David W. Flaherty

6.4k total citations
113 papers, 5.4k citations indexed

About

David W. Flaherty is a scholar working on Materials Chemistry, Catalysis and Inorganic Chemistry. According to data from OpenAlex, David W. Flaherty has authored 113 papers receiving a total of 5.4k indexed citations (citations by other indexed papers that have themselves been cited), including 81 papers in Materials Chemistry, 48 papers in Catalysis and 37 papers in Inorganic Chemistry. Recurrent topics in David W. Flaherty's work include Catalytic Processes in Materials Science (50 papers), Catalysis and Oxidation Reactions (40 papers) and Zeolite Catalysis and Synthesis (29 papers). David W. Flaherty is often cited by papers focused on Catalytic Processes in Materials Science (50 papers), Catalysis and Oxidation Reactions (40 papers) and Zeolite Catalysis and Synthesis (29 papers). David W. Flaherty collaborates with scholars based in United States, South Korea and Germany. David W. Flaherty's co-authors include Daniel T. Bregante, C. Buddie Mullins, Enrique Iglesia, Neil M. Wilson, Takahiko Moteki, David Hibbitts, Nathan Hahn, Jason S. Adams, E. Zeynep Ayla and David S. Potts and has published in prestigious journals such as Science, Journal of the American Chemical Society and Chemical Society Reviews.

In The Last Decade

David W. Flaherty

110 papers receiving 5.3k citations

Peers — A (Enhanced Table)

Peers by citation overlap · career bar shows stage (early→late) cites · hero ref

Name h Career Trend Papers Cites
David W. Flaherty United States 43 3.4k 1.8k 1.6k 1.2k 1.1k 113 5.4k
Shinya Furukawa Japan 43 3.6k 1.1× 2.0k 1.2× 2.0k 1.3× 1.5k 1.2× 1.1k 1.0× 140 6.1k
Mi Peng China 39 4.4k 1.3× 2.6k 1.5× 2.4k 1.5× 1.0k 0.8× 969 0.9× 81 6.2k
Hiroyuki Asakura Japan 39 4.2k 1.2× 2.7k 1.6× 1.4k 0.9× 850 0.7× 1.1k 1.0× 139 6.4k
Gianvito Vilé Italy 35 4.1k 1.2× 2.4k 1.4× 1.4k 0.9× 1.6k 1.3× 867 0.8× 88 6.0k
Víctor A. de la Peña O’Shea Spain 48 4.4k 1.3× 2.9k 1.6× 1.3k 0.9× 1.2k 1.0× 1.1k 1.0× 187 6.9k
Huilin Wan China 45 5.5k 1.6× 2.2k 1.3× 3.1k 2.0× 1.6k 1.3× 967 0.9× 275 7.8k
Georgios Kyriakou United Kingdom 32 2.8k 0.8× 1.2k 0.7× 1.3k 0.8× 525 0.4× 1.1k 1.0× 91 4.8k
Peter P. Wells United Kingdom 35 3.4k 1.0× 2.1k 1.2× 1.9k 1.2× 541 0.4× 809 0.7× 91 5.2k
Neil M. Schweitzer United States 30 3.7k 1.1× 1.5k 0.9× 1.7k 1.1× 1.8k 1.4× 698 0.6× 52 4.7k
Rinaldo Psaro Italy 45 4.5k 1.3× 2.4k 1.4× 1.5k 1.0× 1.6k 1.3× 1.0k 1.0× 189 7.4k

Countries citing papers authored by David W. Flaherty

Since Specialization
Citations

This map shows the geographic impact of David W. Flaherty's research. It shows the number of citations coming from papers published by authors working in each country. You can also color the map by specialization and compare the number of citations received by David W. Flaherty with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites David W. Flaherty more than expected).

Fields of papers citing papers by David W. Flaherty

Since Specialization
Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by David W. Flaherty. Nodes represent research fields, and links connect fields that are likely to share authors. Colored nodes show fields that tend to cite the papers produced by David W. Flaherty. The network helps show where David W. Flaherty may publish in the future.

Co-authorship network of co-authors of David W. Flaherty

This figure shows the co-authorship network connecting the top 25 collaborators of David W. Flaherty. A scholar is included among the top collaborators of David W. Flaherty based on the total number of citations received by their joint publications. Widths of edges represent the number of papers authors have co-authored together. Node borders signify the number of papers an author published with David W. Flaherty. David W. Flaherty is excluded from the visualization to improve readability, since they are connected to all nodes in the network.

