Here's a breakdown of what you can expect in an EET curriculum:
Core Subjects:
* Circuit Analysis: Analyzing and designing electrical circuits, including DC and AC circuits.
* Electronics: Studying semiconductor devices (diodes, transistors, op-amps), and their applications in circuits.
* Digital Systems: Understanding logic gates, Boolean algebra, and digital circuit design. This often includes microcontrollers and programmable logic devices (PLDs).
* Microprocessors/Microcontrollers: Programming and interfacing with microcontrollers for various applications.
* Power Systems: Fundamentals of power generation, transmission, and distribution. This area may be more emphasized in some programs than others.
* Instrumentation and Measurement: Using various instruments to measure and analyze electrical signals.
* Control Systems: Designing and implementing systems to control processes automatically.
* Computer-Aided Design (CAD): Using software tools for designing and simulating circuits and systems.
Specialized Areas (Depending on the program):
Many EET programs offer specializations or concentrations, which might include:
* Robotics: Designing and building robots and robotic systems.
* Telecommunications: Understanding and working with communication systems and networks.
* Power Electronics: Designing and controlling power electronic circuits used in power supplies and motor drives.
* Renewable Energy: Focusing on solar, wind, and other renewable energy technologies.
* Industrial Automation: Working with programmable logic controllers (PLCs) and other industrial control systems.
Hands-on Experience:
A significant component of EET programs is laboratory work and practical projects. Students gain experience working with various equipment, building circuits, and troubleshooting problems. Many programs also include internships or co-op opportunities to provide real-world experience.
Difference from Electrical Engineering (EE):
While both EET and EE deal with electricity and electronics, there are key distinctions:
* Theory vs. Application: EE emphasizes theoretical understanding and advanced mathematical modeling. EET focuses on the practical application of established principles.
* Math and Physics: EE requires a stronger foundation in advanced mathematics and physics. EET usually has less demanding mathematical requirements.
* Depth vs. Breadth: EE delves deeper into specific areas of electrical engineering. EET provides a broader range of knowledge across different areas.
In summary, an EET degree prepares graduates for a career applying electrical engineering principles in a practical, hands-on setting, often in industrial, manufacturing, or technical support roles. Graduates are typically well-equipped to work in various industries, including manufacturing, automation, telecommunications, and renewable energy.