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Allen-Bradley 1756-M02AE User Manual

Allen-Bradley 1756-M02AE
236 pages
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User Manual
Motion Coordinate System
1756-HYD02, 1756-M02AE, 1756-M02AS, 1756-M03SE, 1756-M08SE, 1756-M16SE, 1768-M04SE

Table of Contents

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Allen-Bradley 1756-M02AE Specifications

General IconGeneral
Series1756
Module TypeMotion Control
Input Voltage24V DC
Number of Axes2
Number of Channels2
Communication ProtocolEthernet/IP
Operating Temperature0 to 60 °C
Module LocationControlLogix chassis
Compatibility1756 chassis

Summary

Important User Information

Safety Information and Symbols

Explains safety symbols like WARNING, ATTENTION, and hazard labels for safe operation.

Chapter 1: Create and Configure a Coordinate System

Creating a Coordinate System

Step-by-step guide on how to create a new coordinate system tag in the Logix Designer.

Coordinate System Properties Dialog Box

Editing Coordinate System Properties

Instructions for modifying an existing Coordinate System or configuring its properties.

Determining Coordinate System Type

Chapter 2: Cartesian Coordinate System

Configuring a Cartesian Coordinate System

Guidelines for configuring Cartesian coordinate systems with or without orientation support.

Cartesian Coordinate System Programming

Programming Coordinate Systems with No Orientation

Using multi-axis instructions for linear/circular moves in Cartesian systems without orientation.

Programming Coordinate Systems with Orientation

Using instructions for Cartesian moves on robots with orientation control.

Choosing a Termination Type

Chapter 3: Geometries with No Orientation Support

Configuring Articulated Independent Robots

Guidelines for configuring Articulated Independent robots without orientation support.

Establishing Reference Frame for Articulated Independent Robots

Defines the Cartesian coordinate frame, origin, and primary axes for articulated robots.

Methods to Establish Reference Frame for Articulated Dependent Robots

Explains methods to establish a reference frame for articulated dependent robots.

Robot Configuration Parameters

Configuration Parameters for Articulated Independent Robots

Configures robots for varying reach and payload capacities, including link lengths and offsets.

Articulated Dependent Robot Configuration

Configuring Articulated Dependent Robots

Guidelines for configuring Articulated Dependent robots, which have base and elbow motors.

Reference Frame for Articulated Dependent Robots

Defines the Cartesian coordinate frame, origin, and primary axes for articulated dependent robots.

Robot Arm Solutions and Singularities

Chapter 3: Geometries with No Orientation Support Continued

Configuring a 3D Delta Robot

Guidance for configuring a four-axis Delta robot for 3D Cartesian space movement.

Establishing Reference Frame for 3D Delta Robots

Locates the reference frame at the top fixed plate for Delta geometries.

Calibrating a 3D Delta Robot

Steps to calibrate the robot using angle values and position/home instructions.

Delta Robot Configuration Details

Delta Robot Joint Limit Conditions

Delta Robot Parameter Configuration

Configuration Parameters for 3D Delta Robots

Configures robots for varying reach and payload capacities, including link lengths and offsets.

2D Delta Robot Configuration

Configuring a 2D Delta Robot

Guidance for configuring a two-dimensional Delta robot for 2D Cartesian space movement.

Establishing Reference Frame for 2D Delta Robots

Locates the reference frame at the center of the fixed top plate for 2D Delta geometries.

Calibrating a 2D Delta Robot

Calibrates the robot using angle values and reference position establishment.

2D Delta Robot Parameter Configuration

Configuration Parameters for 2D Delta Robots

Configures robots for varying reach and payload capacities, including link lengths and offsets.

SCARA Robot Configuration

Configuring a SCARA Delta Robot

Guidelines for configuring SCARA Delta robots, similar to 2D Delta but with tilted X1-X2 plane.

Establishing Reference Frame for SCARA Independent Robots

Locates the reference frame at the base of link L1 for SCARA Independent geometries.

Configuration Parameters for SCARA Independent Robots

Configures robots for varying reach and payload capacities, focusing on link lengths.

Cartesian Robot Configuration

Configuring Cartesian Gantry Robots

Guidelines for configuring Cartesian Gantry robots.

Establishing Reference Frame for Cartesian Gantry Robots

Defines the orthogonal set of X1, X2, X3 axes positioned anywhere on the robot.

Configuring Cartesian H-bot Robots

Guidelines for configuring Cartesian H-bot robots, special type of two-axis gantry.

Chapter 4: Geometries with Orientation Support

Orientation Specification Details

Defining Coordinate System Frames

Frame Offsets and Restrictions

Work Frame Offsets

Redefines the robot origin from a new work frame using XYZRxRyRz coordinates.

Tool Frame Offsets

Defines the tool frame at TCP from the EOA frame using XYZRxRyRz coordinates.

Tool Frame Offset Details

Establishing a Tool Frame

Illustrates establishing a new Tool frame from the EOA frame and end position.

Delta Robot Coordinate System Configuration

Configuring Delta J1J2J6 Coordinate System

Configures a three-axis Delta robot for 3D Cartesian (X, Z, Rz) space movement.

Establishing Reference Frame for Delta J1J2J6 Robot

Establishes base and end of arm frames for the Delta J1J2J6 robot.

Calibrating the Delta J1J2J6 Robot

Steps to calibrate the robot using angle values and scaling parameters.

Configuration Parameters for Delta J1J2J6 Robot

Configures robots for varying reach and payload capacities, including link lengths and offsets.

Delta J1J2J3J6 Robot Configuration

Delta J1J2J3J4J5 Robot Configuration

Configuring Delta J1J2J3J4J5 Coordinate System

Configures a five-axis Delta robot for six-dimensional Cartesian space movement.

Establishing Reference Frame for a Delta J1J2J3J4J5 Robot

Establishes base and end of arm frames for the Delta J1J2J3J4J5 robot.

Calibrate a Delta J1J2J3J4J5 Robot

Steps to calibrate the five-dimensional robot using angle values and scaling.

Configuration Parameters for Delta J1J2J3J4J5 Robot

Configures robots for varying reach and payload capacities, including link lengths and offsets.

Orientation Behavior Examples and Restrictions

MCPM for Ry Absolute Moves with Mirror Image Position

Illustrates Ry moves using absolute position and its effect on mirror image.

Configuring and Programming Turns Counters

Explains how to use MCTO instruction to establish transforms and program turns counters.

Coordinate Systems and Robot Alignment

Aligning Cartesian and Robot Coordinate Systems

Illustrates moving the robot coordinate system to an initial position before enabling transformation.

Cartesian Dynamics Control Setup

Setting Up Master Driven Instructions for Cartesian Dynamics Control

Illustrates setting up Master Driven Speed Control and jogging the master axis.

Transform and MCPM Instruction Programming

Initiating Transform Instructions

Enables the transform instruction between Cartesian and Delta robot systems.

MCPM Path Data with Turns Counter for Target Positions

Commands robot to move to target points using MCPM path data and turns counter specifications.

MCPM Target Points as Absolute Move (MoveType = 0)

Defines target position and orientation with XYZRxRyRz coordinates for MCPM.

Chapter 5: Configure Camming

Cam Execution Modes and Schedules

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