All Works

20 of 20 papers shown
1.
Zhang, Zhongyao, et al.. (2025). Titanosilicate topology governs aldol condensation product distributions and reaction networks. Journal of Catalysis. 446. 116072–116072.
2.
Adams, Jason S., et al.. (2025). Intentional Formation of Persistent Surface Redox Mediators by Adsorption of Polyconjugated Carbonyl Complexes to Pd Nanoparticles. Journal of the American Chemical Society. 147(20). 16885–16900. 2 indexed citations
3.
Sibal, Adam P., et al.. (2024). Setting benchmarks for ethylene and propylene oxidation via electrochemical routes: a process design and technoeconomic analysis approach. Green Chemistry. 26(17). 9455–9475. 4 indexed citations
4.
Torres, Chris, et al.. (2024). Solvent stabilization of alkene epoxidation transition states within Ti-MFI: Interactions near and far from active sites. Journal of Catalysis. 429. 115288–115288. 2 indexed citations
5.
Kim, Yongwoo, et al.. (2024). Formation of acetonitrile and ethylene from activation of ethane over cobalt-exchanged aluminosilicates: Active sites and reaction pathways. Applied Catalysis B: Environmental. 359. 124513–124513. 1 indexed citations
6.
Lu, Jiong, et al.. (2024). Alkene Epoxidation and Oxygen Evolution Reactions Compete for Reactive Surface Oxygen Atoms on Gold Anodes. Journal of the American Chemical Society. 147(2). 1482–1496. 8 indexed citations
7.
Adams, Jason S., et al.. (2024). Distinct Site Motifs Activate O2 and H2 on Supported Au Nanoparticles in Liquid Water. ACS Catalysis. 14(5). 3248–3265. 4 indexed citations
8.
9.
Priyadarshini, Pranjali, et al.. (2022). Spectroscopic Evidence for the Involvement of Interfacial Sites in O–O Bond Activation over Gold Catalysts. ACS Catalysis. 12(15). 9549–9558. 8 indexed citations
10.
Yun, Yang, et al.. (2022). The importance of Brønsted acid sites on C O bond rupture selectivities during hydrogenation and hydrogenolysis of esters. Journal of Catalysis. 411. 212–225. 13 indexed citations
11.
Adams, Jason S., et al.. (2021). Effect of Pd Coordination and Isolation on the Catalytic Reduction of O2 to H2O2 over PdAu Bimetallic Nanoparticles. Journal of the American Chemical Society. 143(14). 5445–5464. 149 indexed citations
12.
Adams, Jason S., Pranjali Priyadarshini, Yubing Lu, et al.. (2021). Solvent molecules form surface redox mediators in situ and cocatalyze O 2 reduction on Pd. Science. 371(6529). 626–632. 100 indexed citations
13.
Bregante, Daniel T., Matthew C. Chan, Jun Zhi Tan, et al.. (2021). The shape of water in zeolites and its impact on epoxidation catalysis. Nature Catalysis. 4(9). 797–808. 103 indexed citations
14.
Bregante, Daniel T., et al.. (2021). Dioxygen Activation Kinetics over Distinct Cu Site Types in Cu-Chabazite Zeolites. ACS Catalysis. 11(19). 11873–11884. 42 indexed citations
15.
16.
Adams, Jason S., et al.. (2021). Unifying Concepts in Electro- and Thermocatalysis toward Hydrogen Peroxide Production. Journal of the American Chemical Society. 143(21). 7940–7957. 75 indexed citations
17.
Bregante, Daniel T., Alayna M. Johnson, E. Zeynep Ayla, et al.. (2019). Cooperative Effects between Hydrophilic Pores and Solvents: Catalytic Consequences of Hydrogen Bonding on Alkene Epoxidation in Zeolites. Journal of the American Chemical Society. 141(18). 7302–7319. 176 indexed citations
18.
Cordon, Michael J., James W. Harris, Juan Carlos Vega‐Vila, et al.. (2018). Dominant Role of Entropy in Stabilizing Sugar Isomerization Transition States within Hydrophobic Zeolite Pores. Journal of the American Chemical Society. 140(43). 14244–14266. 102 indexed citations
19.
Hibbitts, David, David W. Flaherty, & Enrique Iglesia. (2015). Role of Branching on the Rate and Mechanism of C–C Cleavage in Alkanes on Metal Surfaces. ACS Catalysis. 6(1). 469–482. 52 indexed citations
20.
Yan, Ting, et al.. (2012). CO oxidation on inverse Fe₂O₃/Au(111) model catalysts. Journal of Catalysis. 1 indexed citations

Rankless uses publication and citation data sourced from OpenAlex, an open and comprehensive bibliographic database. While OpenAlex provides broad and valuable coverage of the global research landscape, it—like all bibliographic datasets—has inherent limitations. These include incomplete records, variations in author disambiguation, differences in journal indexing, and delays in data updates. As a result, some metrics and network relationships displayed in Rankless may not fully capture the entirety of a scholar's output or impact.

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