Overview
Electrical and Electronic Engineering is one of the broadest engineering disciplines, covering everything from power generation and distribution to microchip design, telecommunications, and control systems. It is the field behind your smartphone, the internet, renewable energy systems, and autonomous vehicles.
At university, you will study circuit theory, electromagnetics, signal processing, power systems, semiconductor devices, and control engineering. The field increasingly overlaps with computer science through areas like embedded systems, IoT (Internet of Things), and VLSI (Very Large Scale Integration) chip design. Students typically specialize in either power engineering (large-scale energy systems) or electronics (smaller-scale devices and communications).
If you enjoy physics, are fascinated by how electronic devices work, and want to build systems that power the modern world, electrical engineering is a rewarding choice.
Top EE programmes worldwide offer distinct strengths that shape graduates differently. UC Berkeley's EECS (Electrical Engineering and Computer Sciences) programme is famously unified—merging hardware and software training into a single department—producing graduates equally fluent in circuit design and algorithm development. MIT's EECS department, one of the largest academic departments in the world, drives research across quantum computing, energy harvesting, and photonics through facilities like the Microsystems Technology Laboratories. At ETH Zurich, the Department of Information Technology and Electrical Engineering emphasizes power electronics and integrated circuits, with strong ties to European semiconductor and energy industries. Imperial College London's EE department offers an integrated year in industry, placing students at firms like ARM, Dyson, and National Grid, bridging academic theory with real-world engineering practice.
Career Outcomes & Salary
What jobs can I get and how much will I earn?
$70,000–$100,000 (US) / £28,000–£42,000 (UK) / A$62,000–$85,000 (Australia)
$100,000–$170,000 (US) / £50,000–£85,000 (UK)
$150,000–$300,000+ (US, including bonuses/equity)
Strong and diversified. EE graduates are needed across virtually every industry that uses electricity—which is all of them. The energy transition (solar, wind, EVs, grid storage), 5G/6G deployment, and semiconductor expansion are the primary growth drivers. The US BLS projects 5% growth for electrical engineers through 2032, with significantly higher growth in power electronics, renewable energy, and RF engineering.
Industry Trends & Outlook
Where is this field heading?
Electrical engineering is experiencing a renaissance driven by the global energy transition, the 5G/6G communications revolution, and the insatiable demand for semiconductors. The decarbonisation of energy systems is perhaps the most consequential shift: electrical engineers are designing the power electronics for solar inverters, wind turbine generators, electric vehicle drivetrains, and grid-scale battery storage systems. The global market for power electronics alone is projected to exceed $50 billion by 2028. Companies like Tesla, Siemens Energy, ABB, and Schneider Electric are hiring aggressively for power systems and power electronics roles.
The communications industry is undergoing its own transformation. 5G deployment is creating demand for RF engineers, antenna designers, and signal processing specialists, while 6G research (targeting terahertz frequencies and AI-native networks) is already underway at companies like Ericsson, Nokia, and Samsung. Satellite communications—driven by constellations like Starlink and OneWeb—are adding another layer of demand. Meanwhile, the semiconductor industry's massive expansion (CHIPS Act, new fab construction) needs electrical engineers for analogue IC design, power management, and test engineering—roles that are perpetually in shortage because they require deep analogue expertise that takes years to develop.
AI is reshaping how electrical engineers work, but the fundamentals remain irreplaceable. Machine learning is used for signal processing optimisation, predictive grid management, antenna array design, and semiconductor process control. However, the physical constraints of electrical engineering—Maxwell's equations don't change, power grids need real-time stability, and analogue circuits require human intuition for design—mean that the profession is highly resistant to automation. For students entering university, EE offers a remarkable combination of job security (every industry needs electricity and electronics), technical depth, and direct relevance to humanity's most pressing challenges: clean energy, global connectivity, and sustainable technology.
AI & This Major
AI is enhancing EE practice but not replacing it. Machine learning is used for power grid optimisation, signal processing, antenna design, and predictive maintenance. However, the physical nature of EE—designing circuits that obey Maxwell's equations, building power systems that must be safe and reliable, creating analogue electronics that require human intuition—makes it one of the most automation-resistant engineering disciplines. Engineers who combine EE fundamentals with programming and data skills command premium salaries.
