Design of Pd-based membrane reactor for gas detritiation

The development of a Pd-based membrane reactor to be applied in processes for tritium removal from various gaseous streams of tokamak systems has been carried out. In particular, the membrane reactor has been designed for decontaminating soft housekeeping wastes of JET. This membrane reactor consist...

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Veröffentlicht in:Fusion engineering and design 2011-10, Vol.86 (9), p.2180-2183
Hauptverfasser: Tosti, S., Rizzello, C., Borgognoni, F., Ghirelli, N., Santucci, A., Trabuc, P.
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container_end_page 2183
container_issue 9
container_start_page 2180
container_title Fusion engineering and design
container_volume 86
creator Tosti, S.
Rizzello, C.
Borgognoni, F.
Ghirelli, N.
Santucci, A.
Trabuc, P.
description The development of a Pd-based membrane reactor to be applied in processes for tritium removal from various gaseous streams of tokamak systems has been carried out. In particular, the membrane reactor has been designed for decontaminating soft housekeeping wastes of JET. This membrane reactor consists of Pd–Ag permeator tube fixed in a finger-like mode into a stainless steel shell. The feed stream (gases to be detritiated) is fed inside the membrane lumen where the isotopic exchange takes place on to a catalyst bed while pure hydrogen (protium) is sent in countercurrent mode in the shell side. The feed stream consists of 200 Ncm 3 min −1 of helium with 10% of tritiated water (tritium content 1.11 × 10 8 Bq h −1). The membrane reactor design has been based on a simplified calculation model which takes into consideration the very low tritium content of the gas to be processed and the complete oxidation of the tritiated species in the feed stream. The model considers a tubular Pd–Ag membrane divided into finite elements where the mass balances are performed according to both the thermodynamic equilibrium reactions and permeation rates through the membrane of the hydrogen isotopes. The reactor model has permitted to verify that a Pd–Ag commercial tube of diameter 10 mm, length 500 mm and wall thickness 0.150 mm is capable to attain a decontamination factor larger than 10. A new mechanical design of the Pd membrane reactor has been also developed: especially, harmful mechanical stresses of the long permeator tube consequent to the hydrogenation and thermal cycling has been avoided. Furthermore, an innovative effective heating system of the membrane has been also applied.
doi_str_mv 10.1016/j.fusengdes.2010.11.021
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subjects Applied sciences
Controled nuclear fusion plants
Design engineering
Detritiation
Energy
Energy. Thermal use of fuels
Exact sciences and technology
Hydrogen isotopes separation
Installations for energy generation and conversion: thermal and electrical energy
Mathematical models
Membranes
Palladium
Pd membrane reactor
Reactors
Streams
Tritium
Tubes
title Design of Pd-based membrane reactor for gas detritiation
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