4]arene as ionophore and polymeric matrix (polyvinyl chloride) have been develope

128 al that combines the elastic properties of a polymeric matrix and the extreme volume change accompany

129 al that combines the elastic properties of a polymeric matrix and the extreme volume change accompany

130 s followed by layer-by-layer deposition of a polymeric matrix around these.

131 buildup of microbes and their extracellular polymeric matrix clog the purification membranes and red

132 ia encased within a protective extracellular polymeric matrix enabling persistent bacterial populatio

133 graphene oxide (GO) to form a biocompatible polymeric matrix on RGO nanosheet.

134 formed biofilm communities within which the polymeric matrix was mainly composed of extracellular DN

135 polar dielectric microspheres randomly in a polymeric matrix, resulting in a metamaterial that is fu

136 that are encapsulated within a self-produced polymeric matrix.

137 Here, we develop polymeric mechanical amplifiers that exploit in vitro an

138 sodium metal anode protected by an ion-rich polymeric membrane exhibits enhanced stability and high-

139 Incorporating silica particles to polymeric membrane resulted in the formation of mixed ma

140 on of the complex formation constants in the polymeric membrane with creatininium, potassium and sodi

141 When incorporated into a suitable polymeric membrane, this molecule acts as an ionophore.

142 anti-fouling behaviour compared to the neat polymeric membrane.

143 Polymeric membranes are an energy-efficient means of pur

144 Currently, production of porous polymeric membranes for filtration is predominated by th

145 fabrication of nanostructure functionalized polymeric membranes for wastewater treatment and osmotic

146 are functionalized by drop casting of three polymeric membranes.

147 was efficiently encapsulated into a targeted polymeric micelle nano-delivery system (SUNb-PM), workin

148 s, i.e., high-density lipoprotein ([S]-HDL), polymeric micelles ([S]-PM), and liposomes ([S]-LIP), th

149 portantly, being highly water soluble, these polymeric micelles generate clear aqueous solutions whic

150 Over the past decades, polymeric micelles have emerged as one of the most promi

151 The mucoadhesive nature of these polymeric micelles results in enhanced contact with the

152 mphiphiles that self-assemble into nanoscale polymeric micelles with a densely functionalized aptamer

153 ), N-(2-hydroxypropyl)methacrylamide (HPMA), polymeric micelles, and nanoparticle carriers are explor

154 After self-assembly into polymeric micelles, they are capable of circulating in t

155 drug release are additional advantages with polymeric micelles.

156 Here, we show that topical application of polymeric microbeads functionalized with the adhesin MAM

157 Polymeric microcapsules with a light-absorbing dye incor

158 Polymeric microcystin binding iron may be related with a

159 Polymeric microneedle (MN) arrays continue to receive gr

160 We developed dissolving polymeric microneedles (MN) arrays to deliver GEN transd

161 Recently-introduced biocompatible polymeric microneedles offer an efficient method for dru

162 rature, humidity, glucose and pH sensors and polymeric microneedles that can be thermally activated t

163 acid-sensitive acetalated dextran (Ace-DEX) polymeric microparticles (MPs) which passively target an

164 In conclusion, this study shows that our polymeric microspheres are suitable as sustained release

165 ether a Level A IVIVC can be established for polymeric microspheres containing another small molecule

166 ation has been established and validated for polymeric microspheres containing risperidone (a practic

167 ed a practically feasible process to produce polymeric microspheres for sustained-release delivery of

168 Therefore, we developed biodegradable polymeric microspheres for the sustained release of prot

169 in vivo correlations (IVIVCs) for parenteral polymeric microspheres has been very challenging, due to

170 IVCs have been established and validated for polymeric microspheres with different release characteri

171 s than 7 d during release from commonly used polymeric microspheres.

172 n hydrophobic and cationic moieties in these polymeric mimics improves non-covalent protein delivery,

173 for bio-recognition, was incorporated into a polymeric mixed-matrix membrane and used as an ion-selec

174 s of bacteria, consisting of a single highly polymeric molecule of peptidoglycan (PG), pose a major p

175 Polymeric monoliths fabricated in tips with embedded mat

176 n be further simplified utilizing injectable polymeric nanocarriers coated with RBC membrane and load

177 designed a smart plasma membrane-activatable polymeric nanodrug by conjugating the photosensitizer pr

178 The TiO2 protective layer on the PAN polymeric nanofibers was presented as an effective route

179 Polymeric nanofibres are easily fabricated to contain fl

180 ional nanoheterostructures over the flexible polymeric nanofibrous membranes through electrospinning

181 NP and to improve the structure stability of polymeric nanofibrous substrate.

182 broad range of applications, well beyond the polymeric nanogel examples studied here.

183 Penetration enhancers coated biodegradable polymeric nanogels loaded with cytotoxic drugs applied v

184 iations in the host-guest characteristics of polymeric nanogels that contains these acetal or ketal m

185 sed TLR7/8 agonist to 50-nm-sized degradable polymeric nanogels the potency of the agonist to activat

186 on stability of guest molecules within these polymeric nanogels.

