Complete PLC Course w/ Motion Control Kinetix Allen Bradley

Download and install the IAB software and product selection toolbox from Rockwell to design Allen Bradley projects, generate proposals, validate the control system, and build a bill of materials.

Follow the on-screen prompts to install the software: accept terms, select language, choose install location, check all checkboxes and required packets, then click next and install; about 20 minutes.

Install and update Rockwell's Integrated Architect Builder I software, select updates, and explore what's new. Begin designing projects in Integrated Architect Builder I, understanding processors, input/output, and motion control basics.

Create a new motion control project in Rockwell Studio 5000, choose chassis and controllers, add I/O and Ethernet modules, and configure power and inputs/outputs.

Create the IFB project in the chassis and configure a kinetics 350 module. Learn basic hardware setup, Ethernet IP networking, and using switches for multi-shaft control.

Create a consolidated bill of materials for an Allen Bradley motion control project, configure Kinetix 350 hardware and Studio 5000, and generate the BOM in Excel.

Open Studio 5000 and build a motion project in an emulator, configuring Kinetics 350 module, Ethernet motion, and time sync to create a movement group with shafts and axes.

Explore differences between common Studio 5000 axis options for motion control, including access servo drive, access generic drive, ethernet sip drive, and time synchronization for motion.

Learn how to configure and optimize the base update period for motion control in Studio 5000, manage motion group memories, axis assignments, and alarm diagnostics for reliable servo drive performance.

Learn to enter and validate servo motor catalog numbers by filtering the servo drive, linking access numbers, and using Motion Analyzer to pick compatible MP series motors.

Balance speed, encoder type (multi-turn vs single-turn), and frame size to select a servo motor; understand connectors, brake safety, and catalog numbers for Rockwell Allen-Bradley motion control.

Explore motion control essentials, including position, speed, and torque variables, and how encoder configuration and motor feedback choices impact tracking, point-to-point, and constant-speed applications in Allen-Bradley systems.

Explore movement profiles for motion control, including triangular, trapezoid, and quadratic patterns, and learn how speed, acceleration, deceleration, and position govern tracking and pick-and-place applications.

Learn how reducers, or motor reducers, pair with motors to reduce speed and increase torque, including servo motors, encoder, and reducer boxes, with input and output concepts.

Learn scaling and conversion in motion control, mapping encoder counts to motor and load revolutions, and selecting actuator types—screwball, chain and pulley, or pin—for linear or rotational motion with reducers.

Explore theory of scaling for PT2 with a 40 to 1 reducer and sprocket, converting motor revolutions to linear displacement and addressing backlash with rotational and linear transmissions.

Explore the main components of the Kinetix 350 servo drive, including input/output, encoder connections, safety features, and 24-volt power, with practical guidance for wiring and setup.

Learn to protect a servo motor with hardware limits and software enable signals, using positive and negative 24-volt limit switches, and understand regularly open and closed configurations.

Explore Kinetix main components pt3, detailing the encoder, mf connector, and hall-effect sensors, with correct pinouts, cable lengths, and differential wiring for reliable servo motion control.

Explore the physical layout of motion devices, including the kinetics 550 servo motor and control logix. Learn about io terminals, ethernet connections, ip addressing, power wiring, and encoder signals.

Demonstrates connecting encoder and motor cables for the Kinetics 350 servo drive, detailing 15-pin connectors, color-coded wires, and pin matching to u, v, w, and ground.

Master linear scaling in motion control by using a simple one-to-one unit rule, verify with tests, and translate rotations to linear or angular units for precise calibration.

Explore rotary scaling in motion control by mapping degrees to motor revolutions, testing 360-degree cycles, and configuring software and hardware travel limits, zero points, and encoder-based scaling.

Master official Rockwell motion control nomenclature and data, including axis numbering, area naming, main program structure, and memory tags for motion instructions such as jog and home.

Import predefined user defined data types for motion control, along with structures and files, assign axes, and configure motion instructions to create streamlined units for Kinetix Allen Bradley PLC projects.

Create a motion control project from scratch in Studio 5000, configure the kinetics 350 servo drive, assign its IP and firmware 2.04, and set up motion group axis zero one.

