Electrical Engineer Salary and How to Earn More

The median electrical engineer earns $111,910 a year according to the Bureau of Labor Statistics, a figure that places the role among the better paid engineering occupations and far above the national median of $49,500 for all jobs. At Metaintro, we track electrical engineering openings across the 50M jobs on our platform, and what stands out is how consistently these roles land in six figures even at the entry level. That consistency is what makes the profession worth understanding in detail, because once the floor is this high, the real question is not whether the job pays well but how far up the range you can climb and how quickly. This guide answers that question with numbers you can verify and moves you can act on.

What does an electrical engineer actually earn?

The single most reliable number for this profession is the median annual wage of $111,910, reported by the Bureau of Labor Statistics for Electrical Engineers under the occupation code 17-2071. Median means the middle of the distribution, the point where half of electrical engineers earn more and half earn less. It is not the mean, which the arithmetic pulls upward because of a handful of very high earners. When you see a salary figure quoted for this field, the median is the honest anchor, because it describes the typical engineer rather than the outlier at the top.

Broken down to an hourly figure, that median works out to about $53.80 an hour for a standard full time year. For a role that is almost always salaried, the hourly view is still useful, because it lets you compare an offer against overtime eligible work and against the hourly trades you might otherwise consider. At $53.80 an hour, an electrical engineer earns roughly four times the pace of a minimum wage job and well ahead of most skilled hourly work.

The range is where the story gets interesting. The BLS OEWS data puts the 10th percentile at $74,670 and the 90th percentile at $175,460. That is a spread of more than $100,000 between the bottom and the top of the field. Even the 10th percentile, the lowest paid tenth of electrical engineers, still earns well above the national median for all jobs, which tells you the floor of this profession is high. The 90th percentile at $175,460 shows the ceiling that experienced engineers in the right industries and markets reach. In the postings we track at Metaintro, the offers that approach that top figure almost always carry a specialty tag, a senior title, or a high cost location, and often all three.

It helps to place these numbers next to a neighboring field. An aerospace engineer sits in a similar six figure band, while a web developer and a radiologic technologist occupy different parts of the pay map entirely. Seeing electrical engineering against those benchmarks makes it clear that the profession is not just well paid in isolation, it is well paid relative to most of the labor market, and the pillar guide on how much professions really pay puts all of these side by side.

How does electrical engineer pay compare across states and industries?

Where you work changes the number more than almost anything else early in your career. The BLS OEWS program publishes wage estimates by state and metro area, and the pattern is consistent with what you would expect. Pay runs highest in high cost coastal metros and in regions where the concentrated employers sit, and it runs lower in smaller inland markets where the cost of living is also lower. A six figure median in a low cost metro stretches much further than the same number in an expensive one, so the headline figure alone never tells the whole story. When you compare offers across locations, the honest move is to weigh the wage against the local cost of living rather than chasing the biggest raw number.

Industry matters just as much as geography. Electrical engineers work across power generation and distribution, semiconductor and electronics manufacturing, aerospace and defense, telecommunications, research and development, and government. The research heavy and manufacturing heavy corners of the field tend to pay at the upper end, because the work is specialized and the employers compete hard for scarce talent. The chip industry alone has tens of thousands of unfilled engineering roles, and that shortage puts upward pressure on offers for electrical engineers who can do semiconductor and hardware design. Reshoring of advanced manufacturing is adding to the pull, with new plants like the drone manufacturing lines that need power and flight control engineers opening in places that did not have them a few years ago.

In the openings we track at Metaintro, demand for electrical engineers clusters in power systems, semiconductor design, embedded and controls work, and defense adjacent programs. Generalist roles in smaller firms and in support functions sit closer to the median or below it. The lesson from the location and industry data is that the same title can pay $85,000 in one setting and $150,000 in another, and the difference is almost entirely explained by which industry you are in and which market you are in, not by how hard you work. If you want to see how to translate this into your own number, the guide on how to figure out your market rate walks through the method, and the companion piece on researching what a job pays shows where the reliable data lives.

What is the job outlook for electrical engineers?

The Bureau of Labor Statistics presents the outlook for this occupation inside the broader Electrical and Electronics Engineers group in its Occupational Outlook Handbook, so the growth figure covers both electrical engineers and the closely related electronics engineers rather than electrical engineers alone. With that noted plainly, the projected growth for the combined group is 7 percent over the decade, which the BLS labels faster than the average for all occupations. That works out to roughly 17,500 openings a year across the group, a number that includes both new positions and the replacement of engineers who retire or move into other work.

