Top 7 Electrical Engineering Jobs in Demand
Electrical engineering has never been more central to the global economy. The energy transition, proliferation of connected devices, buildout of next-generation wireless infrastructure, rapid expansion of AI-driven data centers and electrification of transportation are all creating sustained demand for engineers who specialize in the systems and technologies that enable these shifts. For students and professionals evaluating the field, the timing could hardly be better.
Ohio University's online Master of Science in Electrical Engineering (MSEE) program is designed for working engineers who want to advance into senior- and leadership-level roles, among the highest-paying and most in-demand positions in the field. Before exploring the program, here is a current picture of where electrical engineering demand is strongest and what the top roles pay. According to the U.S. Bureau of Labor Statistics (BLS), employment of electrical and electronics engineers is projected to grow 7% from 2024 to 2034, much faster than the average for all occupations, with about 17,500 openings projected each year.
Are Electrical Engineers in Demand? Industry Growth at a Glance
Electrical engineers are among the most in-demand technical professionals in the U.S. economy, with growth driven by five converging sectors: clean energy, electric vehicles, semiconductors, smart grid modernization and next-generation wireless communications. The 7% projected employment growth from 2024 to 2034, more than double the 3% average for all occupations, understates the demand picture in the highest-growth specialties.
The clean energy transition alone is reshaping the electrical engineering labor market. U.S. Department of Energy has directed $97 billion in federal funding toward grid modernization, offshore wind development, utility-scale solar deployment and battery storage infrastructure through the Infrastructure Investment and Jobs Act and the Inflation Reduction Act, all of which require power systems engineers, controls engineers and energy storage specialists at scale.
Semiconductor demand continues to outpace supply despite significant domestic investment in new fabrication capacity. The Semiconductor Industry Association (SIA) projects the industry will add nearly 115,000 jobs by 2030, with roughly 67,000 of those positions at risk of going unfilled, a gap that electronics engineers, embedded systems engineers and radio frequency (RF) engineers are central to filling. At the same time, the rollout of 5G infrastructure and the early buildout of 6G research programs are generating sustained demand for telecommunications and RF engineers across equipment manufacturers, network operators and defense contractors.
BLS specifically identifies solar arrays, semiconductors and communications technologies as key growth drivers for electrical and electronics engineering employment through 2034. Engineers who position themselves in these growth sectors, particularly those with advanced degrees and specialty expertise, are entering one of the most favorable labor markets for technical professionals in decades.
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What Are the Top-Paying Electrical Engineering Jobs?
The highest-paying electrical engineering jobs combine technical specialization with strong industry demand, and all roles below are actively hiring across multiple sectors. The salary data below draws on BLS figures for the two primary occupational categories covering these roles: electrical engineers (median $111,910 in May 2024) and electronics engineers, except computer (median $127,590 in May 2024). Specialist roles in high-demand sectors typically command salaries at or above the upper end of these ranges. The seven roles below represent the specialties with the strongest current and projected demand in electrical engineering.
Power Systems Engineer
A power systems engineer designs, analyzes and maintains the electrical infrastructure used to generate, transmit and distribute power. Core responsibilities include load flow analysis, fault protection design, substation engineering and grid interconnection studies. The rapid expansion of renewable energy generation and the modernization of aging grid infrastructure have placed power systems engineers among the most actively recruited EE specialists in the country.
Active hiring sectors include electric utilities, independent power producers, renewable energy developers, grid consulting firms and large industrial operators. Power systems engineers typically fall within the BLS electrical engineers category, with a median of $111,910 in May 2024, and senior grid and transmission engineers at major utilities earning well into the upper wage range.
Electronics Engineer
An electronics engineer designs and develops electronic circuits, systems and components for products ranging from consumer devices and medical equipment to industrial controllers and defense systems. The role encompasses schematic design, PCB layout, component selection, design verification and product qualification and often includes close collaboration with firmware and mechanical teams on integrated hardware programs.
BLS classifies this specialty as electronics engineers, the single highest-paid primary EE category, with a median annual wage of $127,590 in May 2024. The top 10% of earners in this category earn more than $199,060 annually. Active hiring sectors include semiconductor manufacturers, defense electronics contractors, consumer technology companies and medical device manufacturers.
