01 · SnapshotCareer snapshot
Robotics and automation technicians install, maintain, and troubleshoot robots and other automated equipment used in factories, warehouses, and smart production lines. They do hands-on work with mechanical parts, electrical systems, PLCs, sensors, and control software to keep machines running safely and efficiently.
- Common titles
- Robotics Technician, Automation Technician, Mechatronics Technician, Controls Technician, Industrial Maintenance Technician, Field Service Technician – Robotics
- Where they work
- manufacturing, warehouses and distribution centers, logistics and fulfillment, robotics integrators, industrial maintenance, field service at customer sites, technical colleges and training labs
- Typical hours
- 40-50 / week, often shift work, nights, weekends, or on-call in some facilities
- Top skills
- Troubleshooting · PLC Logic · Electrical Systems · Mechanical Repair · Safety
02 · Why it mattersWhy this career matters
This career matters because modern products are often made, packaged, sorted, and shipped using automated systems. When robots, conveyors, sensors, or PLC-controlled machines stop working, technicians help reduce downtime and keep production moving.
It also matters because many industries that rely on automation are still growing or changing, including automotive, aerospace, electronics, food processing, pharmaceuticals, and logistics. Students who like practical problem-solving can build useful skills for a career that supports real-world operations.
03 · A real dayWhat professionals actually do
Daily work is a mix of mechanical, electrical, and computer-based troubleshooting. Technicians may install new equipment, perform preventive maintenance, read schematics and fault codes, adjust robot programs or PLC logic under approved procedures, document repairs, and work closely with operators and engineers.
A representative day
- 7:00 — Check shift notes, alarms, and production priorities
- 8:00 — Inspect robots, sensors, conveyors, and safety devices
- 9:30 — Troubleshoot a fault using schematics, PLC data, and test tools
- 11:00 — Replace or adjust a worn part, sensor, or drive component
- 1:00 — Update maintenance logs and confirm the system is back online
- 2:30 — Train an operator on basic care or restart steps
- 4:00 — Review recurring issues and suggest fixes for the next shift
04 · PathwayThe career pathway
- Foundation in math, physics, coding, and shop/lab skillsHigh school
- 1-2 years for a certificate or about 2 years for an associate degreeCollege / bootcamp
- 1-2 summers of lab, co-op, or employer training experienceInternship
- Yr 1-2 learning equipment, safety, and basic troubleshootingJunior role
- Yr 3-6 handling more complex diagnostics, PLCs, and robot systemsMid-level
- Yr 7+ specializing in controls, field service, programming, or lead technician workSenior / specialist
05 · SkillsSkills required
Three skill clusters carry most of the work. We rate each on how much it's used day-to-day in entry-level roles.
- Logic & abstraction88/100
- Communication74/100
- Hands-on troubleshooting95/100
- Mechanical/electrical comfort91/100
- Attention to safety/detail94/100
06 · Education mapEducation and training map
Here are the most-traveled routes from high school to a first paycheck.
- Associate degree in robotics/mechatronics45% take2 yrs$$
- Technical certificate or diploma30% take1 yr$
- Apprenticeship or employer training15% take1-3 yrs$
- Self-directed projects plus vendor training10% takeongoing$
07 · MarketJob market and salary outlook
Pay is often solid for a sub-bachelor’s pathway, but it varies a lot by region, industry, shift, and overtime. A cautious national range for early-career robotics / automation technicians is roughly $45,000-$65,000, while experienced technicians in strong-demand settings may earn more.
08 · OutlookFuture outlook
The job is likely to keep changing as factories, warehouses, and maintenance teams use more robots, sensors, vision systems, and data tools. That can mean more demand for technicians who can learn new platforms, interpret diagnostics, and work alongside predictive maintenance and AI-assisted systems, even if some routine tasks become more automated.
