TY - JOUR
T1 - Potential Analysis of Smart Flow Processing and Micro Process Technology for Fastening Process Development
T2 - Use of Chemistry and Process Design as Intensification Fields
AU - Hessel, V.
AU - Vural Gürsel, I.
AU - Wang, Q.
AU - Noël, T.
AU - Lang, J.
PY - 2012/7
Y1 - 2012/7
N2 - Flow processes with microstructured reactors allow paradigm changes in process development and thus can enable a faster development time to the final production plant. They do this by exploiting similarity effects along the development chain (modularity) and intensification. The final result can be a (significantly) reduced number of apparatus in the plant, a (significantly) reduced apparatus size, and a higher predictability in the scale-out of the apparatus. So far, this was mainly achieved via transport intensification given in microstructured reactors - improved mixing and heat transfer which increase productivity and possibly improve selectivity. A more new idea is chemical intensification through deliberate use of harsh chemistries at unusual (high) pressure, temperature, concentration, and reaction environment which again increases productivity. A very new idea is the process design intensification - the reaction-maximized flow processes need less separation expenditure and the small unit size together with the high degree in functionality gives large potential for system integration. Both means change and simplify the process scheme totally which can lead to a reduced number of apparatus and has impact on predictability. The modular nature of the small flow units allow an easy implementation to modern modular plant environments (Future Factories) which enables to perform all the testing cycles (lab, pilot, production) in one plant environment; an example are here container plants. All these measures have large potential for (much) decreased overall development time.
AB - Flow processes with microstructured reactors allow paradigm changes in process development and thus can enable a faster development time to the final production plant. They do this by exploiting similarity effects along the development chain (modularity) and intensification. The final result can be a (significantly) reduced number of apparatus in the plant, a (significantly) reduced apparatus size, and a higher predictability in the scale-out of the apparatus. So far, this was mainly achieved via transport intensification given in microstructured reactors - improved mixing and heat transfer which increase productivity and possibly improve selectivity. A more new idea is chemical intensification through deliberate use of harsh chemistries at unusual (high) pressure, temperature, concentration, and reaction environment which again increases productivity. A very new idea is the process design intensification - the reaction-maximized flow processes need less separation expenditure and the small unit size together with the high degree in functionality gives large potential for system integration. Both means change and simplify the process scheme totally which can lead to a reduced number of apparatus and has impact on predictability. The modular nature of the small flow units allow an easy implementation to modern modular plant environments (Future Factories) which enables to perform all the testing cycles (lab, pilot, production) in one plant environment; an example are here container plants. All these measures have large potential for (much) decreased overall development time.
KW - Adipic acid
KW - Flow miniplants
KW - Future Factory
KW - Micro process technology
KW - Process intensification
UR - http://www.scopus.com/inward/record.url?scp=84862879927&partnerID=8YFLogxK
U2 - 10.1002/ceat.201200038
DO - 10.1002/ceat.201200038
M3 - Article
AN - SCOPUS:84862879927
SN - 0930-7516
VL - 35
SP - 1184
EP - 1204
JO - Chemical Engineering and Technology
JF - Chemical Engineering and Technology
IS - 7
ER -