Last Update: 11/21/2025
Your role’s AI Resilience Score is
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Evolving
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These roles are shifting as AI becomes part of everyday workflows. Expect new responsibilities and new opportunities.
AI Resilience Report for
They design and create electronic devices and systems, like radios and smartphones, making sure they work safely and efficiently.
Summary
Electronics engineering is labeled as "Evolving" because AI tools are increasingly taking over routine tasks like design calculations and part selection, which were traditionally done by engineers. This automation means that fewer engineers may be needed for these specific tasks as AI can do them faster and more efficiently.
Read full analysisLearn more about how you can thrive in this position
Learn more about how you can thrive in this position
Summary
Electronics engineering is labeled as "Evolving" because AI tools are increasingly taking over routine tasks like design calculations and part selection, which were traditionally done by engineers. This automation means that fewer engineers may be needed for these specific tasks as AI can do them faster and more efficiently.
Read full analysisContributing Sources
AI Resilience
All scores are converted into percentiles showing where this career ranks among U.S. careers. For models that measure impact or risk, we flip the percentile (subtract it from 100) to derive resilience.
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AI Task Resilience
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Anthropic's Economic Index
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Will Robots Take My Job
Automation Resilience
Medium Demand
We use BLS employment projections to complement the AI-focused assessments from other sources.
Learn about this scoreGrowth Rate (2024-34):
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Analysis of Current AI Resilience
Electronics Engineers
Updated Quarterly • Last Update: 11/21/2025

State of Automation & Augmentation
AI is already assisting electronics engineers with some technical tasks, but it mostly acts as a helper rather than taking over everything. For example, new AI-driven design tools can speed up complex simulations from weeks to seconds [1]. These tools let engineers experiment more quickly and spend time on creative solutions.
Similarly, companies now offer software (like Celus, Altium, and Siemens tools) that use AI to turn a set of requirements into circuit schematics or help pick parts from millions of choices [2] [2]. In other words, AI can handle routine design work and component selection, so engineers don’t have to do every calculation by hand.
AI is also helping with testing and maintenance tasks. In factories and labs, engineers use IoT sensors plus machine learning to predict when equipment will fail. This “predictive maintenance” means repairs can be done before a breakdown, saving time and repair costs [2] [2].
Likewise, for documentation and planning, some engineers are trying tools like ChatGPT. In a research case, ChatGPT suggested good microcontrollers and sensors for an electronics project, giving beginners a quick starting point. It made some errors in details and code, though, so human engineers still checked and fixed the output [3] [3].
This example shows AI can draft ideas and answer questions, but engineers must verify the results. Importantly, tasks that rely on human judgment – like brainstorming with colleagues or final design reviews – aren’t automated. An industry review notes that AI leaves “repetitive, resource-heavy work” to computers so engineers can focus on problem-solving and innovation [1].

AI Adoption
Many engineers and companies are curious about using AI because of the big potential benefits. Experts say AI can let firms “do more in less time and with improved quality” [2]. For instance, chip-makers report rising demand for AI-enabled design software: Synopsys noted its design tools saw strong sales growth as customers race to build complex AI chips [4].
This suggests that when good AI tools are available, tech companies are ready to pay for them, expecting faster product development and better performance. Tools like Altium Designer already build in AI features, so some drafting and parts-picking tasks are getting easier. In practice, when engineers can save hours of manual work, this frees them to tackle creative problems or learn new skills.
On the other hand, not everything in electronics engineering is easy to automate, so adoption will take time. Advanced AI software and hardware tools can be expensive, and companies must train staff to use them safely. Engineers are rightly cautious: one study found ChatGPT gave plausible but partly incorrect answers (even fake references), so people still double-check AI’s work [3] [3].
In high-stakes fields (like medical or aerospace electronics), engineers follow strict standards and won’t trust AI-generated designs without proof of reliability. Also, many tasks involve collaboration, creativity or ethical judgment – for example, deciding a safe design approach or negotiating with a client. Those human skills remain important, so even with AI tools around, companies rely on experienced engineers to oversee projects.
Overall, AI adoption in electronics engineering will likely grow steadily. Companies see that AI can automate routine calculations and data analysis, which brings economic benefits (faster design cycles, lower testing costs). Big firms are already investing in AI design software [4] [2].
But because of training costs, industry norms, and the need for trust, AI is being added in stages. In the meantime, young engineers can view AI as a teammate – a tool that handles busywork so that human creativity and problem-solving stay at the center of the job [1] [3].

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Median Wage
$127,590
Jobs (2024)
95,900
Growth (2024-34)
+6.2%
Annual Openings
5,700
Education
Bachelor's degree
Experience
None
Source: Bureau of Labor Statistics, Employment Projections 2024-2034
AI-generated estimates of task resilience over the next 3 years
Represent employer at conferences, meetings, boards, panels, committees, or working groups to present, explain, or defend findings or recommendations, negotiate compromises or agreements, or exchange ...
Prepare documentation containing information such as confidential descriptions or specifications of proprietary hardware or software, product development or introduction schedules, product costs, or i...
Plan or develop applications or modifications for electronic properties used in components, products, or systems to improve technical performance.
Confer with engineers, customers, vendors, or others to discuss existing or potential electronics engineering projects or products.
Design electronic components, software, products, or systems for commercial, industrial, medical, military, or scientific applications.
Research or develop electronics technologies for use in electric-drive vehicles.
Research or develop new green electronics technologies, such as lighting, optical data storage devices, or energy efficient televisions.
Tasks are ranked by their AI resilience, with the most resilient tasks shown first. Core tasks are essential functions of this occupation, while supplemental tasks provide additional context.

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