MASTER OF INDUSTRIAL ELECTRONICS TECHNOLOGY (MIE)
| Module Code | Module Name | Description |
|---|---|---|
|
MIE501 |
Industrial Instrumentation |
Focuses on the sensors, transducers, and actuators used in modern manufacturing and process industries. It covers signal conditioning, data acquisition systems, and the calibration of measurement instruments for pressure, temperature, flow, and level control. |
|
MIE502 |
Advanced Semiconductor Devices and Circuits |
Explores the physics and operation of cutting-edge electronic components. The course covers power semiconductor devices (like SiC and GaN MOSFETs), high-frequency circuits, and the design of advanced power converters and amplifiers used in industrial power electronics. |
|
MIE503 |
Advanced Control Systems |
Covers sophisticated mathematical methods for controlling complex machines and processes. Key topics include state-space analysis, multivariable control, robust control, and non-linear systems, moving beyond basic PID loops to achieve high precision and stability. |
|
MIE504 |
Electronic Systems Modelling and Analysis |
Teaches the use of mathematical tools and software (such as MATLAB/Simulink) to simulate the behavior of complex electronic systems. Students learn to predict system performance, stability, and thermal characteristics before physical prototyping. |
|
MIE505 |
Artificial Intelligence Techniques and Automation |
Examines the integration of AI and Machine Learning into industrial environments. It covers neural networks, fuzzy logic, and genetic algorithms applied to predictive maintenance, computer vision for quality control, and autonomous robotic systems. |
|
MIE506 |
Programmable Logic Controllers |
Programmable Logic Controllers (PLCs) provides advanced expertise in designing and managing the automated brains of modern industrial environments. Students gain deep technical knowledge in developing complex control logic, integrating high-performance hardware like sensors and actuators, and implementing industrial communication protocols such as Profibus and Modbus. By combining PLC programming with SCADA systems and HMI design, the program equips graduates to architect, troubleshoot, and optimize the sophisticated automation systems driving the transition to smart factories and Industry 4.0. |
|
MIE507 |
IoT Engineering |
Focuses on the "Internet of Things" within an industrial context (IIoT). It covers the architecture of connected devices, low-power communication protocols (like LoRaWAN and MQTT), edge computing, and the security of sensor-to-cloud data pipelines. |
|
MIE508 |
Integrated Production Systems |
Provides a holistic view of modern manufacturing, focusing on Computer Integrated Manufacturing (CIM). It explores the synergy between automated assembly lines, robotics, resource planning (ERP), and lean manufacturing principles to optimize factory throughput. |
|
MIE509 |
Real Time and Embedded Systems |
Covers the design of dedicated computer systems that must respond to events within strict timing constraints. Topics include RTOS (Real-Time Operating Systems), microcontroller architecture, interrupt handling, and hardware-software co-design for industrial controllers. |
|
MIE510 |
Integrated Circuit Design |
Focuses on the architecture and layout of Analog and Digital ICs. Students learn about CMOS technology, VLSI (Very Large Scale Integration) design flows, and the tools used to create Application-Specific Integrated Circuits (ASICs) or FPGA-based solutions. |
|
MIE560 |
Dissertation |
The final research phase where students apply their specialized knowledge to a significant technical problem. This involves the design, simulation, and potentially the physical construction of an industrial electronics solution, documented in a formal academic thesis. |
<div style="width: 100



