Unit of Study MECH6001 Industrial Automation Systems (2027)

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Unit Snapshot

Unit type

PG Coursework Unit
Credit points

12
Faculty & College

Faculty of Science and Engineering
Placement

No

Unit description

This unit empowers students to lead the development of industrial robotic systems through the critical application of an advanced systems-based engineering framework. Utilising a research-led, scenario-based learning model, students will demonstrate expert judgment in the synthesis of complex engineering design, advanced systems analysis, and strategic project management. Participants will engage in high-level problem-solving by critically evaluating a range of specialised tools and methodologies to deliver innovative, real-world solutions for a complex industry-based engineering project.

Unit content

Introduction to Automation and Control Systems
System Modelling - Laplace Transforms and Transfer Function
System Modelling - Mechanical and Electrical Systems
Control System Design and Analysis - Root Locus
Control System Design and Analysis - Frequency Response
Advanced Control Techniques - PID Control, PLCs, and Ladder Logic Programming

Availabilities

Not currently available in 2027

Learning outcomes

Unit Learning Outcomes express learning achievement in terms of what a student should know, understand and be able to do on completion of a unit. These outcomes are aligned with the graduate attributes. The unit learning outcomes and graduate attributes are also the basis of evaluating prior learning.

On completion of this unit, students should be able to:

critically evaluate and integrate systems-based engineering frameworkds, incorporating established and emerging control systems knowledge into the design of high- performance automated behaviour

design and synthesise advanced engineering solutions to multifaceted industrial problems applying expert judgment to model and evaluate the dynamics of complex engineering processes

formulate and justify sophisticated engineering solutions by evaluating and selecting advanced techniques, specialised tools, and strategic resources to resolve complex automation and control challenges

systematically interpret and transmit complex technical outcomes and design insights derived from an advanced industrial project to both specialist and non-specialist audiences

evaluate management strategies and ethical considerations in leading and reporting on complex industrial automation initiatives, exercising professional accountability and high-level autonomy

critically synthesise multifaceted project requirements and design innovative, high-fidelity engineering solutions to complex automation and control challenges, collaborating effectively within a team and strategically evaluating advanced techniques and specialised tools.

Fee information

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