09 · FitStudent fit profile
You'll likely thrive here if you nod at three or more of these:
- You like taking things apart and figuring out how they work
- You do well with hands-on projects more than desk-only work
- You can stay calm when a machine breaks and people need help fast
- You are willing to follow safety rules carefully, even when rushed
- You are open to learning new tools, software, and equipment over time
- You can handle some shift work or industrial environments
10 · Trade-offsPros, cons, and misconceptions
Pros
- Good hands-on career without always needing a four-year degree
- Skills transfer across many industries
- Mix of mechanics, electronics, and technology
- Opportunities to specialize and grow into higher-paying roles
Cons
- Work can be physically demanding and noisy
- Some jobs include nights, weekends, or on-call shifts
- Troubleshooting under time pressure can be stressful
- Technology changes quickly, so learning never really stops
Myths
- 'Robotics technicians just press buttons.'
- 'You need a four-year engineering degree to work in robotics.'
- 'All robotics jobs are the same.'
- 'Automation will make this career disappear.'
11 · High schoolHigh school action plan
If you're a sophomore or junior, you can meaningfully prepare in 3–5 hours a week. The point is exposure, not mastery.
- Take algebra II or higher, plus physics if available
- Join robotics, electronics, maker, or engineering clubs
- Learn basic coding and practice debugging small projects
- Build comfort with tools, wiring, and lab safety
- Ask about CTE classes in robotics, mechatronics, or manufacturing
- Start a simple portfolio with photos, notes, and code from projects
12 · CollegeCollege and application strategy
Look for programs with strong labs, PLC and robotics training, safety instruction, and employer connections. Community colleges, technical colleges, and apprenticeship-style programs can all be good starting points if they include lots of hands-on practice and help students move into internships, co-ops, or entry-level technician jobs.
16 · TranscriptAudio guide transcript
Full transcript of the audio lesson. Search, skim, or read along.
00:00Welcome to the Qoollege career conversation. Today we are looking at a practical, fast-moving career path: Robotics and Automation Technician. If you like hands-on problem-solving, technology, and seeing how things work, this may be a field worth exploring.
00:15A robotics or automation technician installs, operates, troubleshoots, and maintains industrial robots and automated systems. These systems can be found in factories, warehouses, distribution centers, and smart manufacturing facilities. In simple terms, when machines that move, sort, assemble, or package products need help, technicians are often the people who keep everything running.
00:37So this is not a job where you sit at a desk all day.
00:43Usually, no. The work is often physical and technical at the same time. A technician might inspect a robot cell, replace a faulty sensor, test a motor, read an error code, or check wiring diagrams. They may also help start up new equipment, perform routine maintenance, and document what they fixed. The goal is to reduce downtime and keep production safe and efficient.
01:09What does a typical day look like?
01:12It can vary a lot by workplace, but there are some common tasks. A technician may troubleshoot alarms on a robot, inspect conveyors, calibrate sensors, or help update PLC logic under approved procedures. PLCs, by the way, are programmable logic controllers. They are the industrial computers that help machines make decisions. Technicians also use tools like multimeters, diagnostic software, and maintenance logs. In some jobs, they train operators on basic equipment care and safety procedures.
01:43It sounds like the job blends mechanical, electrical, and computer skills.
01:48That is exactly right. This career sits at the intersection of several technical areas. A technician needs to understand mechanics, electricity, controls, and sometimes networking. They may work with brands and systems such as FANUC, ABB, KUKA, Yaskawa Motoman, Rockwell, or Siemens, depending on the employer. But the specific brand matters less than the ability to troubleshoot carefully and learn new systems.
02:13Why is this career becoming more important?
02:16Automation is now part of how many products are made, packaged, sorted, and shipped. Businesses use robots and automated systems to improve speed, consistency, and safety. But those systems still need people who can install them, maintain them, and solve problems when something goes wrong. That is why robotics and automation technicians matter in industries like automotive manufacturing, aerospace, food and beverage, electronics, pharmaceuticals, and logistics.
02:44Let’s talk about the education path. Do students need a four-year degree for this career?
02:50Not always. Many technician roles are accessible through an associate degree, a technical certificate, or apprenticeship-style training. Common programs include robotics technology, mechatronics technology, industrial automation technology, electro-mechanical technology, or industrial maintenance technology. Some students begin with a short certificate, while others choose a two-year degree for broader training.
03:10What should high school students focus on if they are interested?
03:15Math and science are important, especially algebra, geometry, physics, and sometimes trigonometry. Computer science can also help, along with technical writing and reading comprehension because technicians must understand manuals, diagrams, and repair notes. Outside of class, robotics clubs, maker spaces, electronics projects, and coding clubs can build useful experience. Programs like FIRST Robotics or VEX can be especially helpful because they let students practice teamwork and technical problem-solving.
