- What "2AMAR Training" Actually Means
- The Instructor and Lab Rules That Shape Training
- The 13 Curriculum Topics as a Training Map
- Training Block One: Safety, Components, and Pendant Fluency
- Training Block Two: Jogging Frames and Signal Work
- Training Block Three: Macros, Logic, and Pick-and-Place
- Training Block Four: Cobots, Simulation, and Virtual Troubleshooting
- Sequencing the Preparation Weeks
- From Training to the Written and Practical Assessments
- Reading Conflicting Information About Training Hours
- Frequently Asked Questions
- NC3 requires students to train under a currently certified instructor and complete hands-on labs with appropriate equipment.
- Certification involves a written assessment and a practical assessment, with a 70% student passing criterion.
- The Festo curriculum behind this credential is organized around 6 units and 6 labs, which describe training structure rather than exam content.
- Thirteen certification topics run from robot safety and startup through virtual troubleshooting and process optimization.
What "2AMAR Training" Actually Means
Level 2: Advanced Mechatronics Applied Robotics is delivered through the Festo Industry Certification Program (FICP) in partnership with NC3. Unlike credentials you can prepare for entirely from a textbook and a question bank, this one is built around a supervised, hands-on learning path. "Training" here is not a vague synonym for studying. It is a defined part of the certification process: you learn the material from a certified instructor, you work through labs on real or simulated robotic equipment, and then you are assessed in writing and in practice.
If you are still orienting yourself, our overview pages What Is 2AMAR? and 2AMAR Certification explain the credential's place in the Festo ecosystem. This article concentrates on the training side: what you learn, how the labs are structured, and how to line up your preparation with what the assessments actually measure.
The Instructor and Lab Rules That Shape Training
NC3's student rules set the ground conditions for training. According to NC3's End User License Agreement, students are expected to receive training from a currently certified instructor, use appropriate lab equipment, and complete the hands-on labs. That has practical consequences for how you prepare:
- You cannot treat self-study as a full substitute. Reading and practice questions help, but the program assumes supervised lab time.
- Your instructor's certification status matters. If you are choosing a school or training center, ask whether the instructor is currently certified for this level.
- Equipment matters. Training should involve appropriate robotic equipment or simulation platforms matched to the curriculum.
- Students do not need recertification. NC3's student policy does not impose a renewal cycle on student certification.
For a fuller treatment of eligibility, see 2AMAR Requirements: Eligibility, Prerequisites & How to Qualify. One point worth repeating here: the curriculum builds on Robotics Fundamentals content, but that alone does not establish a mandatory precursor credential. Level 1 Fundamentals of Robotics and Level 3 Advanced Robotics are separately listed certifications, so think of Level 2 as a middle rung in a progression rather than a standalone island.
The 13 Curriculum Topics as a Training Map
Festo's Applied Robotics documentation lists a set of certification topics. We reproduce all thirteen below as preparation headings. They are unweighted, and they should not be read as an official exam blueprint or an exhaustive statement of what any single exam form contains. They are, however, the best public map of what the training covers. For a deeper walk-through of each area, see 2AMAR Exam Domains: Complete Guide to All 13 Content Areas.
| Training Block | Topics Covered | Primary Skill Type |
|---|---|---|
| Foundations | Industrial and Collaborative Robot Safety and Startup Procedures; Robot Components and Motion Systems; Teach Pendant and Graphical User Interface Navigation | Safe operation and orientation |
| Motion and Signals | Jogging in Joint, World, Tool, and User Frames; Introduction to Inputs/Outputs and Signal Configuration; Simulation of Digital Inputs and Outputs | Hands-on control and I/O logic |
| Programming | Creating and Using Macros for Task Automation; Logical Programming with Conditional Statements and Labels; Pick-and-Place Programming with Sensing Feedback | Program construction |
| Collaboration and Virtual Work | Collaborative Robot Use Cases and Human-Robot Interaction; Force-Limited Control and Safety Features in Cobots; Robotic Simulation Using Software Platforms; Virtual Troubleshooting, Testing, and Process Optimization | Cobot safety, simulation, and diagnosis |
Training Block One: Safety, Components, and Pendant Fluency
Every competent robot operator starts with the same discipline: do not move anything until you understand what it can do to you. The first block pairs safety with orientation.
