Trackademia

Welcome to Trackademia

The idea behind Trackademia is to build on existing academic databases like Google Scholar and OpenAlex so that you can trust the data and use it for whatever you want. That comes down to two things.

More data, and more ways to use it. We aggregate publication data from every major source into a single dataset and add information pulled from faculty CVs. Then we let you slice it however you want: choose which sources to build from, write your own formulas, weight journals, adjust for department size.

More accurate, and honest about where it isn’t. We focus on a smaller set of schools so we can verify everything carefully. Faculty lists come from department websites rather than being inferred from publication records, so we know who should be in the data before we go looking. When we can’t find data on someone, we record the gap instead of dropping them. Every number comes with a coverage rate you can check against ground truth.

Everything in Trackademia is built from seven units. AI merges duplicate records across sources and tags each publication so these categories hold up:

  • Publication — citation counts, authors, journal, peer review status, and more
  • Publication group — versions of the same work combined into one entity, such as a working paper and the article it became
  • Academic
  • Department
  • University
  • Field
  • Journal

There are two modes. In Database mode you browse the underlying records and filter by any of the seven units. In Analytics mode you get graphs and comparisons, and you switch views to compare two departments, compare one department against the average of the others, or see them all at once. Tabs let you focus on a particular level of the data.
Trackademia
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Academic

James Mayer

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Academic

RankUnknown
As ofnot recorded
DepartmentYale Chemistry
UniversityYale
FieldChemistry
Scholarprofile

Totals

Publications97
Citations21,508
h-index94 · Scholar
Citations per year in post—
Years in postno first year on the CV

Coverage

Works with a count97 of 97
Share100%

Top venues 26 venues

The 8 holding the most of these works; 18 more hold at least one.

Journal of the American Chemical Society48
Inorganic Chemistry10
Accounts of Chemical Research4
Science4
Chemical Reviews3
Chemical Science3
Proceedings of the National Academy of Scienc…3
Angewandte Chemie International Edition2

Publications per year

Works this academic published in each year, by the year each work appeared; an undated work is in no year, and a work two colleagues wrote counts for each of them. The kind, works and year filters decide which works are here at all.

Citations per year

Citations received in each year, from this academic’s verified Scholar profile, which counts every citation to everything they ever wrote: no publication filter reaches this line - not the kinds, not the works switch, not the year window on publication - and no journal weight either. It is a profile total, so it does not match the works listed below.

Publications 97 works

Every work these filters select, most cited first and the works with no count at the end: a work nobody has a figure for is unknown, never a zero to be ranked among the works that have one, and it prints an em dash. Each figure is that work’s own citations - Scholar’s count where there is one, else OpenAlex’s - and is not weighted.

