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Physical making / fixing

Electronics Engineer (Technician)

Electronics engineers (technicians) are the backbone of modern technology, designing, developing, and maintaining electronic systems that power everything from smartphones to renewable energy solutions. Their expertise is crucial in driving innovation and efficiency in various industries, making them indispensable in the UK's competitive tech landscape.
No degree needed for many routes
AI impact: low££££ payDirect entry route
22
AI impact
how much AI is reshaping it
Robin · your guide
Curious about being a electronics engineer (technician)? Here's the honest picture - what you'd really do, what you'd earn, and every way in. No need to decide anything yet.

What you'd actually do

As an Electronics Engineer (Technician), you will play a pivotal role in the development and maintenance of electronic systems that are vital to today's technology-driven world. Your work will not only contribute to the efficiency of various sectors, including telecommunications, healthcare, and automotive, but also impact the daily lives of people by ensuring that the electronic devices they rely on function seamlessly.

In this dynamic role, you will be immersed in the design and implementation of electronic circuits and systems. This involves a blend of creativity and technical know-how, as you will be tasked with transforming theoretical concepts into practical applications. You will work closely with engineers and other specialists, often collaborating on projects that require innovative thinking and problem-solving skills.

  • Design and Development: Your day will often start with brainstorming sessions where you conceptualize new electronic systems or improvements to existing ones. You will use advanced software tools to create schematics and layouts, ensuring that your designs meet stringent industry standards.
  • Testing and Troubleshooting: A significant part of your role will involve rigorous testing of prototypes and existing products. You will employ various testing methods to identify issues, analyze performance, and implement solutions quickly to ensure reliability.
  • Collaboration: Working with multidisciplinary teams is essential. You will liaise with software engineers, project managers, and quality assurance teams to ensure that the electronic components integrate smoothly with other systems.
  • Documentation: Keeping accurate records of your designs, tests, and modifications is crucial. This documentation not only aids in future projects but also ensures compliance with regulatory standards.
  • Continuous Learning: The field of electronics is ever-evolving. You will dedicate time to stay abreast of new technologies, tools, and industry practices, attending workshops and courses to enhance your skills.
  • Installation and Maintenance: You may also be involved in the hands-on installation of systems in various settings, from factories to hospitals, ensuring that they operate correctly and efficiently.
  • Technical Support: Providing support and training to customers and junior technicians will be part of your duties, helping to foster a knowledgeable workforce and satisfied clientele.

In this rewarding career, you will face challenges that require critical thinking and adaptability, but the satisfaction of seeing your designs come to life and make a tangible impact in the world is unparalleled. As an Electronics Engineer (Technician), you will not just be a part of the technology revolution; you will be at its forefront, shaping the future of electronics.

1Design and develop electronic circuits and systems for a variety of applications.
2Test and troubleshoot electronic equipment to ensure optimal performance and compliance with specifications.
3Collaborate with cross-functional teams to integrate electronic systems with software and hardware.
4Document design processes, test results, and system specifications for future reference.
5Stay updated on the latest technologies and industry trends to enhance design processes.
6Assist in the installation and maintenance of electronic systems in real-world environments.
7Provide technical support and training to customers and junior technicians.

Career progression & pay

01
Getting in

Junior Electronics Technician

£30,000 - £35,000
A relevant degree or HND in electronics or a related field.
As a Junior Electronics Technician, you will assist in the design and testing of electronic systems, gaining hands-on experience in the field.
02
Building up

Mid-Level Electronics Technician

£40,000 - £50,000
A degree in electronics or a related discipline, along with relevant work experience.
In this role, you will take on more complex projects, leading testing phases and collaborating closely with engineers to develop innovative solutions.
03
At the top

Senior Electronics Engineer

£60,000+
Extensive experience in electronics engineering, often with a professional qualification such as CEng or IEng.
As a Senior Electronics Engineer, you will oversee projects, mentor junior staff, and drive technological advancements within your organisation.

