In this video, Amatrol’s Mark Hubbs, Director of International Sales, provides an overview of Amatrol’s new AC Electronic Drive Learning System – AB PowerFlex 755 (970-DRV1), highlighting its operation, instructional design, and key technical features.

The 970-DRV1 teaches a wide variety of hands-on AC electronic drive skills using the powerful Allen-Bradley® PowerFlex® 755 AC Drive. This advanced drive combines the functionality of a general-purpose drive, a vector drive, and a “servo-lite” positioning drive by supporting V/Hz, Sensorless Vector, and Flux Vector control.

The PowerFlex 755 is used across a broad range of industries, including power generation, agriculture, oil and gas, chemicals, textiles, food and beverage, HVACR, packaging, robotics, automation, and electric vehicle manufacturing. An embedded Ethernet port enables EtherNet/IP communication, allowing learners to manage drive data and integrate the system with Rockwell Automation’s Studio 5000® PLC programming software using embedded drive instructions.

System Configuration & Working Areas

  • Operator Panel
    Includes a main power switch with lockout, emergency stop and control power indicators, power supply and master control relay, switches and potentiometers, motor velocity and RPM displays, low-voltage test points, hardwired circuit connections, two Ethernet ports, and a USB port for use with Amatrol’s FaultPro® Electronic Fault Insertion Software.
  • Drive Panel
    Features the Allen-Bradley PowerFlex 755 AC Drive, a reference image of the drive circuit board, and high-voltage test points for troubleshooting and diagnostics.
  • Motor, Flywheel, and Encoder Assembly
    Located below the operator and drive panels, this assembly includes guarded high-voltage test points and a covered rotating flywheel to ensure safe hands-on operation.

Comprehensive eLearning Curriculum

Amatrol’s AC Electronic Drive Learning System – AB PowerFlex 755 includes interactive multimedia eLearning that teaches 47 hands-on skills and a wide range of AC drive concepts.

  • AC variable frequency drive (VFD) fundamentals and safety
  • Motor and feedback wiring
  • VFD architecture and HIM operation
  • Drive faults, alarms, and diagnostics
  • Drive configuration using HIM and software tools
  • Discrete and analog I/O control
  • Drive communications over EtherNet/IP
  • Acceleration and deceleration control
  • Sensorless Vector and Flux Vector control modes
  • Studio 5000® drive programming
  • Comprehensive drive systems troubleshooting

Hands-On CNC Machining for Education & Industry

Advanced manufacturing demands highly skilled CNC operators and programmers who understand precision machining, safety, and real-world production workflows. As industries continue to modernize, training programs must provide students with hands-on experience using equipment that reflects what they will encounter in the field.

APT CNC training systems provide robust, industrial-grade machining platforms designed specifically for education and workforce development. These systems allow learners to gain experience in CNC milling and turning operations while building confidence in setup, programming, operation, and troubleshooting.

  • Industrial-quality CNC milling and turning platforms
  • Designed for hands-on technical training environments
  • Supports G-code programming and CAM integration
  • Safe, instructor-friendly controls for classroom use
  • Scalable for high school, college, and industry training

APT CNC systems allow students to progress from foundational machining principles to advanced programming and precision part production. Learners develop competencies in blueprint interpretation, workholding, tooling selection, machine setup, offsets, and part verification.

Through real machining applications, students experience the full manufacturing workflow—from raw material to finished part—while reinforcing critical thinking and problem-solving skills required in modern machine shops.

  • CNC machine safety and operation
  • Manual data input (MDI) and G-code programming
  • Tool setup and tool offsets
  • Work coordinate systems
  • Spindle speed and feed rate calculations
  • Fixture setup and part clamping
  • Turning and milling operations
  • Part inspection and quality verification

APT CNC platforms are well-suited for Career & Technical Education (CTE) programs, community colleges, technical institutes, and industrial training departments. The systems provide the durability and precision required for repeated instructional use while maintaining an accessible learning curve for students.

These machines integrate seamlessly into advanced manufacturing pathways, including robotics, automation, and Industry 4.0 programs, helping institutions create stackable skill development models aligned with workforce needs.

APT CNC systems can be integrated into broader automation training environments, including robotic machine tending cells and smart manufacturing demonstrations. This allows programs to expand from standalone machining instruction to fully automated production workflows.

  • High school manufacturing labs
  • Community and technical college machining programs
  • University engineering labs
  • Apprenticeship and workforce upskilling programs
  • Industrial training departments

Get Started

Whether you are launching a new CNC machining program or expanding an existing advanced manufacturing lab, APT CNC training systems provide the hands-on experience learners need to succeed in today’s precision manufacturing careers.

Contact us today to discuss system configurations, automation integration options, and program alignment for your facility.

Integrated Mechanical, Electrical & PLC Automation

Modern manufacturing depends on technicians who understand how mechanical systems, electrical components, pneumatics, and programmable logic controllers (PLCs) work together. Mechatronics training bridges these disciplines, giving learners the ability to install, operate, troubleshoot, and maintain automated systems.

