Robotics and Mechatronics Engineering Program

General Admission Requirements:

• Mathematics: Pre-Calculus 12 at minimum 75%
• The program is available to applicants with prior higher qualifications.

English Language Proficiency Admission Requirements:

• International English Language Testing System (IELTS) general or academic, minimum overall band 5.5, with no individual band score less than 5.0
• Test of English as a Foreign Language (TOEFL) iBT 72 overall with minimum of 18 in each component
• Duolingo 95-100 overall with minimum 90 in writing
• CAEL 60 overall with minimum 50 in writing
• PTE Academic Score: 60
• Exemption: University Degree (3 years or more) with English as Language of instruction.

Advanced Admission Requirements:

• Individuals interested in joining at Stage 3 will sit an examination to demonstrate sufficient knowledge of subject matter pre-requisites from Stages 1 and 2.

 

MRE 101 Engineering Mathematics

This course focuses on using mathematical software to solve various problems and equations in mechatronics contexts, including electrical circuit analysis, mechanical systems, signal processing, and probability and statistics.

MRE 102 DC Circuit Analysis

The course covers principles and methods of analyzing DC circuits, including series, parallel, and complex circuits. It emphasizes techniques like superposition, mesh analysis, and RMS value calculation for sinusoidal waveforms, supplemented with practical laboratory experiments.

MRE 103 AC Circuit Analysis

This course delves into the analysis of circuits containing resistance, inductance, and capacitance, focusing specifically on AC circuits powered by AC sources. It uses complex algebra, phasor diagrams, and power diagrams for circuit behavior analysis, reinforced through laboratory experiments.

MRE 104 Digital Systems

Digital Systems will immerse you in the intricate world of digital systems. When you complete this course, you will possess the expertise to harness binary and hexadecimal number systems, apply logic gates, truth tables, and Boolean algebra to craft sophisticated digital circuits.

MRE 105 ECAD (Electronic Computer-Aided Design)

This course provides in-depth training in ECAD software tools for electronic circuit design and simulation. It covers creating 2D and 3D models, electronic circuit design, AC, DC, and transient analyses, and preparation of documentation for electronic device fabrication and assembly.

MRE 106 Programming 1

This course dives into core programming concepts using languages like C++ or Python. It covers programming essentials such as variables, data types, control structures, functions, arrays, and object-oriented programming principles including classes, objects, inheritance, and polymorphism.

MRE 107 Industry Engagement 1

Participation in Industry Engagement is a mandatory activity you will undertake throughout your studies. It will consist of attendance and participation in guest lectures, industry workshops, conferences, competitions, technical seminars, and continuous professional development events.

MRE 108 Systems Thinking

This course builds upon the foundation established in earlier program courses and offers a deeper exploration of mechatronics and robotic systems through the lens of systems theory. You will learn to utilize and apply system theory and systems thinking to a range of problems in robotics and mechatronics engineering, and upon successful completion, you will have reliably demonstrated the ability to apply and adapt systems theory principles to the realm of mechatronics and robotics.

MRE 109 Systems Design

This course offers an in-depth exploration of mechatronics and robotics system design. Upon successful completion, you will master the art of applying systems thinking to optimize overall system performance.

MRE 110 Automation and Motion Systems

You will embark on a transformative journey into the heart of automation and motion control. By the course's conclusion, you will have applied the core concepts of automation and motion systems, seamlessly operating and designing sensors, actuators, and controllers.

MRE 111 Embedded Systems

This course provides a hands-on journey into the fascinating world of embedded systems. By course completion, you will confidently understand the intricate architecture and operations of embedded systems, unraveling the dynamic interplay between hardware and software within these systems.

MRE 112 Control Systems

Robotic motion and control are one of the key areas when tackling design, development, or maintenance or robotic and mechatronic systems. Upon successful completion of this course, you will have reliably demonstrated the ability to apply the principles of control systems, encompassing a range of topics across analog and digital control systems.

MRE 113 Programming 2

Building upon the foundational knowledge gained in Programming 1, this course serves as the natural progression in your programming journey. Through this course, you will attain the expertise to craft intricate software solutions, deftly integrating a diverse range of programming concepts and techniques previously learned, and seamlessly handling larger, multi-file programming projects.

MRE 114 Project 1

This course is a dynamic exploration of the practical application of engineering knowledge in the fields of mechatronics and robotics. It aims to empower you to become a proficient mechatronics and robotics engineer capable of designing, implementing, and communicating complex projects that address real-world challenges.

MRE 115 Industry Engagement II

Participation in Industry Engagement is a mandatory activity you will undertake throughout your studies. It will consist of attendance and participation in guest lectures, industry workshops, conferences, competitions, technical seminars, and continuous professional development events.

MRE 116 AI and Machine Learning

This course will help you bridge the challenges that we find at the intersection of programming, AI, and robotics. Building on the foundations laid in Programming 1 and Programming 2, this course delves into the dynamic world of Simulink to help you design and implement AI and ML solutions for mechatronic and robotic systems. You will learn techniques like regression, classification, clustering, and you will explore neural networks.

