For the latest updates, visit Prof. Burdyny's page on Google Scholar
2025
70. Overcoming copper stability challenges in CO2 electrolysis. J Kok, PP Albertini, J Leemans, R Buonsanti*, T Burdyny*. Nature Reviews Materials (2025)
69. Operando Benchtop NMR Quantifies Carbonation, Water Crossover, and Liquid Products for High-Current Electrochemical CO2 Reduction. Z Zhu, KZ Çolakhasanoĝlu, RLEG Aspers, J Meurs, S Cristescu, T Burdyny, EW Zhao*. ACS Catalysis (2025)
68. Using pseudo-steady-state operation to redefine stability in CO2 electrolysis. T Burdyny*. Nature Chemical Engineering (2025)
67. Scaling and heating will drive low-temperature CO2 electrolysers to operate at higher temperatures. HM Pelzer*, N Kolobov, DA Vermaas, T Burdyny*. Nature Energy 10, 549, 556 (2025)
66. Preventing Salt Formation in Zero-gap CO2 Electrolyzers by Quantifying Cation Accumulation. J Biemolt, GP Vergel, HM Pelzer, T Burdyny*. ACS Energy Letters, 10, 2, 807–814 (2025)
65. Heating Dictates the Scalability of CO2 Electrolyzer Types. JW Hurkmans, HM Pelzer, T Burdyny, J Peeters, DA Vermaas*. EES Catalysis, 3, 305-317 (2025)
64. Spatial effects define CO2 electrolysis systems. S Subramanian, HP Iglesias van Montfort, T Burdyny*. Chem Catalysis, 5, 2, 101185 (2025)
2024
63. Bulk Layering Effects of Ag and Cu for Tandem CO2 Electrolysis. M Sassenburg, HP Iglesias van Montfort, N Kolobov, WA Smith, T Burdyny*. ChemSusChem. (2024)
62. Eliminating redox-mediated electron transfer mechanisms on a supported molecular catalyst enables CO2 conversion to ethanol. M Abdinejad*, A Farzi, R Möller-Gulland, F Mulder, C Liu, J Shao, M Robert, A Seifitokaldani*, T Burdyny*. Nature Catalysis. (2024)
61. Scale-up of CO2 and CO electrolyzers. T Burdyny*, FM Mulder*. Joule (2024)
60. Flooding control by electrochemically reduced graphene oxide additive in silver catalyst layer for CO2 electrolysis. Y Wu, MN Idros, D Feng, W Huang, T Burdyny, B Wang, G Wang, M Li*, TE Rufford*. ACS Applied Materials & Interfaces (2024)
59. Local ionic transport enables selective PGM-free bipolar membrane electrode assembly. M Li*, EW Lees, W Ju, S Subramanian, K Yang, JC Bui, HP Iglesias van Montfort, M Abdinejad, J Middelkoop, P Strasser, AZ Weber, AT Bell, T Burdyny*. Nature Communications, Article number: 8222 (2024)
58. Interrogation of Oxidative Pulsed Methods for the Stabilization of Copper Electrodes for CO2 Electrolysis. J Kok, J de Ruiter, W van der Stam, T Burdyny*. JACS, (2024)
57. Bipolar membranes for intrinsically stable and scalable CO2 electrolysis. K Petrov, C Koopman, S Subramanian, M Koper, T Burdyny*, D Vermaas*. Nature Energy, 9, 932–938 (2024)
56. CO residence time modulates multi-carbon formation rates in a zero-gap Cu based CO2 electrolyzer. S Subramanian, J Kok, P Gholkar, A Sajeev Kumar, HP Iglesias van Montfort, R Kortlever, A Urakawa, B Dam, T Burdyny*. Energy & Environmental Science, 17, 6728-6738 (2024)
55. Combining Nickel- and Zinc-Porphyrin Sites via Covalent Organic Frameworks for Electrochemical CO2 Reduction. H Veldhuizen, M Abdinejad, P Gilissen, J Albertsma, T Burdyny, F Tichelaar, S Zwaag, M van der Veen. ACS Applied Materials & Interfaces, 16, 26, 34010–34019 (2024)
54. Sequential electrocatalytic reactions along a membrane electrode assembly drive efficient nitrate to ammonia conversion. T Yuan, M Li, S Subramanian, J Kok, M Li, A Urakawa, O Voznyy,* T Burdyny*. Cell Reports Physical Science, 5, 6, 101977 (2024)
53. Closing the Loop: Unexamined Performance Trade-Offs of Integrating Direct Air Capture with (Bi)carbonate Electrolysis. HM Almajed, R Kas, P Brimley, AM Crow, A Somoza-Tornos, BM Hodge, T Burdyny, and WA Smith*. ACS Energy Letters, 9, 2472-2483 (2024)
2023
52. Effect of Dispersing Solvents for an Ionomer on the Performance of Copper Catalyst Layers for CO2 Electrolysis to Multicarbon Products. MN Idros, Y Wu, T Duignan, M Li, H Cartmill, I Maglaya, T Burdyny, G Wang, TE Rufford. ACS Appl. Mater. Interfaces. 15, 45, 52461–52472 (2023)
