Robotics and automation has no dedicated NCEES PE/FE track — instead, the credential that matters most to industry employers is A3 (the Association for Advancing Automation)'s Certified Motion Control Professional, alongside deep working knowledge of the industrial robot safety standards (ANSI/RIA R15.06, ISO 10218, and ISO/TS 15066 for collaborative robots) that govern every real robot cell. Rounding this out is a robot-programming fundamentals exam covering the ROS/ROS2, kinematics, and path-planning concepts that underpin robot software regardless of which platform or industry you work in.
Unlike civil or mechanical engineering, robotics and automation engineers rarely pursue state PE licensure, because robot systems integration is not typically a life-safety stamping discipline. The credential that carries real industry weight is A3's motion control certification, recognized across the automation integrator and machine-builder world. Separately, and arguably more consequential day to day, is fluency in the safety standards that every industrial robot cell must be designed and risk-assessed against — ANSI/RIA R15.06 (harmonized with ISO 10218) and, for any cobot application, ISO/TS 15066. Finally, robot programming fundamentals — ROS/ROS2 concepts, coordinate frames, forward/inverse kinematics, and path planning — are assumed baseline knowledge across nearly every robotics role, regardless of which robot vendor or software stack a given job uses, so it is covered here as a fundamentals practice exam rather than a credential-specific one.
Servo/stepper motor control, motion controllers, encoders, motion profiles, and gearing for motion systems.
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Risk assessment, safeguarding, safety-rated stop functions, cobot safety, and lockout/tagout for robot cells.
ROS/ROS2 concepts, coordinate frames, forward/inverse kinematics, and path planning.
| Credential | Prerequisite | Typical experience | Administered by |
|---|---|---|---|
| A3 Certified Motion Control Professional | None formal* | None formal* | A3 (Association for Advancing Automation) |
| Industrial Robot Safety Fundamentals | None | None | Fundamentals practice (based on ANSI/RIA R15.06, ISO 10218 & ISO/TS 15066) |
| Robot Programming Fundamentals | None | None | Fundamentals practice (no certifying body) |
* Experience hours and prerequisites vary significantly by state, jurisdiction and credential level. Figures shown are typical ranges, not legal requirements.
Use the same edition of the code/handbook the exam is written to, and the certifying body’s official references. Exams are tied to a specific cycle — the wrong edition costs you on lookup questions.
A robot being labeled a "cobot" does not make an application safe by itself. Know the four collaborative operation types — safety-rated monitored stop, hand guiding, speed and separation monitoring, and power and force limiting — and which one(s) a given application actually relies on before assuming it needs no further risk assessment.
Motion control questions on inertia matching (J_reflected = J_load / N²) and profile timing come up constantly on the CMCP-style content — work a few numeric problems until the N² relationship is automatic, not just memorized.
A recurring theme across ISO 10218-1 (robot manufacturer) and ISO 10218-2 (integrator/robot system) is that a compliant robot does not make a compliant application — the integrator's application-level risk assessment is still required. Questions that describe a "certified safe" robot with no cell-level risk assessment are testing this distinction.
Confirm the exact education, experience hours and application steps with the certifying body or state board first — missing a prerequisite trips up more people than the exam content does.
No. NCEES does not offer a dedicated FE or PE Robotics exam. Robotics and automation engineers who want NCEES licensure typically sit for a closely related discipline exam such as FE/PE Electrical or FE/PE Mechanical. The credentials covered here — A3's CMCP, industrial robot safety standards fluency, and robot programming fundamentals — are the field-specific alternative that actually maps to how automation employers hire and promote.
A3 (the Association for Advancing Automation) is the leading industry trade association for robotics, motion control, machine vision, and automation in North America. Its Certified Motion Control Professional (CMCP) credential tests practical motion-control knowledge: servo and stepper motor fundamentals, motion controllers and closed-loop control, encoders and feedback devices, trapezoidal and S-curve motion profiles, and gearing and mechanical transmission.
You do not need to be a certifying-body-recognized expert, but anyone specifying, integrating, programming, or maintaining an industrial or collaborative robot cell should understand the core concepts: risk assessment, the hierarchy of risk reduction, safeguarding devices, the collaborative operation types, and lockout/tagout. This studio's safety fundamentals exam is built directly around those standards' publicly described scope to build exactly that fluency.
ROS/ROS2 concepts, coordinate frame math, kinematics, and path planning are foundational across essentially every robot platform and vendor, not exclusive to any single certifying body or product line. This exam is framed as a self-study fundamentals check, complementary to (not a replacement for) vendor-specific programming training (e.g., a specific robot manufacturer's programming language).
Many exam questions are calculation problems you can rehearse right now with the free tools in the Robotics & Automation Engineering Studio: