Graeme Henkelman
· ProfessorUniversity of Texas at Austin · Chemistry
Active 1999–2026
Academic metrics are sourced from OpenAlex and public funding records; values may differ from Google Scholar.
About
Graeme Henkelman is the George W. Watt Centennial Professor at the University of Texas. His contact information includes his email henkelman@utexas.edu, office location WEL 3.160, and phone number (512) 769-3180. The page indicates his role as a professor and his association with the university, but does not provide specific details about his research focus, background, or key contributions.
Research topics
- Chemistry
- Organic chemistry
- Materials science
- Inorganic chemistry
- Physical chemistry
- Nanotechnology
- Photochemistry
- Chemical engineering
- Computer Science
- Optics
Selected publications
Advanced Materials · 2020 · 378 citations
O), with an electron efficiency of up to 70%, and these values are 54-fold, 98-fold, and 160-fold higher than for NZVI, respectively. These findings can guide the rational design of robust SNZVI with properties tailored for specific application scenarios.
Nature Communications · 2022 · 368 citations
in acidic conditions. Moreover, the catalyst preparation can be easily scaled up to gram-level per batch. The present approach highlights the concept of constructing single noble metal atoms incorporated cost-effective metal oxides catalysts for practical applications.
Journal of the American Chemical Society · 2020 · 280 citations
Metal–nitrogen–carbon (M–N–C) single-atom catalysts (SACs) show high catalytic activity for many important chemical reactions. However, an understanding of their intrinsic catalytic activity remains ambiguous because of the lack of well-defined atomic structure control in current M–N–C SACs. Here, we use covalent organic framework SACs with an identical metal coordination environment as model catalysts to elucidate the intrinsic catalytic activity of various metal centers in M–N–C SACs. A pH-uni…
ACS Catalysis · 2020 · 95 citations
Senior authorCorrespondingNitrite (NO2–) is an abundant contaminant in nature that threatens human health. A catalytic process that converts NO2– to less harmful products has been proven to be an effective strategy for NO2– removal. Most previous studies, however, targeted selectivity toward N2 using Pd catalysts, which severely limits the potential for the recovery of value-added byproducts from the catalytic process. Here, we report experimental and theoretical evidence that both Ir and CuxIr(100–x) nanoparticles posse…
PdAg Alloy Nanocatalysts: Toward Economically Viable Nitrite Reduction in Drinking Water
ACS Catalysis · 2020 · 88 citations
Nitrite (NO2–) is the primary reduction product of nitrate (NO3–), which is the most predominant contaminant in global freshwater. Both species present major environmental challenges; NO2– is also highly toxic to humans. Available technologies for the removal of NO3– and NO2– from potable water are hampered by a number of issues, which limit their widespread usage. Catalytic degradation of NO3– and NO2– is a potentially disruptive technology. However, the high cost of palladium metal required fo…
Recent grants
Beyond harmonic transition state theory for accelerating molecular dynamics
NSF · $492k · 2012–2016
CAREER: Methods for Calculating Molecular Dynamics over Long Time Scales
NSF · $555k · 2007–2013
Collaborative Research: CDS&E: Experimentally verified nano-oxidation simulations of Cu surfaces
NSF · $315k · 2014–2018
Frequent coauthors
- 57 shared
Hao Li
Tohoku University
- 49 shared
Penghao Xiao
Dalhousie University
- 45 shared
C. Buddie Mullins
The University of Texas at Austin
- 43 shared
Richard M. Crooks
Antrim Area Hospital
- 41 shared
Kihyun Shin
- 36 shared
Hannes Jónsson
- 35 shared
Simon M. Humphrey
The University of Texas at Austin
- 33 shared
Naman Katyal
The University of Texas at Austin
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