51. Non-invasive current collectors for improved current-density distribution during CO2 electrolysis on super-hydrophobic electrodes. HP Iglesias van Montfort, M Li, E Irtem, M Abdinejad, Y Wu, S Pal, M Sassenburg, D Ripepi, J Biemolt, S Subramanian, T Rufford, T Burdyny. Nature Communications 14, Article number: 6579 (2023)
50. An Advanced Guide to Assembly and Operation of CO2 Electrolyzers. HP Iglesias van Montfort, S Subramanian, E Irtem, M Sassenburg, M Li, J Kok, J Middelkoop, T Burdyny. ACS Energy Letters, 8, 10, 4156–4161 (2023)
49. Creating conjugated C-C bonds between commercial carbon electrode and molecular catalyst for oxygen reduction to hydrogen peroxide. J Biemolt, EJ Meeus, FJ de Zwart, J de Graaf, PCM Laan, B de Bruin, T Burdyny, G Rothenberg, N Yan. ChemSusChem, e202300841 (2023)
48. Insertion of MXene-based Materials into Cu-Pd 3-Dimensional Aerogels for Electroreduction of CO2 to Formate. M Abdinejad, S Subramanian, MK Motlagh, M Noroozifar, S Duangdangchote, I Neporozhnii, D Ripepi, D Pinto,aM Li, K Tang, J Middelkoop, A Urakawa, O Voznyy, HB Kraatz, T Burdyny. Advanced Energy Materials, 13, 2300402 (2023)
47. Fossil-fuel funding could speed energy transition. T Burdyny, B Dam. Nature, 613, 629 (2023)
46. Electroreduction of Carbon Dioxide to Acetate using Heterogenized Hydrophilic Manganese Porphyrins. M Abdinejad, T Yuan, K Tang, S Duangdangchote, A Farzi, HP Iglesias van Montfort, M Li, J Middelkoop, M Wolff, A Seifitokaldani, O Voznyy, T Burdyny. Chemistry - A European Journal, 29, 14, e2022039 (2023)
45. Geometric Catalyst Utilization in Zero-Gap CO2 Electrolyzers. S Subramanian, K Yang, M Li, M Sassenburg, M Abdinejad, E Irtem, J Middelkoop, T Burdyny, ACS Energy Letters, 8, 222-229 (2023)
44. Zero-gap electrochemical CO2 reduction cells: Challenges and operational strategies for prevention of salt precipitation. M Sassenburg, M Kelly, S Subramanian, WA Smith, T Burdyny, ACS Energy Letters, 8, 321-331 (2023)
2022
43. Energy comparison of sequential and integrated CO2 capture and electrochemical conversion. M Li, HP van Montfort, E Irtem, M Abdinejad, T Burdyny, Nature Communications, 13, 5398 (2022)
42. Investigating the Role of Potassium Cations During Electrochemical CO2 Reduction. S Chandrashekar, HP van Montfort, D Bohra, G Filonenko, H Geerlings, T Burdyny, WA Smith, Nanoscale, 14, 38, 14185-14190 (2022)
41. Advancing integrated CO2 electrochemical conversion with amine-based CO2 capture: a review. M Li, K Yang, M Abdinejad, C Zhao, T Burdyny, Nanoscale, 14, 11892-11908 (2022)
40. Mitigating Electrolyte Flooding for Electrochemical CO2 Reduction via Infiltration of Hydrophobic Particles in Gas Diffusion Layer. Y Wu, L Charlesworth, I Maglaya, MN Idros, M Li, T Burdyny, G Wang, T Rufford, ACS Energy Letters, 7, 2884–2892 (2022)
39. Mapping Spatial and Temporal Electrochemical Activity of Water and CO2 Electrolysis on Gas-Diffusion Electrodes Using Infrared Thermography. HP Iglesias van Montfort, T Burdyny, ACS Energy Letters, 7, 2410-2419 (2022)
38. CO2 Electrolysis via Surface-Engineering Electrografted Pyridines on Silver Catalysts
M Abdinejad, E Irtem, A Farzi, M Sassenburg, S Subramanian, HP Iglesias van Montfort, D Ripepi, M Li, J Middelkoop, A Seifitokaldani, T Burdyny, ACS Catalysis, 12, 13, 7862-7876 (2022) - Journal Cover Art
37. Characterizing CO2 Reduction Catalysts on Gas Diffusion Electrodes: Comparing Activity, Selectivity, and Stability of Transition Metal Catalysts
M Sassenburg, R de Rooij, NT Nesbitt, R Kas, S Chandrashekar, NJ Firet, K Yang, K Liu, MA Blommaert, M Kolen, D Ripepi, WA Smith, T Burdyny, ACS Applied Energy Materials, 5, 5983-5994 (2022)
36. Overcoming Nitrogen Reduction to Ammonia Detection Challenges: The Case for Leapfrogging to Gas Diffusion Electrode Platforms
