Electrical Engineer Job Description: Responsibilities, Qualifications & Career Guide

After reviewing thousands of electrical engineering resumes, one pattern stands out immediately: the candidates who land interviews aren't the ones who list "circuit design" as a generic skill — they're the ones who specify what they designed, at what voltage levels, using which simulation tools, and under which regulatory standards.

Key Takeaways

• Electrical engineers design, develop, test, and supervise the manufacturing of electrical equipment ranging from power generation systems to consumer electronics, earning a median salary of $111,910 per year [1].
• Employers overwhelmingly require a bachelor's degree in electrical engineering or a closely related field, with a Professional Engineer (PE) license increasingly preferred for senior and public-facing roles [2].
• The field is projected to grow 7.2% from 2024 to 2034, adding approximately 13,800 new positions on top of 11,700 annual openings from retirements and turnover [2].
• Day-to-day work blends hands-on lab testing with simulation software, cross-functional collaboration, and detailed documentation — this is not a "sit at a desk all day" role.
• Emerging specializations in renewable energy systems, electric vehicle infrastructure, and power electronics are reshaping which skills carry the most weight on a resume.

What Are the Typical Responsibilities of an Electrical Engineer?

If you scan job postings on Indeed and LinkedIn, you'll notice electrical engineer responsibilities cluster around a core set of tasks — but the specifics vary significantly by industry [5][6]. A power systems engineer at a utility company and a hardware design engineer at a consumer electronics firm both carry the "electrical engineer" title, yet their daily deliverables look very different. Here are the responsibilities that appear most consistently across postings and align with established task frameworks [7]:

1. Design electrical systems, components, and circuits. This is the backbone of the role. You'll create schematics for power distribution systems, control circuits, signal processing hardware, or embedded systems depending on your specialization [7].

2. Conduct feasibility studies and cost analyses for new projects. Before a single prototype gets built, you evaluate whether a design is technically achievable within budget and timeline constraints. This involves component sourcing, thermal analysis, and manufacturing considerations [7].

3. Develop and test prototypes using simulation and modeling software. Tools like MATLAB/Simulink, SPICE, AutoCAD Electrical, and ETAP are standard. You simulate circuit behavior, run stress tests, and iterate on designs before committing to physical builds [3].

4. Perform detailed calculations for power requirements, component tolerances, and safety margins. Electrical engineering is math-intensive. Expect to calculate load flows, short-circuit currents, voltage drops, and harmonic distortion regularly [7].

5. Prepare technical specifications and documentation. You write specifications that manufacturing teams, contractors, and regulatory bodies can follow. Ambiguity in an electrical spec can mean safety hazards, so precision matters [7].

6. Oversee the installation, testing, and commissioning of electrical systems. Many roles require you to be on-site during installation to verify that what was built matches what was designed. You sign off on commissioning reports [7].

7. Ensure compliance with the National Electrical Code (NEC), IEEE standards, and other regulatory requirements. Regulatory knowledge isn't optional. Employers expect you to design systems that pass inspection the first time [5][6].

8. Collaborate with mechanical, software, and manufacturing engineers. Electrical systems don't exist in isolation. You'll work with cross-functional teams to integrate your designs into larger products or facilities [3].

9. Troubleshoot and resolve electrical system failures. When a production line goes down or a prototype fails testing, you diagnose root causes using oscilloscopes, multimeters, power analyzers, and thermal imaging cameras [7].

10. Manage project timelines, budgets, and vendor relationships. Mid-career and senior engineers often take on project management responsibilities, coordinating with suppliers and tracking deliverables against milestones [5][6].

11. Conduct design reviews and present findings to stakeholders. You'll present technical trade-offs to non-technical stakeholders — project managers, clients, and executives — which means communication skills matter more than many candidates expect [3].

12. Mentor junior engineers and review their design work. Senior postings almost universally include mentorship as a responsibility. Reviewing a junior engineer's schematic for errors is a regular part of the workweek [6].

What Qualifications Do Employers Require for Electrical Engineers?

Required Qualifications

A bachelor's degree in electrical engineering, electronics engineering, or a closely related discipline is the standard minimum across virtually all job postings [2][8]. Employers hiring for this role expect ABET-accredited programs, and many postings explicitly state this requirement [2].

Beyond the degree, here's what most postings list as required:

• Proficiency in industry-standard software: AutoCAD Electrical, MATLAB/Simulink, PSpice or LTspice, and at least one PCB layout tool (Altium Designer, KiCad, or Eagle) appear frequently [5][6].
• Knowledge of relevant codes and standards: NEC, IEEE, UL, and IEC standards depending on the industry. Power engineers need NESC familiarity; electronics engineers need FCC compliance knowledge [5].
• Hands-on lab and test equipment experience: Oscilloscopes, spectrum analyzers, logic analyzers, and power quality meters. Employers want engineers who can debug hardware, not just simulate it [6].
• Strong analytical and mathematical skills: Circuit analysis, electromagnetics, signal processing, and control theory form the technical foundation [3][4].

