2026/27 · Official catalogue edition
The effective term printed in this PDF is Semester A 2025/26。
Offering details for 2026/27 have not been checked. Confirm available sections in AIMS before registering.
What you will study
- Course overview and aims
- Since the invention of first electronic transistor in 1947, there is a tremendous development of electronic technology over the past 70 years. Nowadays, electronic technology has been penetrating almost every aspect of our life and creating huge impact in our community. A few examples are mobile phones, TV, and Octopus card which are all popular electronic products used by everyone. In fact, our ways of living are greatly influenced by these technologies. All these products consist of a key electronic component ‒ a tiny computer chip for executing all the desired functions of the devices or appliances. Attributed to the years of efforts by different scientists and engineers, these computer chips are now much faster, smaller, cheaper and easier for users even without much technical background. Regardless of your science or arts background, have you ever thought about building an electronic product to control a system or to measure signals such as heart pulses? In fact, there are endless ideas in applying these fascinating computer chips in project design relevant to your specific needs. The course teaches the basic electronic systems, signals and basic computing theory. The aim of this course is to develop students from different disciplines on their fundamental understanding of simple electronic systems, in order to allow students to turn their ideas into a simple design work, supplemented by lectures and hands-on training. At the final four weeks of the course, students from different majors will form multi-disciplinary project groups for exploring real problems and their possible electronic and computing design. Each project group will be provided with a low-cost and easy-to- use tiny computer board (unit) with some build-in features for sensing body movements, displaying texts and graphics, informing the environmental temperature, etc., that allow the students to realize their own functional products.
- Keyword syllabus
- Waves and Acoustic Waves: vibrations, simple harmonic motions, the relationship among wavelength, period, frequency and speed, interactions of two or more waves, the Doppler effect; Acoustic: amplitude and loudness, frequency and pitch, interference and beats, fundamental frequency and harmonics. Basic Signal Processing Introduction to Signals (e.g. heart pulses), time and frequency domains, bandwidth, noise and gain in dB, continuous-time and discrete-time signal, analogue to digital signal conversion, audio systems, basic difference equations, simple digital low pass filtering. Computation implementation Introduction to basic Python, implementation on simple microprocessor platform. Basics of Electronic Design Four weeks of laboratory work to implement a mini project, for example, voice filtering, heart pulse waveform measurement and walking steps measurement, using basic signal processing and electronic circuit techniques.
Official PDF, page 5 · Keyword Syllabus
- Intended learning outcomes
View learning outcomes
CILO Intended learning outcome Weight DEC 1 Identify recent technology developments for modern electronic applications — DEC-A1 2 Describe the fundamental and basic principles of electronic systems and signal processing applications. — DEC-A1, DEC-A2, DEC-A3 3 Apply programming techniques and integrate electronic components and units for simple product design — DEC-A1, DEC-A2, DEC-A3 4 Demonstrate processes from design idea to product realization — DEC-A1, DEC-A2 5 Demonstrate presentation skills to describe design idea and product — DEC-A1, DEC-A2, DEC-A3 Official PDF, page 2 · Course Intended Learning Outcomes (CILOs)
Before you take this course
Check prerequisites, precursors and corequisites separately, together with equivalence and exclusion conditions. “and” means conditions must be met together; “or” marks alternatives. Read combined conditions in the groupings shown in the original text below.
- Prerequisites
- Nil
- Precursors
- Nil
- Corequisites
- This edition of the official syllabus does not state this item.
- Additional course requirements
- This edition of the official syllabus does not state this item.
- Equivalent courses and conditions
- EE1003 Introduction to Electronic Design and Workshop
- Exclusive courses and conditions
- Nil
Assessment and passing the course
- Assessment
- Continuous assessment: 50%; Examination: 50%; Examination duration: 2 hours
Assessment breakdown
Assessment task Weight Generative AI Remarks and restrictions Project: demo, presentation, report. laboratoriesCILO 1, 2, 3, 4, 5 20% Yes - Tests (min.: 2) & quizzesCILO 1, 2, 3, 4 30% No - Official PDF, page 3 · Assessment Tasks / Activities (ATs)
View the original assessment table and instructions
Project: demo, presentation, report, laboratories | CILO No. 1,2,3,4,5 | 20% | - | Yes Tests (min.: 2) & quizzes | CILO No. 1,2,3,4 | 30% | - | No
- Passing requirements
- Remark: To pass the course, 75% laboratory attendance rate must be obtained.
Credits, duration and edition details
- Title in this edition
- Introduction to Electronic Design
- Credits in this edition
- 3
- Course duration
- One Semester
- Syllabus effective term
- Semester A 2025/26
- Levels printed in the syllabus
- B1, B2, B3, B4 - Bachelor's Degree
Check the official document
Read or download this edition through the university link below. GE1354 · Open the original university PDF ↗
Source · University course information ↗ · Checked 2026-10-18