PayCrunch Research · The exact AI playbook for your profession, sourced to the U.S. Bureau of Labor Statistics

PayCrunch AI Playbook · Engineering

The electrical engineer clients ask for by name

$217,760top of the range in California · middle $120,630 / yr
AI augments this role

Electrical Engineers in the United States earn a median of $120,630 a year. Pay starts near $76,550. Pay reaches $217,760 at the top of the range in California, the best-paying state for this work among those with at least 500 people in the job.

Source: U.S. Bureau of Labor Statistics, Occupational Employment and Wage Statistics, May 2025 (Electrical Engineers, SOC 17-2071). Last checked 9 September 2026.

Entry level
$76,550
Top of the range · California
$217,760
Education
Bachelor's in electrical engineering
Lower disruption Higher exposure AI augments this role
Entry · $76,550 Top of range · $217,760 (California) Middle $120,630

Wages — U.S. Bureau of Labor Statistics, Occupational Employment and Wage Statistics, May 2025 (Electrical Engineers). Top of the range is the highest state-level figure among states with at least 500 people in the job. AI-impact rating is PayCrunch's editorial assessment. Updated September 2026.

🆕 New & Trending AI Tools for Electrical EngineerReviewed September 2026

We track new AI-tool launches every week and refresh this list — here’s what’s gaining traction for Electrical Engineer work right now.

Claude CodeNEWFree / usage-based

Terminal coding agent that reads your repo, runs tests, and ships multi-file changes.

How an Electrical Engineer uses it: describe a feature and let it implement and test it across the codebase

OpenAI CodexNEWIncl. w/ ChatGPT plans

Agent that runs longer, deterministic multi-step coding jobs on its own.

How an Electrical Engineer uses it: delegate a well-defined build or migration and review the finished result

WindsurfNEWFree / $15 mo

Agentic IDE that keeps context across a whole project.

How an Electrical Engineer uses it: make large, coordinated changes without losing track of the codebase

AWS KiroNEWPreview / see site

Spec-driven coding agent that turns written specs into working code.

How an Electrical Engineer uses it: write the spec first and let it build to that spec

NotebookLMNEWFree / $7.99 mo

Google tool that answers questions grounded only in the documents you give it — with citations.

How an Electrical Engineer uses it: load your own manuals, policies, or PDFs and ask questions that stay accurate to the source

CursorFree / $20 mo

AI-native code editor that edits across an entire project.

How an Electrical Engineer uses it: describe a change in plain English and let it rewrite and refactor whole files

GitHub Copilot (Agent Mode)$10–19 mo

AI pair-programmer built into VS Code and GitHub that now completes multi-step tasks.

How an Electrical Engineer uses it: hand off a task and have it plan, edit multiple files, and open a pull request

ChatGPTFree / $20 mo

The most-used AI assistant — writing, analysis, research, and images from a plain-language chat.

How an Electrical Engineer uses it: draft emails and documents, summarize long files, and get instant answers to on-the-job questions

ClaudeFree / $20 mo

AI assistant known for careful writing, long-document analysis, and coding.

How an Electrical Engineer uses it: analyze big reports or spreadsheets and turn messy notes into clean, finished writing

Drawings, prototypes, and the name on the design

An electrical engineer decides how electrical systems should work, then proves the decision with calculations, drawings, models, and tests. The setting changes the texture. In a consulting firm you may design the power, lighting, and communications backbone of a building that does not exist yet. In a factory you may chase a motor-control problem that stops a line. In a product company you may lay out a board, pick a power supply, and sit with a prototype that misbehaves on the bench. In a utility you may study feeders, protection, and what happens when a line faults.

The morning is often other people's constraints. A mechanical engineer needs heat removed from a cabinet. A software engineer needs a signal that arrives when the firmware expects it. An architect has moved a wall and broken a lighting layout. A project manager wants a date. You translate those pressures into requirements you can actually design to: voltage, load, environment, safety margins, cost, and the date the parts will really arrive. Then you do the unglamorous middle, which is where the job lives. You revise the one-line diagram. You update a panel schedule. You rerun a model because a vendor changed a datasheet. You write the note that tells the next person why you chose this breaker, this cable, or this topology.