Controls Engineer
A controls engineer designs and implements feedback control systems that regulate the behavior of machines, processes and industrial systems. The work spans control algorithm development, PLC and DCS programming, sensor integration, actuator selection and system commissioning. Controls engineers work on everything from manufacturing automation and robotics to power plant regulation, aviation control surfaces and autonomous vehicle systems.
Industry demand is strong across advanced manufacturing, automotive and aerospace, where the push toward greater automation and electrification is driving continuous expansion of controls engineering teams. A graduate-level background in control theory, typically covered in MSEE curricula, is a differentiating credential for engineers pursuing leadership roles in complex control systems programs.
Embedded Systems Engineer
An embedded systems engineer develops the hardware-software integration that enables electronic devices to perform computations. Responsibilities include microcontroller and microprocessor selection, real-time operating system implementation, low-level firmware development, hardware-software co-design and embedded debugging.
The explosive growth of connected devices, edge computing and intelligent systems across automotive, industrial, consumer and medical applications has made embedded systems engineering one of the fastest-growing EE specialties. The Institute of Electrical and Electronics Engineers Standards Association (IEEE SA) identifies the growth of Internet of Things applications and edge computing, driven by the convergence of low-power silicon, wireless connectivity and AI at the edge, as among the foundational technology trends reshaping the industry in 2025 and beyond, generating sustained demand for embedded systems engineers across sectors.
Renewable Energy Engineer
A renewable energy engineer applies electrical and systems engineering principles to the design, development and integration of renewable power generation systems, including solar photovoltaic arrays, wind turbines and battery energy storage systems. The role encompasses system sizing and design, grid interconnection engineering, power electronics selection and commissioning support for utility-scale and distributed energy projects.
Federal investment in clean energy infrastructure and state-level renewable portfolio standards have created a multi-decade buildout cycle in this specialty. A joint study by the IEEE Power & Energy Society and Kearney projects the world will need between 450,000 and 1.5 million more power engineers by 2030 to build and operate the new energy infrastructure, as the U.S. electrical grid requires significant engineering expertise to integrate the volume of renewable capacity currently planned and under development. Renewable energy engineers fall within the BLS electrical engineers category, with senior project engineers and grid integration specialists typically earning above the median of $111,910.
Telecommunications Engineer
A telecommunications engineer designs and maintains the systems used to transmit voice, data and video across networks, including cellular infrastructure, fiber optic systems, satellite communications and enterprise networking equipment. Core responsibilities include link budget analysis, RF propagation modeling, network architecture design and equipment specification. The ongoing deployment of 5G infrastructure and early research investment in 6G are driving sustained demand for telecommunications engineers across all network layers.
Active hiring sectors include wireless carriers; equipment manufacturers such as Ericsson, Nokia and Qualcomm; satellite operators; cable companies and federal agencies managing critical communications infrastructure. Telecommunications engineers are classified under the BLS electronics engineers category, with a median pay of $127,590 in May 2024, reflecting the premium the marketplaces put on RF and communications expertise.
RF Engineer
An RF engineer specializes in the design, analysis and testing of systems that operate across the radio frequency spectrum, including antenna systems, transmitters, receivers, filters and amplifiers. The work spans frequency planning, electromagnetic simulation, component characterization and system integration for applications in wireless communications, radar, electronic warfare, satellite systems and medical imaging.
RF engineering commands some of the highest compensation in the electrical engineering field, driven by the complexity of the work and the concentration of demand in high-paying sectors. Defense and aerospace programs, semiconductor companies developing wireless chips, telecommunications equipment manufacturers and satellite system integrators are all active employers. RF engineers typically fall within the electronics engineers category, earning a median of $127,590, and defense-sector RF engineers and those with advanced degrees can earn significantly above this figure.
Jobs in Electrical Engineering: Which Specialties Are Hiring Most?
The three electrical engineering specialties with the strongest current hiring velocity are power systems, embedded systems and RF/communications, each driven by a structural market shift that will sustain demand well beyond the current projection decade. Understanding which sectors are driving this demand helps engineers target their training and career moves more effectively.