What You'll Learn
Core topics and skills covered in this degree
Is This Right For Me?
Honest self-assessment to help you decide
You'll thrive if...
- ✓You're fascinated by electricity, electronics, and the invisible forces that power the modern world
- ✓You enjoy physics—especially electromagnetism—and want to apply it to design real systems
- ✓You like the idea of working across diverse industries: from designing power grids to building communication networks to creating medical imaging systems
- ✓You're comfortable with abstract mathematics and can handle complex numbers, differential equations, and Fourier transforms
- ✓You want a career with exceptional job security—every industry needs electrical engineers, and the energy transition is creating massive new demand
Might not be for you if...
- ●You dislike physics, especially electromagnetism—Maxwell's equations are central to the curriculum from Year 1
- ●Heavy mathematics overwhelms you—EE is one of the most maths-intensive engineering disciplines
- ●You want immediate, visible results—much of EE involves invisible phenomena (electromagnetic fields, signal frequencies, current flow) that require instruments to observe
- ●You prefer working purely in software without thinking about physical hardware constraints
- ●You want a narrow, focused degree—EE is broad, and some students find the range of topics (power, signals, electronics, control, communications) overwhelming
A Day in the Life
What a typical week actually looks like
A typical week in Year 2 might look like this: Monday starts with an electromagnetic fields lecture—you're working through Maxwell's equations in differential form, learning how a time-varying electric field generates a magnetic field and vice versa. Today's topic is plane wave propagation in lossy media, and the maths involves complex phasors, skin depth calculations, and wave impedance. It's abstract and mathematically demanding, but the lecturer grounds it by showing how these principles explain why your microwave oven heats food and why submarine communications use extremely low frequencies. After lunch, you have a circuits lab where you build a second-order RLC bandpass filter on a breadboard, sweep the frequency with a function generator, and plot the measured response against your theoretical transfer function.
Tuesday brings a power systems lecture on three-phase AC circuits—balanced and unbalanced loads, power factor correction, and why the electricity grid uses three phases instead of one. Your tutorial has you calculating real, reactive, and apparent power for an industrial motor load and designing a capacitor bank to improve the power factor from 0.7 to 0.95. Wednesday is your heaviest day: a signals and systems lecture covering the Laplace transform and its application to control systems, followed by your electronics lab. Your team of three is designing a Class AB audio power amplifier from discrete transistors—today you're biasing the output stage to minimise crossover distortion, measuring total harmonic distortion with a spectrum analyser, and discovering that thermal runaway is a real concern when your heatsink gets uncomfortably hot.
Thursday opens with a control systems lecture on root locus analysis—plotting how the closed-loop poles of a feedback system move as you adjust the gain, and designing a compensator to meet transient response specifications. The afternoon is a communications lab where you implement AM modulation and demodulation using an analogue multiplier IC, observing the spectrum on a real-time spectrum analyser and understanding why bandwidth efficiency matters. Friday is lighter: a semiconductor physics lecture on PN junction diodes, carrier transport, and the basis for transistor operation, followed by free time most students spend on MATLAB simulations, writing lab reports, or debugging their amplifier design. Weekends can be intense during project deadlines, but there's a unique thrill in understanding the invisible forces—electromagnetic fields, current flow, signal propagation—that power the modern world.