Afternoons may be a design review or a lab. In review you defend choices without performing. The best engineers can say "that assumption was wrong" and show the corrected page. In the lab you bring a circuit up carefully, measure what the model promised, and record the difference. Field days are different again. You stand in a mechanical room or at a substation fence with the people who will build or operate what you drew, and you learn which of your details were fiction. Those visits make the next drawing better. Engineers who refuse them slowly design for a world that is not the one being built.

Documentation is not a side chore. Specifications, test reports, and marked-up drawings are how a design survives a team. A clever circuit that lives only in your notebook is a risk to the company and to you. So is a model nobody else can rerun. Leave a trail a colleague can follow on a week you are out. That habit is a larger part of seniority than a louder voice in meetings.

The social load is real. You will disappoint a schedule, reject a cheap part that fails the requirement, and explain a delay to someone who does not want the physics. Calm, specific speech is a technical skill. So is listening when a technician tells you the assembly cannot be built as drawn. Treat that as data.

The degree employers expect, and a license many seats skip

A bachelor's degree in electrical engineering is the usual preparation. Employers use it as evidence you have studied circuits, electromagnetics, electronics, power, and the math underneath them, and that you finished a program built for this profession. A master's helps for some research, power-system, or semiconductor roles, and it is optional for a large share of design seats. What matters alongside the diploma is proof you can finish a project: labs, a senior design, an internship, or a co-op where your name was on something that had to work.

A professional engineer license is optional and is granted by a state engineering board. It matters when the law or the client requires a licensed engineer to take responsibility for work offered to the public, which is common in consulting for buildings and infrastructure, and less common inside a manufacturer designing its own products. Many industry seats do not require it. You can have a long career in electronics, controls, or internal plant engineering without ever stamping a drawing. If your path is consulting, utilities in certain roles, or a firm that sells engineered documents, ask early whether the board credential is how people advance there.

Match the license to the kind of chair

Before you spend years chasing a stamp, ask the engineers already in your target employers whether their drawings are sealed and which state board they answer to. A license from the wrong state, or a license nobody in that industry uses, will not do the work you hoped.

People who do pursue the license typically start by becoming an engineer intern through the state board after the degree, then work under licensed engineers, then apply for the professional credential when the board's experience rule is met. Rules differ by state. Read the board's site for the state where you will practice, including whether it accepts experience from industry roles that never seal drawings. Do not rely on a coworker's memory of the rule from a decade ago.

Keep a project record either way. Dates, your role, and the outcome of designs you touched will matter for a license application and for every promotion conversation. Store it as you go. Reconstructing a long stretch of work from old emails is a bad winter.

How a hiring manager sorts the stack

Recruiters screen the degree and the domain first. A power-systems team will set aside a resume that only shows radio-frequency coursework, and a board-design team will set aside a resume that only shows substation studies. Say which problems you want. Then show one project at a depth that fits a conversation: the requirement, the choice you made, the measurement that proved it, and the part you would redo. Vague claims of passion are noise in this hire.

Internships and co-ops carry unusual influence because so many new graduates look similar on paper. If you are still in school, take a summer in the industry you mean to enter, even when the brand is less famous. If you are changing fields inside engineering, a small contract or an internal transfer that produces one relevant design will beat another certificate with no artifact.

Interviews often include a technical conversation rather than a puzzle show. You may walk a schematic, explain a protection scheme at the level of intent, or talk through how you would debug a prototype that fails only when warm. Think aloud. Ask what the constraints are. The interviewer is listening for whether you notice safety, cost, and manufacturability, or whether you chase an elegant answer the factory cannot build.

Ask them real things too. Who reviews your drawings. How much time is customer support versus new design. Whether you will have a mentor who still does technical work. What happened to the last person in the seat. For roles that might involve a license later, ask whether the company will provide the supervised experience a board will accept. For product roles, ask whether you are expected to own a part number or to float across crises. Both can be good jobs. They are different lives.

Some employers require a background investigation or a clearance because the work touches defense, grid control, or export-controlled technology. That process is slow and personal. Disclose what the form asks, early, and do not assume a prior internship clearance transfers. If you need sponsorship to work in the country, raise it before everyone has invested in a long interview loop.

Individual contributor, lead, or the stamp

Early years are about finishing work other people defined. You learn the company's tools, the way they number drawings, and the review comments that repeat. You also learn which shortcuts the culture tolerates. Copy the careful people, not the loud ones. A junior engineer who ships accurate packages on time becomes someone a lead will fight to keep.

