Power & grid
Generation, transmission and smart grids.
Darker cells mean a higher score for this topic on that metric.
Academic rigor90
Selectivity74
Employability88
Creativity58
Math intensity92
People-facing34
LessMore
Each bar is a 0-100 atlas score for this topic, not a timeline.
- 011
- 022
- 033
- 044
Last reviewed Sources & creditsMedia creditsMethodology
Quick facts
4 yearsTypical bachelor
STEM & EngineeringField
92Math intensity
88Employability*
34People-facing*
74Selectivity*
Electrical engineering links circuits, fields, signals and power — from chips and sensors to grids and wireless links. The craft is measurement and modelling under real constraints: noise, heat, regulation and cost, not only textbook ideal sources.
You will live in electronics labs, power benches and sometimes cleanroom or RF facilities with booking queues and safety briefings. Design projects and lab reports matter as much as exams; simulation without solder still leaves gaps employers notice.
Paths include semiconductors, embedded systems, power, telecoms and robotics-adjacent roles. Relative scores below compare majors on this site only.
The profile
- Academic rigor90
- Selectivity74
- Employability88
- Creativity58
- Math intensity92
- People-facing34
Employability signal
Typical bachelor years: 4
Scores are relative across the forty majors on this site — not absolute rankings of universities.
Popularity & Demand →90Academic rigor
74Selectivity
88Employability
58Creativity
92Math intensity
34People-facing
Industries this major feeds
Sectors where graduates and research from this field show up most often — plates from Wikimedia Commons.
Telecom
Radio, fibre and mobile networks.
Electronics
Devices from sensors to phones.
EVs & drives
Motors, inverters and charging.
People who shaped the field
Checkable figures whose work still frames how the discipline is taught and practised.
Nikola Tesla
AC systems
1856–1943
Napoleon Sarony · Public domain
Michael Faraday
Electromagnetism
1791–1867
Unknown author Unknown author · Public domain
Claude Shannon
Information theory
1916–2001
Unknown author Unknown author · CC BY 2.0
Edith Clarke
Power engineer
1883–1959
Unknown author Unknown author · Public domainSeven ways into this major
Compare with neighbours
Same-field head-to-heads built from the six score axes.
Frequently asked questions
What do you study in Electrical Engineering?
Circuit theory — Circuit theory trains the habits electrical engineering depends on — not trivia for exams, but reusable technique for later studios, labs or clinics.
What does a Electrical Engineering career path look like?
Foundation years — 0–2 — Build vocabulary and habits; seek near-peer tutoring before gaps compound.
How should I prepare for Electrical Engineering?
Practise the entry craft — Problem sets, portfolios, essays or auditions that mirror first-year reality — not only entrance exams.
How long does a typical Electrical Engineering degree take?
Most bachelor pathways run about 4 years of full-time study, though professionally accredited or longer first degrees can exceed that, and some systems split into 3+2 Bologna structures.
Is Electrical Engineering mostly theoretical or practical?
Expect both. Foundations lean theoretical; later years push electronics labs, benches and design projects. The balance depends on accreditation and department culture.
Do I need strong mathematics?
Math intensity on this site is scored 92/100 relative to other majors. That is a signal, not a gate — check the specific programme's calculus and statistics requirements.
How selective is entry?
Selectivity here is 74/100 relative to the other majors catalogued — a composite of typical grade barriers and competition, not a single exam cut-off.
What communities should I join?
Start with the departmental society, then look for national student chapters and one serious online forum where practitioners share primary sources rather than memes.
Similar majors
Why labels are thematic — not a ranking of better majors.
Scores are browsing aids for curriculum and career lanes, not a league table of worth.
⚗️
Chemical Engineering
Turning reactions into plants — scale, safety and efficiency from molecule to factory.
Employability 82 Same field neighbour
📉
Statistics
Uncertainty made usable — design, inference and the ethics of claiming a pattern is real.
Employability 88 Same field neighbourMore in STEM & Engineering
💻
Computer Science
Algorithms, systems and software — how machines are made to reason, store and communicate.
Employability 94 🔧Mechanical Engineering
Forces, materials and machines — designing things that move, bear load and last.
Employability 86 🌉Civil Engineering
Infrastructure that societies stand on — bridges, water, roads, cities and codes.
Employability 84 ⚗️Chemical Engineering
Turning reactions into plants — scale, safety and efficiency from molecule to factory.
Employability 82 🛰️Aerospace Engineering
Flight in air and vacuum — structures, propulsion, guidance and certification.
Employability 76 📊Data Science
Statistics, computing and domain sense — turning messy data into decisions that hold up.
Employability 92 🧮Mathematics
Proof, structure and abstraction — the language that other sciences borrow.
Employability 70 ⚛️Physics
Matter, energy, space and time — from lab benches to the edge of the observable.
Employability 68 🧪Chemistry
Molecules and reactions — how substances change, bind and are made safely.
Employability 72 📉Statistics
Uncertainty made usable — design, inference and the ethics of claiming a pattern is real.
Employability 88