about
Fragmentation of transition metal carbonyl cluster anions: structural insights from mass spectrometryDirect observation of key intermediates by negative-ion electrospray ionisation mass spectrometry in palladium-catalysed cross-coupling.Electron ionization mass spectrometric analysis of air- and moisture-sensitive organometallic compounds.Real-time analysis of Pd2(dba)3 activation by phosphine ligands.Oxidation of Titanocene(III): The Deceptive Simplicity of a Color Change.Charged ligands for catalyst immobilisation and analysis.Oxidation of Methylalumoxane Oligomers.Practical approaches to the ESI-MS analysis of catalytic reactions.Holding onto lots of hydrogen: a 12-hydride rhodium cluster that reversibly adds two molecules of H2.Phenol-selective mass spectrometric analysis of jet fuel.Fixed-charge phosphine ligands to explore gas-phase coinage metal-mediated decarboxylation reactions.Selective mass spectrometric analysis of thiols using charge-tagged disulfides.Determination of n-Alkanes in Jet Fuel by Cold-electron Ionization Gas Chromatography–Mass SpectrometryMass Spectrometric and Theoretical Study of Polyiodides: The Connection between Solid State, Solution, and Gas PhasesEnergy-dependent Electrospray Ionisation Mass Spectrometry of Carbonyl ClustersHydrogen Sponge? A Heteronuclear Cluster That Absorbs Large Quantities of HydrogenAn Octahedral Rhodium Cluster with Six Phosphine and 12 Hydride Ligands and 10 Too Few ElectronsDirect probe electrospray (and nanospray) ionization mass spectrometry of neat ionic liquidsA Strategy for Generating Naked-Metal Clusters for Gas-Phase Reactivity Studies by FTICR–MSAnalysis of Coordination and Organometallic Compounds Using Photoionisation Mass Spectrometric TechniquesDirect analysis of catalysts immobilised in ionic liquids using electrospray ionisation ion trap mass spectrometryOn the use of breakdown graphs combined with energy-dependent mass spectrometry to provide a complete picture of fragmentation processesQ60212759Mass Spectrometric Method for the Rapid Characterization of Transition Metal Carbonyl Cluster Reaction MixturesQ60212766Insights into the elimination of HCHO from the clusters [Mn(CO)m(COOMe)]− (Mn = Ru6C, m = 16; Mn = Rh6, m = 15) provided by electrospray mass spectrometry †Reactivity and Characterization of Transition-Metal Carbonyl Clusters Using UV Laser Desorption Mass SpectrometryElectrospray mass spectrometric analysis of neutral metal carbonyl complexes by derivatisation with alkoxide ionsIonic liquids enable electrospray ionisation mass spectrometry in hexane.Proton sponge phosphines: electrospray-active ligandsDirect observation of ion evaporation from a triply charged nanodropletEvidence of asymmetric cation solvation from the instability of [Pb(H2O)n]2+ complexesDistannoxane speciation during esterification catalysis: revealing insights provided by electrospray ionization mass spectrometryPowerful insight into catalytic mechanisms through simultaneous monitoring of reactants, products, and intermediatesMass spectrometric characterization of methylaluminoxane-activated metallocene complexesA mechanistic investigation of hydrodehalogenation using ESI-MSA detailed kinetic analysis of rhodium-catalyzed alkyne hydrogenationStep-by-step real time monitoring of a catalytic amination reactionCompetitive Ligand Exchange and Dissociation in Ru Indenyl ComplexesIonization methods for the mass spectrometry of organometallic compounds
P50
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P50
description
researcher ORCID ID = 0000-0001-7073-5246
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wetenschapper
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name
J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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type
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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prefLabel
J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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J. Scott McIndoe
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P1006
P214
P244
P1006
P214
P244
no2001025317
P27
P31
P496
0000-0001-7073-5246
P7859
lccn-no2001025317