about
Integrating a dual-silicon photoelectrochemical cell into a redox flow battery for unassisted photocharging.Strategies for stable water splitting via protected photoelectrodes.An n-type to p-type switchable photoelectrode assembled from alternating exfoliated titania nanosheets and polyaniline layers.MoS2-an integrated protective and active layer on n(+)p-Si for solar H2 evolution.TiO2-graphene nanocomposites. UV-assisted photocatalytic reduction of graphene oxide.Faradaic efficiency of O2 evolution on metal nanoparticle sensitized hematite photoanodes.Proton activity in nafion films: probing exchangeable protons with methylene blue.Using TiO2 as a conductive protective layer for photocathodic H2 evolution.Comparison of the Performance of CoP-Coated and Pt-Coated Radial Junction n(+)p-Silicon Microwire-Array Photocathodes for the Sunlight-Driven Reduction of Water to H2(g).An integrated photoelectrochemical-chemical loop for solar-driven overall splitting of hydrogen sulfide.Sulfide perovskites for solar energy conversion applications: computational screening and synthesis of the selected compound LaYS3New Light-Harvesting Materials Using Accurate and Efficient Bandgap CalculationsElectrical power and hydrogen production from a photo-fuel cell using formic acid and other single-carbon organicsNitrogen Doped Sr2Ta2O7 Coupled with Graphene Sheets as Photocatalysts for Increased Photocatalytic Hydrogen ProductionTwo-phase model of hydrogen transport to optimize nanoparticle catalyst loading for hydrogen evolution reactionScalability and feasibility of photoelectrochemical H2 evolution: the ultimate limit of Pt nanoparticle as an HER catalyst2-Photon tandem device for water splitting: comparing photocathode first versus photoanode first designsCarrier-selective p- and n-contacts for efficient and stable photocatalytic water reductionBack-Illuminated Si-Based Photoanode with Nickel Cobalt Oxide Catalytic Protection LayerProtection of Si photocathode using TiO 2 deposited by high power impulse magnetron sputtering for H 2 evolution in alkaline mediaBack-illuminated Si photocathode: a combined experimental and theoretical study for photocatalytic hydrogen evolutionCrystalline TiO2: A Generic and Effective Electron-Conducting Protection Layer for Photoanodes and -cathodesRecent Development in Hydrogen Evolution Reaction Catalysts and Their Practical ImplementationA quick look at how photoelectrodes workMo3S4Clusters as an Effective H2Evolution Catalyst on Protected Si PhotocathodesProtection of p+-n-Si Photoanodes by Sputter-Deposited Ir/IrOx Thin FilmsSilicon protected with atomic layer deposited TiO2: conducting versus tunnelling through TiO2Hydrogen Production Using a Molybdenum Sulfide Catalyst on a Titanium-Protected n+p-Silicon PhotocathodeBio-inspired co-catalysts bonded to a silicon photocathode for solar hydrogen evolutionA Flexible Web-Based Approach to Modeling Tandem Photocatalytic DevicesAnalysis of Mass Flows and Membrane Cross-over in CO2 Reduction at High Current Densities in an MEA-Type Electrolyzer
P50
Q27318160-D6C722BF-80CE-4AB2-8D89-CDD05E333E4CQ39155479-13F6FA9E-6140-41F0-8BD7-194E40BC3369Q43799098-5BF04577-A8A6-4A5F-8481-9E94B6E08F41Q44174090-59FE0A91-F5DC-47FA-90C9-3FEA36A117C0Q46126890-1A623027-ECCD-4484-84C9-AFDF2DCED745Q46574181-7C299D43-F5D8-4EE8-8AD4-9FFAC5C72E37Q50470216-9016E385-E12E-4EBE-8B2B-9DFA87522520Q50497405-93BF9625-CB40-45E5-9DAA-5EDA13FBC2B4Q53201995-8EAF2D29-5780-4B8E-B4B3-D49E25E7A731Q53588105-42EE5409-E894-4351-9CAA-3660F4520FC0Q55084734-DF01542D-1690-4015-B51D-3E1F92F5EB6FQ55084768-B6C6BADF-62B2-455B-B23F-FB902DCC63D2Q57395262-EC5D92F8-698D-4290-BE10-ACA50D3728B2Q57395300-CAAD1276-ABF5-4F66-B6DF-A745B6967FD3Q57606683-99000ECD-855F-42CE-ABF2-A7F262747DDAQ57606705-5C6FCA1E-AA27-4219-BA3C-5EBEEF85A347Q57640772-02A82E58-07CB-4625-AA4A-6AD40B503EC4Q61602854-843C6FE3-A04D-4F27-9983-50BF60F16219Q61602872-81BAAD49-C6D7-46A9-B267-53CAD3E7E18CQ61602896-C219C50D-B55E-4B96-A8F5-7B97AB39EA4CQ61602907-C009ED38-9534-4423-853D-3B0B4C6BB5F9Q61602913-AFAFD266-987D-4869-B49C-F68776A41249Q61602931-D99CBDAB-33B4-4941-B6DE-83BAA613D1ABQ61602943-C686DA09-AB74-47F1-830D-3D843F5B82A8Q61603021-C27B4C11-78CB-4CDB-9338-AAE52815E576Q61603023-9D53E97F-E1AD-401B-9B48-C2804718DB08Q61603054-825493DF-4479-45BC-BB66-846A538BE2C3Q61603078-E019568B-47F2-4B45-ACBD-0D97C054B841Q61603114-276B2A1C-2F15-41BC-9354-9171110C62B1Q61803004-6813BB1E-3829-441F-87DC-D8E1202A4091Q90650794-743A8BB5-12D3-4485-8E1D-C2E8BFA1E97E
P50
description
hulumtues
@sq
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Brian Seger
@ast
Brian Seger
@en
Brian Seger
@es
Brian Seger
@nl
Brian Seger
@sl
type
label
Brian Seger
@ast
Brian Seger
@en
Brian Seger
@es
Brian Seger
@nl
Brian Seger
@sl
prefLabel
Brian Seger
@ast
Brian Seger
@en
Brian Seger
@es
Brian Seger
@nl
Brian Seger
@sl
P106
P21
P31
P496
0000-0002-0036-095X