戻る
「早戻しボタン」を押すと検索画面に戻ります。

今後説明を表示しない

[OK]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 t dimers and test candidate explanations for limping.
2 or the origin of kinesin step asymmetry and "limping."
3                 Enterovirus 71 also binds to LIMP-2 (also known as SCARB2) on the external surface of
4 ucocerbrosidase (GCase)) binding sequence to LIMP-2 (lysosomal integral membrane protein 2), the rece
5                   Heterologous expression of LIMP-2 accelerated clearance of overexpressed alpha-synu
6 n at any of these decreases GCase binding to LIMP-2 and alters its pH-dependent binding as well as di
7  a similar affinity to that observed between LIMP-2 and beta-GCase.
8 ino acid, but the interactions of GCase with LIMP-2 are heavily influenced by Asp(399) and the di-iso
9                These data support a role for LIMP-2 as the mannose-6-phosphate-independent traffickin
10                     Remarkably, we find that LIMP-2 bears P-Man9GlcNAc2 covalently attached to residu
11 l interface region within GC as critical for LIMP-2 binding and lysosomal transport.
12 e report structural results illuminating how LIMP-2 binds and releases beta-GCase according to change
13                                              LIMP-2 deficiency is associated with neurological abnorm
14 a demonstrated that the crystal structure of LIMP-2 displays a hydrophobic three-helix bundle compose
15                                              LIMP-2 expression also led to lysosomal transport of a b
16      Therefore, we suggest that manipulating LIMP-2 expression to increase lysosomal GC activity is a
17              In cellular uptake experiments, LIMP-2 facilitates transport of phospholipids into murin
18 basis and functional importance of a form of LIMP-2 for lipid trafficking.
19               Binding of these lipids alters LIMP-2 from functioning as a glucocerebrosidase-binding
20 o be responsible for controlling the exit of LIMP-2 from the Golgi.
21                              Variants in the LIMP-2 gene cause action myoclonus-renal failure syndrom
22                The integral membrane protein LIMP-2 has been a paradigm for mannose 6-phosphate recep
23      Based on these findings, we generated a LIMP-2 helix 5-derived peptide that precipitated and act
24               Given the importance of GC and LIMP-2 in disease pathogenesis, we studied their interac
25 olgi compartment, leading to accumulation of LIMP-2 in enlarged endosomal vesicles.
26                            Reconstitution of LIMP-2 in LIMP-2-deficient fibroblasts led to a rescue o
27 hosphate in the Golgi caused accumulation of LIMP-2 in this compartment, and PI4KIIIbeta was found to
28 imaging microscopy, we also demonstrate that LIMP-2 interacts with MPR in living cells.
29 that the lysosomal integral membrane protein LIMP-2 is a specific binding partner of beta-glucocerebr
30                               The binding to LIMP-2 is not dependent upon a single amino acid, but th
31 n surviving DA neurons of human PD midbrain, LIMP-2 levels were increased, probably to compensate for
32 via a histidine trigger, and suggesting that LIMP-2 localizes the ceramide portion of the substrate a
33      Here we report a crystal structure of a LIMP-2 luminal domain dimer with bound cholesterol and p
34 g between monomeric and dimeric forms allows LIMP-2 to engage distinct binding partners, a mechanism
35 resulted in their rapid degradation, whereas Limp-2 was relatively stable in the lysosome in the abse
36  lysosomal integral membrane protein type-2 (LIMP-2) plays a pivotal role in the delivery of beta-glu
37  lysosomal integral membrane protein type-2 (LIMP-2), we studied alpha-synuclein metabolism in LIMP-2
38  lysosomal integral membrane protein type 2 (LIMP-2).
39    These results revise the accepted view of LIMP-2-beta-GCase lysosomal targeting.
40                                           In LIMP-2-deficient brains a significant reduction in GC ac
41                  Reconstitution of LIMP-2 in LIMP-2-deficient fibroblasts led to a rescue of beta-glu
42 evels were significantly higher in sera from LIMP-2-deficient mice compared to wild-type.
43 2), we studied alpha-synuclein metabolism in LIMP-2-deficient mice.
44 nd protein levels were severely decreased in LIMP-2-deficient mouse tissues.
45 uced alpha-synuclein levels, suggesting that LIMP-2-derived peptides can be used to activate endogeno
46 enger receptor proteins highly homologous to LIMP-2.
47 s interaction with the transmembrane protein LIMP-2.
48 iple steps in the trafficking pathway of the LIMP-2/GBA complex.
49 the medium, which was attenuated by limiting LIMP-2/GBA exit from the Golgi by PI4KIIIbeta inhibitors
50  data also provide a structural model of the LIMP-2/GC complex that will facilitate the development o
51                                 However, the LIMP-2/SCARB2 binding sequences for enterovirus 71 and G
52 1 and GCase are not similar, indicating that LIMP-2/SCARB2 may have multiple or overlapping binding s
53       Lysosomal integral membrane protein-2 (LIMP-2/SCARB2) contributes to endosomal and lysosomal fu
54 n sequential steps, causing these motors to "limp" along the microtubule.
55 itioning were combined, the rats developed a limp and a tilted posture that correlated in direction a
56               The bulk elastic properties of limp and aging cellular solids are calculated for model
57  in stalk stiffness, ruling out models where limping arises from an asymmetry in torsional strain.
58 stigation of young children who present with limping as their only or predominant symptom.
59                          Defect-only rabbits limped at all times.
60                    The mechanics of an aged, limp beam is calculated, thus offering a practical proce
61                                              Limping behavior implies that the molecular rearrangemen
62 how that the experimentally observed kinesin limping can be explained in our model by the variation o
63                               GFP tagging of LIMP caused a limping defect during movement with reduce
64                 GFP tagging of LIMP caused a limping defect during movement with reduced speed and tr
65 tructs with short stalks have been found to "limp", i.e., exhibit alternation in the dwell times of s
66 ctivity of the glycine motif-deficient SR-BI/LIMP II chimera was low but could be increased by introd
67   The rate of lipid uptake mediated by SR-BI/LIMP II chimeras was proportional to the extent of recep
68 acking (lysosomal integral membrane protein (LIMP) II) this glycine motif (chimeras).
69 LCMV was greatly enhanced by addition of the LIMP-II tail.
70 pe was almost abolished when attached to the LIMP-II tail.
71 l of lysosomal integral membrane protein-II (LIMP-II).
72                                              Limping implies that kinesin molecules strictly alternat
73 ne of the most common causes of hip pain and limp in young children.
74 elatively common conditions that can produce limping in children 1-6 yr old.
75                                              LIMP is an essential motility and invasion factor necess
76                  Transcribed in gametocytes, LIMP is translated in the ookinete from maternal mRNA, a
77                               The absence of LIMP reduces initial mosquito infection by 50%, impedes
78 chanism by which such rearrangements lead to limping remains unsolved.
79 stalk region near the heads had no effect on limping, ruling out possible stalk misregistration durin
80  fusion protein and five out of 10 developed limp tails.
81 integral membrane proteins (termed Lamps and Limps) that are extensively glycosylated with asparagine
82     Here, we identify the Plasmodium protein LIMP (the name refers to a gliding phenotype in the spor
83                                     However, limping was enhanced by perturbations that increased the
84                                              Limping was equally unaffected by mutations that produce

WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。