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EE2504: ELECTRONIC SYSTEMS (2023-2024)

Last modified: 01 Aug 2023 11:46


Course Overview

Electronics systems are discussed from basic concepts of digital logic to highlights of embedded microcontrollers. The journey begins with the elementary building blocks of Boolean algebra (logic gates and flip-flops) that are used to design combinatorial/sequential logic circuits, e.g. implementing a simple calculator or a temperature control circuit. The design of complex system is addressed introducing embedded microcontrollers, discussing their core components (e.g. timers, memory) and required programming operations.

Hands-on lab sessions (and relative assignments) include software-based simulations and hardware implementation of systems that allow students to test and deepen their understanding of the subject.

Course Details

Study Type Undergraduate Level 2
Term Second Term Credit Points 15 credits (7.5 ECTS credits)
Campus Aberdeen Sustained Study No
Co-ordinators
  • Dr Fabio Verdicchio

Qualification Prerequisites

  • Either Programme Level 1 or Programme Level 2

What courses & programmes must have been taken before this course?

What other courses must be taken with this course?

None.

What courses cannot be taken with this course?

Are there a limited number of places available?

No

Course Description

Course Topics include:

  • Review of digital electronics: comparison of digital and analogue systems.
  • Boolean algebra and digital logic; Design of digital logic applications in an engineering context.
  • Sequential logic: Finite State Machine (FSM); Examples of FSM for engineering applications.
  • Basic architecture of programmable systems; Microcontrollers and embedded systems;
  • Review of software and hardware components in real-world embedded systems.

Contact Teaching Time

Information on contact teaching time is available from the course guide.

Teaching Breakdown

More Information about Week Numbers


Details, including assessments, may be subject to change until 30 August 2024 for 1st term courses and 20 December 2024 for 2nd term courses.

Summative Assessments

Exam

Assessment Type Summative Weighting 70
Assessment Weeks Feedback Weeks

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Feedback

Whole-class feedback and solutions to past assignment or exams are provided via MyAberdeen.

Learning Outcomes
Knowledge LevelThinking SkillOutcome
Sorry, we don't have this information available just now. Please check the course guide on MyAberdeen or with the Course Coordinator

Lab Report 1

Assessment Type Summative Weighting 15
Assessment Weeks Feedback Weeks

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Feedback

Marked submissions (typically via MyAberdeen) will be returned to the students promptly, including feedback on the laboratory exercises.

Learning Outcomes
Knowledge LevelThinking SkillOutcome
Sorry, we don't have this information available just now. Please check the course guide on MyAberdeen or with the Course Coordinator

Lab Report 2

Assessment Type Summative Weighting 15
Assessment Weeks Feedback Weeks

Look up Week Numbers

Feedback

Marked submissions (typically via MyAberdeen) will be returned to the students promptly, including feedback on the laboratory exercises.

Learning Outcomes
Knowledge LevelThinking SkillOutcome
Sorry, we don't have this information available just now. Please check the course guide on MyAberdeen or with the Course Coordinator

Formative Assessment

There are no assessments for this course.

Resit Assessments

Exam

Assessment Type Summative Weighting 100
Assessment Weeks Feedback Weeks

Look up Week Numbers

Feedback
Learning Outcomes
Knowledge LevelThinking SkillOutcome
Sorry, we don't have this information available just now. Please check the course guide on MyAberdeen or with the Course Coordinator

Course Learning Outcomes

Knowledge LevelThinking SkillOutcome
ConceptualUnderstandKnowledge and understanding of: Boolean logic and gates; implementation of complex logic circuits; representation of integer numbers.
ProceduralApplyTest the design of a digital system using a SW simulator, examples: a logic circuit implementing basic arithmetic operations; a Finite State Machine controlling the operation of a mechanical system.
ProceduralApplyDerive transition diagrams and tables that define a Finite State Machine (FSM) with a given behaviour. Use combinatorial logic circuits and flip-flops to implement to FSM
ConceptualUnderstandKnowledge and understanding of: flip-flops and their role in logic circuits; use of Boolean algebra, flip-flops and state encoding in the design of a Finite State Machine.

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