SEM300 - Thermo-Fluid System Design

Year:

2020 unit information
Enrolment modes: Trimester 1: Waurn Ponds (Geelong), Cloud (online)
Credit point(s): 2
Previously coded as:

SEM405
EFTSL value: 0.250
Prerequisite:

Five units from SEM200, SEJ201, SEM201, SEM218, SEP291, SEM202 or Four units from SEM218, SEB223, SEM202, SEP291
Corequisite:

Nil
Incompatible with:

Nil
Study commitment

Students will on average spend 300 hours over the teaching period undertaking the teaching, learning and assessment activities for this unit.
Scheduled learning activities - campus

Weeks 1-5: 3 hours of classes per week (2 hours online, 1 hour face-to-face), 1 x 2 hour seminar per week (1 hour seminar, 1 hour online seminar), 1 x 1 hour studio per week.
Weeks 7-11: 2 x 1 hour structured studios and 4 hours of unstructured studios per week. All students are required to attend and participate in project based activities for this unit at scheduled sessions during the trimester including intensive week (typically week 6).
Scheduled learning activities - cloud (online)

Weeks 1-5: 3 hours of classes per week (2 hours online, 1 hour online consultation), 1 x 2 hour seminar per week (1 hour online seminar, 1 hour online consultation), 1 x 1 hour online studio per week.
Weeks 7-11: 1 x 1 hour online structured studio and 4 hours of unstructured project work per week. Students are required to attend and participate in project based activities at the Geelong Waurn Ponds Campus on the particular scheduled days during the intensive week (typically week 6).

Content

In this unit students will be introduced to heat transfer principles such as conduction, convection and radiation. Understanding of these principles will utilised in conjunction with previously acquired fundamental knowledge of thermodynamics and fluid mechanics in undertaking a thermo-fluid system design project. The unit revolves around a group-based project to determine the appropriate approach to design problem, the type of solution (analytical, numerical), selection of material, sizing of thermal system and optimisation of heat transfer rates.

Hurdle requirement

To be eligible to obtain a pass in this unit students must achieve a mark of at least 50% overall and a mark of at least 50% for the total of the individual components of this unit.

Unit Fee Information

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