ROMEO | Reactor optimisation by membrane enhanced operation

Summary
The integration of reaction and downstream processing steps into a single unit is of central importance in order to achieve a new level of process intensification for catalytic driven and eco-friendly reaction systems. This disruptive technology concept has the ability to reduce the total energy consumption of large volume industrial processes by up to 78%. Additionally, emissions can be reduced by up to 90%

To achieve this, HOMOGENEOUS catalysts are supported on membranes. Embedding the homogeneous catalysts in thin films of non-volatile ionic liquids (SILP technology) will maintain their catalytic abilities as in the homogeneous phase while the anchoring directly on the membrane ensures a most efficient separation.

The new technology concept will be proven by two prominent large volume reaction types: a) Processes with undesired consecutive reactions like hydroformylation and b) Equilibrium driven reactions like water gas shift (WGS) reaction.
These processes for bulk chemicals and bio energy applications have been chosen to demonstrate the high impact of the ROMEO technology in an industrial near environment.

Nonetheless, it is a core task to also get a detailed understanding of the general processes on a molecular level for the different required functionalities. One achievement will therefore be to provide a modelling “tool-box” that can be applied to any other process in order to check the benefits of the ROMEO technology for a specific reaction in a short time.

The ROMEO reactor methodology allows being highly flexible and adapting to both different process and volume requirements. An increase in production volume can then be achieved by a simple numbering up of reactor modules.
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More information & hyperlinks
Web resources: https://cordis.europa.eu/project/id/680395
Start date: 14-09-2015
End date: 13-09-2019
Total budget - Public funding: 5 958 802,50 Euro - 5 958 802,00 Euro
Cordis data

Original description

The integration of reaction and downstream processing steps into a single unit is of central importance in order to achieve a new level of process intensification for catalytic driven and eco-friendly reaction systems. This disruptive technology concept has the ability to reduce the total energy consumption of large volume industrial processes by up to 78%. Additionally, emissions can be reduced by up to 90%

To achieve this, HOMOGENEOUS catalysts are supported on membranes. Embedding the homogeneous catalysts in thin films of non-volatile ionic liquids (SILP technology) will maintain their catalytic abilities as in the homogeneous phase while the anchoring directly on the membrane ensures a most efficient separation.

The new technology concept will be proven by two prominent large volume reaction types: a) Processes with undesired consecutive reactions like hydroformylation and b) Equilibrium driven reactions like water gas shift (WGS) reaction.
These processes for bulk chemicals and bio energy applications have been chosen to demonstrate the high impact of the ROMEO technology in an industrial near environment.

Nonetheless, it is a core task to also get a detailed understanding of the general processes on a molecular level for the different required functionalities. One achievement will therefore be to provide a modelling “tool-box” that can be applied to any other process in order to check the benefits of the ROMEO technology for a specific reaction in a short time.

The ROMEO reactor methodology allows being highly flexible and adapting to both different process and volume requirements. An increase in production volume can then be achieved by a simple numbering up of reactor modules.

Status

CLOSED

Call topic

SPIRE-05-2015

Update Date

26-10-2022
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Horizon 2020
H2020-EU.2. INDUSTRIAL LEADERSHIP
H2020-EU.2.1. INDUSTRIAL LEADERSHIP - Leadership in enabling and industrial technologies
H2020-EU.2.1.5. INDUSTRIAL LEADERSHIP - Leadership in enabling and industrial technologies - Advanced manufacturing and processing
H2020-EU.2.1.5.3. Sustainable, resource-efficient and low-carbon technologies in energy-intensive process industries
H2020-SPIRE-2015
SPIRE-05-2015 New adaptable catalytic reactor methodologies for Process Intensification