03:43What kind of skills do employers usually want?
03:46Employers often look for a mix of technical and personal skills. On the technical side, students should be comfortable reading electrical schematics, using diagnostic tools, learning PLC basics, and understanding safety procedures. On the personal side, patience, attention to detail, clear communication, and calm decision-making are very important. When production stops, the pressure can be real. A good technician needs to think clearly and work safely.
04:14Is this a good fit for every student?
04:17Not for every student, and that is okay. This career may be a strong fit if you enjoy building, fixing, or taking things apart. It helps if you like hands-on work more than desk-only work, and if you do not mind learning technical systems step by step. It can also be a good fit if you are willing to work in industrial settings and follow safety rules closely. On the other hand, if you dislike machinery, noise, or troubleshooting under pressure, you may want to explore other paths.
04:54What about the job market?
04:56The job market depends a lot on the region and the amount of automation in local industries. Because BLS does not use one exact title for this career, the data comes from related occupations such as electro-mechanical technicians and industrial machinery mechanics. Those related areas show steady to moderately strong demand. Some roles are tied to manufacturing, while others support warehouses, logistics centers, and industrial maintenance teams. So the outlook is generally positive, but it is wise to look at local employers, not just national numbers.
05:32And salary?
05:32Salary can vary widely based on region, industry, shift, overtime, and experience. Nationally, early-career pay is often described in a rough range, and experienced technicians in stronger-demand sectors may earn more. Some related technician categories report median wages in the low seventy-thousand-dollar range, but that does not apply everywhere. It is best to treat salary estimates as approximate, not guaranteed, and to compare local job postings when you are researching.
06:01What does career growth look like over time?
06:05Many people start in entry-level roles such as machine operator, maintenance technician, assembly technician, or controls assistant. With experience, a technician may move into senior technician, field service, robot programming, or controls specialization. Some later become lead technicians, supervisors, trainers, or even move into engineering technology paths. The field rewards people who keep learning, especially as robots, sensors, vision systems, and networking tools continue to evolve.
06:32You mentioned future changes in the field. What should students expect?
06:37The long-term outlook looks promising, but not guaranteed. More factories and warehouses are using robots, sensors, data systems, and predictive maintenance tools. That means some routine work may become more automated, but technicians will still be needed to set up equipment, solve problems, and support human-machine systems safely. Students who learn new software, controls, and troubleshooting methods may have stronger flexibility in the future.
07:03What are some signs that a student might enjoy this career?
07:08If you like solving mechanical or electronic problems, that is a good sign. If you are comfortable working around moving machines and can stay focused on safety, that is another. Curiosity helps a lot, because technicians are constantly learning how different systems work. And if you are someone who stays calm when something breaks and needs to be fixed quickly, that can be a strong match.
07:35Let’s make this practical. What can a high school student do right now?
07:41Start with classes. Take algebra, geometry, physics, and computer science if they are available. Join a robotics or engineering club if your school has one. Build a simple project, such as an Arduino robot or a sensor-based automation system. Learn how to use a multimeter safely. If your school offers career and technical education classes, those can be very valuable. And keep a small portfolio of your projects, with photos, notes, wiring diagrams, and code samples.
08:12That portfolio could help later with college or job applications.
08:17Exactly. It shows that you have real interest and practice, not just curiosity. In applications, students can highlight math, physics, coding, technical classes, club participation, and any safety training they completed. Teachers who know your problem-solving skills can also be useful recommendation sources.
08:34What should students look for in a college or training program?
08:39Look for hands-on labs, not just lectures. Ask whether the program teaches PLCs, robotics, troubleshooting, and industrial safety. Find out what brands or systems students use in class. Also ask about internships, apprenticeships, co-ops, and job placement support. A strong program should connect students with real equipment and real employers when possible.
09:01Before we close, can you sum up who this career is best for?
09:06Robotics and automation technician is a strong option for students who want a technical career with practical work and visible results. It may be a good fit if you like learning how machines work, enjoy solving problems, and want a pathway that does not necessarily require a four-year degree. It is not the easiest job, and it can involve physical work, shift schedules, and stress when systems go down. But for the right student, it can be a meaningful and adaptable career.
