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1 HAWF leading to the crumb network being more plasticized and hindering crumb aging.
2 ed at lower temperature, resulting in better plasticized biopolymer networks in crumb.
3               The soft segments are strongly plasticized by water, lowering the self-healing temperat
4 s a synthetic chemical commonly used for its plasticizing capabilities.
5 raction of the material to inert polymer and plasticizing components in order to ensure compositional
6 rom glacial acetic acid resulted in a highly plasticized, continuous network, but only demonstrated a
7 ee radical polymerization to produce a "self-plasticized" copolymer.
8 es excellent tissue morphology and can be de-plasticized easily using an organic solvent, which enabl
9             The addition of salt exhibited a plasticizing effect localized to the polyionic liquid (P
10                             We find that the plasticizing effect of ammonium sulfate lowers the visco
11 etworks on the nano- and micro-scale and the plasticizing effect of the ionic liquid.
12 ation at break was also increased due to the plasticizing effect of the nanoemulsion.
13 The addition of PF to formulations exerted a plasticizing effect on the PcF matrix, which was manifes
14 eadily degradable amorphous regions from the plasticizing effect, and facilitated access to the bulk
15 erably its structural properties via an anti-plasticizing effect, as compared to the polymer-water ma
16      Introducing the IL further enhanced the plasticizing effect, elevating the ionic conductivity in
17 ion to the crosslinking action, it presented plasticizing effect.
18  to UV-visible light transmission and to the plasticizing effect.
19  ketones, e.g. cyclohexanone, a component of plasticized explosives.
20 eristics using a model film system reveals a plasticizing-extracting process in changing the polymeri
21  Our findings highlight the potential of the plasticizing-extracting process in fabricating membranes
22 ane and the rate of domain coarsening in the plasticized film which helps elucidate the mechanism by
23               The solubility of the glycerol plasticized films increases by 33% and decreased with th
24 tron beam accelerator doses on properties of plasticized fish gelatin film.
25 latter are also glass-forming systems--water-plasticized, hydrogen bond-cross-linked chain polymers (
26 DOS)- and 2-nitrophenyl octyl ether (o-NPOE)-plasticized ISE membranes).
27                                     Neat and plasticized kefiran films were characterized by physical
28 ccupational and clinical exposures from DEHP-plasticized medical devices, e.g., blood bags, hemodialy
29              Heightened clinical exposure to plasticized medical products may have cardiac safety imp
30                       Ultimately, the highly plasticized membranes become insufficiently hydrophobic
31  and density-matched simultaneously to a non-plasticizing mixture of high dielectric solvents.
32 PMMA is negligible, while the sensitivity of plasticized PMMA was similar to or in some cases greater
33 free of ion exchanger and is formulated with plasticized poly(vinyl chloride) (PVC) and an inert lipo
34                          The water uptake of plasticized poly(vinyl chloride) (PVC) and silicone rubb
35 in as the ionophore and Dow 3140 silicone or plasticized poly(vinyl chloride) (PVC) as the matrixes f
36 ltammetry between an ion-exchanger doped and plasticized poly(vinyl chloride) (PVC) membrane and an e
37                          Infiltration of the plasticized poly(vinyl chloride) (PVC) membrane into the
38     The beta value of ion-carrier complex in plasticized poly(vinyl chloride) (PVC) membranes and sol
39                Specifically, blank (undoped) plasticized poly(vinyl chloride) (PVC) membranes mounted
40 st wearable SC-ISEs proposed to date contain plasticized poly(vinyl chloride) (PVC) membranes, which
41                               The polymer is plasticized poly(vinyl chloride) (PVC), which is widely
42                            Both conventional plasticized poly(vinyl chloride) (PVC)-based ISEs and th
43 sed polymer for membrane preparation remains plasticized poly(vinyl chloride) (PVC).
44 roextraction of barbiturates when doped into plasticized poly(vinyl chloride) (PVC).
45                                              Plasticized poly(vinyl chloride) along with the optode c
46 ein octadecyl ester; ETH-7075) within a thin plasticized poly(vinyl chloride) film are reported.