YearTitleVenueKindCitations
2010The thermochemistry of proton-coupled electron transfer reagents and its implicationsChemical Reviewsarticle1,950
2011Understanding hydrogen atom transfer: from bond strengths to Marcus theoryAccounts of Chemical Researcharticle1,046
2004Proton-coupled electron transfer: a reaction chemist's viewAnnual Review of Physical Chemistryarticle1,003
2012A soluble copper–bipyridine water-oxidation electrocatalystNature Chemistryarticle897
2018Oxygen reduction by homogeneous molecular catalysts and electrocatalystsChemical Reviewsarticle742
1998Hydrogen atom abstraction by metal− oxo complexes: Understanding the analogy with organic radical reactionsAccounts of Chemical Researcharticle644
2022Free energies of proton-coupled electron transfer reagents and their applicationsChemical Reviewsarticle526
2012Titanium and zinc oxide nanoparticles are proton-coupled electron transfer agentsSciencearticle475
2002Proton-coupled electron transfer versus hydrogen atom transfer in benzyl/toluene, methoxyl/methanol, and phenoxyl/phenol self-exchange reactionsJournal of the American Chemical Societyarticle456
2018A continuum of proton-coupled electron transfer reactivityAccounts of Chemical Researcharticle335
1988Metal-oxygen multiple bond lengths: a statistical studyInorganic Chemistryarticle327
2015Standard Reduction Potentials for Oxygen and Carbon Dioxide Couples in Acetonitrile and N,N-DimethylformamideInorganic Chemistryarticle325
1995Understanding C-H Bond Oxidations: H⋅ and H- Transfer in the Oxidation of Toluene by PermanganateSciencearticle325
2006Concerted proton− electron transfer in the oxidation of hydrogen-bonded phenolsJournal of the American Chemical Societyarticle297
1978Host-guest complexation. 8. Macrocyclic polyethers shaped by two rigid substituted dinaphthyl or ditetralyl unitsThe Journal of Organic Chemistryarticle295
2004Thermodynamics and kinetics of proton-coupled electron transfer: stepwise vs. concerted pathwaysBiochimica et Biophysica Acta (BBA) - Bioenergeticsarticle278
2012Electrocatalytic oxygen reduction by iron tetra-arylporphyrins bearing pendant proton relaysJournal of the American Chemical Societyarticle276
2012Kinetic and structural studies, origins of selectivity, and interfacial charge transfer in the artificial photosynthesis of COProceedings of the National Academy of Sciencesarticle260
2001Application of the Marcus cross relation to hydrogen atom transfer reactionsSciencearticle253
1988Why are there no terminal oxo complexes of the late transition metals? or The importance of metal–ligand π antibonding interactionsComments on Inorganic Chemistryarticle251
2016Homogenous electrocatalytic oxygen reduction rates correlate with reaction overpotential in acidic organic solutionsACS Central Sciencearticle247
1997Hydrogen atom abstraction by permanganate: oxidations of arylalkanes in organic solventsInorganic Chemistryarticle239
2003Oxidation of C−H Bonds by [(bpy)2(py)RuIVO]2+ Occurs by Hydrogen Atom AbstractionJournal of the American Chemical Societyarticle223
2019Concerted proton-electron transfer reactions in the Marcus inverted regionSciencearticle220
2007Large ground-state entropy changes for hydrogen atom transfer reactions of iron complexesJournal of the American Chemical Societyarticle194
2004One-electron oxidation of a hydrogen-bonded phenol occurs by concerted proton-coupled electron transferJournal of the American Chemical Societyarticle193
2013Controlling carrier densities in photochemically reduced colloidal ZnO nanocrystals: size dependence and role of the hole quencherJournal of the American Chemical Societyarticle185
2020Determining proton-coupled standard potentials and X–H bond dissociation free energies in nonaqueous solvents using open-circuit potential measurementsJournal of the American Chemical Societyarticle181
2019Mechanism of catalytic O2 reduction by iron tetraphenylporphyrinJournal of the American Chemical Societyarticle179
2016Evaluating the Thermodynamics of Electrocatalytic N2 Reduction in AcetonitrileACS Energy Lettersarticle173
2013Do spin state and spin density affect hydrogen atom transfer reactivity?Chemical Sciencearticle172
1994CH bond activation by metal oxo species: Oxidation of cyclohexane by chromyl chlorideJournal of the American Chemical Societyarticle172
2009Oxidatively Induced Reductive Elimination from (tBu2bpy)Pd(Me)2: Palladium(IV) Intermediates in a One-Electron Oxidation ReactionJournal of the American Chemical Societyarticle171
2000Intrinsic barriers for electron and hydrogen atom transfer reactions of biomimetic iron complexesJournal of the American Chemical Societyarticle170
1979Host-guest complexation. 18. Effects on cation binding of convergent ligand sites appended to macrocyclic polyethersJournal of the American Chemical Societyarticle169
