Electronics Engineer
SOC 17-2072.00 · ESCO 2152 · OSCA 243431
Role snapshot
Overview
Electronics Engineers design and develop electronic components and systems — from microchips to communication devices — testing prototypes and refining designs. They apply scientific principles and engineering methods to create, test, and maintain electronic equipment and systems. Simulation software, lab work, and cross-functional collaboration drive the development cycle, ensuring products meet specifications and performance standards.
Enables technological advancement by creating the foundational electronic systems and devices that power modern communication, computing, medical equipment, and consumer electronics.
On the job
- Design electronic circuits, components, systems, and equipment for various applications
- Develop and test prototypes, analyze results, and refine designs to meet performance and reliability standards
- Collaborate with multidisciplinary teams, including software engineers and mechanical engineers, to integrate electronic systems
- Use simulation software and computer-aided design (CAD) tools to model and analyze circuit performance
- Document design specifications, testing procedures, and project progress
Tools & technology
Average salary
Job outlook
GrowingJob growth is expected to be above average over the next five years.
Education & training
A bachelor's degree in Electrical Engineering, Electronics Engineering, or a related field is typically required.
AI impact outlook
Note — this is our current view. AI is moving fast, so we revisit these ratings.
Show how this was assessed Hide the detail
Note — this is our current view. AI is moving fast, so we revisit these ratings.
Show how this was assessed Hide the detailWhy this role received this rating
Core task exposure
high
How much of the role’s important work could AI perform?
AI can heavily augment design synthesis, component selection, circuit layout, and initial testing phases.
End-to-end automation
moderate
Can AI complete the work without substantial human involvement?
While design generation is exposed, physical prototype development, complex debugging, and multidisciplinary integration require significant human intervention.
Adoption pressure
high
How likely are employers to introduce AI into this work?
The competitive landscape in electronics drives high adoption pressure for AI to enhance design efficiency and optimization.
Human dependence
strong
How much does success depend on human judgement, relationships and accountability?
Critical thinking for novel designs, balancing complex trade-offs, collaborating with teams, and accountability for product performance and safety are human-dependent.
Protective — a higher rating lowers the overall score.
Role adaptability
strong
How easily can the role evolve as AI takes on more tasks?
Electronics engineers inherently adapt to rapidly evolving technologies, design methodologies, and industry standards.
Shown for context — not part of the score.
What AI may take on
These are the parts of the role most likely to be automated or significantly accelerated.
- Designing basic electronic circuits
- Generating multiple design variations
- Simulating circuit performance
- Optimizing component layouts
- Automating initial prototype testing
Where people remain essential
These parts continue to depend heavily on human judgement, relationships and accountability.
- Developing novel system architectures
- Analyzing and refining complex design trade-offs
- Debugging challenging prototype issues
- Collaborating across multidisciplinary teams
- Documenting critical design specifications
- Ensuring product safety and reliability
How the role may evolve
AI assists design iteration, freeing engineers for innovation, validation, and cross-functional leadership.
AI will handle routine design iterations and simulations, allowing engineers to focus on higher-level innovation, rigorous validation of complex systems, and leading cross-functional teams to integrate electronic solutions effectively.
Strengthen your future fit
- Expertise in AI-driven design tools and simulation
- Advanced analytical and problem-solving skills
- Cross-functional collaboration and communication
- System architecture and integration leadership
- Deep understanding of emerging technologies
- Assessment horizon
- 3–7 years
- Confidence
- Medium
- Last reviewed
- August 2026
- Methodology
- v1.0
This assessment reflects current AI capabilities and expected adoption patterns. Actual impacts will vary by industry, employer and the way each role is performed.
Career pathways
WHERE YOU COULD GO
CURRENT ROLE
Electronics Engineer
Electrical & Electronic
ADJACENT MOVES
STARTING POINTS
Who thrives here
Interest profile
investigative · RIC
Individuals who enjoy scientific investigation, practical problem-solving, and working with structured data and precise specifications often thrive as Electronics Engineers.
Personality characteristics
Analytical
Enjoys dissecting problems, understanding complex systems, and applying scientific principles to find solutions.
Detail-oriented
Possesses a strong focus on precision, accuracy, and thoroughness in design, testing, and documentation.
Independent
Prefers to work autonomously or in small, focused teams, concentrating on technical tasks without constant social interaction.
Systematic
Appreciates logical processes, clear procedures, and organized approaches to problem-solving and project execution.
