11312 modules
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SESA6085 2030-31
Advanced Aerospace Engineering Management
This module will provide students with the skills and knowledge to model and manage reliability, risk, uncertainty & security at both the project and business level while educating students on their responsibilities to be both ethical and inclusive engineers. A combination of lectures, tutorials and real world case studies will be used to provide students with practical experience of these topics and illustrate their importance in modern engineering. -
SESA6085 2028-29
Advanced Aerospace Engineering Management
This module will provide students with the skills and knowledge to model and manage reliability, risk, uncertainty & security at both the project and business level while educating students on their responsibilities to be both ethical and inclusive engineers. A combination of lectures, tutorials and real world case studies will be used to provide students with practical experience of these topics and illustrate their importance in modern engineering. -
SESA6085 2031-32
Advanced Aerospace Engineering Management
This module will provide students with the skills and knowledge to model and manage reliability, risk, uncertainty & security at both the project and business level while educating students on their responsibilities to be both ethical and inclusive engineers. A combination of lectures, tutorials and real world case studies will be used to provide students with practical experience of these topics and illustrate their importance in modern engineering. -
SESA6085 2029-30
Advanced Aerospace Engineering Management
This module will provide students with the skills and knowledge to model and manage reliability, risk, uncertainty & security at both the project and business level while educating students on their responsibilities to be both ethical and inclusive engineers. A combination of lectures, tutorials and real world case studies will be used to provide students with practical experience of these topics and illustrate their importance in modern engineering. -
SESA3047 2028-29
Advanced Aerospace Mechanics And Control
This module introduces advanced concepts of aerospace mechanics, dynamics and control.
The main focus is on dynamics, modeling and control of systems that have multiple degrees of freedom. The first part of the module aims to express the 3 translational and 3 rotational degrees of freedom of aircraft and spacecraft into a set of linearised ordinary differential techniques. The second part of the module analyses the linearised systems to identify the natural modes of motion for aerospace vehicles and their stability characteristics. The third part of the module introduces feedback control strategies that push aerospace vehicles towards desired performance criteria, e.g. reference tracking, improved stability, etc.
The lectures are complemented by computer-based laboratory sessions covering all relevant practical aspects on the analysis and design of closed-loop control systems. -
SESA3047 2030-31
Advanced Aerospace Mechanics And Control
This module introduces advanced concepts of aerospace mechanics, dynamics and control.
The main focus is on dynamics, modeling and control of systems that have multiple degrees of freedom. The first part of the module aims to express the 3 translational and 3 rotational degrees of freedom of aircraft and spacecraft into a set of linearised ordinary differential techniques. The second part of the module analyses the linearised systems to identify the natural modes of motion for aerospace vehicles and their stability characteristics. The third part of the module introduces feedback control strategies that push aerospace vehicles towards desired performance criteria, e.g. reference tracking, improved stability, etc.
The lectures are complemented by computer-based laboratory sessions covering all relevant practical aspects on the analysis and design of closed-loop control systems. -
SESA3047 2029-30
Advanced Aerospace Mechanics And Control
This module introduces advanced concepts of aerospace mechanics, dynamics and control.
The main focus is on dynamics, modeling and control of systems that have multiple degrees of freedom. The first part of the module aims to express the 3 translational and 3 rotational degrees of freedom of aircraft and spacecraft into a set of linearised ordinary differential techniques. The second part of the module analyses the linearised systems to identify the natural modes of motion for aerospace vehicles and their stability characteristics. The third part of the module introduces feedback control strategies that push aerospace vehicles towards desired performance criteria, e.g. reference tracking, improved stability, etc.
The lectures are complemented by computer-based laboratory sessions covering all relevant practical aspects on the analysis and design of closed-loop control systems. -
SESA2030 2028-29
Advanced Aerospace Systems Design
The SESA2030 Advanced Aerospace Systems Design module integrates practical and theoretical learning through lectures, labs, and hands-on prototyping exercises. It challenges students to collaboratively address mechatronic engineering design problems. This approach enables students to apply theoretical engineering knowledge in practical contexts while further enhancing their interpersonal and communication skills.
The first part of this module covers optimisation theory and its applications to engineering projects. The second part is a team-based, detailed mechatronic engineering design project. Students are given the opportunity to select their preferred projects.
These projects are designed to promote the application of Part 1 and Part 2 engineering and computing competencies within a single, practical engineering design project. Students must deliver both theoretical and practical prototyping solutions in engineering design, control and demonstrating some optimisation.
Student teams will defend their design process and final prototype during a detailed design viva. They will also demonstrate the functionality of their prototype in an appropriate indoor or outdoor environment. -
SESA2030 2026-27
Advanced Aerospace Systems Design
The SESA2030 Systems Design and Computing module integrates practical and theoretical learning through lectures, tutorials, and hands-on prototyping exercises. It challenges students to collaboratively address mechatronic engineering design problems. This approach enables students to apply theoretical engineering knowledge in practical contexts while further enhancing their interpersonal and communication skills.
The core assessment for this module is a team-based, detailed mechatronic engineering design project. Students are given the opportunity to select their preferred projects in Semester 1.
These projects are designed to promote the application of Part 1 and Part 2 engineering and computing competencies within a single, practical engineering design project. Assessment milestones are distributed across both semesters, requiring teams to collaborate effectively under tight deadlines. Students must deliver both theoretical and practical prototyping solutions in engineering design and computing.
Student teams will defend their design process and final prototype during a detailed design viva. They will also demonstrate the functionality of their prototype in an appropriate indoor or outdoor environment. -
SESA2030 2027-28
Advanced Aerospace Systems Design
The SESA2030 Advanced Aerospace Systems Design module integrates practical and theoretical learning through lectures, labs, and hands-on prototyping exercises. It challenges students to collaboratively address mechatronic engineering design problems. This approach enables students to apply theoretical engineering knowledge in practical contexts while further enhancing their interpersonal and communication skills.
The first part of this module covers optimisation theory and its applications to engineering projects. The second part is a team-based, detailed mechatronic engineering design project. Students are given the opportunity to select their preferred projects.
These projects are designed to promote the application of Part 1 and Part 2 engineering and computing competencies within a single, practical engineering design project. Students must deliver both theoretical and practical prototyping solutions in engineering design, control and demonstrating some optimisation.
Student teams will defend their design process and final prototype during a detailed design viva. They will also demonstrate the functionality of their prototype in an appropriate indoor or outdoor environment.