ライフサイエンスコーパス: resonance structure

1 more closely approaching the Fe(III)(NO(-)) resonance structure.

2 the larger contribution of the zwitterionic resonance structure.

3 ical regions defined by the nuclear magnetic resonance structure.

4 evolves aromaticity in open-shell diradical resonance structures.

5 the LSi horizontal linePH <--> LSi(+)-PH(-) resonance structures.

6 which gives rise to significantly different resonance structures.

7 form should be replaced by two more accurate resonance structures.

8 wed us to examine the energies of individual resonance structures.

9 to anion, and Fe(II) keto pi neutral radical resonance structures.

10 reduced forms of FMN-Na being stabilized by resonance structures.

11 ere, we report the solution nuclear magnetic resonance structure and dynamics of Sma0114 from the bac

12 ed as the difference between the most stable resonance structure and that of the delocalized species.

13 esult, ylide-like, rather than carbene-like, resonance structures are most important in the anions de

14 Resonance structures based on quintuple M-M bonding domi

15 Although many resonance structures contribute to the resonance hybrid

16 ure determination including nuclear magnetic resonance structure determination and comparative model

17 This work highlights that more resonance structures do not always lead to a more stabil

18 Theoretical studies of 2 suggest a resonance structure having dominant Ti-C triple-bond cha

19 This behavior is rationalized by resonance structures hindering fast radical reactions.

20 This chromophore possesses a zwitterionic resonance structure in the ground state, as evidenced by

21 s supported by a three dimensional (3D) HCGs resonance structure in the microwave regime is presented

22 s; rather, it is composed of a collection of resonance structures in a dynamic equilibrium.

23 The validity of this resonance structure is discussed in terms of experimenta

24 The preferred resonance structure is Fe(II)<--{:C(X)Y}(0) and not Fe(I

25 y a strong contribution of the triply bonded resonance structure [LnMn identical withSnR]Cl and were

26 The nuclear magnetic resonance structure of [C117S]YmoB and the homology mode

27 Here we describe the nuclear magnetic resonance structure of a region encompassing the second

28 ed model generated from the nuclear magnetic resonance structure of a related protein, NK lysin, sugg

29 In the nuclear magnetic resonance structure of an archaeal HAMP domain, residues

30 Previous modeling on the nuclear magnetic resonance structure of CCP15-16 in the serum C3 converta

31 Since the nuclear magnetic resonance structure of MA showed that these Thr residues

32 Here, the solution nuclear magnetic resonance structure of ParG is reported.

33 as constructed based on the nuclear magnetic resonance structure of PMP-C.

34 esent the three-dimensional nuclear magnetic resonance structure of the CBP bromodomain in complex wi

35 Here we report the nuclear magnetic resonance structure of the complex between the regulator

36 The nuclear magnetic resonance structure of the lipid-bound state of this cyt

37 We report here the nuclear magnetic resonance structure of the major intramolecular G-quadru

38 The nuclear magnetic resonance structure of the major VEGF G-quadruplex shows

39 We describe the solution nuclear magnetic resonance structure of the Moloney murine leukemia virus

40 ations of a recent micellar nuclear magnetic resonance structure of the natural killer (NK) cell-acti

41 The nuclear magnetic resonance structure of the prohead RNA E-loop hairpin, r

42 urpose, we first solved the nuclear magnetic resonance structure of the RING domain of TRIM5alpha and

43 We present here the nuclear magnetic resonance structure of the TRIM5 B-box 2 domain and iden

44 sistent with the crystal or nuclear magnetic resonance structure of these or related interactions.

45 Nuclear magnetic resonance structures of 9 of 12 designed 7- to 10-residu

46 Nuclear magnetic resonance structures of apolipoprotein-detergent complex

47 -resolution radiographic or nuclear magnetic resonance structures of isolated components into lower r

48 re, we describe crystal and nuclear magnetic resonance structures of KaiB-KaiC,KaiA-KaiB-KaiC, and Ci

49 at ca. 1200 K, sulfinyl isocyanate, bearing resonance structures of O=C-N=S=O and O=C=N-S=O, has bee

50 The crystal and nuclear magnetic resonance structures of p16 from Escherichia coli and Ba

51 etworks within the nanoclusters resemble the resonance structures of polycyclic aromatic hydrocarbons

52 l analysis of the available nuclear magnetic resonance structures of PrP(C), we explore the propensit

53 The resonance structures of the derivatives rationalize thei

54 ps to reconcile the crystal/nuclear magnetic resonance structures of the TonB carboxy terminus with c

55 bution of all the 38 native nuclear magnetic resonance structures on the obtained FES, analyzing inte

56 these and related derivatives delineate the resonance structures predominant in these molecules.

57 in cyclic ketones with and without aromatic resonance structure representations, in tautomers and pe

58 mbrane (PM), and a previous nuclear magnetic resonance structure showed that both tyrosines of the CD

59 u-H)W] core can be described by a variety of resonance structures, some of which possess multiple bon

60 The indolo[3,2-b]carbazole core has a larger resonance structure that includes 3 phenyl rings, and th

61 species by disrupting the equilibrium of the resonance structures that constitutes the proposed CR mo

62 nalized by evaluating the aromaticity of the resonance structures that contribute to spin-delocalizat

63 s, and capable of supporting tunable plasmon resonance structures that span the entire visible spectr

64 ed in these transformations are described by resonance structures that suggest beta-elimination.

65 In these charge-separated resonance structures, the uranium center is oxidized to

66 In the CheA(S) 'P1-CheZ nuclear magnetic resonance structure, these residues form an interaction

67 sures the stabilization from the most stable resonance structure to the delocalized energy-minimum st

68 rpes virus zinc ring domain nuclear magnetic resonance structure was used for homology-based modeling

69 (one pi and three sigma MOs), an analysis of resonance structures was performed for the O(h)Al(6)(2-)

70 g Na(V)1.5 carboxy terminus nuclear magnetic resonance structure, we construct a model of the predict

71 preferential oxidation of a cyclohexadienyl resonance structure with the unpaired electron localized