14.10 Electrical, Electronics, and Communications Engineering
· SOC 17-2071
Electrical engineers design, develop and test electrical and electronic systems — power generation and distribution, control systems, communications, embedded computing, instrumentation and the electronics inside almost everything else. In Florida the work concentrates in aerospace and space launch, defence and simulation, utilities and grid modernisation, semiconductors and medical devices.
Licensure and accreditation
Most electrical engineers work without a licence, and in electronics, embedded systems and semiconductors a PE is uncommon. ⚠ But you cannot offer engineering services to the public, seal drawings or take responsible charge without one — which is why it matters most in POWER, utilities, building systems and consulting. THE DEGREE YOU CHOOSE CHANGES THE TIMELINE: under s. 471.013(1)(a), Florida Statutes, a graduate of an approved ENGINEERING curriculum needs FOUR years of active engineering experience; a graduate of an approved ENGINEERING TECHNOLOGY curriculum needs SIX. The route is an ABET-accredited degree, the Fundamentals of Engineering (FE) exam — sittable in your final year — certification as an Engineer Intern, the experience, then the Principles and Practice of Engineering (PE) exam. Governed by Chapter 471, F.S. and Chapter 61G15, F.A.C. ⚠ Even if you do not expect to need a licence, SIT THE FE IN YOUR FINAL YEAR: it is cheap, you will never know the material better, and it keeps the option open.
What the work actually is
Electrical engineering splits into families that share a foundation and then diverge hard. O*NET’s task statements for the occupation describe designing and maintaining electrical equipment and systems, overseeing project timelines and budgets, directing manufacturing and installation, performing calculations to manufacturing standards, operating engineering software, testing vendors’ products, inspecting installations for compliance, and preparing technical drawings and documentation.
In practice you will end up in one of these, and the choice is usually made by which courses you enjoyed:
Power and energy — generation, transmission, distribution, grid modernisation, renewables. ⚠ This is where the PE licence genuinely matters, and where Florida’s utilities hire.
Electronics and circuits — analogue and digital design, semiconductors, instrumentation.
Embedded and computer engineering — microprocessors, FPGAs, firmware. Overlaps heavily with computer engineering.
Signals, communications and control — wireless, radar, signal processing, control systems. Strong demand from Florida’s defence and simulation sector.
Electromagnetics and photonics — antennas, RF, optics.
Projected need
O*NET, drawing on federal projections, reports 192,000 electrical engineers employed (2024), growth projected “much faster than average” (7% or higher) through 2034, and about 11,700 openings a year. Median pay is $120,630 a year ($58.00 an hour), 2025 figures — among the higher medians in engineering. 82% of survey respondents reported a bachelor’s degree as the requirement for new hires, a notably firmer figure than for mechanical engineering.
⚠ Those are national numbers. Florida’s demand is concentrated: space launch and aerospace on the Space Coast, defence and simulation around Orlando, utilities and grid work statewide, semiconductors, and medical devices.
Necessary skills
Mathematics you can use, not just pass. Differential equations and linear algebra are not background here — circuits, signals and control are written in them. Complex numbers become routine arithmetic.
Comfort with abstraction. ⚠ This is the honest difference from mechanical engineering: you cannot see a field, a phasor or a transfer function. Students who need to picture the mechanism sometimes find the transition to signals and electromagnetics hard, and it is worth knowing that before year three.
Laboratory and instrumentation skill — oscilloscope, function generator, spectrum analyser — and the habit of measuring rather than assuming.
Programming. Nearly every branch now needs C for embedded work and Python or MATLAB for analysis.
Debugging temperament. A great deal of the job is finding why a circuit that should work does not.
⚠⚠ Electrical engineering, computer engineering, or engineering technology?
Three nearby degrees, and the differences are consequential:
Degree
Centre of gravity
PE experience required
Electrical Engineering (CIP 14.10)
the full breadth: power, electronics, signals, fields
4 years
Computer Engineering (CIP 14.09)
digital systems, architecture, embedded; less power and fields
applied and hands-on; installation, test, maintenance
⚠ 6 years
⚠ The technology route also uses its own mathematics sequence, which frequently does not satisfy the calculus requirement for an engineering degree — so transferring into engineering later can mean repeating mathematics on top of the extra two years. All three are real careers; only the first two are engineering for licensure purposes.
Advice
Check ABET accreditation and the commission at amspub.abet.org before you enrol. An Engineering accreditation is what gives the four-year route.
Treat Physics II as a major course. Electricity and magnetism is the direct foundation of circuits, electronics and electromagnetics — more so here than in any other engineering discipline. Do not treat it as a general-education box.