47  Ion-selective optode membranes, composed of plasticized poly(vinyl chloride) impregnated with an ion
48                        Prior to applying the plasticized poly(vinyl chloride) ISM, the oxidation stat
49 ne) film as the intermediate layer between a plasticized poly(vinyl chloride) membrane and a Au elect
50 lectrode is based on the submicrometer-thick plasticized poly(vinyl chloride) membrane spin-coated on
51 the presence of lipophilic cationic sites in plasticized poly(vinyl chloride) membrane.
52 ing a multicyclic guanidinium ionophore in a plasticized poly(vinyl chloride) membrane.
53 n the range of 10(-2) to 10(-3) cm/s at both plasticized poly(vinyl chloride) membrane/water and 1,2-
54 extraction as shown by cyclic voltammetry at plasticized poly(vinyl chloride) membranes containing di
55 vanostatic technique are here evaluated with plasticized poly(vinyl chloride) membranes containing th
56 uld be conveniently blended with traditional plasticized poly(vinyl chloride) or with noncrosslinked
57  method for the preparation of monodisperse, plasticized poly(vinyl chloride) particles based on an a
58                                 In contrast, plasticized poly(vinyl chloride), polystyrene, and poly(
59 ium-selective electrodes (K-SCISEs) based on plasticized poly(vinyl chloride).
60 photoacid polymer and a calcium ionophore in plasticized poly(vinyl chloride).
61 ctadecanoylimino-5H-benzo[a]phen-oxazine) in plasticized poly(vinyl chloride).
62                       Liquid polymer [highly plasticized poly(vinyl chloride)] films are commonly use
63                  Here, by leveraging a model plasticized polymer electrolyte based on conventional su
64 onate (FEC) additive into the succinonitrile-plasticized polymer electrolyte can effectively protect
65 rthermore, we design a new additive-embedded plasticized polymer electrolyte to manipulate the Na(0)
66 ble insights into the interfacial failure of plasticized polymer electrolytes and offers a promising
67 lkanecarboxylates at the interface between a plasticized polymer membrane and water to enable the ult
68 r that was coated with a potassium-selective plasticized polymer membrane.
69 f heterogeneous ion-ionophore recognition at plasticized polymer membrane/water interfaces.
70        The detection electrode consists of a plasticized polymeric membrane doped with 10 wt % of tri
71 ilic dye, and lipophilic cationic sites in a plasticized polymeric membrane.
72 ched functionalized groups or impurities) in plasticized polymeric membranes and membrane plasticizer
73  using differential scanning calorimetry for plasticized polymers having a mass fraction of 0, 0.10,
74                               We report on a plasticized polyurethane ionophore-based thin film mater
75 dinonylnaphthalenesulfonate (DNNS) salt in a plasticized polyurethane matrix, it is shown that poly(a
76              A transparent and electroactive plasticized polyvinyl chloride (PVC) gel was investigate
77 e electromechanical actuation of transparent plasticized polyvinyl chloride (PVC) gels with conductiv
78 nclusion that the polymer surfactant coating plasticizes protein structures in a way similar to hydra
79  surface structures of polyurethane (PU) and plasticized PU films in air, in water, and in albumin so
80                                          The plasticized PVAc composites with Tg < 25 degrees C showe
81                                              Plasticized PVC as membrane material is less suited for
82 uptake (0.15-0.17 wt %) was obtained for the plasticized PVC based Ca(2+)-selective membranes in DIW,
83 imply by adding the SR coating on top of the plasticized PVC based K(+)-selective membrane.
84     Silicones are a promising alternative to plasticized PVC because of their excellent biocompatibil
85 take in 0.1 M CaCl(2) (0.03 wt %) than their plasticized PVC counterparts (0.1 wt %).
86 centration in aqueous and gaseous samples of plasticized PVC film is presented.
87 otometry of organic-phase solutions and thin plasticized PVC films containing In(III) and Ga(III) oct
88 s are prepared by casting thin (5-10 microm) plasticized PVC films containing indium(III) octaethylpo
89 roduction of cyanoethyl cellulose (CEC) into plasticized PVC gel (PVCg) not only confers a high diele
90      Thus, the addition of a SR coating on a plasticized PVC ion-selective membrane seems to be a fea
91  deviation of E degrees as low as 0.3 mV for plasticized PVC ISMs and 3.5 mV for Dow 3140 silicone IS
