On-line LC-NMR and related techniques

On-line LC-NMR and related techniques
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在线 LC-NMR 及相关技术

DOI:
10.1002/0470854820
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发表时间:
2002
期刊:
影响因子:
3.2
通讯作者:
K. Albert
K. Albert
中科院分区:
化学3区
文献类型:
--
作者:
K. Albert

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贡献者。前言。1。LC核磁共振:理论与实验(克劳斯·阿尔伯特)。1.1简介。1.2流动液体中的核磁共振。1.3连续流核磁共振探头的设计。1.4 HPLC - 1H NMR耦合实验布置。1.5实际考虑,溶剂抑制技术,梯度洗脱和HPLC溶剂纯度。引用。2。LC NMR:自动化(Ulrich Braumann和Manfred Spraul)。2.1 LC NMR和LC NMR/MS的实际应用。2.2 LC NMR的不同工作模式。2.3质谱法在设置中的使用。2.4测量程序。2.5结论。引用。3。HPLC NMR和HPLC NMR MS的生物医学和制药应用(John C. Lindon, Jeremy K. Nicholson和Ian D. Wilson)。3.1简介。3.2技术和操作概述。3.3在组合化学中的应用。3.4在化学杂质方面的应用。3.5在药物混合物的手性分离方面的应用。3.6在天然产物方面的应用。3.7在药物葡糖苷类药物的化学反应性方面的应用。3.8在无效去乙酰化反应方面的应用。3.9在活性中间体的捕获方面的应用。3.10在植物吸收和转化异种生物方面的应用。3.11分离用高效液相色谱-核磁共振表征脂蛋白。3.12药物的过热水高效液相色谱核磁共振和高效液相核磁共振质谱研究。3.13超氧化在非甾体类抗炎药混合物中的应用。3.14结语。引用。4。在线LC核磁共振及相关技术在药物代谢研究中的应用(John P. Shockcor)。4.1简介。4.2液相核磁共振技术。4.3液相核磁共振质谱在药物代谢中的应用:用液相核磁共振质谱分析大鼠尿液中依非韦伦代谢产物的结构引用。5。5.1 LC核磁共振和LC核磁共振质谱连字在天然产物分析中的应用(Martin Sandvoss)。参考文献5.2用于分析功能性食品和生物组织中几何类胡萝卜素异构体的现代提取技术与LC NMR的连字(Tobias Glaser和Klaus Albert)。引用。6。环境分析中的LC NMR (Alfred Preiss和Markus Godejohann)。6.1简介。6.2目标与非目标分析。6.3非目标分析中的LC - NMR耦合。6.4 LC - NMR与LC - MS结合在环境样品中的应用。6.5环境过程的模拟。6.6结论。引用。7。相关技术介绍。7.1 GPC核磁共振耦合(Heidrun Handel和Klaus Albert)。参考文献7.2 SFC核磁共振和SFE核磁共振(Holger Fischer和Klaus Albert)。7.3纳升核磁共振。8. 8.1 HPLC - 13C NMR (Klaus Albert)。8.2平行核磁共振探测(Andrew G. Webb, Jonathan V. Sweedler和Daniel Raftery)。结束语(克劳斯·艾伯特)。索引。
Contributors. Preface. 1. LC NMR: Theory and Experiment (Klaus Albert). 1.1 Introduction. 1.2 NMR in a Flowing Liquid. 1.3 Design of Continuous Flow NMR Probes. 1.4 Experimental Arrangement for HPLC 1H NMR Coupling. 1.5 Practical Considerations, Solvent Suppression Techniques, Gradient Elution and Purity of HPLC Solvents. References. 2. LC NMR: Automation (Ulrich Braumann and Manfred Spraul). 2.1 Practical Use of LC NMR and LC NMR/MS. 2.2 Different Working Modes in LC NMR. 2.3 Use of Mass Spectrometry in the Set Up. 2.4 Measurement Procedures. 2.5 Conclusions. References. 3. Biomedical and Pharmaceutical Applications of HPLC NMR and HPLC NMR MS (John C. Lindon, Jeremy K. Nicholson and Ian D. Wilson). 3.1 Introduction. 3.2 Technical and Operational Overview. 3.3 Applications in Combinatorial Chemistry. 3.4 Application to Chemical Impurities. 3.5 Application to Chiral Separations of Pharmaceutical Mixtures. 3.6 Application to Natural Products. 3.7 Application to Chemical Reactivity of Drug Glucuronides. 3.8 Application to Futile Deacetylation Reactions. 3.9 Application to Trapping of Reactive Intermediates. 3.10 Application to Uptake and Transformation of Xenobiotics by Plants. 3.11 Separation of Lipoproteins and their Characterisation using HPLC NMR. 3.12 Superheated Water HPLC NMR and HPLC NMR MS Studies on Pharmaceuticals. 3.13 Application of Hypernation to a Mixture of Non Steroidal Anti Inflammatory Drugs. 3.14 Concluding Remarks. References. 4. Application of On Line LC NMR and Related Techniques to Drug Metabolism Studies (John P. Shockcor). 4.1 Introduction. 4.2 LC NMR Techniques. 4.3 Application of LC NMR MS to Drug Metabolism: The Structure Elucidation of Rat Urinary Metabolites of Efavirenz by LC NMR MS. Conclusions. References. 5. LC NMR for Natural Products Analysis. 5.1 Application of LC NMR and LC NMR MS Hyphenation to Natural Products Analysis (Martin Sandvoss). References. 5.2 Hyphenation of Modern Extraction Techniques to LC NMR for the Analysis of Geometrical Carotenoid Isomers in Functional Food and Biological Tissues (Tobias Glaser and Klaus Albert). References. 6. LC NMR in Environmental Analysis (Alfred Preiss and Markus Godejohann). 6.1 Introduction. 6.2 Target and Non Target Analysis. 6.3 LC NMR Coupling in Non Target Analysis. 6.4 Application of LC NMR and LC NMR in Combination with LC MS to Environmental Samples. 6.5 Simulation of Environmental Processes. 6.6 Conclusions. References. 7. Related Techniques Introduction. 7.1 GPC NMR Coupling (Heidrun Handel and Klaus Albert). References. 7.2 SFC NMR and SFE NMR (Holger Fischer and Klaus Albert). 7.3 Nanoliter NMR. 8. Future Developments Introduction. 8.1 HPLC 13C NMR (Klaus Albert). 8.2 Parallel NMR Detection (Andrew G. Webb, Jonathan V. Sweedler and Daniel Raftery). Concluding Remarks (Klaus Albert). Index.