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1 , likely due to stabilization of the keratin heteropolymer.
2 aining the free energy of a typical designed heteropolymer.
3 extension of a short A-tail into a long A/U-heteropolymer.
4 izobium etli CE3 O antigen is a fixed-length heteropolymer.
5 by perturbing the chemical structure of the heteropolymer.
6 inued metabolism of this essential cell wall heteropolymer.
7 ion of two simplified models of protein-like heteropolymers.
8 ncovalent type I (K18, K19) and type II (K8) heteropolymers.
9 nover of FtsZ2 and FtsZA, respectively, from heteropolymers.
10 enerate diverse sequence-defined non-protein heteropolymers.
11 at is structurally related to UMOD but forms heteropolymers.
12 s which are assemblies of specific ESCRT-III heteropolymers.
13 DW-135/Y) have been identified to form these heteropolymers.
14 ent mutants reveal that FtsZ1 and FtsZ2 form heteropolymers.
15 nd select mRNAs and contributes U's into A/U heteropolymers.
16 o its ligands, resulting in the formation of heteropolymers.
17 n predicting the functional utility of novel heteropolymers.
18 (s) and the formation of high molecular mass heteropolymers.
21 hase molecular recognition (CoPhMoRe) uses a heteropolymer adsorbed onto and templated by a nanoparti
22 of poly(ethylene glycol) (PEG) phospholipid heteropolymers adsorbed onto near-infrared (nIR) fluores
24 osed during this transfer reaction, but both heteropolymer and CR1 are removed from the erythrocytes
27 primarily through interaction with FtsZ2 in heteropolymers and suggest that ARC3 activity is spatial
28 xical in light of what is known about random heteropolymers and the sensitivity of their properties t
30 ing that like mammalian NFs, lamprey NFs are heteropolymers, and that additional NF subunits may exis
31 inant of the mean pI of recombinant ferritin heteropolymers, and that ferritin microheterogeneity is
32 then cross-linked bispecific mAb complexes (heteropolymers, anti-CR1 x anti-phi X174) were infused i
35 when exposed to drought, the composition of heteropolymers are strategically varied across fine root
36 being a universal feature of all designable heteropolymers, as it is present also in natural protein
40 ular crowding that favors coalescence of the heteropolymer at the insert site and thus closure of the
41 This allows water to penetrate into folded heteropolymers at high pressure and break apart their hy
44 ow information varies with activity in other heteropolymers, both biological and synthetic, may lead
45 dicate that not only may mixed variants form heteropolymers, but that this can causally lead to the d
47 d 2, induces the postediting addition of A/U heteropolymers by KPAP1 poly(A) polymerase and RET1 term
48 o navigate random encounters(5,6); synthetic heteropolymers capable of emulating such interactions ca
49 sing two litter types that possessed similar heteropolymer chemistry, but different proportions of la
55 -wall carbon nanotubes (SWCNTs) wrapped with heteropolymers composed of hydrophobic and hydrophilic g
57 polymer-chain nanoparticles formed by random heteropolymers comprising four or more components can di
58 BEAR reactions are used to generate protein heteropolymers containing a beta-backbone, gamma-backbon
61 gest that both these models (homopolymer and heteropolymer) could be applicable depending on the solu
66 insert mutants to assess the strength of the heteropolymer-encoded folding signals that facilitate lo
68 libraries and used the information to design heteropolymer ensembles as mixtures of disordered, parti
69 Amylovoran, a high molecular weight acidic heteropolymer exopolysaccharide, is a virulent factor of
70 pleen ferritin (HoSF), a naturally occurring heteropolymer ferritin of H and L-subunits (approximatel
71 recombinant H- and L-subunit homopolymer and heteropolymer ferritins and several site-directed H-subu
72 y more than 8 decades ago, recombinant human heteropolymer ferritins have never been synthesized, owi
74 allowing the synthesis of a full spectrum of heteropolymer ferritins, from H-rich to L-rich ferritins
75 two-state co-operative transition following heteropolymer formalism, whereas secondary structure for
77 the adult axon, the neurofilaments (NFs) are heteropolymers formed from the low (NFL), middle (NFM),
78 ucophytes, chloroplast division involves two heteropolymer-forming FtsZ isoforms: FtsZ1 and FtsZ2 in
79 nt structural studies indicate that a tektin heteropolymer forms a unique protofilament of flagellar
80 Suberin is a lipid and phenolic cell wall heteropolymer found in the roots and other organs of all
81 tests of the validity of REM as a model for heteropolymer freezing, freezing transition of random se
83 mers, unlike the triplet, which are obligate heteropolymers, have supported a widely held view that a
84 mers, unlike the triplet, which are obligate heteropolymers, have supported a widely held view that p
85 s, we demonstrate sequence encoded nanoscale heteropolymers, helical polymers, 2D lattices, and mesos
90 lants is the presence of the phenolic lignin heteropolymer in xylem and other sclerified cell types.