Later you choose a slope. One slope stays technical: senior engineer, then principal, owning the hard problems and setting methods for others. Another slope picks up coordination: project engineer, then engineering manager, trading some design time for schedules, hiring, and conflict. A third slope, in firms that seal work, runs toward the professional license and the responsibility that comes with a stamp. Taking responsibility for a public document is a different kind of stress from missing a product deadline. Try to know which stress you want before you chase the title that carries it.

Specialization raises your value if you keep it connected to work someone buys. Protection engineering, power electronics, illumination and power for buildings, motor drives, analog design, and industrial controls are examples, not a complete map. Drift is fine early. By the time you want senior pay, be able to name the problems you are the right person for. Generalists who only "do electrical" get compared with every resume in the pile.

Teaching, field commissioning, and vendor-facing roles are legitimate mid-career moves. So is a return to an individual contributor seat after a management trial you disliked. The field does not punish that return as harshly as some corporate ladders do, especially where the work is scarce. What it does punish is stale skill. Keep a hand in the tools. A manager who can no longer read the drawing is easy to route around.

If you want the license, build the experience on purpose. Seek work that a board will count, under someone whose seal and supervision meet the rule, and keep the records. If you do not want it, stop apologizing and get excellent at the industry seat you chose. Optional does not mean lesser. It means the credential should serve the work, rather than the other way around.

New Mexico's middle, California's upper mark

Electrical engineers have their own row in the Bureau of Labor Statistics release. What follows is the May 2025 edition of Occupational Employment and Wage Statistics for that occupation, and the row lines up with this job rather than with a grab-bag title.

Pay near the start of the published scale is $76,550. The median for the nation is $120,630. Between those points the gap is $44,080. A new graduate should compare an offer with $76,550 and then ask how fast the band moves. An engineer who already owns designs and needs little daily direction should be talking about $120,630, not about the entry row, unless the location's median says something more specific.

California holds the upper published figure, $217,760. It is the high end of the range the Bureau published for California where enough electrical engineers worked for a number to be released. California's median is another statistic. Offering someone the upper figure's neighborhood as if it were ordinary California pay misreads the table.

Medians by place are $158,520 in New Mexico, $144,040 in California, $135,710 in New Hampshire, $132,710 in Washington state, and $129,450 in Texas. New Mexico holds the highest published median. Montana holds the lowest, at $87,360. The gap between those medians is $71,160. Notice that New Mexico's median of $158,520 sits above California's median of $144,040, even though California holds the upper end of a published range at $217,760. Middle and top are doing different jobs in this table. Use the median when you mean a typical seat, and name the upper figure only when you mean the high end of the range.

The national median lies $37,890 below New Mexico's median. A relocation to New Mexico that quotes $120,630 as "above market" deserves a conversation about $158,520. The stretch separating $120,630 from California's published upper mark of $217,760 equals $97,130. That distance describes how far the published range extends in California. It is plausible context for a scarce principal engineer in a high-paying pocket of that state. It is a clumsy demand for a first industry job in Montana, where the published median is $87,360.

Negotiate with the row that matches your chair and your map. Put a Texas offer beside $129,450. Put a Washington offer beside $132,710. Put a New Hampshire offer beside $135,710. Ask whether the number is base only, and get bonus rules, equity, and on-call expectations in the same letter so a glittering extra does not hide a weak salary. Ask who pays for the professional license and the renewal if the job wants a stamp. A title bump that adds management and leaves you under the relevant state median is a conversation to have before you accept, while you can still stay where you are. Once you resign, your leverage is mostly gone.

The top of Electrical Engineer pay — and how to get there with AI

$217,760what Electrical Engineer pay reaches in California

Highest state-level top-of-range annual wage for Electrical Engineers, among states with at least 500 people in the job. U.S. Bureau of Labor Statistics, Occupational Employment and Wage Statistics, May 2025.

And the role it leads to — Petroleum Engineers — reaches $283,500 in Texas.

$76,550entry$120,630middle$217,760top end

Electrical engineers reach the top of this range by owning the commercial edge of the work, the specification a client signs, the vendor comparison, the complaint that becomes a redesign, rather than only the calculations underneath it.