M Kolen, D Ripepi, WA Smith, T Burdyny, FM Mulder, ACS Catalysis, 12, 5726-5735 (2022)
35. Modeling the Local Environment within Porous Electrode during Electrochemical Reduction of Bicarbonate
R Kas, K Yang, GP Yewale, A Crow, T Burdyny, WA Smith, Industrial & Engineering Chemistry Research, 61, 29, 10461–10473 (2022)
34. Polymer Modification of Surface Electronic Properties of Electrocatalysts
A Venugopal, LHT Egberts, J Meeprasert, EA Pidko, B Dam, T Burdyny, V Sinha, WA Smith, ACS Energy Letters, 5, 1586–1593
33. Immobilization Strategies for Porphyrin-Based Molecular Catalysts for the Electroreduction of CO2
M Abdinejad, K Tang, C Dao, S Saedy, T Burdyny, Journal of Materials Chemistry A, 10, 7626-7636 (2022)
32. Electrochemical CO2 reduction in membrane-electrode assemblies
L Ge, H Rabiee, M Li, S Subramanian, Y Zheng, JH Lee, T Burdyny, H Wang, Chem, 8, 663-692 (2022)
2021
31. Cation-Driven Increases of CO2 Utilization in a Bipolar Membrane Electrode Assembly for CO2 Electrolysis
K Yang, M Li, S Subramanian, MA Blommaert, WA Smith, T Burdyny, ACS Energy Letters, 6, 12, 4291-4298 (2021)
30. Spatial reactant distribution in CO2 electrolysis: balancing CO2 utilization and faradaic efficiency
S Subramanian, J Middelkoop, T Burdyny, Sustainable Energy & Fuels A, 5, 6040-6048 (2021)
29. The role of electrode wettability in electrochemical reduction of carbon dioxide
M Li, MN Idros, Y Wu, T Burdyny, S Garg, XS Zhao, G Wang, TE Rufford, Journal of Materials Chemistry A, 9, 19369-19409 (2021)
28. Cascade CO2 electroreduction enables efficient carbonate-free production of ethylene
A Ozden, Y Wang, F Li, M Luo, J Sisler, A Thevenon, A Rosas-Hernández, T Burdyny, Y Lum, H Yadegari, T Agapie, JC Peters, EH Sargent, D Sinton, Joule, 5, 706-719 (2021)
27. Role of the Carbon-Based Gas Diffusion Layer on Flooding in a Gas Diffusion Electrode Cell for Electrochemical CO2 Reduction
K Yang, R Kas, WA Smith, T Burdyny, ACS Energy Letters, 6, 1, 33-40 (2021)
26. Microbial Electrosynthesis: Where do we go from here?
L Jourdin, T Burdyny, Trends in Biotechnology, 39, 359-369 (2021)
2020
25. Liquid-solid boundaries dominate activity of CO2 reduction on gas-diffusion electrode
NT Nesbitt, T Burdyny, H Simonson, D Salvatore, D Bohra, R Kas, WA Smith, ACS Catalysis, 10, 14093–14106 (2020)
24. Copper and silver gas diffusion electrodes performing CO2 reduction studied through operando X-ray absorption spectroscopy
NJ Firet, T Burdyny, NT Nesbitt, S Chandrashekar, A Longo, WA Smith, Catal. Sci. Technol, 10, 5870-5885, (2020)
23. Facet-Dependent Selectivity of Cu Catalysts in Electrochemical CO2 Reduction at Commercially-viable Current Densities
GL de Gregorio, T Burdyny, A Loiudice, P Iyengar, WA Smith, R Buonsanti, ACS Catalysis, 10, 4854-4862 (2020)
Selected as an 'ACS Editor's Choice' article, providing Open Access sponsored by ACS
22. Electrochemical CO2 Reduction on Nanostructured Metal Electrodes: Fact of Defect?
R Kas, K Yang, D Bohra, R Kortlever, T Burdyny, WA Smith, Chemical Science, 11, 1738-1749 (2020)
2019
21. Modeling the electrical double layer to understand the reaction environment in a CO2 electrocatalytic system
D Bohra, JH Chaudhry, T Burdyny, EA Pidko, WA Smith, Energy & Environmental Science, 12, 3380-3389 (2019)
20. Pathways to Industrial-Scale Fuel Out of Thin Air from CO2 Electrolysis
WA Smith, T Burdyny, DA Vermaas, H Geerlings, Joule, 8, 1822-1834 (2019)
19. Introductory Guide to Assembling and Operating Gas Diffusion Electrodes for Electrochemical CO2 Reduction.
K Liu, WA Smith, T Burdyny, ACS energy letters, 4 (3), 639-643 (2019)
18. CO2 reduction on gas-diffusion electrodes and why catalytic performance must be assessed at commercially-relevant conditions.
T Burdyny, WA Smith, Energy and Environmental Science, 12, 1442-1453 (2019)
Selected as a 'HOT Article' for both 2018 and 2019 by the editors and referees. Artwork featured on the front cover.
