Natural abundance "0 NMR was studied in ClOaF, CIO,, CIOT3. ClOzr' and C102AsF6 as pure liquids or in solution. Chemiwl shifts are reported for all these compounds. In C103I'. a line shape analysis and a longitudmal relaxation mcxurement gives the indirect coupling constant J(Cl-"0) = 108 f 5 Hz and
✦ LIBER ✦
17O Nuclear Magnetic Relaxation in a Protein–Water System
✍ Scribed by GLASEL, JAY A.
- Book ID
- 109662937
- Publisher
- Nature Publishing Group
- Year
- 1968
- Tongue
- English
- Weight
- 410 KB
- Volume
- 218
- Category
- Article
- ISSN
- 0028-0836
- DOI
- 10.1038/218953a0
No coin nor oath required. For personal study only.
📜 SIMILAR VOLUMES
17O Nuclear magnetic resonance and relax
✍
J. Virlet; G. Tantot
📂
Article
📅
1976
🏛
Elsevier Science
🌐
English
⚖ 299 KB
Nuclear magnetic relaxation of water in
✍
W.E. Roorda; J. de Bleyser; H.E. Junginger; J.C. Leyte
📂
Article
📅
1990
🏛
Elsevier Science
🌐
English
⚖ 665 KB
Water–proton nuclear magnetic relaxation
✍
Cathy Coolbaugh Lester; Robert G. Bryant
📂
Article
📅
1991
🏛
John Wiley and Sons
🌐
English
⚖ 727 KB
## Abstract Spin‐lattice relaxation rates of water protons in hydrated immobilized lysozyme are measured as a function of magnetic field strength. The dependence of water relaxation versus hydration is presented from 35 to 55% by weight water content. The water‐proton relaxation is directly coupled
A H, D, and 17O Nuclear magnetic relaxat
✍
J.R.C van Der Maarel
📂
Article
📅
1989
🏛
Elsevier Science
⚖ 824 KB
Nuclear magnetic resonance transverse re
✍
Fung, B.M.; Puon, P.S.
📂
Article
📅
1981
🏛
Biophysical Society
🌐
English
⚖ 789 KB
Nuclear magnetic relaxation studies of w
✍
J.M Escanyé; D Canet; J Robert
📂
Article
📅
1984
🏛
Elsevier Science
⚖ 739 KB