Studying online

There are now 2 possible online modes for units:

Units with modes Online timetabled and Online flexible are available for any student to self-enrol and study online.

Click on an offering mode for more details.

Unit Overview

Description

Topics include revision of reaction kinetics, mechanisms and rate equations; fundamentals of ideal reactor behaviour; design of batch, completely mixed and plug flow reactors for single and multiple reactions; multiple and recycle reactors; nonisothermal reactor design for reversible and irreversible first order reaction; residence time distribution (RTD); RTD modelling of non-ideal reactor behaviour; diffusion control heterogeneous reactions; runaway reactions and safety, and shrinking-core model. In this unit, students develop the ability to (1) apply knowledge of basic science and engineering fundamentals; (2) utilise a system approach to optimise design and operational performance; and (3) understand the need to undertake lifelong learning, and the capacity to do so.

Credit
6 points
Offering
(see Timetable)
AvailabilityLocationMode
Semester 2UWA (Perth)Face to face
Outcomes

Students are able to (1) apply their understanding of selection, design and size optimisation methods to single or multiple flow reactors for a range of reaction kinetics under isothermal and non-isothermal conditions; (2) analyse non-ideal flow reactors (PFR, CSTR and Laminar flow) via RTD; (3) explain the implications and mitigate runaway reactions; (4) solve problems involving diffusion-control reactions; (5) apply knowledge of conversion and non-ideal behaviour of flow reactors to interpret results of laboratory experiments; (6) demonstrate critical thinking and information literacy through clearly and concise technical reports; and (7) relate reaction engineering principles to the solution of heterogeneous reaction based problems.

Assessment

Indicative assessments in this unit are as follows: (1) laboratory reports and an assignment; (2) tests; and (3) final examination. Further information is available in the unit outline.



Student may be offered supplementary assessment in this unit if they meet the eligibility criteria.

Unit Coordinator(s)
Professor Yee-Kwong Leong
Unit rules
Prerequisites
Enrolment in
62550 Master of Professional Engineering (Chemical Engineering specialisation)
or Enrolment in
62560 Master of Renewable and Future Energy
Incompatibility
CHPR3406 Reaction Engineering
Advisable prior study
CHPR2006 Chemical Engineering Thermodynamics
or ENSC3006 Chemical Process Thermodynamics
Contact hours
Lectures: 3 hours per week,
Practical Classes: 2 hours per week
Texts

Levenspiel, O. Chemical Reaction Engineering, 3rd edn: Wiley c.1999

Fogler, S. Elements of Chemical Reaction Engineering, 3rd edn: Prentice-Hall 1999

  • The availability of units in Semester 1, 2, etc. was correct at the time of publication but may be subject to change.
  • All students are responsible for identifying when they need assistance to improve their academic learning, research, English language and numeracy skills; seeking out the services and resources available to help them; and applying what they learn. Students are encouraged to register for free online support through GETSmart; to help themselves to the extensive range of resources on UWA's STUDYSmarter website; and to participate in WRITESmart and (ma+hs)Smart drop-ins and workshops.
  • Visit the Essential Textbooks website to see if any textbooks are required for this Unit. The website is updated regularly so content may change. Students are recommended to purchase Essential Textbooks, but a limited number of copies of all Essential Textbooks are held in the Library in print, and as an ebook where possible. Recommended readings for the unit can be accessed in Unit Readings directly through the Learning Management System (LMS).
  • Contact hours provide an indication of the type and extent of in-class activities this unit may contain. The total amount of student work (including contact hours, assessment time, and self-study) will approximate 150 hours per 6 credit points.