Nanoclusters for Catalysis:
Nanoclusters | Batteries | DNA Sequencing

16. Multi-Layered Platinum Nanotube for Oxygen Reduction in a Fuel Cell Cathode: Origin of Activity and Product Selectivity, Akhil S. Nair, Arup Mahata, Biswarup Pathak, ACS Applied Energy Materials; 2018.

15. The Significance of Acid-Base Properties in the Key Ligand for CO2 hydrogenation: Role of Amido Ligand, Kuber Singh Rawat, Biswarup Pathak, Journal of Chemical Sciences; 2018.

14. Flexible Proton Responsive Ligand-based Mn(I)-Complexes for CO2 Hydrogenation: A DFT Study, Kuber Singh Rawat, Biswarup Pathak, Physical Chemistry Chemical Physics; 20, 12535-12542, 2018.

13. Semiconducting Phase in Borophene: Role of Defect & Strain, Gargee Bhattacharyya, Arup Mahata, Indrani Choudhuri, Biswarup Pathak, Journal of Physics D: Applied physics; 50, 405103, 2017.

12. Bimetallic Core-Based Cuboctahedral Core-Shell Nanocluster for Hydrogen Peroxide (2e- reduction) over Water (4e- reduction) Formation: Role of Core Metals, Arup Mahata, Biswarup Pathak, Nanoscale; 9, 9537-9547, 2017.

11. Aliphatic Mn-PNP Complexes for CO2 Hydrogenation Reaction: A Base Free Mechanism, Kuber Singh Rawat, Biswarup Pathak, Catalysis Science & Technology; 7, 3234-3242, (Impact Factor:5.287) 2017.

10. Free-standing Platinum Monolayer as Efficient and Selective Catalyst for Oxygen Reduction Reaction, Arup Mahata, Priyanka Garg, Kuber Singh Rawat, Preeti Bhauriyal, Biswarup Pathak, Journal of Materials Chemistry A; 5, 5303-5313, (Impact Factor:8.26) 2017.

9. Catalytic Hydrogenation of CO2 by Fe-Complexes Containing Pendant Amines: Role of Water and Base, Kuber Singh Rawat, Arup Mahata, Biswarup Pathak, Journal of Physical Chemistry C; 120, 26652-26662, (Impact Factor: 4.50) 2016.

8. Pt3Ti (Ti19@Pt60) Based Cuboctahedral Core-shell Nanocluster Favours Direct over Indirect Oxygen Reduction Reaction, Arup Mahata, Preeti Bhauriyal, Kuber Singh Rawat, Biswarup Pathak, ACS Energy Letters; 1, 797-805, (Impact Factor:) 2016.

7. Cuboctahedral vs. Octahedral Platinum Nanoclusters: Insights into the Shape-dependent Catalytic Activity for Fuel Cell, Arup Mahata, Kuber Singh Rawat, Indrani Choudhuri Biswarup Pathak, Catalysis Science and Technology; 6, 7913-7923, (Impact Factor:5.426) 2016.

6. Catalytic Hydrogenation of CO2 by Manganese Complexes: Role of Pi-Acceptor Ligands, Kuber S. Rawat, Arup Mahata Indrani Choudhuri, Biswarup Pathak, Journal of Physical Chemistry C; 120, 16478-16488, (Impact Factor:4.50) 2016.

5. Single-layered Platinum Nanocage: A Highly Selective and Efficient Catalyst for Fuel Cell, Arup Mahata, Kuber S. Rawat, Indrani Choudhuri, Biswarup Pathak, Journal of Materials Chemistry A; 4, 12756-12767, (Back Cover Page Article) (Impact Factor:8.26) 2016.

4. Octahedral Ni-nanocluster (Ni85) for Efficient and Selective Reduction of Nitric Oxide (NO) to Nitrogen (N2), Arup Mahata, Kuber Singh Rawat, Indrani Choudhuri, Biswarup Pathak, Scientific Reports; 6, 25590(1-13), (Impact Factor:5.22)2016.

3. N-Heterocylic Carbene Based Mn-Electrocatalyst for Two Electron CO2 Reduction Over Proton Reduction, Kuber Singh Rawat, Arup Mahata, Indrani Choudhuri, Biswarup Pathak, Journal of Physical Chemistry C; (Impact Factor:4.50)120, 8821-8831, 2016.

2. A Cuboctahedral Platinum (Pt79) Nanocluster Enclosed by Well Defined Facets Favours Di-sigma Adsorption and Improves the Reaction Kinetics for Methanol Fuel Cell. Arup Mahata, Indrani Choudhuri, Biswarup Pathak, Nanoscale; (Back Cover Page Article; Impact Factor: 7.394 ) 7, 13438-13451, 2015.

1. Direct vs. Indirect Pathways for Nitrobenzene Reduction over Ni Catalyst Surface: A Density Functional Study. Arup Mahata, Rohit K. Rai, Indrani Choudhuri, Sanjay K. Singh, Biswarup Pathak,* Physical Chemistry Chemical Physics(Impact Factor: 4.198), 16, 26365-26374, 2014.


Dr. Biswarup Pathak
Associate Professor
Chemistry

biswarup[at]iiti.ac.in