Bring motion control online by configuring the shaft, applying the catalog number, and downloading PLC programs via USB. Run marker, encoder, and hook up test; perform auto tune with gains.

Explore direct motion control in plcs, using mso, msf, msd, msr instructions, jog and path tuning, and absolute versus relative movement concepts.

Master manual tuning techniques to correct a ten-degree defacing by adjusting bandwidth, inertia, and deceleration, then fine-tune position accuracy with damping, filters, and feedforward for smoother motion.

Explore MSO and MSF instructions to enable and control servo drives, manage axis status, respond to emergency stop signals, and ensure safe motion control programs.

Explore motion states masr, mafr, and masd, and configure soft travel limits. Learn to diagnose failures, reset controls, and understand shutdown and safety sequences.

Explore motion states MDO and MDS, their compatibility with MSO and SIP drives, and how to diagnose errors using motion control words and error codes in Allen Bradley systems.

Learn to initialize a Rockwell Automation motion control system using the R01 initialize subroutine, monitor servo action status and axis home status memories, and follow a ten-by-ten startup sequence.

Learn homing in motion control by selecting zero origin for the axis, using active home with immediate, switch, and marker sequences, and applying offsets and direction options.

Learn how motion control instructions execute from homing modes to jogging within subroutines, configure active or immediate home, and merge multiple movement profiles using speed, acceleration, and trapezoid/triangle profiles.

Activate programmed instruction by configuring motion instructions, enabling flags, and monitoring process complete, ip, and error states to manage jog motions, stopping, and one-shot control.

Explore motion control fundamentals using MCD instructions, focusing on current position, commanded position, actual velocity, and command velocity, plus motion change dynamics for speed adjustments.

Explore the mam instruction for motion control, detailing absolute and by increase movements, rotary shortest path, master offset, and creating memory move types to choreograph precise degrees and speeds.

Configure MSF stop actions by choosing between deceleration with disable and complete stop with coast, then review parameters including inertia, backlash, bandwidth, torque filter, notch, and tolerance alarms.

Learn manual tuning and auto tuning for motion control, tuning bandwidth gains with integrator hold, switching to point-to-point application and using autotune to align servo graphs toward parallelism.

Finest tuning on indexes and manual mode pt2 for motion control, training you to optimize speed, position, and torque using trapezoid motion profiles, graph analysis, and timer-based adjustments.

Analyze velocity graphs alongside position charts to tune a servo drive, comparing actual, commanded, and average speeds, and adjust bandwidth for stable speed profiles.

Analyze jerk through s-curve profiling to smooth motion in PLC-controlled axes, adjusting curvature, acceleration, and deceleration with max unit percentage for safer, precise position tracking.

Learn about relative motion and absolute motor movement, master/slave instructions, and merge behavior, with practical guidance on speed, acceleration, deceleration, jerk, and jog for motion control.

Explore the MRP instruction, its difference from home, and how redefining position uses current position memory, absolute vs relative mode, while respecting soft travel limits and home status.

Create a virtual axis to run real-time simulations, align millimeter scaling with encoder counts, and mirror the physical axis to validate coordinated motion.

Learn how gearing connects master and slave axes using mag instructions in Allen-Bradley motion control, exploring 1:1 ratios, physical vs virtual axes, and how enabling mag synchronizes movement.

Explore mag instruction gearing in master/slave motion control, including virtual vs physical axes, ratio setup, and live tests to ensure synchronized movement.

Explore cam concepts in motion control using MATC time cam, build cam tables, and use the cam editor to map master and slave axes for point-to-point movements.

Master time and slave position drive cam profiling with Matc instructions for precise motion control, using absolute movements, scaling, and execution modes such as immediate, once, or continuous.

Explore cam profile differences between linear and cubic motion, showing how acceleration, deceleration, and time constraints yield smoother trajectories and how to combine movement types in PLC motion control.

Explore the MAPC motion access position cam with a master-slave axis setup and cam profiles to synchronize a conveyor belt process, highlighting continuous execution and master-slave relationships.

Explore how MAPC instruction maps master time to slave position using cam profiles, with real examples, MRP execution, and graphing to validate axis movement in motion control.

Demonstrate motion control with MAPC instruction to synchronize master and slave axes via cam profiles and virtual axes. Redefine positions, enable cams, and adjust speed for precise, dynamic motion.