Our Mechatronics Training Systems provide hands-on, integrated learning platforms that simulate real-world industrial automation environments. Students gain practical experience working with sensors, actuators, motors, conveyors, pneumatic devices, and PLC-controlled processes—developing the cross-functional skills demanded in advanced manufacturing.

Why Mechatronics Training Matters

  • Builds multi-discipline technical skills
  • Supports Industry 4.0 and smart manufacturing pathways
  • Develops troubleshooting and systems-thinking abilities
  • Prepares learners for high-demand automation careers
  • Aligns with stackable certifications and workforce credentials

Hands-On Automation Skills Development

Mechatronics systems allow learners to interact with fully operational automation processes. Students wire electrical components, configure PLC programs, install pneumatic circuits, align mechanical assemblies, and test system performance under realistic operating conditions.

By working with integrated systems rather than isolated components, learners develop a holistic understanding of how industrial equipment operates—and how to diagnose and correct faults efficiently.

Core Learning Topics

  • Mechanical assembly and alignment
  • Electrical wiring and motor control
  • PLC programming and ladder logic
  • Sensor integration and feedback systems
  • Pneumatic system design and troubleshooting
  • Human Machine Interface (HMI) fundamentals
  • Industrial safety procedures
  • System troubleshooting and maintenance

Flexible Configurations for Education & Industry

Mechatronics platforms are available in scalable configurations, from tabletop systems for introductory programs to full production-style workcells for advanced automation training. These systems are ideal for high school CTE programs, technical colleges, universities, apprenticeship programs, and industrial workforce development.

Systems can also integrate with robotics, CNC machine tending, smart sensors, and data-driven manufacturing platforms to create comprehensive automation labs.

Workforce Applications

  • Industrial maintenance technician training
  • Automation and controls technician programs
  • Robotics and smart factory pathways
  • Apprenticeship and upskilling initiatives
  • Engineering technology labs

Get Started

Whether you are building a new automation program or upgrading an existing lab, mechatronics training systems provide the integrated, hands-on experience needed to prepare learners for modern manufacturing careers.

Contact us today to discuss configurations, certification alignment, and funding opportunities for your program.

Today’s automotive technicians must understand increasingly complex electrical and electronic vehicle systems. From lighting and charging circuits to sensors, actuators, and body control systems, modern vehicles rely on integrated technology that requires both theoretical knowledge and hands-on diagnostic skills.

LJ Create Automotive Panel Trainers provide a safe, structured, and highly visual learning platform for teaching automotive electrical and electronic systems. Designed specifically for education and workforce training environments, these panel trainers allow students to explore real-world circuits, perform measurements, diagnose faults, and build confidence before working on live vehicles.

Why Choose LJ Create Automotive Panel Trainers?

  • Real automotive components mounted on durable training panels
  • Clearly labeled circuits for structured learning
  • Safe, low-risk training environment
  • Supports hands-on diagnostics and troubleshooting
  • Aligned with automotive career pathways

Hands-On Electrical & Electronic Skills Development

LJ Create panel trainers allow learners to build practical skills in automotive wiring, circuit testing, and system diagnostics. Students use multimeters, test equipment, and structured lab activities to measure voltage, current, resistance, and signal patterns.

By working on clearly organized training panels before transitioning to full vehicles, learners gain foundational understanding while reducing the risk of component damage and improving diagnostic confidence.

Core Learning Topics

  • Basic automotive electrical principles
  • Wiring diagrams and circuit interpretation
  • Lighting and accessory circuits
  • Charging and starting systems
  • Sensors and actuators
  • Body electrical systems
  • Fault finding and diagnostic procedures
  • Safe use of automotive test equipment

Designed for Education & Workforce Programs

LJ Create Automotive Panel Trainers are ideal for high school CTE automotive programs, technical colleges, community colleges, and apprenticeship pathways. Their modular design allows institutions to select panels that align with specific curriculum goals—from foundational electrical systems to advanced electronic diagnostics.

These systems integrate easily into automotive labs and complement live vehicle training, helping programs build structured, progressive skill development models.

Applications

  • Automotive Technology CTE programs
  • Community and technical college automotive labs
  • Apprenticeship and pre-apprenticeship programs
  • Workforce development initiatives
  • Instructor-led or blended learning environments
Strengthen your automotive training program with hands-on panel trainers that build diagnostic confidence and real-world system understanding. Contact us today to explore available panels, curriculum alignment, and funding opportunities for your program.

Prepare Technicians for the Future of Electric and Autonomous Vehicle Service

Lucas-Nuelle’s ASE-aligned training systems combine real vehicle components, guided eLearning, and safe diagnostic simulation—empowering learners to confidently service high-voltage and driver-assistance technologies.

Amatrol’s Mitsubishi automation training solutions provide industry-aligned instruction using authentic industrial components from Mitsubishi Electric. Students gain practical experience working with PLCs, HMIs, variable frequency drives, and integrated automation systems that mirror the technologies used in modern manufacturing facilities.

