Robotics Technician / Automation Technician

1. 1
   Complete a Robotics or Mechatronics AAS

   Associate of Applied Science programs in Robotics Technology or Mechatronics (2 years, community college, $5,000–$15,000) cover: robotics fundamentals (kinematics, end-effectors, safety), PLC programming (ladder logic, structured text), electrical systems (wiring, sensors, drives), pneumatics and hydraulics, and industrial maintenance fundamentals. Some programs include embedded robot manufacturer training (FANUC, ABB, Universal Robots). These credentials are directly recognized by manufacturing employers for technician-level positions.

   Robotics AAS or Mechatronics AAS — community college
2. 2
   Earn FANUC or ABB Robot Technician Certification

   FANUC and ABB are the two largest industrial robot manufacturers — together accounting for over 50% of installed robots globally. FANUC Certified Robot Technician (CRT) validates programming and troubleshooting competency on FANUC robots (the most common in automotive manufacturing). ABB Robotics Certified Technician covers ABB robot platforms. These manufacturer certifications are specifically required or preferred by facilities running these platforms and add meaningful compensation above generalist technician skills.

   FANUC CRT or ABB Robotics Certification
3. 3
   Develop PLC Programming Depth — Allen-Bradley / Siemens

   Industrial automation is built on PLCs (Programmable Logic Controllers) — the computers that control machines, conveyor systems, and integration between robots and production equipment. Allen-Bradley (Rockwell Automation) RSLogix 5000 / Studio 5000 and Siemens TIA Portal are the dominant platforms. PMMI (Packaging Machinery Manufacturers Institute) and Rockwell Automation training centers offer PLC programming courses. PLC proficiency is the skill that most directly separates robotics technicians from automation engineers — and the skill path toward robotics engineer roles.

   Allen-Bradley Studio 5000 or Siemens TIA Portal PLC
4. 4
   Learn Robot Safety and ISO 10218 Standards

   Industrial robot safety is governed by ISO 10218 (Robot Safety) and ISO/TS 15066 (Collaborative Robot Safety). Robotics technicians who understand safety system design (safety PLCs, light curtains, safety scanners, collaborative robot force/speed limiting) are more valuable and take on higher-responsibility work. SICK Safety Expert and Pilz SafetyEYE training are recognized safety system certifications. Safety-qualified technicians earn 15–20% above general robotics technicians.

   ISO 10218 robot safety + safety system certification
5. 5
   Add Collaborative Robot (Cobot) Programming Skills

   Collaborative robots (cobots) from Universal Robots (UR), Rethink Robotics (Sawyer), and FANUC CRX can operate alongside humans without traditional safety fencing. Cobot deployments are growing rapidly in small and medium manufacturers. Universal Robots Academy (free online training at academy.universal-robots.com) and Universal Robots Certified Integrator training prepare technicians for the fastest-growing robot segment. Cobot skills complement traditional industrial robot knowledge.

   Universal Robots cobot programming + UR Academy

• 6:00 AMShift start — review the overnight production log: Robot R-14 (spot welding cell) threw a fault code at 3:47 AM. The night shift reset it and production resumed, but the fault (J3 motor overload) is recurring. Schedule a full diagnostic on R-14 during the next planned downtime (lunch break at 12:00 PM).
• 7:00 AMPreventive maintenance — PM schedule for week 12. Today: clean the teach pendant and cable on R-09, R-22, and R-35; check axis brake release on R-09 (brake degradation check); and lubricate the J1–J3 gearboxes on R-22 per the FANUC PM schedule. All completed within the planned 2-hour window.
• 10:00 AMRobot programming — the engineering team needs a new welding path for a model changeover. Load the off-line generated program from ROBOGUIDE into R-28. Run in T1 (manual 250mm/sec) mode with a spotter. Verify all positions clear the fixture by >50mm. Adjust 3 approach positions. Run 5 cycles at T2 (manual full speed) — no issues. Enable for production.
• 12:00 PMR-14 diagnostic — pull up the FANUC system diagnostic screen. J3 motor current: 89% of rated — elevated (normal is 75%). Check the servo amplifier fault history: 14 overload faults in the past 30 days (increasing from 3/month baseline). Inspect the J3 gearbox — low grease level. Lubricate. Recheck the mechanical zero: J3 is 0.3 degrees off zero (outside the 0.1 degree tolerance from PM). Recalibrate mastering. Post-calibration current: 76% — back to normal. Log the finding for the maintenance database.
• 1:30 PMPLC troubleshooting — the conveyance system upstream of the welding cell has an intermittent fault causing the parts to arrive slightly off-position. Pull up Studio 5000 ladder logic. Find a timing interlock that's allowing the conveyor to advance before the locating pin retracts. Adjust the timer setpoint from 0.8 to 1.2 seconds. Verify in production: 50 cycles without misposition.
• 4:00 PMEnd of shift documentation — update the maintenance log with R-14 findings and the PLC timing fix. Brief the incoming shift technician on the R-14 history and the conveyor timing change. Everything documented — the next shift needs to know what changed.

Robotics technicians install, maintain, and troubleshoot robotic systems in manufacturing and industrial settings — a role that is created by automation, not displaced by it. Every robot installed requires a trained technician to maintain it. The +10% growth reflects industrial automation adoption.