Get to a circuits course early and see whether you like it. It is the cheapest honest test of whether this discipline suits you.
Build something outside coursework. A microcontroller project, a robot, amateur radio, a competition team. Employers ask, and it is the most common differentiator between graduates with identical transcripts.
Sit the FE in your final year even if you expect to go into electronics. Options are cheap to keep and expensive to recreate.
If you are starting at a state college, follow the published engineering transfer track and confirm the receiving university’s exact course numbers in writing — engineering has little elective slack, so a mis-substituted course costs a term.
Courses along this path
Selected, not exhaustive — the courses specific to this path plus the foundations it is built on.
A course number does not identify a course in Florida: always check your own
institution's catalog and take a syllabus to an adviser.
⚠ ⚠ Transfer is guaranteed only on the COMPLETED calculus sequence, because institutions order topics differently. Finish the sequence at one institution where you can.
Physics with Calculus II — electricity and magnetism. ⚠ For this discipline it is not a general-education requirement but the direct foundation of circuits, electronics and fields. Treat it as a major course.
⚠ Two equivalent packagings: a lecture with PHY2049L, or the integrated PHY2049C. Enrol in both halves where your institution splits them.
General Chemistry I — required by most ABET electrical programmes, and the basis for semiconductor and materials work.
⚠ ⚠⚠ FLORIDA NUMBERS GENERAL CHEMISTRY TWO WAYS, AND NO INSTITUTION CARRIES BOTH. Twenty public institutions use CHM2045 (or the integrated CHM2045C); nineteen use CHM1045 (or CHM1045C) — among them Florida State, Florida A&M, FIU, FGCU, Broward, Miami Dade, Valencia, Daytona State, Eastern Florida State, Gulf Coast, Indian River State, Northwest Florida State, Palm Beach State, Pensacola State, Polk State, St. Johns River State, Tallahassee State, North Florida and Florida Keys. Same course, same lower-division level, and the credit articulates either way — but ⚠⚠ LOOK UP WHICH FAMILY YOUR INSTITUTION USES BEFORE YOU GO SEARCHING, because the other number simply does not exist there. ⚠ Also check the packaging: the bare number is a 3-credit lecture needing a separate CHM2045L (or CHM1045L) laboratory, while the C form is the integrated lecture-plus-lab at 4 credits and is one registration.
Circuits I — the first true electrical engineering course: nodal and mesh analysis, transients, AC steady state. The course that tells you whether this discipline suits you.
Discrete-Time Signals and Systems — sampling, convolution, the z-transform and the DFT; the foundation of all modern signal processing.
EEL3472—Fundamentals of Electromagnetic Fields
Guide
Electromagnetic Fields — Maxwell's equations applied to transmission lines, waves and radiation. The most mathematically demanding course in the degree for most students.
39 Florida public institutions teach courses on this path. The count is
how many of the 19 listed courses each one carries — it shows where
the path is best covered. It is not a statement that a school offers this as a
degree; for that, check the institution’s own programme list.
UWF
University of West Florida
17
UNF
University of North Florida
13
FAMU
Florida A & M University
12
FLPOLY
Florida Polytechnic University
12
FSU
Florida State University
10
UF
University of Florida
10
USF
University of South Florida
10
FIU
Florida International University
9
FAU
Florida Atlantic University
8
UCF
University of Central Florida
8
FSWSC
Florida Southwestern State College
7
HC
Hillsborough College
7
SFC
Santa FE College
7
SPC
St. Petersburg College
7
SCFMS
State College of Florida, Manatee-Sarasota
7
BC
Broward College
6
EFSC
Eastern Florida State College
6
FGCU
Florida Gulf Coast University
6
GCSC
Gulf Coast State College
6
IRSC
Indian River State College
6
MDC
Miami Dade College
6
NFC
North Florida College
6
PBSC
Palm Beach State College
6
PESC
Pensacola State College
6
SJRSC
St. Johns River State College
6
TSC
Tallahassee State College
6
CF
College of Central Florida
5
FGC
Florida Gateway College
5
PHSC
Pasco-Hernando State College
5
SSCF
Seminole State College of Florida
5
SFSC
South Florida State College
5
FSCJ
Florida State College at Jacksonville
4
LSSC
Lake-Sumter State College
4
NWFSC
Northwest Florida State College
4
PSC
Polk State College
4
VC
Valencia College
4
NCF
New College of Florida
3
CFK
The College of the Florida Keys
3
DSC
Daytona State College
2
Sources
Requirements change. These are the authorities that decide them — check them directly before
committing to a route.