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COMP3530 Systems Engineering for Software Engineers

Later Year Course

Offered By Research School of Computer Science
Academic Career Undergraduate
Course Subject Computer Science
Offered in First Semester, 2012
Unit Value 6 units
Course Description

Society relies on many complex systems of interacting technology, people, processes, laws and other elements. Examples of such systems include air transport, telecommunications and energy supply. Systems Engineering is a holistic, multi-disciplinary and well established approach to the engineering of these complex systems. Because software is a critical component of such systems, Software Engineers will often work in Systems Engineering teams. This course prepares students for such roles by covering the following topics:

  • Systems concepts
  • The Systems Engineering life-cycle and processes
  • Conceptual system design: including problem definition, technical performance measures, quality function deployment (QFD), trade-off analyses, and system specification.
  • Preliminary system design: subsystem design requirements, design review.
  • Detailed design and development: Detailed design requirements and design engineering activities; review and feedback, and incorporation of design changes
  • Design testing, evaluation and validation
  • Design for sustainability: approaches that integrate sustainability principles into the design process
  • Integration of Systems Engineering and Software Engineering activities
Learning Outcomes

Upon completion of this course, the student will be able to:

  1. describe the holistic and multi-disciplinary nature of complex engineering projects
  2. describe the Systems Engineering life-cycle
  3. identify and explain the activities involved in each phase of the Systems Engineering life-cycle
  4. explain the role of Software Engineering within the broader context of Systems Engineering

Students will also improve their:

  1. ability to understand and solve complex and ill-defined problems
  2. ability to communicate with the multi-disciplinary engineering team and the community at large
  3. understanding of and commitment to ethical and professional responsibilities,
  4. ability to function as an individual and as a team leader and member in multi-disciplinary and multi-cultural teams
Indicative Assessment

Problem sets (25%); Quiz (25%); Individual design exercise (25%); Group Design Project (25%)

Workload

Thirteen two-hour lectures and seven two-hour workshop sessions.

Requisite Statement

ENGN1211 and COMP2130

Incompatibility

ENGN2225

Recommended Courses

not applicable

Science Group C
Academic Contact shayne.flint@anu.edu.au

The information published on the Study at ANU 2011 website applies to the 2011 academic year only. All information provided on this website replaces the information contained in the Study at ANU 2010 website.

Updated:   13 Nov 2015 / Responsible Officer:   The Registrar / Page Contact:   Student Business Solutions