91 t as in mammals, NFs in lamprey are obligate heteropolymers, in which NF-L is a required subunit.
92 cones, and depolymerized condensed flavonoid heteropolymers into flavanones, flavanols and (deoxy)ant
93 ess, the short A-tails are extended as (A/U) heteropolymers into structures previously thought to be
94 ss-linking of the cartilage type II collagen heteropolymer is an integral, early process in fibril as
98 ion, which is a three-legged pinwheel-shaped heteropolymer, is a major component in the protein coats
100 is clathrin, which appears as a three-legged heteropolymer (known as a triskelion) that assembles int
103 f synthetic methyl methacrylate-based random heteropolymers (MMA-based RHPs) has displayed protein-li
105 mputer simulations of a well-studied lattice heteropolymer model, the first systematic test of this o
107 s that the otherwise rapid folding of simple heteropolymer models becomes "glassy"-dominated by multi
108 this phenomenon, we report three examples of heteropolymer-nanotube recognition complexes for ribofla
111 homopolymer common antigen (A band) and the heteropolymer O antigen (B band), which impart serospeci
112 demands at each phase of regeneration for NF heteropolymers of differing composition in regrowing axo
118 It should now be possible to extend the heteropolymer paradigm to a live pathogen in a primate m
121 lyketides are a class of biologically active heteropolymers produced by assembly line-like multiprote
125 that rodent neurofilaments (NF) are obligate heteropolymers requiring NF-L plus either NF-M or NF-H f
127 bout 1,300 metalloproteins, we design random heteropolymers (RHPs) as enzyme mimics based on one-pot
129 tructured channel, four-monomer-based random heteropolymers (RHPs)(14) can mimic membrane proteins an
130 accommodate the use of both homopolymer and heteropolymer RNA templates lacking uridylates and can b
131 We have generated bispecific mAb complexes (heteropolymer(s), HP), which contain a mAb specific for
132 ar environment by systematically varying the heteropolymer segment distribution and the strength of t
133 We show that a Gaussian distribution of heteropolymer segments, coupled with strong lamin-chroma
135 ly an "active learning" strategy to identify heteropolymer sequences that break this correlation.
138 hage previously cleared to the liver via the heteropolymer system was phagocytosed and destroyed.
141 ent in their molecular mass assemble to form heteropolymers that produce a structure-providing intrac
142 ared cross-linked, bispecific mAb complexes (heteropolymers) that facilitate rapid and quantitative b
144 ytoplasmic membrane with a net-like, elastic heteropolymer, the peptidoglycan sacculus, to protect th
145 tional evidence for the potential utility of heteropolymers to facilitate the safe and rapid clearanc
148 o L subunit composition of purified ferritin heteropolymers was analyzed by SDS-PAGE and capillary ge
149 ent extensive crosslinking on their own, but heteropolymers were not observed in multiprotein network
150 ade in previous in vivo experiments in which heteropolymers were used to facilitate clearance of inno
151 proteins can produce beta-linked glucomannan heteropolymers when supplied both GDP-mannose and GDP-gl
152 ormation generation from random sequences of heteropolymers, where unfavorable Shannon entropy is ove
153 formational mobility of peptides and related heteropolymers while simultaneously altering their prope
154 ormation modes with minimal bond changes and heteropolymers whose folding pathway selections are cont
155 izobium etli CE3 O antigen is a fixed-length heteropolymer with O methylation being the predominant t
156 nant O-polysaccharide (OPS) is an unbranched heteropolymer with repeating d-glucose and 6-deoxy-l-tal
158 ynthetically accessible and provides (AB)(n) heteropolymers with an alternating backbone and alternat
159 resulted in the formation of high molecular heteropolymers with FnBPA only, suggesting a specificity
160 an be a powerful tool in the design of novel heteropolymers with tuned stereochemical properties.