33.
2022
Mater. Adv., 3, 7937 – 7945
Lanthanoid Coordination Compounds as Diverse Self-Templating Agents Towards Hierarchically Porous Fe–N–C Electrocatalysts
By: Itamar Salton, Dr. Karina Ioffe, Tomer Burshtein, Eliyahu Farber, Nicola M. Seraphim, Nofit Segal, David Eisenberg.
32.
2022
J. Mater. Chem. A., 10, 19859-19867
A simple decagram-scale synthesis of an atomically dispersed, hierarchically porous Fe–N–C catalyst for acidic ORR
By: Burak Koyutürk, Eliyahu Farber, Friedrich Ernst Wagner, Tim-Patrick Fellinger, David Eisenberg.
31.
2022
Phys. Chem. Chem. Phys., 24, 9897-9903
Understanding Hydrazine Oxidation Electrocatalysis on
Undoped Carbon
By: Tomer Burshtein, Kesha Tamakuwala, Matan Sananis, Ilya Grinberg, Nagaprasad Reddy Samala, David Eisenberg.
30.
2022
ChemElectroChem., e202200045
Orthogonal Design of Fe-N4 Active Sites and Hierarchical Porosity in Hydrazine Oxidation Electrocatalysts
By: Yair Shahaf, Atif Mahammed, Arik Raslin, Amit Kumar, Eliyahu Farber, Zeev Gross, David Eisenberg.
Open access
29.
2021
Phys. Chem. Chem. Phys., 23, 26674-26679
Fe–N–C Electrocatalysts in the Oxygen and Nitrogen Cycles in Alkaline Media: The Role of Iron Carbide
By: Tomer Burshtein, Denial Aias, Jin Wang, Eliyahu Farber, Oz Moshe Gazit, Ilya Grinberg, David Eisenberg.
Selected as Hot Paper
Featured on back cover
28.
2021
Chem. Commun., 57, 7015-7018
Combining polarized low-frequency Raman with XRD to identify directional structural motifs in a pyrolysis precursor
By: Eliyahu Farber, Tal Ben Uliel=, Hagit Aviv, Wowa Stroek, Marilena Farbinteanu, Yaakov R. Tischler, David Eisenberg.
27.
2021
Small, 2100712
Template‐Free Formation of Regular Macroporosity in Carbon Materials Made from a Folded Polymer Precursor
By: Tomer Burshtein, Iris Agami=, Charles E. Diesendruck, David Eisenberg.
26.
2021
Carbon, 173, 1105-1114
Characterizing and mitigating the degradation of oxidized cathodes during capacitive deionization cycling
By: Rana Uwayid, Nicola M. Seraphim, Eric N. Guyes, David Eisenberg, Matthew E. Suss.
25.
2021
Curr. Opin. Electrochem., 100638
Pyrolyze This Paper: Can Biomass Become a Source for Precise Carbon Electrodes?
By: Shir Tabac, David Eisenberg.
Invited contribution
24.
2021
J. Solid State Electrochem., 25, 159–171
Urea oxidation electrocatalysis on nickel hydroxide: the role of disorder
Invited contribution for the José Zagal Festschrift
23.
2020
J. Electrochem. Soc., 167, 064517
Carbon Electrocatalysts For Hydrazine Oxidation: Self-Templating Design Of Hierarchical Porosity Using Barium Carbonate Nanoparticles
22.
2020
Mater. Adv., 1, 20-33
Understanding the self-templating of hierarchically porous carbon electrocatalysts using Group 2 coordination polymers
Featured on front cover
Open access
21.
2019
J. Mater. Chem. A, 7, 23854-23861
Revealing structure–activity links in hydrazine oxidation: doping and nanostructure in carbide–carbon electrocatalysts.
Invited contribution to the Emerging Investigators issue
20.
2018
Angew. Chem. Int. Ed., 57, 17168-17172
A Multi-Doped Electrocatalyst for Efficient Hydrazine Oxidation
19.
2018
ACS Catal. 2018, 8, 9, 8618–8629
Understanding Oxygen Activation on Metal- and Nitrogen-Codoped Carbon Catalysts
By: David Eisenberg, Thierry K. Slot, Gadi Rothenberg.
18.
2018
ChemCatChem., 10, 2219-2124
Cooperative Surface‐Particle Catalysis: The Role of the “Active Doughnut” in Catalytic Oxidation
By: Thierry K. Slot, David Eisenberg, Gadi Rothenberg.
17.
2017
ChemSusChem, 10, 4018-4024
Boosting the supercapacitance of nitrogen‐doped carbon by tuning surface functionalities
By: Jasper Biemolt, Ilse M. Denekamp, Thierry K. Slot, Gadi Rothenberg, David Eisenberg.
Featured on front cover