Preparing specifications of electrical systems and for purchases of materials or equipment, investigating vendors' or competitors' products, and investigating customer or public complaints are the tasks with money and consequence attached, and they are the ones most engineers happily leave to somebody else. Meanwhile the detailed calculations that establish manufacturing and installation standards, and the drawing production around them, are exactly the work that assistants and scripting have compressed. The engineer who fills the freed time with client-facing scope keeps getting scarcer, and the one who fills it with more drawings does not.

Your playbook, by where you are now

Just startingMake the technical work unarguable

  1. Work a detailed calculation through by hand before you trust any tool to repeat it.
  2. Get quick in Autodesk AutoCAD and Autodesk Revit, and learn how your firm names, issues, and revises drawings.
  3. Script the repeated checks in Bash so the same arithmetic slip cannot reach two drawings.
  4. Ask a model to explain an unfamiliar standard, then read the clause itself before quoting it to anyone.
  5. Get into the meeting where your drawings are reviewed by the client, even if you say nothing.

What proves it: A specification package issued for construction with your name on it.

Realistic span: the first three years

A few years inPick up the vendor and complaint work

  1. Run a real vendor evaluation: test a competitor's product, write plainly what it does badly, and make a recommendation.
  2. Write the purchase specifications for materials and equipment on your project, acceptance criteria included.
  3. Take the customer complaint nobody wants, trace it back to a design decision, and present the correction yourself.
  4. Hold the schedule and cost picture for your own scope so you never answer a client with a promise to check.
  5. Learn enough programmable logic controller PLC software to talk properly to the people commissioning what you drew.

What proves it: A documented vendor decision and one complaint you closed technically.

Realistic span: years four through eight

ExperiencedOwn scope before it is scope

  1. Lead the technical half of proposals, because the scope you write becomes the budget you are given.
  2. Supervise and train the project team and accept being measured on what they produce.
  3. Settle in a sector that prices electrical scope highly, such as power generation or process plant work.
  4. Bring repeat work from one client and make sure the firm sees the connection.
  5. California pays this profession best, and petroleum engineering is the adjacent field if plant work suits you.

What proves it: A client who names you in the request for the next project.

Realistic span: nine years and beyond

The next 90 days

In the next ninety days, take one thing off a senior engineer's plate that faces outward. The easiest candidate is a purchase specification: pick a package of materials or equipment on a live project, write the specification including how conformance will be verified, and take it to the person who normally writes them. The second easiest is an open customer complaint that has been sitting for weeks because nobody wants to trace it. Either one puts you in front of somebody outside your firm holding a technical position you formed yourself, which is the experience that separates engineers whose pay keeps moving from engineers whose pay flattens.

Wage figures: BLS OEWS, May 2025. The playbook is PayCrunch editorial guidance, not a guarantee of pay or placement.

Careers related to Electrical Engineer

Similar pay, same field

Where this can lead

Every figure is the national median from the U.S. Bureau of Labor Statistics (OEWS) shown on that role’s own page.

Never used AI before? Start here (2 minutes).

Open a free Flux account at flux.ai and start a new project. Flux has a built-in AI assistant (Flux Copilot) that sits next to your schematic. Type a plain-English question like “what value pull-up resistor for I2C at 400kHz?” and it answers in context. That is the whole on-ramp — no install, runs in your browser.

For everything else — calculations, firmware, spec sheets, compliance — open ChatGPT or Claude in a second tab. You paste a question, it drafts an answer, you verify it against the real datasheet. You are the engineer; the AI is the fast junior who never gets tired.

The one rule, forever: Never send an AI-generated design to fabrication or the field without bench-testing it yourself, and never let AI substitute for a licensed PE review where one is legally required. AI hallucinates pin numbers and part values. Also: never upload ITAR/export-controlled or proprietary schematics into a public AI tool.
The plays — exact steps, exact prompts

Do these in order. Each one is copy-paste ready. You do not need to know anything about AI going in.