Calm under pressure
Maintains composure and focus when troubleshooting complex issues or facing tight deadlines in critical projects.
Best for
- Individuals who are passionate about understanding how electronic systems work and building new technologies.
- Engineers who enjoy a structured, analytical, and hands-on approach to design and development.
- Those who thrive in environments where precision, problem-solving, and continuous learning are key.
Watch out for
- The role can involve highly technical and complex challenges requiring persistent troubleshooting.
- Relatively lower social interaction compared to roles focused on client engagement or team leadership.
A week in the life
A representative working week for an Electronics Engineer — where the deep work, meetings, and admin actually land.
Real people. Real results.
Thousands of people
can't be wrong.
Frequently asked questions about Electronics Engineer roles
What does an Electronics Engineer do?
An Electronics Engineer electronics Engineers design and develop electronic components and systems — from microchips to communication devices — testing prototypes and refining designs. They apply scientific principles and engineering methods to create, test, and maintain electronic equipment and systems. Simulation software, lab work, and cross-functional collaboration drive the development cycle, ensuring products meet specifications and performance standards. Enables technological advancement by creating the foundational electronic systems and devices that power modern communication, computing, medical equipment, and consumer electronics.
How much does an Electronics Engineer earn?
An Electronics Engineer earns a median of $108,000 per year in the US, typically ranging from $78,000 to $145,000.
What qualifications do you need to become an Electronics Engineer?
To become an Electronics Engineer, a bachelor's degree in Electrical Engineering, Electronics Engineering, or a related field is typically required.
What personality suits an Electronics Engineer?
Electronics Engineer roles tend to suit people who are highly conscientious — precise, organised and strong on follow-through (Conscientiousness 84/100) and steady under pressure — deadlines and setbacks do not rattle them easily (Emotional Stability 72/100). The traits that matter most in the role are Analytical, Detail-oriented, Independent and Systematic. Enjoys dissecting problems, understanding complex systems, and applying scientific principles to find solutions. On interests, Electronics Engineer maps to a RIC Holland Code profile — individuals who enjoy scientific investigation, practical problem-solving, and working with structured data and precise specifications often thrive as Electronics Engineers.
Who does an Electronics Engineer role suit?
An Electronics Engineer role is usually a strong fit for these reasons. Strong Investigative and Realistic affinity: the role is centered on scientific inquiry, hands-on application, and problem-solving. A significant portion of the week is dedicated to deep work and lab activities, ideal for those who prefer focused technical tasks. Requires high conscientiousness and precision, aligning with individuals who value accuracy and thoroughness.
What are the downsides of being an Electronics Engineer?
Electronics Engineer roles come with trade-offs worth weighing up. The role can involve highly technical and complex challenges requiring persistent troubleshooting. Relatively lower social interaction compared to roles focused on client engagement or team leadership.
What is the work environment like for an Electronics Engineer?
Work as an Electronics Engineer is mostly lab-based with onsite arrangements common, semi-structured — a mix of set processes and self-directed work, a moderate pace and medium exposure to clients or stakeholders. Around 44% of the week is focused deep work.
What skills do you need to be an Electronics Engineer?
Core skills for an Electronics Engineer include Circuit design, Signal processing, Embedded systems development, PCB layout, Troubleshooting and debugging and Analog and digital electronics.
How do you become an Electronics Engineer?
Common entry routes into Electronics Engineer roles include Junior Electronics Engineer, Electrical Engineering Intern and Research Assistant Electronics.
What career progression is there for an Electronics Engineer?
From an Electronics Engineer role, common next steps include Senior Electronics Engineer and Engineering Manager (Electronics); lateral moves include Embedded Systems Engineer.
What is the job outlook for Electronics Engineer roles?
The outlook for Electronics Engineer roles is currently rated growing. Job growth is expected to be above average over the next five years.
Will AI replace Electronics Engineer roles?
Traitstack rates automation risk for Electronics Engineer roles at 60 out of 100, which is moderate. Much of the design synthesis and optimization could be AI-driven, but human insight is essential for novel problem-solving, prototype debugging, and cross-functional integration of electronic systems. AI is most likely to take on designing basic electronic circuits, generating multiple design variations and simulating circuit performance. Developing novel system architectures, analyzing and refining complex design trade-offs and debugging challenging prototype issues stay with people. AI assists design iteration, freeing engineers for innovation, validation, and cross-functional leadership. That score measures how much of the work could change, not the likelihood the job disappears. It is Traitstack's current view, revisited as AI capability moves.