Designed to support mechatronics, industrial maintenance, and automation pathways, these systems bridge the gap between classroom theory and real-world application. Learners build programming, troubleshooting, and system-integration skills that prepare them for careers in advanced manufacturing and smart factory environments.

Amatrol EV Manufacturing Training Systems provide hands-on instruction aligned with today’s electrified automotive production environments. Learners explore key EV manufacturing processes, including electric motors, power electronics, battery fundamentals, automation, and industrial controls used in advanced vehicle and mobility production. Designed for both education and workforce development programs, these systems prepare students and technicians for careers in electric-vehicle, battery, and advanced-mobility manufacturing—helping institutions stay aligned with the rapidly evolving electrification industry.

VR Modules for CTE & Workforce Electrical Training Programs

Electrical programs are balancing safety, lab capacity, equipment costs, and the need for students to build real confidence before working on live systems.

Through our partnership with Hard Hat VR, schools can integrate immersive, skills-based VR modules that reinforce classroom instruction and prepare students for hands-on lab work and apprenticeships.

These modules are designed specifically for skilled trades and industrial electrical training.

Available Electrical Modules

This module allows students to practice proper energy isolation procedures in a realistic electrical room setting.

Students practice:

  • Identifying energy sources
  • Following correct lockout/tagout steps
  • Verifying zero-energy state
  • Recognizing common safety mistakes

This is an effective way to reinforce OSHA-aligned safety habits before students enter the live lab.

Students gain experience working with large-frame low-voltage power circuit breakers used in commercial and industrial facilities.

Students learn:

  • Breaker components and inspection
  • Trip unit functions
  • Safe racking procedures
  • Operational checks and troubleshooting basics

Students gain familiarity with the equipment they will encounter in real-world facilities.

Medium voltage systems require strong procedural discipline and safety awareness. This module provides guided interaction in a safe environment.

Students develop understanding of:

  • Switch operation sequences
  • PPE considerations
  • Arc flash awareness
  • Equipment identification

It helps reinforce high-risk procedures without live voltage exposure.

Created in collaboration with Eaton, this module introduces students to modern air circuit breaker technology used in today’s power distribution systems.

Students explore:

  • Breaker configuration and settings
  • Protective device concepts
  • Operational procedures
  • Manufacturer-relevant equipment design

This supports alignment with current industry equipment and expectations.

Students interact with a virtual switchboard to better understand power distribution systems.

Key learning areas:

  • System startup and shutdown procedures
  • Reading meters and indicators
  • Load awareness
  • Identifying abnormal conditions

This strengthens system-level thinking, not just component-level skills.

Backup power systems are critical in healthcare, data centers, and industrial facilities. This module introduces the fundamentals of UPS systems.

Students gain exposure to:

  • UPS components and layout
  • Battery systems
  • Alarm monitoring
  • Basic troubleshooting scenarios

It connects classroom electrical theory to real-world applications.

How Programs Are Using VR in Electrical Training

Schools are integrating VR to:

  • Reinforce safety before students touch live equipment
  • Provide structured, repeatable skills practice
  • Reduce lab bottlenecks
  • Increase engagement for visual and hands-on learners
  • Support apprenticeship and workforce preparation

VR does not replace hands-on training—it strengthens it. Students can make mistakes, repeat procedures, and build confidence before transitioning to live systems.

Schedule a demonstration to explore how these electrical VR modules could support your curriculum.

Working with industrial power systems requires precision, procedural discipline, and a strong understanding of electrical safety. Large-frame power circuit breakers play a critical role in protecting equipment, maintaining system reliability, and preventing costly electrical failures.

This immersive VR training program allows learners to gain hands-on experience with breaker operation, maintenance, and troubleshooting in a safe, controlled environment. Participants build confidence and procedural accuracy before transitioning to live equipment.

Why Integrate This Training Into Your Electrical Program?

  • Understand Critical Power Systems – Learn the role and importance of low-voltage power circuit breakers in electrical distribution systems.
  • Safe Operation & Switching Procedures – Follow step-by-step guidance for proper breaker handling without exposure to live voltage risk.
  • Hands-On Breaker Racking Practice – Practice racking the breaker in and out manually or using a motorized charge system.
  • Reduce Downtime & Electrical Failures – Strengthen troubleshooting skills to help prevent system disruptions.

Who Will Benefit?

  • Electricians and electrical apprentices
  • Industrial and maintenance technicians
  • Facility and maintenance managers
  • Power system operators
  • CTE and technical college electrical programs

Program Outcomes

Participants gain a clearer understanding of breaker operation, improve safety awareness, and develop confidence in performing essential procedures related to industrial power distribution systems.

  • Strengthen workplace electrical safety
  • Improve system reliability
  • Reinforce compliance with industry safety standards
  • Support workforce readiness and apprenticeship preparation

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