ライフサイエンスコーパス: crystal structure analysis

1 the mutated protein to be non-functional by crystal structure analysis.

2 racterized via UV/vis spectroscopy and X-ray crystal structure analysis.

3 was also accomplished and confirmed by X-ray crystal structure analysis.

4 ed by means of DFT calculations and an X-ray crystal structure analysis.

5 mutant that lacks HAUSP binding based on the crystal structure analysis.

6 he solid state have been determined by X-ray crystal structure analysis.

7 ntact surfaces on both proteins according to crystal structure analysis.

8 ehavior in the solid state as shown by X-ray crystal structure analysis.

9 microanalysis, mass spectrometry, and X-ray crystal structure analysis.

10 53 with DNA that complements and extends the crystal structure analysis.

11 via multinuclear NMR spectroscopy and X-ray crystal structure analysis.

12 iterative medicinal chemistry aided by X-ray crystal structure analysis, a new series of inhibitors h

13 The crystal structure analysis allows us to propose a detail

14 ino-6-chloro-benzimidazole) was subjected to crystal structure analysis and a high resolution crystal

15 On the basis of crystal structure analysis and differing rates of C5 [do

16 conformational aspects were studied by X-ray crystal structure analysis and molecular mechanics calcu

17 Crystal structure analysis and saturation transfer diffe

18 Along with X-ray crystal-structure analysis and thermodynamic profiling,

19 ative process of synthesis, crystallography, crystal structure analysis, and computational methods.

20 crocycles were characterized by X-ray single-crystal structure analysis, and, in all cases, NMR spect

21 inactive and active states, as determined by crystal structure analysis, are described.

22 Crystal structure analysis at 1.7 A resolution suggests

23 High-resolution crystal structure analysis confirmed that the HX RNA is

24 Crystal structure analysis further shows that the stalk

25 An X-ray crystal structure analysis has been performed on one of

26 Previous X-ray crystal structure analysis has demonstrated that the mon

27 Previous crystal structure analysis has revealed that a small bet

28 hich is similar to a motif recently shown by crystal structure analysis in BtuC and previously shown

29 The crystal structure analysis indicates highly distorted Zn

30 Crystal structure analysis, molecular mechanics simulati

31 X-ray crystal structure analysis, molecular modelling, and pro

32 The crystal structure analysis of (l)-2.4H(2)O, reveals that

33 An X-ray crystal structure analysis of a isoxazolin-5-one glucosi

34 tes peptide conformational data derived from crystal structure analysis of an MN-isolate peptide (RP1

35 X-ray crystal structure analysis of both Rh complexes formed f

36 importance of these waters directly by X-ray crystal structure analysis of complexes with four mutant

37 Recent x-ray crystal structure analysis of CtpA from the eukaryotic a

38 Crystal structure analysis of four of these compounds in

39 Interestingly, crystal structure analysis of MAT2B protein (MATbeta) pr

40 eocontrol in complex settings allowing X-ray crystal structure analysis of natural and unnatural dias

41 Crystal structure analysis of one of the mutants showed

42 X-ray crystal structure analysis of rabbit and bacterial PGI h

43 number of biophysical techniques, including crystal structure analysis of receptor-stapled peptide c

44 Amino acid alignments and crystal structure analysis of retinoic acid (RA)-binding

45 ylbutyric acid was established as R by X-ray crystal structure analysis of the (R)-(+)-alpha-methylbe

46 Detailed crystal structure analysis of the [(alpha1)(2)alpha2](2)

47 X-ray crystal structure analysis of the dimer (DDQT-2) showed

48 ransferase activity, we have carried out the crystal structure analysis of the Gal-T1.LA complex with

49 The crystal structure analysis of the NarL protein provides

50 X-ray single-crystal structure analysis of the Ni(II) complex of stra

51 X-ray crystal structure analysis of the selenoamide, thioamide

52 e correlated with contacts implicated by the crystal structure analysis of the trp repressor-operator

53 Crystal structure analysis of the two most potent inhibi

54 The crystal structure analysis of the VosA velvet domain rev

55 Although there is no zinc in the crystal structure, analysis of a mercuric acetate deriva

56 e ORAI1 gene, modeling of mutations on ORAI1 crystal structure, analysis of ORAI1 mRNA and protein ex

57 Crystal-structure analysis of the V6(54/84) variant boun

58 Building on high-resolution crystal-structure analysis, pore vestibule modeling, and

59 nts (by stopped-flow IR spectroscopy), X-ray crystal structure analysis, quantum chemical calculation

60 Co-crystal structure analysis revealed a dual active site-d

61 X-ray crystal structure analysis revealed a putative sorting m

62 Crystal structure analysis revealed that a DNA base cont

63 Crystal structure analysis revealed that FePYR1 recogniz

64 Crystal structure analysis revealed that the 2p orbital

65 Crystal structure analysis revealed that the straight BT

66 Crystal structure analysis revealed the interplay betwee

67 product is deep blue in color, and an X-ray crystal structure analysis reveals it to be the S4 symme

68 NMR and X-ray crystal structure analysis reveals that ynamides derived

69 Crystal structure analysis showed that a combination of

70 Crystal structure analysis showed that the FOXA DNA bind

71 The X-ray crystal structure analysis showed that the potassium com

72 Crystal structure analysis shows that DarA is highly hom

73 Crystal structure analysis shows that paral-[FeOMTPP(1-M

74 Crystal structure analysis shows that the portion of the

75 hese results, combined with a computer-aided crystal structure analysis, suggest a model in which p53

76 Crystal structure analysis was conducted on a number of

77 Based on crystal structure analysis, we propose that IgG2 disulfi