Seven percent is solid, dependable growth rather than a boom. It reflects a profession that is woven into the parts of the economy that are expanding, including the electrical grid, renewable energy, electric vehicles, semiconductors, and defense electronics. As more of the economy runs on electricity and on chips, the demand for people who design and maintain those systems grows with it. At the same time, this is not a field where demand doubles overnight, so a new engineer should expect a steady market rather than a frenzied one. The wage premium and the openings are real, and they are durable, which for most careers matters more than a temporary spike.

It is worth separating this profession from the trade that shares part of its name. An electrician installs and maintains electrical systems and follows a different training path through apprenticeship, while an electrical engineer designs the systems and typically holds a four year degree. Both are strong careers with growing demand, but they sit at different points on the pay and education map, and confusing the two leads to bad expectations about schooling and starting pay.

How in-demand are electrical engineers right now?

To make the demand picture concrete rather than vague, we can score it using only public BLS inputs and a transparent formula anyone can reproduce. This is not a proprietary Metaintro metric, it is a simple blend of the two things that actually signal demand, projected growth and the ratio of annual openings to total employment. Here are the inputs and the math.

The inputs from BLS are a projected growth rate of 7 percent, about 17,500 openings a year, and total employment of roughly 192,000 for the electrical engineers occupation. The formula has two parts. First, a growth score: growth_pts equals 50 plus the growth rate above a 4 percent baseline times 3, clamped between 0 and 100. That gives 50 plus (7 minus 4) times 3, which is 50 plus 9, or 59. Second, an openings score: open_pts equals the openings divided by employment, times 400, clamped between 0 and 100. That gives 17,500 divided by 192,000, which is 0.091, times 400, or about 36.46. The final Demand Score weights growth at 60 percent and openings at 40 percent: 0.6 times 59 plus 0.4 times 36.46, which is 35.4 plus 14.58, or 49.98, rounded to 50.

A score of 50 lands squarely in the Moderate tier on this scale, where 80 and above is Very High, 60 to 79 is High, 40 to 59 is Moderate, and below 40 is Lower. The honest read is that electrical engineering combines faster than average growth and strong six figure pay with a moderate ratio of annual openings to the total workforce, which places it in the middle of the Moderate band. In plain terms, this is a healthy, dependable field with real hiring, not a field where employers are so desperate that they hand out huge premiums to anyone who applies. The growth is above average and the pay is well above average, and the openings ratio keeps the overall demand grounded. For a candidate, that means the advantage comes from specializing and from targeting the industries and metros where the work concentrates, rather than from a broad shortage lifting every offer at once.

How do you move from the bottom to the top of the pay range?

The $100,000 spread between the 10th percentile at $74,670 and the 90th percentile at $175,460 is the whole game. Two engineers with the same title can sit at opposite ends of that range, and the difference is rarely about effort. It is about the specific choices below. Here are two concrete before and after contrasts that show how to climb.

The first contrast is setting and specialty. Picture a lower pay path: a new graduate takes a generalist electrical engineering role at a small firm in a low cost market, doing broad support work with no specialty focus. That engineer starts near the 10th to 25th percentile, somewhere in the mid $70,000s to high $80,000s. Now the higher pay path: the same graduate targets a power systems or semiconductor design role at a large employer in a market where that work concentrates, and within a few years adds depth in a scarce specialty. That engineer moves toward the 75th to 90th percentile, into the $140,000 to $175,000 range. The title is nearly identical. The specialty and the setting move the number by $60,000 or more.

The second contrast is credentials and progression. Picture a lower pay path: an engineer stays in an individual contributor role for years without pursuing a Professional Engineer license or a formal step into senior or lead responsibility. Pay drifts up slowly and stalls near the median. Now the higher pay path: the same engineer earns the Professional Engineer license, takes on project lead responsibility, and grows into a senior title with sign off authority. Licensure and senior standing are exactly what employers pay the top of the range for, especially in power, utilities, and consulting, so this engineer moves from the median toward the 90th percentile. The lesson from both contrasts is that the range is not fixed by your degree. It is shaped by the specialty you choose, the market you work in, and the credentials and seniority you accumulate. If you want to turn a higher market rate into an actual raise, the guides on negotiating a job offer and on comparing total compensation rather than just salary show how to capture the difference.

Which credentials and specialties raise an electrical engineer's pay?