1
Turn a rough spec into a reviewed schematic with an AI circuit co-designer
Why this pays: Senior EEs who convert requirements into working designs faster take on more projects and harder ones — which is what separates a $120,630 engineer from the $217,760 principal.
Flux.ai (Flux Copilot)SnapMagic CopilotChatGPTClaude
1
In Flux, start a schematic and describe what you're building to Flux Copilot in plain English. It suggests topologies and part values in-context and can drop parts onto the canvas.
2
Use SnapMagic Copilot to find real, in-stock parts and pull verified schematic symbols + footprints so you're not modeling components by hand.
3
Pressure-test the topology in ChatGPT or Claude with the prompt below, then open every datasheet it cites and confirm the numbers before you commit.
Copy-paste this prompt
You are a senior power-electronics engineer. Help me design a [buck converter] circuit. Requirements: input [12V DC], output [5V at 3A], efficiency target [>90%], ambient up to [60C], size [50x50mm]. 1) Recommend a topology and a specific controller/regulator IC that is in production and available at Digi-Key or Mouser. 2) Give the full bill of materials with values (inductor, input/output caps, feedback resistors) and show the equations you used. 3) List the top 3 design risks and exactly how to test each on the bench. Cite the datasheet page for every key number.
Swap every [bracket] for your real spec. Treat the part numbers as suggestions to verify, never as final.
What you'll haveA first-pass schematic with a real, sourceable BOM and a bench-test plan — in an afternoon instead of a week.
2
Collapse PCB layout time with AI and autonomous routing
Why this pays: Layout is the classic bottleneck between design and shipping. Engineers who clear it fast keep boards moving and own more of the product — the difference maker at the 90th-percentile pay tier.
Cadence Allegro X AIQuilterFlux.aiKiCad
1
Do component placement yourself (this is where human judgment matters most), then let Cadence Allegro X AI or Quilter generate and iterate routing candidates for you to review.
2
Run the tool's design-rule check (DRC), then have the AI explain any violation you don't recognize instead of guessing.
3
Before release, run this review prompt against your own netlist/notes as a second set of eyes.
Copy-paste this prompt
Act as a PCB design reviewer. Here is my board summary: [layers, key nets, current levels, connectors, mechanical constraints]. Give me a pre-release checklist covering: high-current trace widths, decoupling, return-path/ground integrity, thermal relief, creepage/clearance for [voltage], test points, and DFM. For each item tell me how to verify it. Flag anything that commonly causes a respin.
This catches the classic respin causes; it does not replace a real DRC or your own eyes on the copper.
What you'll haveA routed, DRC-clean board reviewed against a professional checklist — with days of manual routing removed.
3
Ship firmware and test benches, not just hardware
Why this pays: “Full-stack hardware” engineers who can bring up a board AND write the firmware are rare and command the top of the band. AI makes the firmware side attainable even if it's not your specialty.
GitHub CopilotChatGPTClaudeMATLAB / Simulink
1
In VS Code with GitHub Copilot, describe the driver you need as a comment and let it draft the register-level code; you review line by line.
2
Use the prompt below in ChatGPT/Claude to generate a complete peripheral driver plus a host-side unit test.
Copy-paste this prompt
Write bare-metal C for an [STM32F103] to [read a TMP117 temperature sensor over I2C at 400kHz and print the value over UART at 115200 baud]. Use the [STM32 HAL]. Include register-level init, error handling for a missing device, and a comment on each step explaining the register. Then write a matching unit test I can run on the host with [Unity].
Compile and run it on real hardware. AI is strong at boilerplate, weak at your board's exact timing and errata.
3
Ask the AI to explain any datasheet timing diagram or register map you're unsure about, in plain language, before you trust the generated code.
What you'll haveA working, tested firmware driver for your board — turning you into a hardware+firmware engineer, not just one or the other.
4
Do the analysis and calcs in minutes, with the math shown
Why this pays: Correct power budgets, thermal margins, and signal-integrity checks are what keep designs out of the failure pile. Speed here lets you take on the complex, higher-paid projects.
MATLAB / SimulinkWolfram AlphaLTspiceChatGPT
1
For any hand-calc, ask the AI to derive it and show every formula so you can check the reasoning, not just the number.
Copy-paste this prompt
Act as a power-electronics engineer. For a [buck converter] with Vin=[12V], Vout=[5V], Iout=[3A], fsw=[500kHz], derive: inductor value for [30%] ripple, output cap for [<50mV] ripple, RMS input-cap current, and estimated conduction + switching losses in the FET given Rds(on)=[X ohms] and Qg=[Y nC]. Show every formula, then put the numbers in a table. Flag any assumption that could be wrong.
Re-derive the one or two numbers that matter most by hand. Use the AI to catch your errors, not to replace the check.
2
Move the design into LTspice or Simulink to simulate before you build, and ask the AI to help interpret unexpected waveforms.
What you'll haveVerified design calculations with the working shown — defensible in a design review and fast enough to iterate.
5
Turn designs into stakeholder-ready docs and a compliance path
Why this pays: The engineers who reach $217,760 are trusted to own products end to end — which means clear design docs, test plans, and a credible route through UL/FCC/CE. AI drafts all of it in your voice.
ChatGPTClaudeMicrosoft Copilot
1
Draft your compliance map early with the prompt below so you design for it instead of discovering problems at the test lab.
Copy-paste this prompt
You are a compliance engineer. My product is a [mains-powered LED driver] sold in the [US and EU]. List the safety and EMC standards that likely apply (e.g., IEC/UL 62368-1, FCC Part 15, CISPR/EN 55032), what each one tests, the pre-compliance checks I can run in-house before booking a test lab, and the documents I need for a technical file. Format as a checklist.
Confirm the exact applicable standards with your test lab — scope varies by product and market.
2
Have the AI turn your engineering notes into a clean design document, test plan, or DFMEA that a manager or customer can actually read.
What you'll haveA design doc, test plan, and compliance checklist that make you the engineer who ships products, not just circuits.
6
Become your team's 'AI for hardware' lead
Why this pays: Being the person who evaluates tools, builds the prompt library, and levels up the juniors is a visible leadership move — the on-ramp to principal/staff pay near the top of the band.
Flux.aiCadence Allegro X AISnapMagic CopilotGitHub Copilot
1
Run a small, measured pilot and write it up for your manager with the prompt below.
Copy-paste this prompt
Create a 1-page evaluation titled 'AI tools for our hardware team.' For each tool — Flux Copilot, Cadence Allegro X AI, SnapMagic Copilot, GitHub Copilot — summarize what it does, where it fits in our schematic to layout to firmware to docs workflow, the data/IP risks, and a 2-week pilot to measure hours saved. Audience: my engineering manager.
Bring numbers (hours saved on a real board) — that is what earns the mandate and the promotion.
2
Standardize a shared prompt + checklist library so the whole team's output level rises, and your name is on it.
What you'll haveA documented, adopted AI workflow for your team — and a leadership story that supports a principal-level offer.
Your 12-month sequence to the top of the range

