About

Log in?

DTU users get better search results including licensed content and discounts on order fees.

Anyone can log in and get personalized features such as favorites, tags and feeds.

Log in as DTU user Log in as non-DTU user No thanks

DTU Findit

Book chapter · Conference paper

A general framework for the synthesis and operational design of batch processes

From

Computer Aided Process Engineering Center, Department of Chemical and Biochemical Engineering, Technical University of Denmark1

Department of Chemical and Biochemical Engineering, Technical University of Denmark2

The objective of this paper is to present a general problem formulation and a general methodology for the synthesis of batch operations and the operational design of individual batch processes, such as mixing, reaction and separation. The general methodology described supplies the batch routes, which is the sequence of batch operations performed in order to achieve a specific objective.

Important features of the methodology are a set of rule-based algorithms that provide the operational model of the units. Such an algorithm is highlighted, together with the associated rules, for the operational design of batch reactors. A case study involving the feasible operation of a batch reactor with multiple desirable and undesirable reactions and operational constraints is presented.

Application results including verification of the generated operational sequences (alternatives) through dynamic simulation are presented.

Language: English
Year: 2002
Pages: 289-294
Proceedings: 12th European Symposium on Computer Aided Process Engineering
Series: Computer Aided Chemical Engineering
ISBN: 0080531318 , 0444511091 , 1281057320 , 9780080531311 , 9780444511096 , 9781281057327 , 6611057323 and 9786611057329
ISSN: 15707946
Types: Book chapter and Conference paper
DOI: 10.1016/S1570-7946(02)80076-1
ORCIDs: Jørgensen, Sten Bay

DTU users get better search results including licensed content and discounts on order fees.

Log in as DTU user

Access

Analysis