2015Medium effects are as important as catalyst design for selectivity in electrocatalytic oxygen reduction by iron–porphyrin complexesJournal of the American Chemical Societyarticle167
1995CH bond activation by metal oxo species: chromyl chloride oxidations of cyclooctane, isobutane, and tolueneJournal of the American Chemical Societyarticle165
2007The first crystal structure of a monomeric phenoxyl radical: 2, 4, 6-tri-tert-butylphenoxyl radicalChemical Communicationsarticle164
1983Hydrogen-transfer reactions which generate new imine, imido, and trimethylenemethane complexes of tantalumJournal of the American Chemical Societyarticle161
2017Molecular Cobalt Catalysts for O2 Reduction: Low-Overpotential Production of H2O2 and Comparison with Iron-Based CatalystsJournal of the American Chemical Societyarticle160
2020The potential economic feasibility of direct electrochemical nitrogen reduction as a route to ammoniaACS Sustainable Chemistry & Engineeringarticle155
2008Probing concerted proton–electron transfer in phenol–imidazolesProceedings of the National Academy of Sciencesarticle155
1987Oxidative addition of carbon dioxide, epoxides, and related molecules to WCl2 (PMePh2) 4 yielding tungsten (IV) oxo, imido, and sulfido complexes. Crystal and…Journal of the American Chemical Societyarticle154
1997Cu K-Edge XAS Study of the [Cu2(μ-O)2] Core: Direct Experimental Evidence for the Presence of Cu(III)Journal of the American Chemical Societyarticle153
1990Oxidative addition of carbon-oxygen and carbon-nitrogen double bonds to WCl2 (PMePh2) 4. Synthesis of tungsten metallaoxirane and tungsten oxo-and imido-alkyli…Journal of the American Chemical Societyarticle153
2023Bonds over electrons: proton coupled electron transfer at solid–solution interfacesJournal of the American Chemical Societyarticle151
2021Oriented Electrostatic Effects on O2 and CO2 Reduction by a Polycationic Iron PorphyrinJournal of the American Chemical Societyarticle149
2001C−N Bond Formation on Addition of Aryl Carbanions to the Electrophilic Nitrido Ligand in TpOs(N)Cl2Journal of the American Chemical Societyarticle149
2002Hydrocarbon oxidation by bis-μ-oxo manganese dimers: Electron transfer, hydride transfer, and hydrogen atom transfer mechanismsJournal of the American Chemical Societyarticle148
2015A Flexible Photoactive Titanium Metal–Organic Framework Based on a [TiIV3(μ3‐O)(O)2(COO)6] ClusterAngewandte Chemie International Editionarticle147
2010Predicting organic hydrogen atom transfer rate constants using the Marcus cross relationProceedings of the National Academy of Sciencesarticle146
1987Oxygen atom transfer among rhenium, sulfur, and phosphorus. Characterization and reactivity of Re (O) Cl3 (Me2S)(OPPh3) and Re (O) Cl3 (CNCMe3) 2Inorganic Chemistryarticle144
2014Direct comparison of electrochemical and spectrochemical kinetics for catalytic oxygen reductionJournal of the American Chemical Societyarticle140
2010Tuning of the thermochemical and kinetic properties of ascorbate by its local environment: solution chemistry and biochemical implicationsJournal of the American Chemical Societyarticle139
1974Models for chiral recognition in molecular complexationJournal of the American Chemical Societyarticle137
2011A simple Marcus-theory type model for hydrogen atom transfer/proton-coupled electron transferThe Journal of Physical Chemistry Lettersarticle136
1990Oxygen atom transfer reactions of cationic rhenium (III), rhenium (V), and rhenium (VII) triazacyclononane complexesInorganic Chemistryarticle134
2013Catalytic disproportionation of formic acid to generate methanol.Angewandte Chemiearticle133
2008Concerted proton–electron transfer in pyridylphenols: The importance of the hydrogen bondAngewandte Chemie International Editionarticle133
2017Identifying and breaking scaling relations in molecular catalysis of electrochemical reactionsJournal of the American Chemical Societyarticle132
2006MPW1K performs much better than B3LYP in DFT calculations on reactions that proceed by proton-coupled electron transfer (PCET)Journal of Chemical Theory and Computationarticle131
2012Distant protonated pyridine groups in water-soluble iron porphyrin electrocatalysts promote selective oxygen reduction to waterChemical Communicationsarticle128
2020Developing scaling relationships for molecular electrocatalysis through studies of Fe-porphyrin-catalyzed O2 reductionAccounts of Chemical Researcharticle127
2017SmI2 (H2O) n reduction of electron rich enamines by proton-coupled electron transferJournal of the American Chemical Societyarticle127
2015Moving protons and electrons in biomimetic systemsBiochemistryarticle127