How the plays above stack into a path from median pay toward the $217,760 tier.

Month 1
Set up Flux + Flux Copilot and run one real design question through it daily. Add ChatGPT/Claude for calcs and firmware.
Months 2-3
Use AI on a live project: co-design a schematic, verify every part against datasheets, and simulate in LTspice before building.
Months 4-6
Add the firmware play — ship one board where you wrote the embedded code with Copilot and tested it on hardware.
Months 6-9
Own a product's docs + compliance path. Become the person who takes designs from bench to release.
Months 9-12
Run a tool pilot, publish the team prompt library, and mentor two juniors — build the staff/principal case.
Year 2
Pursue or leverage your PE license and target lead/principal roles where the $217,760 tier lives.
Gear for this job

As an Amazon Associate, PayCrunch earns from qualifying purchases. Links to books and tools are for the job on this page; we only recommend what we’d use in the work.

NFPA 70 National Electrical Code Handbook 2023

Same live 2023 NEC Handbook already on electrician. This page’s FAQ and Year-2 sequence name the PE stamp for power systems, government, and construction-adjacent work. Shop copy of the current NEC with commentary. Not Ugly’s (that is the electrician pouch book). Not a PCB gadget.

Next steps for an Electrical Engineer

Some links below are affiliate or partner links. PayCrunch may earn a commission if you enroll or subscribe through them, at no extra cost to you. Wage figures on this page still come from the Bureau of Labor Statistics, not from these programs.

Electrical Engineer work is specific enough that a stamped 'check out these courses' block would be noise. BLS files this work as Electrical Engineers (SOC 17-2071). O*NET Job Zone 4 is typical: a bachelor's degree, so the honest next credential is a professional certificate or bachelor's-level coursework — not a random catalog dump.

The occupation's listed knowledge areas include Engineering and Technology and Design; the links search those subjects, not a generic 'career courses' list.

