EPR spectroscopy of MRI-related Gd(III) complexes: simultaneous analysis of multiple frequency and temperature spectra, including static and transient crystal field effects.
about
Synthesis and complexation properties of DTPA-N,N''-bis[bis(n-butyl)]-N'-methyl-tris(amide). Kinetic stability and water exchange of its Gd3+ complex.NMR paramagnetic relaxation due to the S=5/2 complex, Fe(III)-(tetra-p-sulfonatophenyl)porphyrin: central role of the tetragonal fourth-order zero-field splitting interaction.Electronic relaxation of paramagnetic metal ions and NMR relaxivity in solution: critical analysis of various approaches and application to a Gd(III)-based contrast agent.Positively charged GdIII cryptates: slow, associative water exchange.Direct calculation of (1)H(2)O T(1) NMRD profiles and EPR lineshapes for the electron spin quantum numbers S = 1, 3/2, 2, 5/2, 3, 7/2, based on the stochastic Liouville equation combined with Brownian dynamics simulation.Synthesis, complexation and water exchange properties of Gd(III)-TTDA-mono and bis(amide) derivatives and their binding affinity to human serum albumin.A gadolinium-binding cyclodecapeptide with a large high-field relaxivity involving second-sphere water.Enhancement of the water proton relaxivity by trapping Gd3+ complexes in nanovesicles.EPR assessment of protein sites for incorporation of Gd(III) MRI contrast labelsJoint analysis of ESR lineshapes and 1H NMRD profiles of DOTA-Gd derivatives by means of the slow motion theory.Towards the rational design of MRI contrast agents: electron spin relaxation is largely unaffected by the coordination geometry of gadolinium(III)-DOTA-type complexes.Electron paramagnetic resonance: a powerful tool to support magnetic resonance imaging research.Time domain simulation of Gd3+-Gd3+ distance measurements by EPR.EPR detected polarization transfer between Gd3+ and protons at low temperature and 3.3 T: the first step of dynamic nuclear polarization.Lanthanide(III) complexes of DOTA-glycoconjugates: a potential new class of lectin-mediated medical imaging agents.The effect of pyridinecarboxylate chelating groups on the stability and electronic relaxation of gadolinium complexes.Quantitative interpretation of the very fast electronic relaxation of most Ln3+ ions in dissolved complexes.An ab initio CASSCF study of zero field splitting fluctuations in the octet ground state of aqueous [Gd(iii)(HPDO3A)(H2O)].Systematic theoretical investigation of the zero-field splitting in Gd(III) complexes: wave function and density functional approaches.Stochastic Liouville equation treatment of the electron paramagnetic resonance line shape of an S-state ion in solution.Tetranuclear Zn/4f coordination clusters as highly efficient catalysts for Friedel-Crafts alkylation.Effect of Magnetic Coupling on Water Proton Relaxivity in a Series of Transition Metal GdIII Complexes.In VivoImaging of Nitric Oxide by Magnetic Resonance Imaging Techniques
P2860
Q30982382-1D416B63-2D81-44E4-B7F7-88E7EED7339CQ30990715-5E76B497-F61C-4CE2-B074-079A748A39A7Q31028891-3E716B00-8C0E-49C4-8B11-B1604B652CC8Q31029124-85C48FDD-F534-47D2-9061-0DDA458722E9Q31097014-DB50138B-616E-4442-A8A3-EE74634E775AQ33288854-4DC8D013-7598-4D90-8957-482542A3A587Q33469735-B9A4E2D5-2BF5-45E9-9CC3-4C89FB3D5981Q33633276-B10BDE1F-E945-4A70-BDB5-91CAC4A10C34Q34680348-0CB1D01A-F88A-447F-9C8C-AFED2A4FCC66Q35284261-1822E537-3822-4AB6-96F3-9549A6624BE9Q37360011-96762775-2013-4F1C-9B08-20DDF04EDFD3Q38264293-0607577C-EB13-4277-B8FD-9CD8023AE861Q38648770-AEA394A2-46D4-4FE5-AAE6-A37248B781D2Q43042950-07121B35-28CD-4C5E-B84A-43D54BD742D1Q45097134-EE0C1640-3C6A-41B8-8307-4F7B45307F1CQ45288244-7569E98E-908F-4AFD-966C-5DDDF4E5B2B5Q46388731-56723D19-A8D5-402A-B5DB-C3345A9A7F08Q47230863-71C1F8C6-9D99-4454-9568-01E6229CDB42Q50972104-E7FE2902-1884-4F31-98B8-0545770B2737Q51922246-E0D07509-8ACA-431C-B58F-BA165EE15270Q53088535-7CF92F65-6C73-42FC-8785-6AEE61B231C0Q55313876-5F45F5F5-AC7D-46DF-A791-707B3325544AQ59060442-0BE197DF-9FF3-474E-8CFC-3CC535395EC2
P2860
EPR spectroscopy of MRI-related Gd(III) complexes: simultaneous analysis of multiple frequency and temperature spectra, including static and transient crystal field effects.
description
2001 nî lūn-bûn
@nan
2001年の論文
@ja
2001年学术文章
@wuu
2001年学术文章
@zh
2001年学术文章
@zh-cn
2001年学术文章
@zh-hans
2001年学术文章
@zh-my
2001年学术文章
@zh-sg
2001年學術文章
@yue
2001年學術文章
@zh-hant
name
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@en
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@nl
type
label
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@en
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@nl
prefLabel
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@en
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@nl
P2093
P356
P1476
EPR spectroscopy of MRI-relate ...... ansient crystal field effects.
@en
P2093
P304
P356
10.1021/JA003707U
P407
P577
2001-03-01T00:00:00Z