The energy transition is reshaping power systems. Utilities, grid operators and renewable developers are competing for a limited pool of power systems engineers with expertise in grid interconnection, protection and controls. The Department of Energy's grid modernization agenda, which encompasses transmission expansion, battery storage integration and advanced distribution management systems, represents a decade-plus hiring cycle for this specialty.
The demand for embedded systems is due to the electrification of transportation and the proliferation of intelligent devices. Every electric vehicle contains dozens of embedded controllers that manage battery systems, motors, charging interfaces and safety functions. Every smart building contains sensors, actuators and edge computing nodes that require embedded hardware and firmware. As these systems become more complex and safety-critical, employers are increasingly seeking engineers with advanced academic preparation alongside hands-on experience.
RF engineering demand is being driven by 5G infrastructure deployment and defense modernization. Wireless carriers are continuing to densify 5G networks while simultaneously investing in the research that will define 6G architecture. Defense contractors are expanding radar, electronic warfare and satellite communications programs. BLS notes that some employers in these fields prefer to hire engineers with a master's degree, a signal that graduate-level credentials are becoming increasingly important as defense and communications roles grow more technically specialized.
What Skills Do Employers Want in Electrical Engineering Candidates?
Employers across all seven specialties consistently prioritize a combination of core technical competencies, software proficiency and systems-level thinking, and advanced degree holders who bring all three are the candidates most frequently considered for senior and leadership positions. Understanding what distinguishes top candidates helps engineers at every stage target their development effectively.
Core technical skills that appear in most EE job postings include circuit design and simulation (using tools such as SPICE, Cadence or Altium), signal processing and digital filter design, control systems analysis and design, power electronics fundamentals and electromagnetic theory. These are the foundational competencies developed through an undergraduate EE curriculum and deepened through graduate study.
Software and tool proficiency requirements have expanded significantly over the past decade. MATLAB and Simulink are near-universal requirements for controls, power systems and signal processing roles. Python is increasingly required for data analysis, automation scripting and machine learning integration within engineering workflows. FPGA design using VHDL or Verilog is expected in embedded and RF roles. Industry-specific tools, including ANSYS HFSS for antenna and RF simulation, PSCAD or PSSE for power systems, and Altium or KiCad for PCB design, are often listed as differentiating requirements.
Systems-level thinking is the competency that distinguishes senior engineers from strong individual contributors. Employers want engineers who can understand how their subsystem integrates into a broader architecture, anticipate how design decisions in one domain create constraints or opportunities in another and communicate technical tradeoffs clearly to cross-functional teams. This capability is explicitly developed through graduate engineering education, where coursework spans multiple technical domains and requires engineers to synthesize knowledge across course boundaries.
Advanced degrees are increasingly common expectations for senior roles in high-demand specialties. Ohio University's online MSEE offers six concentrations, including Autonomous Unmanned Vehicles, Communications and Digital Signal Processing, Computer Engineering, Electrical Engineering, Electronic Navigation Systems, and Micro Nano Devices and Systems. These options allow working engineers to build deep expertise in the specialty most aligned with their career goals, in a 100% online format that does not require pausing professional development. The program's faculty draw on research experience from the Avionics Engineering Research Center, ensuring that coursework reflects the advanced technical questions that industry employers are actively addressing.
Start your online electrical engineering degree at Ohio University. The online MSEE degree develops the advanced technical skills and graduate credentials that top electrical engineering employers seek.
About Ohio University's Online MSEE
Ohio University's Master of Science in Electrical Engineering degree is a 100% online, HLC-accredited graduate program built for working electrical engineers who want to advance into senior technical and leadership roles. The 36-credit-hour curriculum offers six concentrations and is taught by full-time faculty with research and industry experience from the university's Avionics Engineering Research Center. Three start dates per year give working professionals flexibility, and no residency requirement means students complete the program wherever they work.
The program is designed to build the advanced technical depth and systems-level thinking that high-demand employers across power, defense, semiconductors, telecommunications and clean energy sectors are actively seeking. Learn more about Ohio University's online Master of Science in Electrical Engineering program.
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