Industrial and Collaborative Robot Safety and Startup Procedures
Safety is the entry point of the curriculum, and it covers both traditional industrial robots and collaborative robots.
- Distinguish the hazards of a caged industrial arm from those of a robot sharing space with people.
- Know the startup sequence and what to verify before powering up or enabling motion.
- Understand why emergency stops, enabling devices, and safeguarding exist and when each applies.
Robot Components and Motion Systems
You need a working vocabulary for the physical machine before you can program it.
- Identify the major parts of a robot arm and how its joints and axes produce motion.
- Connect mechanical structure to the motion types you will later jog and program.
- Recognize the role of end effectors in the tasks you will build later.
Teach Pendant and Graphical User Interface Navigation
The pendant is where theory becomes action, and fluency here saves time in every later lab.
- Navigate menus, status displays, and program views without hunting.
- Know where to find mode settings, speed controls, and I/O screens.
- Practice reading the interface so that alarms and prompts make sense immediately.
Training Block Two: Jogging Frames and Signal Work
This block is where many learners first feel the gap between knowing a definition and controlling a machine. Plan extra bench time here.
Jogging in Joint, World, Tool, and User Frames
The same jog command behaves differently depending on the coordinate frame, and understanding why is central to the whole level.
- Joint: movement of individual axes, useful for escaping awkward poses.
- World: motion relative to a fixed reference for the robot's workspace.
- Tool: motion relative to the orientation of the tool itself, helpful for approach and retract moves.
- User: motion in a frame you define, aligned to a fixture or work surface.
Introduction to Inputs/Outputs and Signal Configuration
Robots rarely work alone. They talk to sensors, grippers, conveyors, and controllers through signals.
- Understand the difference between inputs and outputs and what each represents in a cell.
- Learn how signals are mapped and configured so a program can read or set them.
- Connect signal names to physical devices such as sensors and gripper actuators.
Simulation of Digital Inputs and Outputs
Simulating signals lets you test program logic without every physical device present.
- Practice forcing and observing digital states to exercise a program path.
- Understand why simulated signals are a debugging tool and not a substitute for verifying real wiring.
Training Block Three: Macros, Logic, and Pick-and-Place
The programming block turns individual skills into working routines. It is also where the curriculum's applied character shows most clearly.
Creating and Using Macros for Task Automation
Macros package repeated actions so you do not rewrite them each time.
- Recognize when a sequence is worth turning into a reusable macro.
- Understand how a macro is called and how it fits into a larger program.
Logical Programming with Conditional Statements and Labels
Conditions and labels give a program the ability to decide and to jump.
- Read and write conditional statements that react to signal states.
- Use labels to structure program flow and understand how execution moves between them.
- Trace a short program by hand to predict what the robot will do.
Pick-and-Place Programming with Sensing Feedback
Pick-and-place is the classic applied task, and sensing feedback makes it robust.
- Sequence approach, grip, lift, move, and release in the right order.
- Use sensor input to confirm a part is present or a grip succeeded before continuing.
- Think about what the program should do when the expected signal never arrives.
Key Takeaway
Hand-trace programs. Being able to read a short routine with a condition and a label and say exactly what happens, step by step, is the most transferable skill from the programming block to both written questions and practical tasks.
Training Block Four: Cobots, Simulation, and Virtual Troubleshooting
The final block widens the lens from a single robot to people, software, and process quality.
Collaborative Robot Use Cases and Human-Robot Interaction
Collaborative robots change who can be near the machine and what tasks make sense for it.
- Identify tasks where shared workspace and human interaction add value.
- Understand how interaction methods differ from those of a fenced industrial cell.
Force-Limited Control and Safety Features in Cobots
Cobot safety is built into how the robot senses and limits contact.
- Understand the idea of limiting force so contact with a person stays within safe bounds.
- Recognize built-in safety features and how they respond to unexpected contact.
- Connect these features back to the safety principles from the first block.
Robotic Simulation Using Software Platforms
Simulation software lets you build and test programs before touching hardware.
- Understand what a simulated cell represents and how it mirrors a physical one.
- Know the benefits and limits of testing in software.
Virtual Troubleshooting, Testing, and Process Optimization
The closing topic asks you to diagnose problems and improve a process in a virtual environment.
- Approach faults systematically: observe, isolate, change one thing, retest.
