• Preprint 181

Technical Report 181, c4e-Preprint Series, Cambridge

Towards a novel ontological infrastructure for chemical process simulation and optimization in the context of eco-industrial parks

Authors: Li Zhou, Ming Pan, Janusz Sikorski, Sushant S. Garud, Leonardus Kevin Aditya, Martin J. Kleinelanghorst, Iftekhar A. Karimi, and Markus Kraft

Reference: Technical Report 181, c4e-Preprint Series, Cambridge, 2017

Associated Themes:
  Theme icon


Highlights
  • An ontology-based expert system called J-Park Simulator is constructed for energy and resource management of eco-industrial parks
  • OntoCAPE is adapted to establish a knowledge base for a biodiesel plant
  • Concepts are defined to incorporate description for executable mathematical models
  • Plant-wide information query, process simulation and optimization can be carried out through J-Park Simulator
Abstract

Graphical abstract In this paper, we introduce the concept of constructing an ontology-based expert system called J-Park Simulator (JPS) for the design and operation of eco-industrial parks (EIPs). It is inspired by Jurong industrial park in Singapore. A biodiesel plant is implemented into the system as a first step. OntoCAPE is adapted for the purposes of the biodiesel plant to establish a knowledge base, which is employed to carry out a number of applications via JPS. Firstly, information query can be performed. Information of the biodiesel plant can be extracted through natural language query. Secondly, JPS can be used to carry out process simulation. New process equilibrium can be evaluated after certain operation parameters change. Thirdly, process optimization can be realized through JPS. Optimal operation condition under different market scenarios can be obtained for the biodiesel producing process in order to reduce the energy consumption and achieve maximal plant profit. In addition, discussion on how the proposed approach can be applied to the design and operation of an EIP is also given.

Material from this preprint has been published in Applied Energy.

Download

PDF (3.8 MB)