Programme And Module Handbook
 
Course Details in 2022/23 Session


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Module Title Process Integration and Unit Operations
SchoolChemical Engineering
Department Chemical Engineering
Module Code 04 17126
Module Lead Dr Fotis Spyropoulos
Level Intermediate Level
Credits 20
Semester Semester 2
Pre-requisites Chemical and Biochemical Processes - (04 17043)
Co-requisites
Restrictions None
Contact Hours Lecture-40 hours
Tutorial-26 hours
Supervised time in studio/workshop-8 hours
Guided independent study-126 hours
Total: 200 hours
Exclusions
Description This two-semester module (part A in Semester 1, Part B in semester 2) introduces the methodologies for the synthesis of a new process and discusses the factors governing process selection.
Process Integration and Unit Operations Part A first introduces problem-solving approaches reflecting current trends in process integration (efficient material and energy usage and emissions reduction). Pinch technology is introduced and used to develop heat exchanger networks, with a number of tutorials designed for students to practice the application of the taught approach.
Subsequently, the module proceeds to consider equilibrium stage-wise process design, and starting with the unit operations of absorption, distillation and liquid-liquid extraction, students will be introduced to the concepts of stage to stage calculations and diagrammatic problem solving techniques. They are also introduced to novel processing routes, including a case study on supercritical fluids.
In Process Integration and Unit Operations Part B, the interactions and interdependency between different process units are further developed via case studies. The module builds on these principles by introducing a core set of unit operations (including drying, crystallization, and membrane separations) with particular emphasis on the selection of the appropriate methods to meet process requirements. Elements of process design for each of these unit operations are also discussed. More specifically, mass and energy balances are used together with simplified models of each operation, in order to calculate specific processing parameters (e.g. flow rates) and/or unit-specific characteristics (e.g. unit volume).
Learning Outcomes By the end of the module the student should be able to:
  • Apply problem table and energy cascade to determine the minimum hot and cold energy requirements and the pinch point of a heat exchange system;
  • Design a heat exchanger network for maximum energy recovery or minimum number of exchangers; comment upon the appropriate use of process integration in designing new chemical and process plant and revamping existing plant;
  • Demonstrate and apply the fundamentals of the major unit operations in Chemical Engineering namely distillation, extraction and crystallization; in terms of the essential requirements for the unit design, detailed calculations to find the number of stages and/or the size of unit needed to perform a certain function;
  • Explain the principles of supercritical fluid technology, in terms of the supercritical fluids, properties, and the main processes that are based on these properties;
  • Describe and review the principles and applications of membrane treatment systems and size membranes for single or feed and bleed stage systems;
  • Appropriately select a unit operation for a particular process need.
Assessment 17126-06 : Online Class Test 1 : Class Test (15%)
17126-07 : Online Class Test 2 : Class Test (15%)
17126-08 : Coursework : Coursework (20%)
17126-09 : Online Exam : Exam (School Arranged) - Computer-based (50%)
Assessment Methods & Exceptions In semester assessment: 20%
Exam: 80%
Other None
Reading List