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.

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Journal

Chemical Reviews

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Citation weight

TierA
Weight in force
Weightingoff

Weight inputs

Each figure with its percentile among the ranked journals. A is the median, over the academics with a work here, of that academic’s citations to the works this site counts for them - never a Google Scholar profile total. Over every academic of this field, all years, whatever the filters select.

A · academics’ median14,244.0 · 62%
B · citations per work897.6 · 99%
N · works74 · 63%
P · academics49 · 91%
Formula result1.172

From this institution

Under these filters. A work with no citation count is unknown here, never a zero.

Works56
Citations47,271 over 54 of 56 works
Citations per counted work875.4
Weighted citations
Academics35
Departments7
First seen1986

Works placed per year

56 of these 56 works carry a year; an undated work is in no year. Works placed, under these filters.

Departments publishing there 7

DepartmentWorks
Princeton Chemistry14
Yale Chemistry14
Penn Chemistry12
Brown Chemistry9
Cornell Chemistry5
Harvard Chemistry3
Dartmouth Chemistry2

A work held by two departments counts once in each, so these add up to more than the works above.

Works placed there 56

YearTitleAcademicsCitations
2013Visible light photoredox catalysis with transition metal complexes: applications in organic synthesisDavid MacMillan10,495
2010Rhodium-Catalyzed C-C Bond Formation via Heteroatom-Directed C-H Bond ActivationJon Ellman3,913
2008Metals in neurobiology: probing their chemistry and biology with molecular imagingChristopher J. Chang2,410
1996Synthesis and Applications of Small Molecule LibrariesJon Ellman2,151
2010The thermochemistry of proton-coupled electron transfer reagents and its implicationsJames Mayer1,950
2006Water-splitting chemistry of photosystem IIGary Brudvig1,865
2022Metallaphotoredox: the merger of photoredox and transition metal catalysisDavid MacMillan · Marissa Lavagnino1,826
2002Nitric oxide donors: chemical activities and biological applicationsMing Xian1,708
2017Structural and chemical biology of terpenoid cyclasesDavid W. Christianson1,406
2010Synthesis and Applications of tert-ButanesulfinamideJon Ellman1,353
2015Molecular catalysts for water oxidationGary Brudvig1,297
2018In Vivo PhotopharmacologyDirk Trauner1,068
2010Theory of coupled electron and proton transfer reactionsSharon Hammes-Schiffer979
2006Structural biology and chemistry of the terpenoid cyclasesDavid W. Christianson955
2019Electrically-transduced chemical sensors based on two-dimensional nanomaterialsKatherine A. Mirica856
2005Role of Water in Electron-Initiated Processes and Radical Chemistry: Issues and Scientific AdvancesLai-Sheng Wang · Mark Johnson818
2017First-Principles Models for van der Waals Interactions in Molecules: Concepts, Theory, and ApplicationsRobert A. DiStasio Jr.796
2018Oxygen reduction by homogeneous molecular catalysts and electrocatalystsJames Mayer742
2005All-Metal Aromaticity and AntiaromaticityLai-Sheng Wang741
2017Transition-Metal-Catalyzed C–H Bond Addition to Carbonyls, Imines, and Related Polarized π BondsJon Ellman726
2016Organic Phase Syntheses of Magnetic Nanoparticles and Their ApplicationsShouheng Sun696
2016Hydrogenase enzymes and their synthetic models: The role of metal hydridesSharon Hammes-Schiffer692
2022Photochemical and Electrochemical Applications of Proton-Coupled Electron Transfer in Organic SynthesisRobert Knowles604
2022Electrocatalysis in alkaline media and alkaline membrane-based energy technologiesRobert A. DiStasio Jr. · Sharon Hammes-Schiffer · Yao Yang554
2022Free energies of proton-coupled electron transfer reagents and their applicationsJames Mayer526
2004Synthetic Models for Heme-Copper Oxidases.Eunsuk Kim525
2006Protein folding thermodynamics and dynamics: where physics, chemistry and biology meetEugene I. Shakhnovich487
2007A Chemistry Green Approach to Asymmetric Catalysis: Solvent-Free and Highly Concentrated ReactionsPatrick J. Walsh444
2021Magnetic Nanoparticles: Synthesis, Anisotropy, and ApplicationsShouheng Sun389
2022Theoretical modeling of electrochemical proton-coupled electron transferSharon Hammes-Schiffer357
2005Biosynthetic and Biomimetic ElectrocyclizationsDirk Trauner354
1986Synthetically useful reactions with metal boride and aluminide catalystsBruce Ganem351
2021The Biologically Relevant Coordination Chemistry of Iron and Nitric Oxide: Electronic Structure and Reactivity.Eunsuk Kim307
2014Hydrogen tunneling in enzymes and biomimetic modelsSharon Hammes-Schiffer298
2014Biological Macromolecules at Interfaces Probed by Chiral Sum Frequency Generation SpectroscopyE. Chui-Ying Yan298
2015Histones: At the Crossroads of Peptide and Protein ChemistryTom Muir281
2017Methods Utilizing First-Row Transition Metals in Natural Product Total Synthesis.Timothy Newhouse269
2020Quantitative structure–selectivity relationships in enantioselective catalysis: past, present, and futureAndrew Zahrt240
2003Use of Achiral and Meso Ligands to Convey Asymmetry in Asymmetric CatalysisPatrick J. Walsh229
2010Introduction: Proton-coupled electron transferSharon Hammes-Schiffer228
2020Multicomponent quantum chemistry: Integrating electronic and nuclear quantum effects via the nuclear-electronic orbital methodSharon Hammes-Schiffer216
2001De Novo Proteins From Combinatorial LibrariesMichael Hecht145
2024Charge Transfer from Quantum- Confined 0D, 1D, and 2D NanocrystalsTianquan “Tim” Lian141
2019Paranemic Crossover DNA: There and Back AgainMegan Kizer107
2024Aryne chemistry: generation methods and reactions incorporating multiple arynesDavid M. Chenoweth82
2019Introduction: chemical sensorsKatherine A. Mirica80
2025The Impact of Electric Fields on Processes at Electrode InterfacesTianquan “Tim” Lian74
2024Coherence in chemistry: Foundations and frontiersEric Arsenault72
2024Opportunities for Therapeutic Modulation of O-GlcNAcChristina Woo50
2025Synthetic lipid biologyJeremy M. Baskin35
2018Introduction: Optogenetics and PhotopharmacologyDirk Trauner31
2020Introduction: Reactivity of Nitrogen from the Ground to the AtmospherePatrick Holland29
2025Walking through Hilbert space with quantum computersJoonho Lee22
2008Introduction: Chemical Approaches to NeurobiologyDirk Trauner3
2017Capturing Chemistry in Action with Electrons: Realization of Atomically Resolved Reaction DynamicsPeter Weber
2019Introduction: Computational design of catalysts from molecules to materialsSharon Hammes-Schiffer

Citations as counted, before any journal weight: 54 of these 56 works carry a count, and a work with no count is unknown, never a zero.