ライフサイエンスコーパス: rotational-echo double-resonance

1 lized T4 using (15)N{(31)P} and (31)P{(15)N} rotational-echo double resonance.

2 polarization, double cross-polarization, and rotational-echo double resonance.

3 Cross-polarization magic-angle spinning and rotational-echo double resonance 13C and 15N NMR experim

4 However, rotational-echo double-resonance 13C NMR (with 19F depha

5 ar distances from NMR recoupling techniques, rotational echo double resonance, and rotational resonan

6 A combination of REDOR, rotational-echo double-resonance, and conventional solid

7 ization magic angle spinning (CPMAS) NMR, CP rotational-echo double resonance (CP-REDOR) NMR, and het

8 Double rotational-echo double resonance (double REDOR) has been

9 Double rotational-echo double resonance (double REDOR) NMR was

10 cts between CAP-Gly and tubulin using double rotational echo double resonance (dREDOR)-filtered exper

11 In particular, (13)C-(15)N rotational echo double-resonance experiments in multilam

12 using solid-state nuclear magnetic resonance rotational-echo double-resonance experiments.

13 gment were measured using 13C-15N and 13C-1H rotational-echo double-resonance experiments.

14 Rotational-echo double-resonance measurements demonstrat

15 13C2H rotational echo double resonance NMR has been used to pr

16 cells of S. aureus has been determined using rotational-echo double resonance NMR by measuring intern

17 (13)C{(15)N} and (15)N{(13)C} rotational-echo double resonance NMR measurements determ

18 (13)C-(2)H rotational-echo double-resonance NMR experiments of (13)

19 (15)N[(19)F], (31)P[(15)N], and (31)P[(19)F] rotational-echo double-resonance NMR has been used to ch

20 Rotational-echo double-resonance NMR has been used to de

21 13C[(15)N] and (13)C[(19)F] rotational-echo double-resonance NMR have been used to c

22 Additional heteronuclear rotational-echo double-resonance NMR measurements confir

23 teronuclear correlation and 1D (29)Si{(13)C} rotational-echo double-resonance NMR measurements establ

24 tisfying distance restraints from (13)C-(2)H rotational-echo double-resonance NMR show marked differe

25 A (19)F, (13)C- rotational-echo double-resonance NMR strategy was used t

26 Rotational-echo double-resonance NMR was applied to prob

27 Rotational-echo double-resonance NMR was used to charact

28 cell walls using stable-isotope labeling and rotational-echo double-resonance NMR.

29 vely 13C,15N-labeled fibril samples by using rotational-echo double-resonance NMR.

30 d to the 31P in S3P and Glp were measured by rotational-echo double-resonance NMR.

31 -(93)Nb dipolar coupling using (93)Nb{(31)P} rotational echo double resonance (REDOR) and, for the fi

32 Interestingly, Rotational Echo DOuble Resonance (REDOR) difference spec

33 Finally, (11)B{(31)P} rotational echo double resonance (REDOR) experiments sho

34 By contrast, rotational echo double resonance (REDOR) NMR experiments

35 gically introduced isotopic labels using the rotational echo double resonance (REDOR) NMR method.

36 Rotational echo double resonance (REDOR) NMR spectroscop

37 17O-1H rotational echo double resonance (REDOR) NMR was applied

38 ofrequency-driven recoupling (fpRFDR-CT) and rotational echo double resonance (REDOR) solid-state NMR

39 Using (13)C{(15)N} Rotational Echo DOuble Resonance (REDOR), the structure

40 31P{13C} and (13)C{(31)P} rotational echo double resonance (REDOR)NMR experiments

41 )C multiple-quantum (MQ) NMR and (13)C/(15)N rotational echo double-resonance (REDOR) measurements in

42 r using solid-state rotational resonance and rotational echo double-resonance (REDOR) NMR methods.

43 Rotational-echo double resonance (REDOR) NMR provided in

44 olar recovery at the magic angle (DRAMA) and rotational-echo double resonance (REDOR) to determine in

45 onstrate that the solid-state NMR technique, rotational-echo double resonance (REDOR), can be used to

46 Rotational-echo double-resonance (REDOR) (13)C[(31)P] an

47 Rotational-echo double-resonance (REDOR) 13C NMR spectra

48 The (13)C{(19)F} rotational-echo double-resonance (REDOR) dephasing for t

49 n (13)C-(19)F dipolar coupling measured in a rotational-echo double-resonance (REDOR) experiment perf

50 is is supported by results from (13)C{(19)F} rotational-echo double-resonance (REDOR) experiments on

51 Rotational-echo double-resonance (REDOR) experiments on

52 de residues using (19)F-(13)C and (19)F-(1)H rotational-echo double-resonance (REDOR) experiments.

53 employed a combination of both (15)N{(13)C} rotational-echo double-resonance (REDOR) NMR and (13)C{(

54 The (71)Ga{(1)H} rotational-echo double-resonance (REDOR) NMR and other d

55 CPMAS-echo and rotational-echo double-resonance (REDOR) NMR experiments

56 tion (19)F NMR, and solid state (31)P[(19)F] rotational-echo double-resonance (REDOR) NMR measurement

57 The precision afforded by rotational-echo double-resonance (REDOR) NMR to interrog

58 Solid state rotational-echo double-resonance (REDOR) NMR was used to

59 e cell-wall peptidoglycan were determined by rotational-echo double-resonance (REDOR) NMR.

60 The rotational-echo double-resonance (REDOR) pulse sequence

61 We have used a frequency-selective rotational-echo double-resonance (REDOR) solid-state NMR

62 Since those authors used rotational-echo double-resonance (REDOR) solid-state NMR

63 measure 2D (13)C-(13)C resolved (13)C-(19)F rotational-echo double-resonance (REDOR) spectra that pr

64 The distances are measured using the rotational-echo double-resonance (REDOR) technique under

65 Rotational-echo double resonance solid-state (31)P[(19)F

66 content, while an analysis of (31)P{(1)H} C rotational echo double resonance spectra permitted a dyn