92 SC-ISEs exhibit an emf drift of 20 muV/h for plasticized PVC ISMs and 62 muV/h for silicone ISMs.
93 n the solid/liquid interface consisting of a plasticized PVC layer carrying the colorimetric reagent
94 tion in solutions bathing the two sides of a plasticized PVC membrane containing the barbiturate rece
95 erized 60 nm thick film of POT coated with a plasticized PVC membrane exhibited a significant sodium
96                          The organic film (a plasticized PVC membrane) improved the detection limit a
97 hat by changing the polymer concentration in plasticized PVC membranes containing artificial receptor
98  demonstrated with approximately 300 nm thin plasticized PVC membranes containing up to two ionophore
99 ity, using both hydrophilic ion-exchange and plasticized PVC membranes, along with a hydrophilic redo
100 nospheres are smaller compared with those in plasticized PVC membranes, indicating a more polar nanos
101 onylnaphthalenesulfonate, respectively, into plasticized PVC or polyurethane membranes and mounting d
102 een electrodes with ISMs comprising either a plasticized PVC or silicone matrix offer valuable insigh
103 fferent membrane types were studied: (1) the plasticized PVC or SR (RTV 3140) membrane matrix without
104                                   Microscale plasticized PVC particles doped with hydrophobic ionopho
105 other plastic waste present and a commercial plasticized PVC product (laboratory tubing) can be used
106                                         With plasticized PVC sensing membranes, these electrodes show
107                                         With plasticized PVC sensing membranes, these electrodes show
108 ated into hydrophobic polymeric films (e.g., plasticized PVC), and the resulting materials release NO
109                      It was fabricated using plasticized PVC-based micrometer-scale fluorescent micro
110 ization of small, uniform, and mass-produced plasticized PVC-based sensing microspheres in view of ra
111 tions were tested, all of which consisted of plasticized PVC.
112 ptors in the medium in which they will work: plasticized PVC.
113                                              Plasticized silicone rubber films formulated with two di
114 hydroxybutyrate/3-hydroxyvalerate) (PHB/HV), plasticized starch (PR), and cellulose acetate (CA) degr
115 membrane fluidity by tailoring the amount of plasticizing stimulus present allows us to obtain tempor
116              The capsules are triggered by a plasticizing stimulus that induces a phase change transi
117                                              Plasticized Teflon AF nanocomposite films show very low
118                                     Solvents plasticize the films.
119  liquid that is able to first infiltrate and plasticize the material at the molecular scale, and then
120                                         This plasticized the films and modified the crystallinity, su
121 The results suggest that the water molecules plasticized the polymer matrix, changing the properties
122 minated poly(hexafluoropropylene oxide) (4), plasticizes the films (T(g) = -40 degrees C).
123 l and subsequently coated with Kollicoat SR, plasticized with 10% TEC.
124 pproximately 3-4.5-microm-thick PVC membrane plasticized with 2-nitrophenyl octyl ether was supported
125 ly 1 mum thick poly(vinyl chloride) membrane plasticized with 2-nitrophenyl octyl ether.
126                                    SPC films plasticized with 40-50% glycerol showed a time-dependent
127 r properties, poly(3-hydroxybutyrate) (PHB), plasticized with 5-15 wt% epoxidized vegetable oil, was
128  microbial communities to biopolymer samples plasticized with acetyl tributyl citrate (ATBC), triethy
129  for nonpolar poly(vinyl chloride) membranes plasticized with bis(2-ethylhexyl sebacate) (PVC-DOS) du
130 ly(n-butylacrylate), or poly(vinyl chloride) plasticized with bis(2-ethylhexyl) sebacate without a ne
131  characterized in poly(vinyl chloride) (PVC) plasticized with dioctyl sebacate (DOS) and compared wit
132 nophores in membrane matrixes other than PVC plasticized with DOS may now be experimentally accessibl
133 into the polar poly(vinyl chloride) membrane plasticized with o-nitrophenyl octyl ether (PVC-NPOE) is
134 ane electrodes based on poly(vinyl chloride) plasticized with o-nitrophenyl octyl ether in a 1:2 mass
135  solution, crosslinked with Ca(2+) ions, and plasticized with sorbitol to form films and used to impr
136 ging agent, with Nafion gel, which is Nafion plasticized with tri-n-butyl phosphate, has been evaluat
137  of soybean protein concentrate (SPC) films, plasticized with varying levels of glycerol and processe

 
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