The credential that matters most in this field is the Professional Engineer license, administered through the state boards and the national council that develops the exams. A PE license signals that you can take legal responsibility for engineering work, and in power, utilities, infrastructure, and consulting it is often the line between a mid range salary and a top of range one. Not every electrical engineering job requires it, but the roles that do tend to sit higher in the pay distribution, so earning the license opens the upper part of the range even if your first job did not demand it.

Specialty is the other major driver. Power systems, semiconductor and hardware design, embedded systems and controls, and defense electronics are the corners of the field where employers compete hardest, and where the pay reflects that competition. A generalist who can do a bit of everything is useful, but a specialist who is one of the few people in a metro who can do a scarce, high stakes thing is what pushes an offer toward $175,000. This is the same dynamic you see in adjacent technical fields, from pharmacists whose pay reflects licensure to respiratory therapists and radiologic technologists whose certifications set their ceilings. The general rule across technical careers is that verifiable, scarce, high responsibility skill is what the top of the range pays for. The all around understanding of the pay map in the pillar guide on what professions really pay reinforces the point that specialization is the most reliable route up.

There is also the question of adjacent skills that are reshaping technical work. Engineers who can pair core electrical knowledge with software, data, and the newer design tools tend to command a premium, because they can do more with the same headcount. The broader labor market is rewarding people who combine human judgment with these tools, and electrical engineering is not immune to that shift, so treating tool fluency as part of your professional development is a practical way to defend and grow your position in the range over time.

Which next move should an electrical engineer make to earn more this year?

If you take one action from this guide, make it a targeted move rather than a broad one, because the data is clear that broad effort is not what separates the top of the range from the bottom. Start by pinning down your real market rate for your specialty and your metro, using the method in the guide on figuring out your market rate, so you know whether you are underpaid before you do anything else. If you are early in your career, weigh whether a move into power systems, semiconductor design, or another scarce specialty would reposition you in the range, because that single choice tends to matter more over a decade than any annual raise.

Next, treat the Professional Engineer license as a deliberate goal rather than a someday idea, since it is one of the few credentials that reliably unlocks the upper part of the pay distribution. Then, when you do get an offer or a review, do not leave money on the table. The engineers who reach the 90th percentile are almost never the ones who accepted the first number, they are the ones who negotiated with a clear sense of what a good number for their profession, geography, and total compensation looks like. Finally, keep an eye on where the work is concentrating, because reshoring and the buildout of the grid, chips, and defense electronics are moving demand into new markets, and being in the right market at the right time is worth a specialty of its own. Do these four things, know your rate, specialize, credential, and negotiate, and you turn a strong median into a strong personal salary.

Lacey Kaelani, CEO of Metaintro, told People Managing People that "AI is not completely eliminating roles, but instead restructuring roles and therefore slowing hiring for some jobs." Electrical engineering sits in the middle of that restructuring, because routine drafting and calculation work is exactly what the tools absorb first, which is why the engineers who direct the AI-assisted design work and hold a professional license are the ones who keep both their leverage and their pay.

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People Also Asked

Q: Is electrical engineering a good-paying job?

A: Yes, by any reasonable benchmark. The median electrical engineer earns $111,910 a year, which is more than double the national median of $49,500 for all occupations. Even the lowest paid tenth of the field earns $74,670, still well above the national median, and the top tenth clears $175,460. A high floor and a high ceiling make this one of the more dependable well paid careers you can enter with a four year degree.

Q: Do you need a Professional Engineer license to earn top pay?

A: Not for every job, but the license opens the upper part of the range. In power, utilities, infrastructure, and consulting, the Professional Engineer credential administered through the national engineering licensure council is often what lets an engineer take legal responsibility for work and sign off on projects, which is exactly what employers pay the top of the range for. Many engineers reach a comfortable six figure salary without it, but pairing it with a scarce specialty is the most reliable route toward the 90th percentile.

Q: How fast is demand for electrical engineers growing?

A: The Bureau of Labor Statistics projects 7 percent growth over the decade for the broader electrical and electronics engineers group, which it labels faster than the average for all jobs, with about 17,500 openings a year. That is steady, durable demand driven by the grid, renewable energy, semiconductors, and defense electronics, rather than a short lived boom.

Wondering what you should earn as an electrical engineer? Metaintro tracks 50M jobs and serves more than 1.8M users, and it routes you to the electrical engineering openings that match your specialty and your target pay instead of making you dig through listings one by one. Sign up to benchmark your salary against live openings, find the roles in the industries and metros that pay at the top of the range, and turn the six figure median into your own number.