- Use testing to confirm a fix and look for ways to shorten cycle time or reduce risk.
Our 2AMAR Study Guide pairs well with this block, especially for the reasoning-style questions that cross several topics at once.
Sequencing the Preparation Weeks
This is the one place we use a schedule, and it is tied to how the curriculum builds. Safety and pendant fluency come first because every later lab assumes them. Frames and I/O come before programming because you cannot write a sensible pick-and-place routine without knowing how the robot moves and how it reads signals. Cobot and simulation topics come last because they lean on everything before them. Adjust the length to your course calendar.
Safety, Components, and Pendant
- Review startup and safeguarding procedures
- Label robot parts and axes
- Drill pendant navigation until menus feel automatic
Jogging Frames and I/O
- Jog the same move in joint, world, tool, and user frames and compare
- Map signals to devices and practice simulated inputs and outputs
Macros, Conditions, and Pick-and-Place
- Build and call a simple macro
- Hand-trace conditional programs with labels
- Write a pick-and-place routine with a sensor check
Cobots, Simulation, and Troubleshooting
- Review force-limited control and cobot safety features
- Build and test a program in simulation
- Practice fault isolation, then take a timed practice set
If your instructor's calendar differs, follow it. The labs are scheduled by the program, and your preparation should reinforce each lab while it is fresh.
From Training to the Written and Practical Assessments
NC3's certification process uses two assessment types. The written test is delivered through NC3Certs.com. The practical test is delivered in verified labs. Independent proctors verify identity and monitor throughout. The student passing criterion is 70%.
What does that mean for your training?
- Written preparation: You will want fluency in the terminology and concepts across all thirteen topics. Practice questions help most once you have done the related lab, because the question then connects to something you have physically seen.
- Practical preparation: You need hands-on repetition: jogging in each frame, configuring a signal, and tracing a conditional program on real or simulated equipment.
- Proctored conditions: Expect identity checks and monitoring, so plan to be in a quiet, compliant setting for the written portion.
For specifics on scoring, read 2AMAR Passing Score. For a realistic sense of difficulty, see How Hard Is the 2AMAR Exam?. Timing and scheduling questions are covered in 2AMAR Exam Dates, and when you want to test yourself under realistic conditions, try the 2AMAR practice tests.
Reading Conflicting Information About Training Hours
If you research this credential, you will find sources that disagree. Knowing why saves confusion.
- Archived course guide: A historical Festo/NC3 course guide for Level 2: Advanced Mechatronics Applied Robotics estimates about 20 hours. That figure describes course duration, not exam length.
- Live badge page: The current NC3 Applied Robotics badge details page still carries an earlier description built around CIROS and MPS, so its competencies read differently from the newer curriculum document.
- Career directories: My Next Move's record flags postsecondary training and CEU renewal. Indiana's workforce summary lists no instructional-hour requirement, a zero exam charge, and no renewal, though its certification-link label names a different product.
The directory CEU flag conflicts with NC3's own student policy, which does not require recertification. Treat directory education and pricing claims as non-universal. The curriculum document identified as 2025.09 names the training content version, not an exam-form version, so do not assume it pins down a specific test edition. When details matter, confirm with your instructor or program coordinator, and check 2AMAR Certification Cost for how fees can vary by program.
Frequently Asked Questions
NC3's student rules call for training by a currently certified instructor, appropriate lab equipment, and completion of hands-on labs. Self-study can supplement that training but is not presented as a replacement for it.
An archived Festo/NC3 course guide estimates about 20 hours of course duration, and the current brochure describes 6 units and 6 labs. Actual scheduling depends on your school or training provider, so ask your instructor for the calendar.
Thirteen headings from Festo's documentation: robot safety and startup, components and motion, teach pendant navigation, jogging in four frames, I/O and signal configuration, I/O simulation, macros, conditional logic with labels, pick-and-place with sensing, cobot use cases, force-limited cobot safety, software simulation, and virtual troubleshooting and optimization.
NC3's student policy indicates students do not need recertification. Some career directories mention CEU renewal, but that conflicts with NC3's policy and should not be treated as a universal requirement.
Hands-on robot programming, I/O, and cobot skills are the kind of applied abilities employers in automation and manufacturing look for. For role types and earnings context, see 2AMAR Jobs, 2AMAR Salary Guide, and Is the 2AMAR Certification Worth It?