1999Hydrogen transfer reactivity of a ferric bi-imidazoline complex that models the activity of lipoxygenase enzymesInorganic Chemistryarticle125
2012Using combinations of oxidants and bases as PCET reactants: thermochemical and practical considerationsEnergy & Environmental Sciencearticle121
2023Inverse kinetic isotope effects in the oxygen reduction reaction at platinum single crystalsNature Chemistryarticle118
1985Synthesis, reactions, and electronic structure of low-valent rhenium-oxo compounds. Crystal and molecular structure of Re (O) I (MeC. tplbond. CMe) 2Journal of the American Chemical Societyarticle118
2012Multiple-Site Concerted Proton-Electron Transfer Reactions of Hydrogen-Bonded Phenols are Non-adiabatic and Well Described by Semi-Classical Marcus TheoryJournal of the American Chemical Societyarticle116
2009Trends in ground-state entropies for transition metal based hydrogen atom transfer reactionsJournal of the American Chemical Societyarticle113
1996Phenyl-to-oxo migration in an electrophilic rhenium (VII) dioxo complexJournal of the American Chemical Societyarticle113
1992New Layered Iron‐Lanthanum‐Oxide‐Sulfide and ‐Selenide Phases: Fe2La2O3E2(E = S,Se)Angewandte Chemie International Edition in Englisharticle113
2009Nitroxyl radical plus hydroxylamine pseudo self-exchange reactions: Tunneling in hydrogen atom transferJournal of the American Chemical Societyarticle112
1997Oxidation of Hydrocarbons by [(phen)2Mn(μ-O)2Mn(phen)2]3+ via Hydrogen Atom AbstractionJournal of the American Chemical Societyarticle112
2011Kinetic effects of increased proton transfer distance on proton-coupled oxidations of phenol-aminesJournal of the American Chemical Societyarticle109
1992Reactions of ML4Cl2 (M= Mo, W; L= PMe3, PMePh2) with epoxides, episulfides, carbon dioxide, heterocumulenes, and other substrates: a comparative study of oxida…Journal of the American Chemical Societyarticle108
2017Separating Proton and Electron Transfer Effects in Three-Component Concerted PCET ReactionsJournal of the American Chemical Societyarticle106
1992Photochemical generation of a reactive rhenium (III) oxo complex and its curious mode of cleavage of dioxygenInorganic Chemistryarticle105
2005Alkane oxidation by osmium tetroxideJournal of the American Chemical Societyarticle103
2019Dinitrogen Reduction to Ammonium at Rhenium Utilizing Light and Proton-Coupled Electron TransferJournal of the American Chemical Societyarticle101
2005Oxidations of NADH Analogues by cis-[RuIV(bpy)2(py)(O)]2+ Occur by Hydrogen-Atom Transfer Rather than by Hydride TransferInorganic Chemistryarticle100
2007Synthesis and characterization of ruthenium bis (β-diketonato) pyridine-imidazole complexes for hydrogen atom transferInorganic Chemistryarticle99
1989Tungsten complexes with strong π-donor and π-acceptor ligands: W (E) Cl2 (L)(PR3) 2 (E= O, NR, S, and L= CO, CNR, CH2 CHR and O CHMe)Polyhedronarticle99
2009Slow Hydrogen Atom Transfer Reactions of Oxo-and Hydroxo-Vanadium Compounds: The Importance of Intrinsic BarriersJournal of the American Chemical Societyarticle98
2006Models for proton-coupled electron transfer in photosystem IIPhotosynthesis Researcharticle96
2022Bridge sites of Au surfaces are active for electrocatalytic CO2 reductionJournal of the American Chemical Societyarticle95
2018Acceleration of CO2 Insertion into Metal Hydrides: Ligand, Lewis Acid, and Solvent Effects on Reaction Kinetics.Chemical Sciencearticle95
2017Reactivity of the copper (III)-hydroxide unit with phenolsChemical Sciencearticle95
2012Photocharging ZnO nanocrystals: picosecond hole capture, electron accumulation, and auger recombinationThe Journal of Physical Chemistry Carticle95
2003Electron and hydrogen-atom self-exchange reactions of iron and cobalt coordination complexesJournal of the American Chemical Societyarticle94
2021Bimodal Evans–Polanyi relationships in hydrogen atom transfer from C (sp3)–H bonds to the cumyloxyl radical. A combined time-resolved kinetic and computational…Journal of the American Chemical Societyarticle93
2009Concerted proton-electron transfer in a ruthenium terpyridyl-benzoate system with a large separation between the redox and basic sitesJournal of the American Chemical Societyarticle93
1998Direct attack of phenyl anion at an electrophilic osmium− nitrido ligandJournal of the American Chemical Societyarticle93
2021Interfacial Acid/Base Equilibria and Electric Fields Concurrently Probed by In-Situ Surface-Enhanced Infrared SpectroscopyJournal of the American Chemical Societyarticle92
2008Surprisingly long-lived ascorbyl radicals in acetonitrile: Concerted proton-electron transfer reactions and thermochemistryJournal of the American Chemical Societyarticle92
2004Cumene Oxidation by cis-[RuIV(bpy)2(py)(O)]2+, RevisitedInorganic Chemistryarticle92