09:40Final advice for students who are curious?
09:43Keep exploring. Try a small project, talk to a local technical college, and look for manufacturing or automation jobs in your area. Ask people in the field what they actually do every day. That kind of research will help you decide whether this career matches your interests and strengths. The best next step is not to guess — it is to get hands-on experience and learn more.
10:11That is our episode on Robotics and Automation Technician. If you are interested in hands-on technology, this may be a career path worth researching further. Thanks for listening.
17 · FAQFrequently asked questions
Quick answers to the questions students most often ask about becoming a Robotics / Automation Technician.
What does a Robotics / Automation Technician do?
Robotics and automation technicians install, maintain, and troubleshoot robots and other automated equipment used in factories, warehouses, and smart production lines. They do hands-on work with mechanical parts, electrical systems, PLCs, sensors, and control software to keep machines running safely and efficiently.
How much does a Robotics / Automation Technician earn?
In the United States, Robotics / Automation Technicians typically earn between $45k and $90k per year, with a median around $68k. Pay varies with experience, employer, geography, and specialization.
What education or skills does a Robotics / Automation Technician need?
Most common entry path: Associate. Common routes include Associate degree in robotics/mechatronics, Technical certificate or diploma, Apprenticeship or employer training, Self-directed projects plus vendor training. Core skills: Troubleshooting, PLC Logic, Electrical Systems, Mechanical Repair, Safety.
What is the job outlook for Robotics / Automation Technicians?
The job is likely to keep changing as factories, warehouses, and maintenance teams use more robots, sensors, vision systems, and data tools. That can mean more demand for technicians who can learn new platforms, interpret diagnostics, and work alongside predictive maintenance and AI-assisted systems, even if some routine tasks become more automated. In the U.S., current demand is Strong and projected growth +3% by 2034.
How do I become a Robotics / Automation Technician?
Typical pathway — Foundation in math, physics, coding, and shop/lab skills: High school → 1-2 years for a certificate or about 2 years for an associate degree: College / bootcamp → 1-2 summers of lab, co-op, or employer training experience: Internship → Yr 1-2 learning equipment, safety, and basic troubleshooting: Junior role → Yr 3-6 handling more complex diagnostics, PLCs, and robot systems: Mid-level → Yr 7+ specializing in controls, field service, programming, or lead technician work: Senior / specialist.
What does a typical day look like for a Robotics / Automation Technician?
Daily work is a mix of mechanical, electrical, and computer-based troubleshooting. Technicians may install new equipment, perform preventive maintenance, read schematics and fault codes, adjust robot programs or PLC logic under approved procedures, document repairs, and work closely with operators and engineers. A representative day includes: 7:00 — Check shift notes, alarms, and production priorities; 8:00 — Inspect robots, sensors, conveyors, and safety devices; 9:30 — Troubleshoot a fault using schematics, PLC data, and test tools; 11:00 — Replace or adjust a worn part, sensor, or drive component; 1:00 — Update maintenance logs and confirm the system is back online; 2:30 — Train an operator on basic care or restart steps; 4:00 — Review recurring issues and suggest fixes for the next shift.
Where do Robotics / Automation Technicians typically work?
manufacturing, warehouses and distribution centers, logistics and fulfillment, robotics integrators, industrial maintenance, field service at customer sites, technical colleges and training labs Typical hours: 40-50 / week, often shift work, nights, weekends, or on-call in some facilities.
14 · SourcesResearch sources
Every claim in this guide is sourced. We re-verify each guide on every major data update. Last verified .
- Electro-mechanical and Mechatronics Technologists and Technicians, Occupational Outlook HandbookGovernment
- Industrial Machinery Mechanics, Machinery Maintenance Workers, and Millwrights, Occupational Outlook HandbookGovernment
- Robotics Technician Career Paths & SalariesAcademic
- Robotics & Automation Technology – Associate of Applied ScienceAcademic
- Breaking into Robotics and Automation: Potential Career Paths in Robotics and AutomationIndustry
- Robotics Career – Career Pathways Using Robotics in ManufacturingNonprofit