Explore cam lock position and master lock position in motion control, using MCC to modify cam profiles online, troubleshoot through error codes and out-of-range parameters.

Explore online cam modification in motion control, switching segment types between linear and cubic interpolation, and tune master/slave values, memory cam, and MCSV/MDAC instructions for precise motion.

Explore the motion group category instructions—MGS, MGSD, MGSR, MGSP—and learn to configure subroutines, enable motion, monitor current and actual positions, and use memory to copy positions for precise control.

Explore how MAR and MDR instructions enable event-driven tasks in motion control, including axis watch, event-by-task calls, and registration inputs to trigger and prioritize emergency and periodic actions.

Learn to configure motion event instructions, including motion output cam and motion disarm, to control glue valves on a robotic arm with a virtual axis.

Explore configuring PLC motion control instructions for outputs and valves, including memory cam outputs, latch, enable, and position settings, plus debugging errors like execution target limits.

Learn to configure a motion output cam, set execution targets, troubleshoot error 35 and 36, adjust conversions and limits, and validate cam operations with motion graphs.

Learn to use MAOC compensation memory to adjust cam positions with offset and delay, and configure regular or inverted pulse modes for precise motion control.

Explore MRAT, MAAT, MRHD, and MAHD motion config instructions, their tuning implications for servo axes, and why auto tuning often surpasses manual tuning in practice.

Explore coordinated motion using Cartesian charts to synchronize master and slave axes, planning multi-axis trajectories with absolute and relative positioning for Allen Bradley motion control.

Configure a motion coordinated system by creating virtual axes, linking X and Y, and setting dynamics and units, then test offline before online deployment.

Configure a Cartesian axis system and program motion control with mclm instructions, define x and y axes, create memory points, and use mcs to stop coordinated axes.

Observe coordinated motion using AC and PC flags to manage absolute positions, and map linear trajectories with MCLM instructions in CNC, Rockwell, and Allen-Bradley PLC systems.

Explore MCCM instructions to generate coordinated circular motion, selecting circle type (via center radius or radius), defining arrangements and points, and adjusting speed and trajectory for precise motion control.

Explore an advanced motion control example using coordinated MCM instructions to design trajectories, mark coordinates, and execute linear and circular movements with servo motors.

Add a new virtual z axis to a coordinated motion control system, configure conversions, homing and dynamics, map to x y z, and monitor coordinated axes using quick watch.

Explore how robotic manipulators use coordinated axes to achieve complex x, y, z movements with joints, links, and a final effector, while applying cinematic concepts and Cartesian coordinates.

Understand how a robotic manipulator uses orientation matrices and frames (A, B, C) to compute positions and transformations, with axis rotations for Allen-Bradley motion control.

Configure motion coordinated pad moves for robotic manipulators, offline path memory, and coordinate system mapping, then explore interpolation, position data, and dynamics for multi-movement sequences.

Explore advanced instructions for coordinated motion control with allen-bradley, focusing on Cartesian and work frames, mQTT transformations, orientation and translation, and configuring stored three-point solutions for frame alignment.

Master advanced manipulator instructions by identifying work frames, transforming positions and orientations between cartesian and non-cartesian (delta) systems, and configuring joints and robot coordinates for coordinated motion.

Learn motion coordinated change dynamics (MCCD) in PLC systems, configuring change dynamics, acceleration, and master–slave coordination. Implement shutdown, reset, and gearing procedures for precise, safe motion.

Download the motion analyzer software from the motion control category, create a Rockwell Automation account, and install version 7.2 using a preferred download manager like Chrome or Mozilla.

Install motion analyzer software by running the installer, accepting terms, and clicking next and install. The process takes a couple of minutes.

Explore motion analyzer pt1 to model, simulate, and select servo motors from scratch using inertia, torque, speed, and motion profiles for Allen-Bradley systems.

Learn how to use Motion Analyzer to size servo motors, navigate torque vs speed trade-offs, select encoders and cables, configure amplifiers and IO, and generate material lists for motion control projects.

Learn to use motion analyzer pt3 to calculate inertia, select mass, diameter and screw pitch, and design motion profiles for servo motors and Allen-Bradley drives, with practical measurement steps.