Ahibur Rahaman

发表

Photo-Excitation Dynamics in Electrochemically Charged CdSe Quantum Dots: from Hot Carrier Cooling to Auger Recombination of Negative Trions

L. Gorton, M. Abdellah, T. Pullerits, 2020, 2011.09878.

Photoexcitation Dynamics in Electrochemically Charged CdSe Quantum Dots: From Hot Carrier Cooling to Auger Recombination of Negative Trions

L. Gorton, M. Abdellah, T. Pullerits, 2020, ACS Applied Energy Materials.

Hydrogenase biomimetics with redox-active ligands: Electrocatalytic proton reduction by [Fe2(CO)4(κ2-diamine)(μ-edt)] (diamine = 2,2′-bipy, 1,10-phen)

M. Richmond, Shishir Ghosh, G. Hogarth, 2016 .

The Impact of Ligand Carboxylates on Electrocatalyzed Water Oxidation

M. Kärkäs, O. Verho, B. Åkermark, 2021, Accounts of chemical research.

Bioinspired Hydrogenase Models: The Mixed-Valence Triiron Complex [Fe3(CO)7(μ-edt)2] and Phosphine Derivatives [Fe3(CO)7–x(PPh3)x(μ-edt)2] (x = 1, 2) and [Fe3(CO)5(κ2-diphosphine)(μ-edt)2] as Proton Reduction Catalysts

M. Richmond, Shishir Ghosh, G. Hogarth, 2014, Organometallics.

Asymmetric hydrogenation of an α-unsaturated carboxylic acid catalyzed by intact chiral transition metal carbonyl clusters - diastereomeric control of enantioselectivity.

M. Haukka, M. Richmond, E. Nordlander, 2020, Dalton transactions.

Bridgehead isomer effects in bis(phosphido)-bridged diiron hexacarbonyl proton reduction electrocatalysts.

Lee J. Higham, M. Bhadbhade, Carolina Gimbert-Suriñach, 2017, Dalton transactions.

Synthesis, Molecular Structures and Electrochemical Investigations of [FeFe]‐Hydrogenase Biomimics [Fe 2 (CO) 6‐ n (EPh 3 ) n (µ‐edt)] (E = P, As, Sb; n = 1, 2)

Shishir Ghosh, G. Hogarth, S. Kabir, 2019, European Journal of Inorganic Chemistry.

Hydrogenase biomimetics: structural and spectroscopic studies on diphosphine-substituted derivatives of Fe2(CO)6(µ-edt) (edt = ethanedithiolate) and Fe2(CO)6(µ-tdt) (tdt = 1,3-toluenedithiolate)

Md. Kamal Hossain, Shishir Ghosh, G. Hogarth, 2016, Transition Metal Chemistry.

Bio-inspired hydrogenase models: mixed-valence triion complexes as proton reduction catalysts.

Shishir Ghosh, G. Hogarth, S. Kabir, 2011, Chemical communications.

Synthesis and molecular structures of the 52-electron triiron telluride clusters - Electrochemical properties and activity as proton reduction catalysts

M. Richmond, G. Lisensky, D. Tocher, 2018 .

Synthesis and characterization of chiral phosphirane derivatives of [(μ-H) 4 Ru 4 (CO) 12 ] and their application in the hydrogenation of an α,β-unsaturated carboxylic acid

M. Haukka, E. Nordlander, L. Higham, 2017 .

Iron Carbonyl Clusters as Proton Reduction Catalysts

Ahibur Rahaman, 2016 .

Reactions of Ru3(CO)10(μ-dppm) with Ph3GeH: Ge–H and Ge–C bond cleavage in Ph3GeH at triruthenium clusters

H. Roesky, M. Richmond, Shishir Ghosh, 2017 .

Phenazine-substituted polynuclear osmium clusters: Synthesis and DFT evaluation of the C-metalated derivatives Os3(CO)9(μ3,η2-C12H7N2)(μ-H) and Os3(CO)9(μ3,η2-C12H6N2)(μ-H)2

V. Nesterov, S. Mobin, M. Richmond, 2015 .

Ground-state configuration of neutron-rich Aluminum isotopes through Coulomb breakup

B. V. Carlson, A. Najafi, G. Angelis, 2014 .

Kinetics of near-infrared-to-visible upconversion in rubrene: An initial excitation of triplets

Pushpendra Kumar, K. Karki, R. Adhikari, 2021, Physical Review B.

Oxidative-addition of germanium–hydrogen bonds to triosmium centers: Reactions of Os 3 (CO) 10 (μ-dppm) and Os 3 (CO) 8 (μ 3 -Ph 2 PCH 2 P(Ph)C 6 H 4 )(μ-H) with Ph 3 GeH

Md. Jakir Hossain, Shishir Ghosh, G. Hogarth, 2016 .