Electrical Engineers in this dataset list Apache Subversion SVN among the tools in use, so a program that names that stack is a better fit than a survey course.

Electrical Engineering programs on Coursera for Electrical Engineer work

Coursera search for electrical engineering — a professional certificate or bachelor's-level coursework that lines up with engineering, not a generic professional-development aisle.

Electrical Engineering courses on edX

edX search for electrical engineering, aimed at engineering (SOC 17-2071). Same field as the Coursera link, different university catalog.

Screened remote and flexible Electrical Engineer listings on FlexJobs

FlexJobs screens remote, hybrid, freelance, and flexible listings so you are not wading through unverified ads. This is a job-board search for Electrical Engineer work, not a claim that they list a counted SOC 17-2071 inventory.

Build an Electrical Engineer resume on Resume Now

Write an Electrical Engineer resume, or one aimed at Petroleum Engineers, instead of a blank template. Resume Now is a resume builder; we are not claiming a counted template set for this SOC.

Build an Electrical Engineer resume on Zety

An Electrical Engineer resume that names the actual tasks on this page, or the step-up title Petroleum Engineers, beats a blank template when you apply.

What Electrical Engineers earn by state

These are the Bureau of Labor Statistics’ own figures for Electrical Engineers, state by state — not a cost-of-living adjustment applied to the national number. Only states employing at least 500 people in the occupation are shown, because a state median drawn from a handful of workers is noise rather than a signal.

New Mexico
$158,520
highest of them · +31% vs the national median
Montana
$87,360
lowest of the 45 states that qualify · -28% vs the national median
The same job pays $71,160 more a year at the median in New Mexico than in Montana — 81% higher. That gap is what the Bureau measured, before any question of what it costs to live in either place. The top-of-range figure quoted at the head of this page, $217,760, is a different statistic in a different place: it is the 90th-percentile wage in California. The state that pays the typical worker most and the state where the best-paid go highest are not always the same one.
New Mexico$158,520California$144,040New Hampshire$135,710Washington$132,710Texas$129,450Idaho$129,340Massachusetts$127,720Delaware$126,970

Source: U.S. Bureau of Labor Statistics, Occupational Employment and Wage Statistics, May 2025, SOC 17-2071. 45 states clear the 500-employee reporting floor for this occupation; those below it are left out rather than shown with a wide error band.

Free data. Use any of it.

PayCrunch publishes verified, BLS-sourced salary + AI-playbook data on 1,000+ professions — free, no signup.

Frequently asked
Will AI replace electrical engineers?
Not the role — but it is compressing the routine parts (first-pass schematics, routing, boilerplate firmware, documentation). The value is shifting to judgment, testing, integration, and licensure. Engineers who direct AI will out-earn those who ignore it; the job itself needs hands on hardware and a human who is legally accountable.
Can I trust an AI-generated circuit or BOM?
Treat it as a smart first draft, never a final answer. AI regularly invents plausible-but-wrong part numbers, pinouts, and values. Open the real datasheet for every critical component, re-derive the key math, and bench-test before anything ships.
Do I still need a PE license?
For most industry/product roles, no — but for work affecting public safety (power systems, some government and construction-adjacent work) a PE stamp is required by law, and AI cannot provide it. A PE is one of the clearest paths into the top of the pay band precisely because it is a human legal responsibility.
Is it safe to paste my company's schematics into ChatGPT?
No. Proprietary designs — and anything export-controlled/ITAR — must stay out of public AI tools. Use general questions and hypotheticals, or an enterprise tool your employer has vetted with a data agreement.
Which AI tool should an EE learn first?
Flux with Flux Copilot for design (free, browser-based) and ChatGPT or Claude for calculations, firmware, and docs. Add Cadence Allegro X AI or Quilter when layout is your bottleneck. Start with whichever touches your daily work.
Methodology & sources
  • Salary (median, 10th, top of the range) — U.S. Bureau of Labor Statistics, OEWS.
  • By state — the Bureau of Labor Statistics’ own state medians, limited to states employing at least 500 people in the occupation. No cost-of-living arithmetic is applied to a wage anywhere on this page.
  • The plays — PayCrunch's own step-by-step guidance using publicly available AI tools. Tool names/URLs are real and current as of August 2026; prompts written to work as-is. Verify any professional output before relying on it.

Sources