17. Operando EXAFS study reveals presence of oxygen in oxide-derived silver catalysts for electrochemical CO2 reduction.
NJ Firet, MA Blommaert, T Burdyny, A Venugopal, D Bohra, A Longo, WA Smith, Journal of Materials Chemistry A, 7, 2597-2607 (2019)
2018
16. Copper adparticle enabled selective electrosynthesis of n-propanol.
J Li, FL Che, Y Pang, C Zou, J Howe, T Burdyny, JP Edwards, Y Wang, F Li, P de Luna, CT Dinh, T Zhuang, M Saidaminov, S Cheng, T Wu, Y Finfrock, L Ma, SH Hsieh, YS Liu, G Botton, WF Pong, X Du, J Guo, TS Sham, D Sinton, EH Sargent, Nature Communications, 9, 4614 (2018)
15. Copper nanocavities confine intermediates for efficient electrosynthesis of C3 alcohol fuels from carbon monoxide.
T Zhuang, Y Pang, Z Liang, Z Wang, Y Li, C Tan, J Li, CT Dinh, P de Luna, P Hsieh, T Burdyny, H Li, M Liu, Y Wang, F Li, A Proppe, A Johnston, DH Nam, Z Wu, Y Zheng, A Ip, H Tan, L Chen, SH Yu, S Kelley, D Sinton, EH Sargent, Nature Catalysis, 1, 946–951 (2018)
14. A Surface Reconstruction Route to High Productivity and Selectivity in CO2 Electroreduction Toward C2+ Hydrocarbons.
MG Kibria, CT Dinh, A Seifitokaldani, P de Luna, T Burdyny, R Quintero-Bermudez, MB Ross, O Bushuyev, FP García de Arquer, P Yang, D Sinton, EH Sargent, Advanced Materials, 49, 1804867 (2018)
13. CO2 electroreduction to ethylene via hydroxide-mediated copper catalysis at an abrupt interface.
CT Dinh*, T Burdyny*, MG Kibria*, A Seifitokaldani*, CM Gabardo, FP García de Arquer, A Kiani, JP Edwards, P de Luna, O Bushuyev, C Zou, R Quintero-Bermudez, Y Pang, D Sinton, EH Sargent, Science, 360, 783-787 (2018)
12. Combined high alkalinity and pressurization achieve efficient CO2 electroreduction to CO.
CM Gabardo*, A Seifitokaldani*, JP Edwards*, CT Dinh, T Burdyny, MG Kibria, EH Sargent, D Sinton, Energy and Environmental Science, 7, 2531-2539 (2018)
11. Steering post-C-C coupling selectivity enables high-efficiency electroreduction of carbon dioxide to multi-carbon alcohols.
T Zhuang*, Z Liang*, A Seifitokaldani*, Y Li, P de Luna, T Burdyny, F Meng, R Quintero-Bermudez, CT Dinh, M Liu, M Zhong, F Che, B Zhang, J Li, P Chen, X Zheng, HY Liang, WN Ge, B Ye, D Sinton, S Yu, EH Sargent, Nature Catalysis, 1, 421–428 (2018)
10. Hydronium-Induced Switching Between CO2 Electroreduction Pathways.
A Seifitokaldani*, CM Gabardo*, T Burdyny, CT Dinh, JP Edwards, MG Kibria, O Bushuyev, S Kelley, D Sinton, EH Sargent, Journal of the American Chemical Society, 140, 3833–3837 (2018)
9. Low pressure supercritical CO2 extraction of astaxanthin from Haematococcus pluvialis demonstrated on a microfluidic chip.
X Cheng, ZB Qi, T Burdyny, T Kong, D Sinton, Bioresource Technology, 250, 481-485 (2018)
2017
8. Joint Tuning of Nanostructured Cu Oxide Morphology and Local Electrolyte Programs High-Rate CO2 Reduction to C2H4.
Y Pang*, T Burdyny*, CT Dinh, MG Kibria, O Voznyy, J Fan, M Liu, EH Sargent, D Sinton, Green Chemistry, 19, 4023 – 4030 (2017)
7. Nanomorphology-enhanced gas-evolution intensifies CO2 reduction electrochemistry.
T Burdyny, PJ Graham, Y Pang, CT Dinh, M Liu, EH Sargent, D Sinton, ACS Sustainable Chemistry and Engineering, 5, 4031 – 4040 (2017)
6. A penalty on photosynthetic growth in fluctuating light.
PJ Graham, B Nguyen, T Burdyny, D Sinton, Scientific Reports, 7, 12513 (2017)
2010 - 2016
5. Self-assembled nanoparticle-stabilized photocatalytic reactors.
T Burdyny, J Riordon, EH Sargent, D Sinton, Nanoscale, 8, 2107 – 2115 (2016)
4. AMR thermodynamics: Semi-analytical modeling.
T Burdyny, DS Arnold, A Rowe, Cryogenics, 62, 177 – 184 (2014)
3. Performance modeling of AMR refrigerators.
T Burdyny, A Ruebsaat-Trott, A Rowe, International Journal of Refrigeration, 37, 51 – 62 (2013)
2. Simplified modeling of active magnetic regenerators.
T Burdyny, A Rowe, International Journal of Refrigeration, 36, 932 – 940 (2012)