Reactions of the sigma,pi-furyl complex [Fe-2(CO)(6)(mu-Fu)(mu-PFu(2))] (Fu = C4H3O) with phosphines: Carbonyl substitution, migratory carbonyl insertion and cyclometallation-induced furan elimination

M. Haukka, Shishir Ghosh, G. Hogarth, 2014 .

Generation of sigma,pi-furyl and thienyl ligands at di-iron centers via facile phosphorus-carbon bond cleavage: Synthesis and molecular structures of [Fe-2(CO)(6)(mu-eta(1),eta(2)-C4H3E){mu-P(C4H3E)(2)}] (E = O, S)

M. Haukka, Shishir Ghosh, G. Hogarth, 2013 .

Phosphine addition to the sigma,pi-thienyl complex [Fe-2(CO)(6)(mu-Th)(mu-PTh2)] (Th = C4H3S): Carbonyl substitution and migratory carbonyl insertion to give the thienyl-acyl complexes [Fe-2(CO)(4)(diphosphine)(mu-O=C-Th)(mu-PTh2)]

Md. Kamal Hossain, M. Haukka, Shishir Ghosh, 2015 .

Electrocatalytic proton-reduction behaviour of telluride-capped triiron clusters: tuning of overpotentials and stabilization of redox states relative to lighter chalcogenide analogues.

M. Richmond, D. Hrovat, G. Lisensky, 2020, Dalton transactions.

Chalcogenide-capped triiron clusters [Fe3(CO)9(μ3-E)2], [Fe3(CO)7(μ3-CO)(μ3-E)(μ-dppm)] and [Fe3(CO)7(μ3-E)2(μ-dppm)] (E = S, Se) as proton-reduction catalysts

M. Haukka, M. Richmond, G. Lisensky, 2019, Journal of Organometallic Chemistry.

Synthesis and molecular structures of the 52-electron triiron telluride clusters [Fe3(CO)8(μ3-Te)2(κ2-diphosphine)] - Electrochemical properties and activity as proton reduction catalysts

M. Richmond, G. Lisensky, G. Hogarth, 2018, Journal of Organometallic Chemistry.

Synthesis of [Ru-3(CO)(9)(mu-dppf){P(C4H3E)(3)}] (E = O, S) and thermally induced cyclometalation to form [(mu-H)Ru-3(CO)(7)(mu-dppf){mu(3)-( C4H3E)(2)P(C4H2E)}] (dppf=1,1 '-bis(diphenylphosphino) ferrocene)

Md. Kamal Hossain, M. Richmond, S. Rajbangshi, 2014 .

Proton reduction by phosphinidene-capped triiron clusters

M. Haukka, M. Richmond, G. Lisensky, 2021, Journal of Organometallic Chemistry.

Study of ground state wave-function of the Neutron-rich 29,30Na isotopes through coulomb breakup

B. V. Carlson, A. Rahaman, A. Najafi, 2014 .

Ruthenium containing molecular electrocatalyst on glassy carbon for electrochemical water splitting.

J. Dutta, T. Weng, M. Kärkäs, 2022, Dalton transactions.

Development of MMRPC prototype for the NeuLAND detector of the R3B collaboration

S. Bose, A. Wagner, D. Bemmerer, 2012 .

Sequential infiltration synthesis and pattern transfer using 6 nm half-pitch carbohydrate-based fingerprint block copolymer

Ivan Maximov, Tommy Nylander, Alexei Vorobiev, 2021, Advanced Lithography.

Electron Transfer Mediated by Iron Carbonyl Clusters Enhance Light‐Driven Hydrogen Evolution in Water by Quantum Dots

M. Abdellah, J. Meng, Kaibo Zheng, 2020, ChemSusChem.

Synthesis of phosphine derivatives of [Fe2(CO)6(μ-sdt)] (sdt = SCH2SCH2S) and investigation of their proton reduction capabilities.

M. Haukka, G. Lisensky, D. Tocher, 2023, Journal of inorganic biochemistry.

A ruthenium-based catalyst on carbon electrodes for electrochemical water splitting

J. Dutta, T. Weng, M. Kärkäs, 2021 .

Ultrafast Jahn‐Teller Photoswitching in Cobalt Single‐Ion Magnets

M. Biednov, S. Canton, Kaibo Zheng, 2023, Advanced science.

Journal of Organometallic Chemistry

M. Haukka, G. Lisensky, D. Tocher, 2022 .