MRE 117 Machine Vision and Sensing

This course provides an immersive journey into the world of machine vision and sensing solutions in mechatronics and robotics. Upon successful completion, you will have adeptly harnessed Simulink and your prior knowledge from digital systems, control systems, and programming courses to craft effective solutions.

MRE 118 Analogue and Digital Devices

Upon successful completion of this course, you will have honed the ability to determine the operational characteristics of amplifier circuits and delve into the types and effects of feedback on amplifier performance.

MRE 119 Microprocessors & Microcontrollers

In this course, you will harness a spectrum of skills to master the integration of microprocessors and microcontrollers in mechatronics and robotics. By applying knowledge from engineering mathematics, digital systems, and programming, along with Simulink and MATLAB, you will design and implement efficient solutions for these systems, featuring memory management, I/O interfacing, and real-time control.

MRE 120 Industrial Robotics

In this course, you will dive deep into the world of industrial robotics, gaining essential skills for your future as a robotics or mechatronics engineer. You will explore the critical aspects of safety and maintenance related to industrial robots.

MRE 121 Ethics for Technologists

This course equips you with the essential skills and knowledge to navigate the complex ethical challenges that arise in mechatronics and robotics engineering in today’s dynamics landscape. Breakthrough technologies in the field should be understood with an awareness of the ethical compass that helps signpost technology as an aid and help to humanity, rather than a threat.

MRE 122 Industry Engagement III

Participation in Industry Engagement is a mandatory activity you will undertake throughout your studies. It will consist of attendance and participation in guest lectures, industry workshops, conferences, competitions, technical seminars, and continuous professional development events.

MRE 123 PLCs in Industry

In this course, you will delve into the world of industrial PLC systems, gaining a comprehensive understanding of their technology. You will explore programming structures and methods used to control PLCs, equipping you with the ability to design and execute precise commands.

MRE 124 Manufacturing Processes

In this course, you will gain the ability to recognize and categorize various manufacturing processes, exploring and discussing the principles, applications, and limitations of these methods by putting theory and practice to the test, analyzing, and comparing various manufacturing methods and processes.

MRE 125 Industrial Systems

We will explore the intricate world of industrial systems, helping you develop the skills to recognize, categorize, and understand these systems, their components, functions, and interactions within complex production environments.

MRE 126 Project 2

With Project 2, you will embark on a dynamic journey to apply an integrated knowledge base spanning programming, control systems, automation, and robotics. By the end of your journey, you will have designed and executed a mechatronics or robotics project addressing real-world challenges, blending principles from PLCs, industrial robotics, and AI seamlessly.

MRE 127 Industry Engagement IV

Participation in Industry Engagement is a mandatory activity you will undertake throughout your studies. It will consist of attendance and participation in guest lectures, industry workshops, conferences, competitions, technical seminars, and continuous professional development events.

Apply the principles of mechatronics and robotics:

• Understand the fundamental principles of mechatronics, including mechanical systems, electronics, control theory, and computer science.
• Demonstrate knowledge of robotic systems, including kinematics, dynamics, sensors, actuators, and programming.
• Apply mathematical modeling and simulation techniques to analyze and design mechatronic and robotic systems.

Perform practical implementations of technology for mechatronics and robotics:

• Develop hands-on skills in assembling, calibrating, and troubleshooting mechatronic and robotic systems.
• Utilize industry-standard tools and equipment for prototyping, testing, and iterating mechatronic and robotic designs.
• Implement control algorithms for various robotic applications, including motion control, path planning, and manipulation tasks.

Leverage existing, new, and emerging technologies for mechatronics and robotics:

• Evaluate and integrate commercially available components and subsystems into mechatronic and robotic designs.
• Stay updated with the latest advancements in mechatronic and robotic technologies, including sensors, actuators, embedded systems, and artificial intelligence.
• Explore and experiment with emerging technologies such as soft robotics, bio-inspired systems, and human-robot interaction.

Adapt mechatronics and robotic systems to diverse industries:

• Analyze the requirements and constraints of different industries and applications for mechatronic and robotic systems.
• Customize and optimize mechatronic and robotic solutions for specific industrial sectors such as manufacturing, healthcare, agriculture, and transportation.
• Collaborate with industry partners to address real-world challenges and implement mechatronic and robotic solutions in practical settings.

Innovate in mechatronics and robotics:

• Foster a culture of creativity and innovation in developing novel mechatronic and robotic concepts and solutions.
• Identify and explore opportunities for disruptive technologies and paradigm shifts in the field of mechatronics and robotics.
• Engage in research and development activities to push the boundaries of mechatronic and robotic capabilities, addressing societal needs and global challenges.

By achieving these learning objectives, students will acquire a comprehensive skill set and knowledge base to excel in the field of mechatronics and robotics, enabling them to contribute effectively to industry, research, and innovation.