1. Hybrid membrane/cryogenic separation of oxygen from air for use in the oxy-fuel process.
T Burdyny, H Struchtrup, Energy Journal, 35, 1884 – 1897 (2010)
70. Overcoming copper stability challenges in CO2 electrolysis. J Kok, PP Albertini, J Leemans, R Buonsanti*, T Burdyny*. Nature Reviews Materials (2025)
69. Operando Benchtop NMR Quantifies Carbonation, Water Crossover, and Liquid Products for High-Current Electrochemical CO2 Reduction. Z Zhu, KZ Çolakhasanoĝlu, RLEG Aspers, J Meurs, S Cristescu, T Burdyny, EW Zhao*. ACS Catalysis (2025)
68. Using pseudo-steady-state operation to redefine stability in CO2 electrolysis. T Burdyny*. Nature Chemical Engineering (2025)
67. Scaling and heating will drive low-temperature CO2 electrolysers to operate at higher temperatures. HM Pelzer*, N Kolobov, DA Vermaas, T Burdyny*. Nature Energy 10, 549, 556 (2025)
66. Preventing Salt Formation in Zero-gap CO2 Electrolyzers by Quantifying Cation Accumulation. J Biemolt, GP Vergel, HM Pelzer, T Burdyny*. ACS Energy Letters, 10, 2, 807–814 (2025)
65. Heating Dictates the Scalability of CO2 Electrolyzer Types. JW Hurkmans, HM Pelzer, T Burdyny, J Peeters, DA Vermaas*. EES Catalysis, 3, 305-317 (2025)
64. Spatial effects define CO2 electrolysis systems. S Subramanian, HP Iglesias van Montfort, T Burdyny*. Chem Catalysis, 5, 2, 101185 (2025)
2024
63. Bulk Layering Effects of Ag and Cu for Tandem CO2 Electrolysis. M Sassenburg, HP Iglesias van Montfort, N Kolobov, WA Smith, T Burdyny*. ChemSusChem. (2024)
62. Eliminating redox-mediated electron transfer mechanisms on a supported molecular catalyst enables CO2 conversion to ethanol. M Abdinejad*, A Farzi, R Möller-Gulland, F Mulder, C Liu, J Shao, M Robert, A Seifitokaldani*, T Burdyny*. Nature Catalysis. (2024)
61. Scale-up of CO2 and CO electrolyzers. T Burdyny*, FM Mulder*. Joule (2024)
60. Flooding control by electrochemically reduced graphene oxide additive in silver catalyst layer for CO2 electrolysis. Y Wu, MN Idros, D Feng, W Huang, T Burdyny, B Wang, G Wang, M Li*, TE Rufford*. ACS Applied Materials & Interfaces (2024)
59. Local ionic transport enables selective PGM-free bipolar membrane electrode assembly. M Li*, EW Lees, W Ju, S Subramanian, K Yang, JC Bui, HP Iglesias van Montfort, M Abdinejad, J Middelkoop, P Strasser, AZ Weber, AT Bell, T Burdyny*. Nature Communications, Article number: 8222 (2024)
58. Interrogation of Oxidative Pulsed Methods for the Stabilization of Copper Electrodes for CO2 Electrolysis. J Kok, J de Ruiter, W van der Stam, T Burdyny*. JACS, (2024)
57. Bipolar membranes for intrinsically stable and scalable CO2 electrolysis. K Petrov, C Koopman, S Subramanian, M Koper, T Burdyny*, D Vermaas*. Nature Energy, 9, 932–938 (2024)
56. CO residence time modulates multi-carbon formation rates in a zero-gap Cu based CO2 electrolyzer. S Subramanian, J Kok, P Gholkar, A Sajeev Kumar, HP Iglesias van Montfort, R Kortlever, A Urakawa, B Dam, T Burdyny*. Energy & Environmental Science, 17, 6728-6738 (2024)
55. Combining Nickel- and Zinc-Porphyrin Sites via Covalent Organic Frameworks for Electrochemical CO2 Reduction. H Veldhuizen, M Abdinejad, P Gilissen, J Albertsma, T Burdyny, F Tichelaar, S Zwaag, M van der Veen. ACS Applied Materials & Interfaces, 16, 26, 34010–34019 (2024)
54. Sequential electrocatalytic reactions along a membrane electrode assembly drive efficient nitrate to ammonia conversion. T Yuan, M Li, S Subramanian, J Kok, M Li, A Urakawa, O Voznyy,* T Burdyny*. Cell Reports Physical Science, 5, 6, 101977 (2024)
53. Closing the Loop: Unexamined Performance Trade-Offs of Integrating Direct Air Capture with (Bi)carbonate Electrolysis. HM Almajed, R Kas, P Brimley, AM Crow, A Somoza-Tornos, BM Hodge, T Burdyny, and WA Smith*. ACS Energy Letters, 9, 2472-2483 (2024)
2023
