
Explore the fundamentals of industrial robotics, including definitions, building blocks, types, and applications, then learn ABB Robot Studio setup, licensing, and core workflows like 3D printing, painting, and palletizing.
An industrial robot is a programmable, multifunctional manipulator that moves materials through variable motions, unlike mobile robots, which are fixed at one end with limited workspaces and navigation challenges.
Identify the building blocks of an industrial robot: the manipulator and end effector, which position in three-dimensional space using rigid links and joints, with arc welding as an example.
Explore how industrial robots enable welding, pick-and-place, painting, and palletizing to boost production rate and quality in mass production, while handling hazardous or repetitive tasks.
Explore the main industrial robot types—serial and parallel (delta), Cartesian, cylindrical, polar (spherical), scara, and articulated robots—along with typical applications like pick and place, arc welding, and machine tending.
Explore ABB Robot Studio, an offline programming tool for modeling industrial robot work cells, simulating processes, and optimizing paths, cycle times, safety, and investment payback in a controlled environment.
Install AB Robot Studio using the installation wizard, choose language, accept terms, and complete the full installation, noting a 30-day trial and setup options.
Explore ABB Robot Studio power packs, bundles of commands and end effectors that integrate with the software to build virtual robot cells using CAD models, vision, and automation processes.
Navigate to the Robot Studio downloads page to access power packs like arc welding, cutting, machining, painting, palletizing, picking, dispensing, and 3D printing, then click to download them.
Create an empty station in ABB Robot Studio to build a complete robot work cell by combining robots, effectors, programs, and passive components.
Open the abb robot studio build station, browse the abb library, and import a robot such as the ab urbe 1520 arc welding robot, then zoom out to view it.
Explore the ABB robot studio environment to commission robotic processes virtually by importing robots, conveyors, and end effectors, and arranging a work cell with frames, paths, and targets.
Explore robot specification by four parameters—payload, reach, speed, and supplementary load—and use Robot Studio to choose a robot that lifts 30 kg within 1.8 m reach.
Discover how the ERCC5 robot controller, the robot's brain, networks with other systems and enables programming and motion through forward and inverse kinematics.
importing a virtual controller in abb robot studio by choosing from layout, creating a new controller, or selecting an existing one, then finish.
Learn how the controller status indicates connectivity: red means not connected, yellow indicates standby/manual 100% mode, and green confirms the controller is connected, the robot's brain.
Import an end effector named My Tool from the library, attach it to the robot IRP 1520, and update its position from the origin to the TCP vicinity.
Explore the robot work envelope, its 3D reach and work volume, with 2D outlines and 3D volume, to ensure objects are placed within the robot work envelope.
Explore robot jogging with a teach pendant, moving a robot at low speed to teach targets. Learn axis, linear, and reorient modes and TCP concepts.
Learn how to jog an ABB robot in linear mode using a tool center point, end effector, and mechanism linear jog, including axis movements, limits, and step sizes.
Explains jog reorient in ABB robot studio, rotating the robot about the tool center point to adjust orientation while reaching a point in space, and introduces linear jog.
build a robot work cell in ABB robot studio by importing the IRB 1520 ID robot, attaching a smart gripper, and adding conveyors, a CNC machine, fence, and teach pendant.
Create a path by selecting targets and adding them to a new path, closing the loop by returning to the first target. Run along the path to verify robot moves.
Understand robot axis configuration, encoded by a four-value configuration: joint angles for the first, fourth, sixth joints and a virtual axis, with anticlockwise and clockwise quadrant signs.
Create targets by position and orientation, explore robot configurations, and verify reachability by jumping to targets and selecting configurations with joint angles within limits.
Explore the four robot programming types: lead through, online, offline, and true offline, and how rapid programming language in ABB Robot Studio enables modular, efficient robot control.
Navigate zone data and zone error to control how a robot reaches point T10, illustrating fine, zero ten, and zone equal to 30, emphasizing accuracy in DCP paths.
Learn the fundamental methodology of teaching targets and building a robot path in ABB Robot Studio by teaching multiple targets, attaching an end effector, and configuring a virtual controller.
Create and manage robot paths in ABB Robot Studio by selecting targets, adding and closing paths, and tuning the zone radius for smooth travel.
Learn to program ABB Robot Studio to trace a circular path using circular interpolation, converting move instructions, and configuring targets, via points, and zone settings for precision.
Explore how additive manufacturing builds objects layer by layer from a CAD model, via 3D printing, and contrast it with subtractive methods, using polymers, ceramics, and metals for rapid prototyping.
Learn to simulate a 3d printing operation in abb robot studio by installing the 3d printing power pack, configuring a virtual controller, and loading g-code for layer-by-layer dispensing.
Explore the ABB Robot Studio painting power pack to build a robot painting workshop and automate spraying for consistent finishes with hazardous nano paints.
Learn to simulate robot painting in ABB Robot Studio using the painting power pack, set up the robot, end effector, and painting path, and run a paint operation.
Explore manual, semi-automatic, and automatic material handling, including pick-and-place with robots, palletizing, and sorting using vision sensors and specialized grippers to boost production and safety.
Explore robot palletizing operations, the automatic process of loading and unloading objects on pallets in patterns, including in-line, layer, and mixed case palletizing.
Build a virtual palletizing workflow in ABB robot studio using the palletizing power pack, including URP 60 robot setup, end effector, feeders, patterns, and a simulated job.
Interested to visualize how your factory looks like with robots? Then this course is for you!!!
This course is designed to develop advanced simulation skills for virtually commissioning robot automated manufacturing facilities in a factory setup. Students will start their journey by understanding the fundamentals of the simulation tool, then we will move on to work on various manufacturing processes which can be automated using Robots. Some manufacturing processes that we will automate are Palletizing, Robot painting, Additive manufacturing.
Interested to visualize how your factory looks like with robots? Then this course is for you!!!
This course is designed to develop advanced simulation skills for virtually commissioning robot automated manufacturing facilities in a factory setup. Students will start their journey by understanding the fundamentals of the simulation tool, then we will move on to work on various manufacturing processes which can be automated using Robots. Some manufacturing processes that we will automate are Palletizing, Robot painting, Additive manufacturing.
Interested to visualize how your factory looks like with robots? Then this course is for you!!!
This course is designed to develop advanced simulation skills for virtually commissioning robot automated manufacturing facilities in a factory setup. Students will start their journey by understanding the fundamentals of the simulation tool, then we will move on to work on various manufacturing processes which can be automated using Robots. Some manufacturing processes that we will automate are Palletizing, Robot painting, Additive manufacturing.