187 o transfer DNA patterns from a DNA cage to a polymeric nanoparticle encapsulated inside the cage in t

188 interest of developing and characterizing a polymeric nanoparticle pesticide delivery vehicle to soy

189 ysical mixture of an antigen and a synthetic polymeric nanoparticle, PC7A NP, which generates a stron

190 lated the topoisomerase-I inhibitor SN-38 in polymeric nanoparticles (NPs) surface-decorated with the

191 For polymeric nanoparticles (NPs) to deliver more drugs to t

192 3 and enhance the therapeutic efficacy using polymeric nanoparticles (NPs).

193 Polymeric nanoparticles (PNPs) may efficiently deliver i

194 ptake and time-dependent association between polymeric nanoparticles and soybeans are quantified.

195 Polymeric nanoparticles have become indispensable in mod

196 pegylated liposomal nanoparticles (PLNs) and polymeric nanoparticles have the potential to enhance tu

197 Template-free fabrication of non-spherical polymeric nanoparticles is desirable for various applica

198 on is devoted to the surface modification of polymeric nanoparticles.

199 sponsive doxorubicin (DOX) prodrug, BDOX, in polymeric nanoparticles.

200 strate the function of light harvesting in a polymeric nanostructure.

201 these relations play in designing effective polymeric nanostructures for biomedical applications.

202 The polymeric nature of the supramolecular terpolymer is con

203 ed polymer, which enables gNP aggregation in polymeric network and electrical conductance change upon

204 pending upon solvent polarity, the resulting polymeric network forms either uniform self-templated ho

205 The hydrogel polymeric network is formed via a laccase-mediated cross

206 is formed within a cyanamide-functionalized polymeric network of heptazine units and can give off it

207 ct with cis-diol, allowed the formation of a polymeric network presenting both morphological and chem

208 The biomolecular recognition induced polymeric network shrinkage responses as well as dose-de

209 d N-isopropylacrylamide as pendants on their polymeric network usually exhibit volume expansion upon

210 cid groups at each crosslinking point in the polymeric network, which shrinks upon increasing pH from

211 -like structure derives from two independent polymeric networks - one of laminin and one of type IV c

212 drogels consisting of three-dimensional (3D) polymeric networks have found a wide range of applicatio

213 The long-sought cubic gauche phase of polymeric nitrogen (cg-PN) with nitrogen-nitrogen single

214 rs report the synthesis and stabilization of polymeric nitrogen in its cubic gauche phase under near-

215 ubic gauche allotrope of high energy density polymeric nitrogen under near-ambient conditions should

216 Here, we report the synthesis of polymeric nitrogen using a mixture of nitrogen and argon

217 s were quantified in coffee melanoidins, the polymeric nitrogenous brown-colored compounds formed dur

218 The NIR polymeric NPs are small ( approximately 50 nm), show lon

219 The polymeric NPs composed of 2-((3-aminopropyl)amino) ethan

220 antum dots (QDs), magnetic nanoparticles and polymeric NPs have been introduced in the sensor design

221 troph to cleave organic groups and hydrolase polymeric organic matter produced by the cyanobacterium.

222 We describe the preparation of cross-linked, polymeric organic nanoparticles (ONPs) with a single, co

223 siveness for the controlled switching of the polymeric particle shape with light and metal ions.

224 based on foaming of an aqueous dispersion of polymeric particles and multi-walled carbon nanotubes (C

225 We show that targeted polymeric particles delivered to tumour cells in vivo am

226 ical amplifiers, consisting of biodegradable polymeric particles tethered to the tumour cell surface

227 y, the device consists of a mesh coated with polymeric particles that extracts analytes of interest p

228 The polymeric particles were safe to rat pulmonary arterial

229 juvant-loaded, biodegradable, biocompatible, polymeric particles, with the aim of generating a constr

230 Our results show how polymeric particulate-carriers can be adopted to safely

231 letion layer develops in the vicinity of the polymeric passive sampling material.

232 dox-active molecules through the hydrophilic polymeric pattern and that the nonwettable hydrophobic b

233 ny plasticizer and/or additional hydrophobic polymeric phase.

234 al catalyst for different chemical reactions.Polymeric phases of nitrogen are promising as environmen

235 For this purpose, EG-Silicone and PDMS polymeric phases were compared and, afterwards, the most

236 lor-made supramolecular (small molecular) or polymeric physical organogels and hydrogels.

237 This work evaluated the formation of polymeric pigments in red musts added with (+)-Catechin,

238 ncea thermotolerans led to larger amounts of polymeric pigments in sequential fermentation.

239 Melanins are a family of heterogeneous polymeric pigments that provide ultraviolet (UV) light p

240 romyces yeasts may contribute to form stable polymeric pigments while also influencing wine complexit

241 aining tripeptides as tunable precursors for polymeric pigments.