Degrees that lead here via Engineering and Technology

Apprenticeships that lead here

Who hires - top UK employers

BAE Systems
A global defence, aerospace and security company, BAE Systems offers exciting opportunities for electronics engineers.
Thales Group
Thales is a global technology leader in aerospace, transport, defence and security markets, providing a dynamic environment for electronics technicians.
Rolls-Royce
Rolls-Royce is a pioneer in power systems, offering roles that challenge and inspire electronics engineers.
Siemens
Siemens is a global technology company that focuses on industry, infrastructure, transport, and healthcare, providing diverse opportunities for electronics technicians.
Jaguar Land Rover
Jaguar Land Rover is a leading automotive manufacturer that invests heavily in technology and innovation, making it an exciting place for electronics engineers.

AI & the future of this job

Electronics engineers and technicians sit in a genuinely resilient position because their work is deeply rooted in physical systems, hands-on testing, and iterative hardware problem-solving that AI cannot yet replicate. While AI tools are accelerating circuit simulation, schematic generation, and fault diagnosis, the physical act of building, probing, and debugging real hardware still demands trained human judgement. The role spans everything from PCB layout to embedded systems integration, and errors in hardware have real-world consequences that demand accountability AI cannot hold. Entry-level technician roles face some administrative compression, but the core engineering work remains firmly human-led.
Within 5 Years
Workflow tools accelerating
AI-assisted simulation platforms like those built on SPICE or generative schematic tools will absorb much of the repetitive design drafting and basic fault-tree analysis. Technicians who previously spent time manually documenting test results will find that process largely automated. However, the physical testing, calibration, and cross-team integration work will still require human presence and expertise. The net effect is productivity gains rather than job losses for qualified engineers.
Within 10 Years
Role specialisation increasing
AI will be deeply embedded in the design-to-manufacture pipeline, handling initial design iterations, compliance checking, and predictive maintenance analysis on deployed systems. This will shift the technician's role further toward complex troubleshooting, novel system integration, and overseeing AI-generated designs for real-world viability. Engineers who understand both the hardware fundamentals and how to work alongside AI tooling will command premium salaries. Purely administrative or entry-level test technician roles will shrink, so skills depth matters more than ever.
Within 20 Years
Strategic human oversight role
Autonomous design agents may handle a significant portion of standard electronics development for well-defined product categories by this point. The human engineer's value will centre on novel problem domains, safety-critical validation, and the creative application of electronics to emerging fields like bio-integration, advanced robotics, and quantum-adjacent hardware. Physical intuition, regulatory accountability, and cross-disciplinary collaboration will be the non-negotiable human contributions. Engineers who have built deep domain expertise rather than relying solely on tool operation will be the ones leading industry at this horizon.
How to stay ahead
Master embedded systems and firmware
The overlap between hardware and software is where the highest-value engineering work is happening. Learning embedded C, RTOS fundamentals, and communication protocols like SPI, I2C, and CAN bus makes you far harder to replace and opens doors across automotive, medical devices, and industrial automation. This is a skill set AI tools assist rather than replace.
Engage with AI-assisted EDA tools early
Tools like Altium with AI features, Flux.ai, and AI-enhanced simulation environments are already entering professional workflows. Getting hands-on with these during your studies means you arrive at your first role as someone who accelerates productivity rather than someone being displaced by the tooling. Engineers who can critically evaluate AI-generated schematics are significantly more valuable than those who cannot.
Pursue a specialism in a growth sector
Power electronics for EVs and renewable grids, RF engineering for 5G and 6G infrastructure, and defence electronics are all areas where the UK has active investment and genuine skills shortages. Specialising during your final year or through a placement in one of these sectors gives you a defensible niche that is not easily commoditised. Generalist technician roles face more pressure than specialists.
Build physical prototyping and testing credibility
Hands-on experience with oscilloscopes, spectrum analysers, and thermal imaging in real lab environments is something that cannot be learned from a course alone and cannot be replicated by AI. Document your practical work through a portfolio of real builds, whether through university projects, hackathons, or personal electronics projects. Employers in hardware engineering consistently prioritise demonstrated bench experience alongside academic qualifications.

How to get in - your routes

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Career data: role, pay and progression profiles built for Careermash's careers engine; AI-impact estimates from Anthropic's observed AI-usage telemetry and OpenAI's AI Jobs Transition Framework. Course data: HESA / Discover Uni, including Graduate Outcomes, LEO and the National Student Survey. Apprenticeships: IfATE-published standards, approved only.

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