52. Effect of Dispersing Solvents for an Ionomer on the Performance of Copper Catalyst Layers for CO2 Electrolysis to Multicarbon Products. MN Idros, Y Wu, T Duignan, M Li, H Cartmill, I Maglaya, T Burdyny, G Wang, TE Rufford. ACS Appl. Mater. Interfaces. 15, 45, 52461–52472 (2023)
51. Non-invasive current collectors for improved current-density distribution during CO2 electrolysis on super-hydrophobic electrodes. HP Iglesias van Montfort, M Li, E Irtem, M Abdinejad, Y Wu, S Pal, M Sassenburg, D Ripepi, J Biemolt, S Subramanian, T Rufford, T Burdyny. Nature Communications 14, Article number: 6579 (2023)
50. An Advanced Guide to Assembly and Operation of CO2 Electrolyzers. HP Iglesias van Montfort, S Subramanian, E Irtem, M Sassenburg, M Li, J Kok, J Middelkoop, T Burdyny. ACS Energy Letters, 8, 10, 4156–4161 (2023)
49. Creating conjugated C-C bonds between commercial carbon electrode and molecular catalyst for oxygen reduction to hydrogen peroxide. J Biemolt, EJ Meeus, FJ de Zwart, J de Graaf, PCM Laan, B de Bruin, T Burdyny, G Rothenberg, N Yan. ChemSusChem, e202300841 (2023)
48. Insertion of MXene-based Materials into Cu-Pd 3-Dimensional Aerogels for Electroreduction of CO2 to Formate. M Abdinejad, S Subramanian, MK Motlagh, M Noroozifar, S Duangdangchote, I Neporozhnii, D Ripepi, D Pinto,aM Li, K Tang, J Middelkoop, A Urakawa, O Voznyy, HB Kraatz, T Burdyny. Advanced Energy Materials, 13, 2300402 (2023)
47. Fossil-fuel funding could speed energy transition. T Burdyny, B Dam. Nature, 613, 629 (2023)
46. Electroreduction of Carbon Dioxide to Acetate using Heterogenized Hydrophilic Manganese Porphyrins. M Abdinejad, T Yuan, K Tang, S Duangdangchote, A Farzi, HP Iglesias van Montfort, M Li, J Middelkoop, M Wolff, A Seifitokaldani, O Voznyy, T Burdyny. Chemistry - A European Journal, 29, 14, e2022039 (2023)
45. Geometric Catalyst Utilization in Zero-Gap CO2 Electrolyzers. S Subramanian, K Yang, M Li, M Sassenburg, M Abdinejad, E Irtem, J Middelkoop, T Burdyny, ACS Energy Letters, 8, 222-229 (2023)
44. Zero-gap electrochemical CO2 reduction cells: Challenges and operational strategies for prevention of salt precipitation. M Sassenburg, M Kelly, S Subramanian, WA Smith, T Burdyny, ACS Energy Letters, 8, 321-331 (2023)
2022
43. Energy comparison of sequential and integrated CO2 capture and electrochemical conversion. M Li, HP van Montfort, E Irtem, M Abdinejad, T Burdyny, Nature Communications, 13, 5398 (2022)
42. Investigating the Role of Potassium Cations During Electrochemical CO2 Reduction. S Chandrashekar, HP van Montfort, D Bohra, G Filonenko, H Geerlings, T Burdyny, WA Smith, Nanoscale, 14, 38, 14185-14190 (2022)
41. Advancing integrated CO2 electrochemical conversion with amine-based CO2 capture: a review. M Li, K Yang, M Abdinejad, C Zhao, T Burdyny, Nanoscale, 14, 11892-11908 (2022)
40. Mitigating Electrolyte Flooding for Electrochemical CO2 Reduction via Infiltration of Hydrophobic Particles in Gas Diffusion Layer. Y Wu, L Charlesworth, I Maglaya, MN Idros, M Li, T Burdyny, G Wang, T Rufford, ACS Energy Letters, 7, 2884–2892 (2022)
39. Mapping Spatial and Temporal Electrochemical Activity of Water and CO2 Electrolysis on Gas-Diffusion Electrodes Using Infrared Thermography. HP Iglesias van Montfort, T Burdyny, ACS Energy Letters, 7, 2410-2419 (2022)
38. CO2 Electrolysis via Surface-Engineering Electrografted Pyridines on Silver Catalysts
M Abdinejad, E Irtem, A Farzi, M Sassenburg, S Subramanian, HP Iglesias van Montfort, D Ripepi, M Li, J Middelkoop, A Seifitokaldani, T Burdyny, ACS Catalysis, 12, 13, 7862-7876 (2022) - Journal Cover Art
37. Characterizing CO2 Reduction Catalysts on Gas Diffusion Electrodes: Comparing Activity, Selectivity, and Stability of Transition Metal Catalysts
M Sassenburg, R de Rooij, NT Nesbitt, R Kas, S Chandrashekar, NJ Firet, K Yang, K Liu, MA Blommaert, M Kolen, D Ripepi, WA Smith, T Burdyny, ACS Applied Energy Materials, 5, 5983-5994 (2022)
36. Overcoming Nitrogen Reduction to Ammonia Detection Challenges: The Case for Leapfrogging to Gas Diffusion Electrode Platforms