Preferred Qualifications

These won't disqualify you if you lack them, but they'll move your resume to the top of the pile:

• Professional Engineer (PE) license: Required for engineers who sign off on public infrastructure projects and increasingly preferred even in private industry [2][12]. The path involves passing the Fundamentals of Engineering (FE) exam, gaining four years of progressive experience, and then passing the PE exam.
• Master's degree or PhD: Preferred for R&D-heavy roles, especially in semiconductors, RF engineering, and power electronics [2].
• 2-5 years of experience for mid-level roles; 7+ years for senior positions [5][6]. Entry-level roles typically require no prior work experience beyond internships or co-ops [2].
• Industry-specific certifications: Certified Energy Manager (CEM) for power/utility roles, IPC certifications for PCB design, or relevant vendor certifications (e.g., Siemens, ABB, Schneider Electric) [12].
• Programming skills: Python, C/C++, and VHDL/Verilog appear in a growing number of postings, reflecting the convergence of hardware and software [5][6].

What Does a Day in the Life of an Electrical Engineer Look Like?

Your morning typically starts with email triage and a quick scan of project management tools — Jira, Microsoft Project, or whatever your organization uses. If you're mid-project, you likely have a standup meeting with your cross-functional team by 9:00 AM, where mechanical engineers flag enclosure constraints, software engineers ask about communication protocols, and the project manager reminds everyone about the customer review next Thursday.

By mid-morning, you're deep in design work. This might mean refining a power supply schematic in Altium, running a load flow simulation in ETAP, or calculating the thermal derating for a set of MOSFETs that keep overheating during stress testing. You toggle between simulation software and hand calculations — experienced engineers know that blindly trusting simulation output without sanity-checking the math is how costly mistakes happen.

Lunch often doubles as informal technical discussion. The engineer two desks over has a grounding issue they can't resolve, and you sketch out a star-ground topology on a whiteboard napkin. These ad-hoc problem-solving sessions are where a lot of real engineering happens.

Afternoons tend to split between lab time and documentation. You might spend two hours at the bench probing a prototype board with an oscilloscope, capturing waveforms to verify that your gate driver circuit meets timing specs. Then you switch gears to update the design review package — adding test results, revising the bill of materials, and annotating the schematic with changes from last week's review.

Late afternoon often brings meetings with external stakeholders: a vendor call to discuss lead times on custom transformers, a design review with the client's engineering team, or a compliance discussion with a UL field engineer. You end the day updating your project tracker and flagging any blockers for tomorrow's standup.

The rhythm varies by industry. Power engineers at utilities may spend more time on-site at substations. Electronics engineers at startups may wear more hats, handling PCB layout and firmware debugging in the same afternoon. But the core pattern — design, simulate, test, document, collaborate — holds across specializations [3][7].

What Is the Work Environment for Electrical Engineers?

Electrical engineers split their time between office environments and labs, test facilities, or field sites [2]. The ratio depends heavily on your specialization and career stage. A senior design engineer at a semiconductor company might spend 80% of their time at a desk running simulations, while a field engineer at a power utility might spend 60% of their time at substations and construction sites.

Remote work has become more common for design and analysis tasks, but most employers still require regular on-site presence for lab work, prototype testing, and collaboration [5][6]. Hybrid schedules (3 days in-office, 2 remote) are increasingly standard at larger firms.

Travel ranges from minimal (5-10% for pure design roles) to significant (25-50% for field engineering, commissioning, and consulting positions) [5]. International travel is common in industries like oil and gas, renewable energy, and defense.

Schedule expectations are typically standard 40-hour weeks, though project deadlines and commissioning milestones can push hours higher. Utility engineers may be on-call for emergency response during outages.

Team structure usually places you within an engineering department, reporting to a lead engineer or engineering manager. You'll collaborate daily with mechanical engineers, software developers, technicians, project managers, and quality assurance specialists [3]. In smaller companies, you may be the only electrical engineer on staff, which means broader responsibilities and more autonomy.

Safety protocols are a constant. You'll follow lockout/tagout procedures, wear appropriate PPE when working with energized equipment, and maintain awareness of arc flash hazards — especially in power engineering roles [2].

How Is the Electrical Engineer Role Evolving?

The electrical engineering profession is projected to grow 7.2% from 2024 to 2034, faster than the average for all occupations, driven by demand in several converging sectors [2].

Renewable energy and grid modernization represent the largest growth driver. The expansion of solar, wind, and battery storage systems requires electrical engineers who understand power electronics, grid interconnection standards (IEEE 1547), and energy management systems [2]. Engineers with experience in inverter design, SCADA systems, and microgrid architecture are in particularly high demand.

Electric vehicles and electrification are creating new roles in motor drive design, battery management systems, charging infrastructure, and high-voltage safety. Automotive OEMs and their supply chains are hiring electrical engineers at an accelerated pace [6].

The convergence of hardware and software continues to reshape the skill set employers value. Firmware development, embedded systems programming (C/C++, Python), and FPGA design using VHDL or Verilog appear in a growing percentage of job postings [5][6]. Engineers who can bridge the hardware-software divide command premium salaries — the 75th percentile earns $141,630, and the 90th percentile reaches $175,460 [1].

