Carbonylations in flow: tube-in-tube reactor gas-liquid slug flow
In order to improve the performance of carbonylation reactions in flow, we compared the tube-in-tube system to a gas-liquid two-phase setup. We found that the two-phase slug flow reactor significantly improved the yield and throughput of the reactions tested. First, we performed a reference reaction...
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creator | adosz, Agnieszka Friedli, Astrid Lhuillery, Arnaud Rueedi, Georg |
description | In order to improve the performance of carbonylation reactions in flow, we compared the tube-in-tube system to a gas-liquid two-phase setup. We found that the two-phase slug flow reactor significantly improved the yield and throughput of the reactions tested. First, we performed a reference reaction, methoxycarbonylation of 4-chlorobenzonitrile, using conditions described in the literature and obtained 57% calculated yield in the biphasic setup and 16% in the tube-in-tube setup, with side product formation of 1% and 8% respectively. The reaction was further optimized in both apparatuses, improving the yield in the biphasic setup to 86%, while the tube-in-tube method was limited to about 34%. Finally, a 1.5 g scale-up of a project-relevant building block yielded 73% of the product in the tube-in-tube setup
vs.
92% when two-phase flow was used, with more than a ten-fold increase in throughput in the biphasic method. Using gas-liquid flow enabled higher yield and throughput due to direct contact of gas and liquid, better control of CO equivalents and intensification of process conditions: higher temperature, pressure and concentration in the system and significant reduction of residence time.
In order to improve the performance of carbonylation reactions in flow we compared the tube-in-tube system to a gas-liquid two-phase setup. |
doi_str_mv | 10.1039/d4re00287c |
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vs.
92% when two-phase flow was used, with more than a ten-fold increase in throughput in the biphasic method. Using gas-liquid flow enabled higher yield and throughput due to direct contact of gas and liquid, better control of CO equivalents and intensification of process conditions: higher temperature, pressure and concentration in the system and significant reduction of residence time.
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vs.
92% when two-phase flow was used, with more than a ten-fold increase in throughput in the biphasic method. Using gas-liquid flow enabled higher yield and throughput due to direct contact of gas and liquid, better control of CO equivalents and intensification of process conditions: higher temperature, pressure and concentration in the system and significant reduction of residence time.
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vs.
92% when two-phase flow was used, with more than a ten-fold increase in throughput in the biphasic method. Using gas-liquid flow enabled higher yield and throughput due to direct contact of gas and liquid, better control of CO equivalents and intensification of process conditions: higher temperature, pressure and concentration in the system and significant reduction of residence time.
In order to improve the performance of carbonylation reactions in flow we compared the tube-in-tube system to a gas-liquid two-phase setup.</abstract><doi>10.1039/d4re00287c</doi><tpages>7</tpages></addata></record> |
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title | Carbonylations in flow: tube-in-tube reactor gas-liquid slug flow |
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