Abstract

This paper reports the findings of a FP7 project (DEMCAMER) that developed materials (catalysts and membranes) and new processes for four industrially relevant reaction processes. In this project, active, stable, and selective catalysts were developed for the reaction systems of interest and their production scaled up to kg scale (TRL5 (TRL: Technology Readiness Level)). Simultaneously, new membranes for gas separation were developed; in particular, dense supported thin palladium-based membranes for hydrogen separation from reactive mixtures. These membranes were successfully scaled up to TRL4 and used in various lab-scale reactors for water gas shift (WGS), using both packed bed and fluidized bed reactors, and Fischer-Tropsch (FTS) using packed bed reactors and in prototype reactors for WGS and FTS. Mixed ionic-electronic conducting membranes in capillary form were also developed for high temperature oxygen separation from air. These membranes can be used for both Autothermal Reforming (ATR) and Oxidative Coupling of Methane (OCM) reaction systems to increase the efficiency and the yield of the processes. The production of these membranes was scaled up to TRL3–4. The project also developed adequate sealing techniques to be able to integrate the different membranes in lab-scale and prototype reactors.

Highlights

  • Global warming and fossil fuels scarcity necessitate the transformation of traditional processes towards more sustainable and efficient processes for both energy conversion and chemical transformations

  • Lab‐scale facilities, etc. the Duedevelopment to this fact, this divided processesfor investigated in membranes, the DEMCAMER

  • The whole process was designed starting from the development of the catalyst for the process, The whole process was designed starting from theconditions development of the catalyst for the process, which should show good activity under the operating in membrane reactors

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Summary

Introduction

Global warming and fossil fuels scarcity necessitate the transformation of traditional processes towards more sustainable and efficient processes for both energy conversion and chemical transformations. With high efficiency as well asaaccomplishing reduction in CO2 emissions to the atmosphere, Within the chemical engineering framework, the development of more active catalysts, more achieving a large positive impact as compared to benchmark technologies [2]. The technology of membrane reactors has been recently developed and has demonstrated membrane based separation and a where catalytic chemical reaction take place in one unit [3,4,5,6,7,8,9]. High degree of process intensification the combination of a membrane based separation and Membranes can be used in membrane reactors for either selective gas separation from the reaction a catalytic chemical reaction take place in one unit [3,4,5,6,7,8,9].

DEMCAMER
Catalyst Selection for the Different Processes
ATR Catalyst
WGS Catalyst
FTS Catalyst
OCM Catalyst
Membranes Developed within the DEMCAMER Project
MIEC Membranes
Metal Based Membranes for H2 Production
Lab Scale Reactors Constructed for the Different Processes
Lab Scale ATR Reactor
Lab Scale WGS Reactor
10 The and FTS
Lab Scale OCM Reactor
11. Schematic representation theproject lab‐scale
Prototype
ATR Prototype
WGS Prototype
FTS Prototype
14. Picture
Results and Discussion
Autothermal Reforming of Methane
Objective
17. Permeating
18. Arrhenius plot for for the the MIEC
Water Gas Shift
19. Comparison
21. Comparison
Fischer Tropsch
Oxidative
25. Scanning
Conclusions
Full Text
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