High School Preparation
What to study and do before university
Skills to Develop
- •Master the fundamentals of electricity—Ohm's law, Kirchhoff's laws, capacitors, inductors—and practise solving circuit problems until they're intuitive
- •Build simple circuits on a breadboard: LED dimmers, voltage dividers, or an AM radio receiver. Hands-on experience with a multimeter and soldering iron is invaluable
- •Learn Python or MATLAB basics for engineering calculations—try simulating an RC circuit's step response or plotting frequency response curves
- •Study electromagnetics intuitively: watch 3Blue1Brown or MIT OpenCourseWare videos on Maxwell's equations, wave propagation, and how antennas work
Extracurriculars
- •Enter physics competitions—the British Physics Olympiad (BPhO), F=ma, or International Physics Olympiad build strong problem-solving foundations
- •Build an electronics project: a Bluetooth speaker, a solar-powered phone charger, or a simple radio transmitter/receiver
- •Join a robotics team (FIRST Robotics, VEX) where you focus on the electrical systems—wiring, motor controllers, sensor integration
- •Attend maker faires or electronics meetups to see what practising engineers build and to explore areas like renewable energy, audio engineering, or RF design
- •Take an online introductory course in circuits (e.g., MIT 6.002x on edX or Khan Academy's Electrical Engineering series)
QS World Ranking 2026
Engineering - Electrical & Electronic
| # | University |
|---|---|
| 1 | 🇺🇸Massachusetts Institute of Technology (MIT) |
| 2 | 🇺🇸Stanford University |
| 3 | 🇸🇬National University of Singapore (NUS) |
| 4 | 🇸🇬Nanyang Technological University, Singapore (NTU Singapore) |
| 5 | 🇺🇸University of California, Berkeley (UCB) |
How This Compares to Similar Majors
Side-by-side with related fields
Getting In — Admissions Guide
How competitive is this major and how to stand out
Electrical engineering is competitive at top universities, typically on par with mechanical engineering. MIT, Stanford, and UC Berkeley are among the most selective US programmes. In the UK, Cambridge and Imperial require A*A*A at A-Level with Mathematics and Physics (Further Mathematics strongly recommended). ETH Zurich and TU Delft are strong European options. IB students typically need 38+ with 7 in HL Mathematics and HL Physics.
What Strengthens Your Application
- 1Excellent results in mathematics and physics—both are essential, with physics being the distinguishing factor over other engineering fields
- 2Electronics or electrical projects: building circuits, Arduino/Raspberry Pi builds, amateur radio (ham radio licence is a strong signal), or audio system design
- 3Physics competition results: BPhO, F=ma, IPhO, or Science Olympiad (Circuit Lab, Detector Building events)
- 4Programming experience in Python, MATLAB, or C—increasingly expected even in traditionally hardware-focused EE programmes
- 5Demonstrated curiosity about how electrical systems work—visiting power stations, reading about telecommunications, or understanding how your phone communicates with a cell tower
Common Mistakes to Avoid
- ●Assuming EE is just about circuits—the degree covers a vast range from quantum-level semiconductor physics to city-scale power grids
- ●Underestimating the mathematics—EE is among the most maths-intensive engineering disciplines, on par with CE and aerospace
- ●Not differentiating EE from CE in your personal statement—if you apply to EE, explain why you want the breadth (power, communications, control) rather than depth in computing hardware
Interview & Admission Tests
Cambridge conducts technical interviews with physics and mathematics problems—expect questions on circuits, electromagnetism, and mechanics. Demonstrating understanding of concepts like impedance, frequency response, or power factor impresses interviewers. Some US programmes assess through holistic review; MIT and Caltech value evidence of hands-on electrical/electronic projects.
Related Majors
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Frequently Asked Questions
What do you study in Electrical & Electronic Engineering?
Electrical and Electronic Engineering is one of the broadest engineering disciplines, covering everything from power generation and distribution to microchip design, telecommunications, and control systems. It is the field behind your smartphone, the internet, renewable energy systems, and autonomous vehicles.
What can you do after a Electrical & Electronic Engineering degree?
Typical entry-level roles: Electrical Engineer, Power Systems Engineer, RF Engineer, Control Systems Engineer, Test Engineer (starting salary $70,000–$100,000 (US) / £28,000–£42,000 (UK) / A$62,000–$85,000 (Australia)). Key industries: Power Generation & Transmission, Semiconductors & Electronics, Telecommunications & 5G/6G, Renewable Energy & Grid Modernisation, Automotive (EV Powertrains). Strong and diversified. EE graduates are needed across virtually every industry that uses electricity—which is all of them. The energy transition (solar, wind,…
Which high-school courses prepare you for Electrical & Electronic Engineering?
Recommended IB courses: HL Mathematics: Analysis and Approaches, HL Physics; Recommended AP courses: AP Physics C: Electricity & Magnetism, AP Calculus BC, AP Physics C: Mechanics; Recommended A-Levels: Mathematics, Further Mathematics, Physics.
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