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Catalytic molten metals for the direct conversion of methane to hydrogen and separable carbon
by
Snodgrass, Zachary R.
, Gordon, Michael J.
, Metiu, Horia
, Upham, D. Chester
, Khechfe, Alexander
, McFarland, Eric W.
, Agarwal, Vishal
in
Alloy systems
/ Alloys
/ Ammonia
/ Bismuth base alloys
/ Bubble columns
/ Carbon
/ Carbon dioxide
/ Catalysts
/ Catalytic activity
/ Composite materials
/ Deactivation
/ Direct conversion
/ Floats
/ Gallium
/ Greenhouse gases
/ Heavy metals
/ High temperature
/ Hydrogen
/ Liquid metals
/ Low temperature
/ Melt temperature
/ Metals
/ Methane
/ Nickel
/ Palladium
/ Pyrolysis
/ Reforming
2017
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Catalytic molten metals for the direct conversion of methane to hydrogen and separable carbon
by
Snodgrass, Zachary R.
, Gordon, Michael J.
, Metiu, Horia
, Upham, D. Chester
, Khechfe, Alexander
, McFarland, Eric W.
, Agarwal, Vishal
in
Alloy systems
/ Alloys
/ Ammonia
/ Bismuth base alloys
/ Bubble columns
/ Carbon
/ Carbon dioxide
/ Catalysts
/ Catalytic activity
/ Composite materials
/ Deactivation
/ Direct conversion
/ Floats
/ Gallium
/ Greenhouse gases
/ Heavy metals
/ High temperature
/ Hydrogen
/ Liquid metals
/ Low temperature
/ Melt temperature
/ Metals
/ Methane
/ Nickel
/ Palladium
/ Pyrolysis
/ Reforming
2017
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Catalytic molten metals for the direct conversion of methane to hydrogen and separable carbon
by
Snodgrass, Zachary R.
, Gordon, Michael J.
, Metiu, Horia
, Upham, D. Chester
, Khechfe, Alexander
, McFarland, Eric W.
, Agarwal, Vishal
in
Alloy systems
/ Alloys
/ Ammonia
/ Bismuth base alloys
/ Bubble columns
/ Carbon
/ Carbon dioxide
/ Catalysts
/ Catalytic activity
/ Composite materials
/ Deactivation
/ Direct conversion
/ Floats
/ Gallium
/ Greenhouse gases
/ Heavy metals
/ High temperature
/ Hydrogen
/ Liquid metals
/ Low temperature
/ Melt temperature
/ Metals
/ Methane
/ Nickel
/ Palladium
/ Pyrolysis
/ Reforming
2017
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Catalytic molten metals for the direct conversion of methane to hydrogen and separable carbon
Journal Article
Catalytic molten metals for the direct conversion of methane to hydrogen and separable carbon
2017
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Overview
Metals that are active catalysts for methane (Ni, Pt, Pd), when dissolved in inactive low–melting temperature metals (In, Ga, Sn, Pb), produce stable molten metal alloy catalysts for pyrolysis of methane into hydrogen and carbon. All solid catalysts previously used for this reaction have been deactivated by carbon deposition. In the molten alloy system, the insoluble carbon floats to the surface where it can be skimmed off. A 27% Ni–73% Bi alloy achieved 95% methane conversion at 1065°C in a 1.1-meter bubble column and produced pure hydrogen without CO₂ or other by-products. Calculations show that the active metals in the molten alloys are atomically dispersed and negatively charged. There is a correlation between the amount of charge on the atoms and their catalytic activity.
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