242 ogenous pollutants, and finally by higher MW polymeric plant material.

243 ry (HRMS) was applied to investigate complex polymeric polyphenols, before and after acid-catalysed d

244 ion and the type and molecular weight of the polymeric porogen components, a library of porous monoli

245 The interplay of polymeric properties with biological function is seldom

246 gluten index (GI) were positively related to polymeric protein and negatively to monomeric protein.

247 osition, however impact of the unextractable polymeric protein content (%UPP) remains disputed.

248 ral platform for the future discovery of new polymeric protein stabilizers.

249 rmination of architectural information about polymeric protein systems.

250 Unextractable polymeric proteins and unextractable monomeric proteins

251 n reduce intrachain disulfide bonds in large polymeric proteins.

252 t with conventional lithography which uses a polymeric resist as a mask for subsequent material depos

253 to heal dental tissue after injury, existing polymeric restorative materials, or fillings, do not dir

254 Here, we describe light-inducible polymeric retinoic acid (RA)-containing nanoparticles (N

255 e the formation of a supramolecular H-bonded polymeric ribbon.

256 Release studies found that solid polymeric samples lost more silver during wash compared

257 The system consists of a linear polymeric scaffold containing a high density of initiati

258 ss autofluorescence, where SBB is applied to polymeric scaffold materials before cell seeding.

259 ed to determine whether bioresorption of the polymeric scaffold will influence patient prognosis.

260 intestinal bioreactor using 3-D printing and polymeric scaffolds that mimic the 3-D topography of the

261 Advanced applications of polymeric self-assembled structures require a stringent

262 Graphitic carbon nitride (g-C3N4), a polymeric semiconductor that finds potential application

263 mically generated hole-transporting (p-type) polymeric semiconductors (HTPS), which are based on a ca

264 -bithiophene (SBT)-based small molecular and polymeric semiconductors are synthesized by end-capping

265 ,5-dicarboxyl)amide (NBA) building block for polymeric semiconductors.

266 emphasis on solution-processed p-type doped polymeric semiconductors.

267 e strategy is reported via an ultrasensitive polymeric sensing system (UPSS) composed of gold nanopar

268 even J chain-deficient mice showed increased polymeric serum IgA on exposure to pathogens.

269 PCL) blends were electrospun to form elastic polymeric sheets with fiber diameters ranging from 350 t

270 They consist of a viscoelastic polymeric shell and a volatile gas core, which, within s

271 s can be understood through simulations of a polymeric shell and cross-linked polymer interior.

272 reby viral antigens were formulated around a polymeric shell in a rationally arranged fashion with a

273 ly, silver-copper (Janus bionanocage) and co-polymeric shell of the photosensitive crosslinker protei

274 rivative of chitosan was used to produce the polymeric shell while a wealth variety of template cores

275 it voltage then is reduced to C-O containing polymeric species around 0.9 V (vs.

276 idence times, suggesting that oligomeric and polymeric species play an important role in forming the

277 create two-dimensional molecular cloth from polymeric strands, a molecular thread.

278 confirming the biological importance of the polymeric structure.

279 This method enables the synthesis of varying polymeric structures under identical solution conditions

280 ol over these reactions to design elaborated polymeric structures.

281 ochloramine is affected by the extracellular polymeric substance (EPS) composition, which in turn aff

282 that is enveloped in a complex extracellular polymeric substance.

283 included adsorption process by extracellular polymeric substances (EPS) on the surface of periphyton

284 ia; however, the production of extracellular polymeric substances (EPS) was significantly increased a

285 (N2-fixation, denitrification, extracellular polymeric substances -EPS- as a proxy for sediment cohes

286 The mucoadhesion between polymeric substances and mucosal membranes, widely explo

287 eria form colonies and secrete extracellular polymeric substances that surround the individual cells.

288 rocess, and they appear to disassemble their polymeric substrates by translocating subunits through t

289 ne HEMTs are fabricated on SiO2 and flexible polymeric substrates.

290 itself can further lead to the formation of polymeric SUMO chains.

291 self-charge injection into the redox active polymeric system.

292 ould help to select more effective ('smart') polymeric systems based on the biological target.

293 On the other hand, polymeric systems provide an excellent diversity of chem

294 ighlight the opportunities and challenges of polymeric systems, lipid-based formulations, as well as

295 ther related materials such as disordered or polymeric systems.

296 of free immiscible solutions in narrow-bore polymeric tubing, and each single phase was recovered an

297 een ascribed to the formation of an array of polymeric ubiquitin chains.

298 the rapid identification of a supramolecular polymeric vector with excellent efficiency and reproduci

299 Despite numerous studies on utilizing polymeric vesicles as nanocapsules, fabrication of tunab

300 at both termini, and can also be applied to polymeric vinyl- and hydrosiloxanes.