Learn Robot Studio

Explore industrial robots with Robot Studio, from installation and prerequisites to simulation, jogging, and programming using rapid programming language and a virtual teach pendant.

Discover what defines a robot, with intelligence, autonomy, and reprogrammability, and learn its sensing, thinking, and acting modules, plus the mobile and industrial classifications.

Learn what defines an industrial robot: a reprogrammable, servo-controlled, multi-purpose manipulator that mimics a human arm to move materials and tools through programmed motions.

Compare industrial and mobile robots by locomotion, workspace, and tasks; explain why fixed arms have limited workspaces while mobile robots navigate dynamic environments with localization and obstacle avoidance.

Explore the building blocks of an industrial robot—the manipulator and end effector—how they position in three-dimensional space and interact with the environment, with rigid links and joints.

Explore industrial robot process applications, where the end effector is a tool, including arc welding, pick-and-place, palletizing, spray painting, drilling, machining, polishing, and waterjet cutting.

This lecture introduces a new module, explains simulation and its purpose, surveys robot simulation environments, and guides you through installing AB Robot Studio and activating a trial license.

Explore what a simulation is, an approximate imitation of real world processes in a controlled environment. See how it helps study outcomes and supports offline robot programming before investing.

Explore different robot simulation environments and understand why simulation tools matter for evaluating robot performance before deployment, including ABB Robot Studio, ROS, ROS Industrial, Webots, and V-REP.

Robot Studio is an offline programming tool for industrial robots using the rapid programming language, enabling virtual commissioning to design, simulate, optimize cycle time, and prepare real-world deployment.

Discover how Robot Studio helps analyze robotic processes, compare them with conventional methods, design a robot work cell, simulate outcomes, and evaluate ROI and cycle time to determine profitability.

Download and unzip the 1.8 gb robot studio installation, verify system requirements, run the setup, install robotware from the Robot Apps Gallery, and activate the license to complete setup.

Activate a trial license for Robot Studio using the activation wizard, select all power packs including robot studio premium, then restart the software.

Robot Studio introduces its simulation software, guiding you to open the program, create a new solution, and build an empty station customized to your needs.

Import a robot model from the AB library, explore robot families, and view the AB Urbe 1520 ID arc welding robot’s model file in the layout and station window.

Navigate robot studio basics: import robot models and end effectors from the AB library, configure a virtual controller, define targets and paths, and simulate with various station views.

Decode robot designation and explore key specifications for selecting articulated arc welding robots, including payload, reach, speed, and supplementary load with integrated dressing.

Explore a case study on selecting a robot for material handling by evaluating payload and reach to choose the ABB IRB 4600 for a 30-cage pick-and-place task at 1.8 m.

Discover how the ERC5 robot controller acts as the robot’s brain, enabling networking and multi-robot work cells, and learn to import and position its single-cabinet 3D model in robot studio.

Configure a virtual controller in ABB robot studio using the home tab. From layout option, enter the controller name, location, robot wear version, and select the robot mechanism, then finish.

Identify the controller status indicators in robot studio—red for not connected or starting, yellow for standby, and green for connected—and note auto mode and end effector import and attach procedures.

Import and attach the arc welding end effector (W gun PS 25) to the IRB 1520 robot, then reposition it at the last link for proper welding tasks.

Explore the robot work envelope and work volume to see how arm configuration, degrees of freedom, link size, and joints define the workspace.

Operate a robot using jog modes on the teach pendant, mastering joint-by-joint jog in access mode, linear jog along x, y, z, and reorient tool orientation on a six-axis robot.

Learn to jog a six-axis robot by its joints, locate and inspect each link, and use jog joint and mechanism joint jog to reach the home position.

Import the robot and select the Erk5 end effector in the virtual command to start the ERC five virtual flex panel, noting emergency push button on the controller and touchpad.

Learn how the teach pendant acts as a human-machine interface to program and jog robots in Robot Studio, covering online programming, safety features, and automatic, manual, and manual 100% modes.

Import the IRB 1410 robot and its end effector, attach the smart gripper, and load Erk5 flex pendant to configure the virtual controller.

Explore the virtual flex pendant controls, including emergency stop, enable device with dead man's switch, and jogging joystick with hotkeys, plus the home screen and status bar.

Explore the three robot operation modes: manual, manual 100%, and automatic, and learn how each mode sets speed, uses the teach pendant, and requires the enable device.

Explore the robot operation status on the AB virtual flex pendant, including enable, motors on, emergency stop, and how to jog after releasing the emergency switch.

Explore robot jogging modes—axis mode, linear mode, and reorient mode—using a teach pendant to control joints in joint space or move the end effector and orientation in cartesian space.

Learn to jog robot in axis mode on the virtual flex pendant by switching from auto to manual, enabling motors, and using joystick directions to move axes 1–3 and 4–6.

Identify singularities in robotics where the end effector is blocked and joint speeds spike near restricted configurations. Describe three types: risk, elbow, and shoulder singularities.

Read and debug a joint limit error when jogging the robot's third axis, returning the joint to the working range, then manage emergency stop by releasing to resume.

Explore linear jogging in robot studio, where the TCP moves in a straight line parallel to the x, y, or z axis while keeping orientation, and learn robot frames.

Explore robot frames by mastering world, base, tool, and work object coordinate systems, including the tool center point and Fleming's right hand rule for axis directions, in AB robot studio.

Learn to navigate world, base, tool, and work object frames in Robot Studio and jog the robot in linear mode via the jogging window, joystick, and motion mode.

jog the robot in reorient mode, keeping the tcp position fixed while the orientation changes. import the teach pendant, synchronize rapid, and use freehand jog to rotate on axes.

Explore the fundamentals of robot programming, compare lead-through, online, offline, and true offline programming, and practice using a virtual flex pendant and ABB Robot Studio for simulation.

Explore robot programming languages, including first and second generation, world modeling, and task oriented languages, and learn how they handle motion commands, configuration control, location assignment, and program controls.

Explore val1 and val2, machine language, MKL, and the Kuka robot language, then rapid by ABB, highlighting modular design and function definitions used in the virtual Flex Pendant.

Learn rapid programming with Rapide, a modular, hierarchical high level language for industrial robots, featuring main modules, subroutines, variables, and the write command in a square area example.

Explore movej, movel, and movec in rapid, demonstrating joint, linear, and circular interpolation for robot motion, with tool data and end-effector settings guiding precise position targets.

Learn online programming of the IRB 1520 arc welding robot using move motion instructions with the virtual flex pendant, creating a first subroutine and move commands.

Explore how move and move.l linear and rapid instructions guide the tool center point along a programmed path, with drilling and welding applications and speed, zone, and tool data details.

Create a linear interpolation program in rapid by synchronizing the virtual flexpen and controller, and use move instructions to trace a rectangle in the y-z plane with a welding gun.

Demonstrate the rapid move c command for circular interpolation, guiding the TCP from a midpoint to a destination with velocity, fine, and the welding gun tool settings.

Explore the move command and move absolute, comparing Cartesian coordinates and orientation versus joint angles for absolute position, and learn when move absolute offers faster, minimal-joint motion.

Discover how zone data and zone error determine how the robot's tcp reaches a target, comparing fine and z ten, and noting how circle-path deviations impact accuracy.

Explore running robot programs in manual reduced speed, manual full speed, and automatic modes, with steps for uploading, editing routines, and switching between continuous and single cycles.

Wraps up the course by reviewing industrial robots, simulation, robot studio installation, and operation with the virtual pendant, and outlines virtual commissioning, material handling, palletizing, and dispensing.