M Kolen, D Ripepi, WA Smith, T Burdyny, FM Mulder, ACS Catalysis, 12, 5726-5735 (2022)
35. Modeling the Local Environment within Porous Electrode during Electrochemical Reduction of Bicarbonate
R Kas, K Yang, GP Yewale, A Crow, T Burdyny, WA Smith, Industrial & Engineering Chemistry Research, 61, 29, 10461–10473 (2022)
34. Polymer Modification of Surface Electronic Properties of Electrocatalysts
A Venugopal, LHT Egberts, J Meeprasert, EA Pidko, B Dam, T Burdyny, V Sinha, WA Smith, ACS Energy Letters, 5, 1586–1593
33. Immobilization Strategies for Porphyrin-Based Molecular Catalysts for the Electroreduction of CO2
M Abdinejad, K Tang, C Dao, S Saedy, T Burdyny, Journal of Materials Chemistry A, 10, 7626-7636 (2022)
32. Electrochemical CO2 reduction in membrane-electrode assemblies
L Ge, H Rabiee, M Li, S Subramanian, Y Zheng, JH Lee, T Burdyny, H Wang, Chem, 8, 663-692 (2022)
2021
31. Cation-Driven Increases of CO2 Utilization in a Bipolar Membrane Electrode Assembly for CO2 Electrolysis
K Yang, M Li, S Subramanian, MA Blommaert, WA Smith, T Burdyny, ACS Energy Letters, 6, 12, 4291-4298 (2021)
30. Spatial reactant distribution in CO2 electrolysis: balancing CO2 utilization and faradaic efficiency
S Subramanian, J Middelkoop, T Burdyny, Sustainable Energy & Fuels A, 5, 6040-6048 (2021)
29. The role of electrode wettability in electrochemical reduction of carbon dioxide
M Li, MN Idros, Y Wu, T Burdyny, S Garg, XS Zhao, G Wang, TE Rufford, Journal of Materials Chemistry A, 9, 19369-19409 (2021)
28. Cascade CO2 electroreduction enables efficient carbonate-free production of ethylene
A Ozden, Y Wang, F Li, M Luo, J Sisler, A Thevenon, A Rosas-Hernández, T Burdyny, Y Lum, H Yadegari, T Agapie, JC Peters, EH Sargent, D Sinton, Joule, 5, 706-719 (2021)
27. Role of the Carbon-Based Gas Diffusion Layer on Flooding in a Gas Diffusion Electrode Cell for Electrochemical CO2 Reduction
K Yang, R Kas, WA Smith, T Burdyny, ACS Energy Letters, 6, 1, 33-40 (2021)
26. Microbial Electrosynthesis: Where do we go from here?
L Jourdin, T Burdyny, Trends in Biotechnology, 39, 359-369 (2021)
2020
25. Liquid-solid boundaries dominate activity of CO2 reduction on gas-diffusion electrode
NT Nesbitt, T Burdyny, H Simonson, D Salvatore, D Bohra, R Kas, WA Smith, ACS Catalysis, 10, 14093–14106 (2020)
24. Copper and silver gas diffusion electrodes performing CO2 reduction studied through operando X-ray absorption spectroscopy
NJ Firet, T Burdyny, NT Nesbitt, S Chandrashekar, A Longo, WA Smith, Catal. Sci. Technol, 10, 5870-5885, (2020)
23. Facet-Dependent Selectivity of Cu Catalysts in Electrochemical CO2 Reduction at Commercially-viable Current Densities
GL de Gregorio, T Burdyny, A Loiudice, P Iyengar, WA Smith, R Buonsanti, ACS Catalysis, 10, 4854-4862 (2020)
Selected as an 'ACS Editor's Choice' article, providing Open Access sponsored by ACS
22. Electrochemical CO2 Reduction on Nanostructured Metal Electrodes: Fact of Defect?
R Kas, K Yang, D Bohra, R Kortlever, T Burdyny, WA Smith, Chemical Science, 11, 1738-1749 (2020)
2019
21. Modeling the electrical double layer to understand the reaction environment in a CO2 electrocatalytic system
D Bohra, JH Chaudhry, T Burdyny, EA Pidko, WA Smith, Energy & Environmental Science, 12, 3380-3389 (2019)
20. Pathways to Industrial-Scale Fuel Out of Thin Air from CO2 Electrolysis
WA Smith, T Burdyny, DA Vermaas, H Geerlings, Joule, 8, 1822-1834 (2019)
19. Introductory Guide to Assembling and Operating Gas Diffusion Electrodes for Electrochemical CO2 Reduction.
K Liu, WA Smith, T Burdyny, ACS energy letters, 4 (3), 639-643 (2019)
18. CO2 reduction on gas-diffusion electrodes and why catalytic performance must be assessed at commercially-relevant conditions.
T Burdyny, WA Smith, Energy and Environmental Science, 12, 1442-1453 (2019)
Selected as a 'HOT Article' for both 2018 and 2019 by the editors and referees. Artwork featured on the front cover.