AI and machine learning tools are beginning to augment (not replace) traditional design workflows. Generative design tools can optimize PCB layouts, and predictive analytics improve preventive maintenance strategies for power systems. Engineers who learn to leverage these tools will have a distinct advantage.

Sustainability and regulatory pressure are adding compliance complexity. New efficiency standards, carbon reporting requirements, and circular economy principles are becoming part of the design brief, not just afterthoughts [2].

Key Takeaways

Electrical engineering remains one of the most versatile and well-compensated engineering disciplines, with a median salary of $111,910 and strong projected growth of 7.2% over the next decade [1][2]. The role demands a blend of deep technical knowledge — circuit design, power systems, signal processing — and practical skills like prototyping, testing, and cross-functional communication [3][4].

Employers consistently seek candidates with ABET-accredited bachelor's degrees, proficiency in simulation and design software, and knowledge of applicable codes and standards [2]. A PE license, programming skills, and specialization in high-growth areas like renewable energy or electric vehicles can significantly differentiate your candidacy [12].

If you're building or updating your resume for an electrical engineering role, focus on specifics: name the tools, quantify the results, and describe the systems you've designed at a level of detail that another engineer would respect. Resume Geni's AI-powered resume builder can help you structure those details into a format that gets past applicant tracking systems and into the hands of hiring managers.

Frequently Asked Questions

What does an electrical engineer do?

Electrical engineers design, develop, test, and oversee the manufacturing of electrical systems and equipment — including power generation and distribution systems, electric motors, radar and navigation systems, communications systems, and consumer electronics [2][7]. They use simulation software and hands-on testing to ensure designs meet performance, safety, and regulatory requirements.

How much do electrical engineers earn?

The median annual wage for electrical engineers is $111,910, with the middle 50% earning between $87,590 and $141,630 [1]. Top earners at the 90th percentile make $175,460 or more, typically in specializations like power electronics, semiconductors, or senior management roles [1].

What degree do you need to become an electrical engineer?

A bachelor's degree in electrical engineering or a closely related field from an ABET-accredited program is the standard requirement [2][8]. A master's degree or PhD is preferred for research and development positions or highly specialized roles [2].

Is a PE license required for electrical engineers?

A PE license is legally required for electrical engineers who provide services directly to the public or sign off on public infrastructure projects [2]. While not mandatory for all positions, many employers prefer PE-licensed candidates for senior roles, and the credential can significantly boost earning potential [12].

What is the job outlook for electrical engineers?

Employment of electrical engineers is projected to grow 7.2% from 2024 to 2034, with approximately 13,800 new jobs and 11,700 annual openings from replacement needs [2]. Growth is driven by renewable energy expansion, electric vehicle development, and grid modernization [2].

What software should electrical engineers know?

Commonly required tools include AutoCAD Electrical, MATLAB/Simulink, SPICE-based simulators (PSpice, LTspice), PCB design software (Altium Designer, KiCad), and power systems analysis tools like ETAP or SKM [5][6]. Programming languages such as Python, C/C++, and hardware description languages (VHDL, Verilog) are increasingly valued [5].

What industries hire the most electrical engineers?

Electrical engineers work across a wide range of industries, including utilities and power generation, semiconductor manufacturing, telecommunications, aerospace and defense, automotive, and consulting engineering firms [2]. The total U.S. employment stands at approximately 188,790 [1].

References

[1] U.S. Bureau of Labor Statistics. "Occupational Employment and Wages: Electrical Engineer." https://www.bls.gov/oes/current/oes172071.htm

[2] U.S. Bureau of Labor Statistics. "Occupational Outlook Handbook: Electrical and Electronics Engineers." https://www.bls.gov/ooh/architecture-and-engineering/electrical-engineers.htm

[3] ONET OnLine. "ONET OnLine: Summary for Electrical Engineer." https://www.onetonline.org/link/summary/17-2071.00

[4] O*NET OnLine. "Skills for Electrical Engineer." https://www.onetonline.org/link/summary/17-2071.00#Skills

[5] Indeed. "Indeed Job Listings: Electrical Engineer." https://www.indeed.com/jobs?q=Electrical+Engineer

[6] LinkedIn. "LinkedIn Job Listings: Electrical Engineer." https://www.linkedin.com/jobs/search/?keywords=Electrical+Engineer

[7] O*NET OnLine. "Tasks for Electrical Engineer." https://www.onetonline.org/link/summary/17-2071.00#Tasks

[8] U.S. Bureau of Labor Statistics. "Occupational Outlook Handbook: How to Become One." https://www.bls.gov/ooh/occupation-finder.htm

[12] O*NET OnLine. "Certifications for Electrical Engineer." https://www.onetonline.org/link/summary/17-2071.00#Credentials

[13] Society for Human Resource Management. "Selecting Employees: Best Practices." https://www.shrm.org/topics-tools/tools/toolkits/selecting-employees