17. Operando EXAFS study reveals presence of oxygen in oxide-derived silver catalysts for electrochemical CO2 reduction.
NJ Firet, MA Blommaert, T Burdyny, A Venugopal, D Bohra, A Longo, WA Smith, Journal of Materials Chemistry A, 7, 2597-2607 (2019)
2018
16. Copper adparticle enabled selective electrosynthesis of n-propanol.
J Li, FL Che, Y Pang, C Zou, J Howe, T Burdyny, JP Edwards, Y Wang, F Li, P de Luna, CT Dinh, T Zhuang, M Saidaminov, S Cheng, T Wu, Y Finfrock, L Ma, SH Hsieh, YS Liu, G Botton, WF Pong, X Du, J Guo, TS Sham, D Sinton, EH Sargent, Nature Communications, 9, 4614 (2018)
15. Copper nanocavities confine intermediates for efficient electrosynthesis of C3 alcohol fuels from carbon monoxide.
T Zhuang, Y Pang, Z Liang, Z Wang, Y Li, C Tan, J Li, CT Dinh, P de Luna, P Hsieh, T Burdyny, H Li, M Liu, Y Wang, F Li, A Proppe, A Johnston, DH Nam, Z Wu, Y Zheng, A Ip, H Tan, L Chen, SH Yu, S Kelley, D Sinton, EH Sargent, Nature Catalysis, 1, 946–951 (2018)
14. A Surface Reconstruction Route to High Productivity and Selectivity in CO2 Electroreduction Toward C2+ Hydrocarbons.
MG Kibria, CT Dinh, A Seifitokaldani, P de Luna, T Burdyny, R Quintero-Bermudez, MB Ross, O Bushuyev, FP García de Arquer, P Yang, D Sinton, EH Sargent, Advanced Materials, 49, 1804867 (2018)
13. CO2 electroreduction to ethylene via hydroxide-mediated copper catalysis at an abrupt interface.
CT Dinh*, T Burdyny*, MG Kibria*, A Seifitokaldani*, CM Gabardo, FP García de Arquer, A Kiani, JP Edwards, P de Luna, O Bushuyev, C Zou, R Quintero-Bermudez, Y Pang, D Sinton, EH Sargent, Science, 360, 783-787 (2018)
12. Combined high alkalinity and pressurization achieve efficient CO2 electroreduction to CO.
CM Gabardo*, A Seifitokaldani*, JP Edwards*, CT Dinh, T Burdyny, MG Kibria, EH Sargent, D Sinton, Energy and Environmental Science, 7, 2531-2539 (2018)
11. Steering post-C-C coupling selectivity enables high-efficiency electroreduction of carbon dioxide to multi-carbon alcohols.
T Zhuang*, Z Liang*, A Seifitokaldani*, Y Li, P de Luna, T Burdyny, F Meng, R Quintero-Bermudez, CT Dinh, M Liu, M Zhong, F Che, B Zhang, J Li, P Chen, X Zheng, HY Liang, WN Ge, B Ye, D Sinton, S Yu, EH Sargent, Nature Catalysis, 1, 421–428 (2018)
10. Hydronium-Induced Switching Between CO2 Electroreduction Pathways.
A Seifitokaldani*, CM Gabardo*, T Burdyny, CT Dinh, JP Edwards, MG Kibria, O Bushuyev, S Kelley, D Sinton, EH Sargent, Journal of the American Chemical Society, 140, 3833–3837 (2018)
9. Low pressure supercritical CO2 extraction of astaxanthin from Haematococcus pluvialis demonstrated on a microfluidic chip.
X Cheng, ZB Qi, T Burdyny, T Kong, D Sinton, Bioresource Technology, 250, 481-485 (2018)
2017
8. Joint Tuning of Nanostructured Cu Oxide Morphology and Local Electrolyte Programs High-Rate CO2 Reduction to C2H4.
Y Pang*, T Burdyny*, CT Dinh, MG Kibria, O Voznyy, J Fan, M Liu, EH Sargent, D Sinton, Green Chemistry, 19, 4023 – 4030 (2017)
7. Nanomorphology-enhanced gas-evolution intensifies CO2 reduction electrochemistry.
T Burdyny, PJ Graham, Y Pang, CT Dinh, M Liu, EH Sargent, D Sinton, ACS Sustainable Chemistry and Engineering, 5, 4031 – 4040 (2017)
6. A penalty on photosynthetic growth in fluctuating light.
PJ Graham, B Nguyen, T Burdyny, D Sinton, Scientific Reports, 7, 12513 (2017)
2010 - 2016
5. Self-assembled nanoparticle-stabilized photocatalytic reactors.
T Burdyny, J Riordon, EH Sargent, D Sinton, Nanoscale, 8, 2107 – 2115 (2016)
4. AMR thermodynamics: Semi-analytical modeling.
T Burdyny, DS Arnold, A Rowe, Cryogenics, 62, 177 – 184 (2014)
3. Performance modeling of AMR refrigerators.
T Burdyny, A Ruebsaat-Trott, A Rowe, International Journal of Refrigeration, 37, 51 – 62 (2013)
2. Simplified modeling of active magnetic regenerators.
T Burdyny, A Rowe, International Journal of Refrigeration, 36, 932 – 940 (2012)
1. Hybrid membrane/cryogenic separation of oxygen from air for use in the oxy-fuel process.
T Burdyny, H Struchtrup, Energy Journal, 35, 1884 – 1897 (2010)