Servo motors exist as a crucial component in industrial automation.  Without them the entire industry sits at a literal standstill. For this reason engineers design modern servo motors with durability and longevity in mind.  That being said, the demands of the industry vary and longevity as a concept is only relative to what is being demanded.  Maintenance and environmental factors also play a role in the life span of a servo motor.

Here are some common faults with server motors as well as a few suggestions on maintaining and extending the life of your servo motor.

Common Faults

Ways to Extend the Life of Your Servo Motor

• Preventative Maintenance: Regular cleaning, inspection, and lubrication (if applicable) can catch problems early and keep your servo motor running smoothly.
• Reduce Load and Strain: Don’t overload the servo motor beyond its capacity. If possible, use a servo motor with a higher torque rating than the minimum required for your application.
• Manage Temperature: Ensure proper ventilation around the servo motor to prevent overheating. You might need to adjust operation cycles or add cooling fans in high-stress environments.
• Limit Travel Extremes: Avoid constantly running the servo motor to its full range of motion. This can put extra stress on the gears and motor windings.
• Use Shock Absorbers: If the servo motor deals with impacts at the end of its travel, consider adding shock absorbers to absorb impact and reduce stress.
• Choose the Right Servo: Select a servo motor with specifications that match your project’s needs. Consider factors like torque, speed, and operating voltage.
• Proper Power Supply: Ensure a steady and appropriate voltage supply to the servo motor. Fluctuations can damage internal components.

While the majority of servo motors are designed to withstand a lot of punishment put out by the demands of production they still retain a lifespan. This lifespan varies based on a myriad of factors from environmental to basic maintenance. The importance of regular maintenance and preventative care to servo motors will not only extend the lifespan of their service, but also save a company a lot of money in the long run.

Have a Broken Server Motor?

MRO Electric offers services for repairs and part replacement. A customer representative can be reached by phone: (800) 691-8511.

Introduction

Understanding FANUC servo amplifier alarm codes is crucial for maintaining peak performance in CNC (Computer Numerical Control) machines. These alarm codes serve as warning signals, indicating potential issues within the servo amplifier system. Ignoring or misinterpreting these alarms can lead to costly downtime, decreased productivity, and even damage to the machinery.

By comprehensively understanding these alarm codes and their associated troubleshooting measures, machine operators and maintenance personnel can swiftly address issues. This minimizes disruptions to production schedules and ensuring the longevity of the equipment.

Understanding FANUC Servo Amplifiers

FANUC servo amplifiers are integral components of CNC (Computer Numerical Control) machines. These amplifiers are responsible for controlling the movement of servo motors, which are pivotal in driving the various axes of motion within the CNC system.

Servo amplifiers receive signals from the CNC controller and translate them into precise voltage and current outputs to drive the servo motors accurately. This precise control is essential for achieving the exact positioning, speed, and torque required for machining operations.

The significance of FANUC servo amplifiers lies in their ability to translate digital commands into precise mechanical motion, ensuring the repeatability and accuracy demanded by modern manufacturing processes. Servo amplifiers play a critical role in achieving optimal performance in CNC operations. That includes producing complex parts with tight tolerances or executing high-speed machining tasks.

Understanding the function and operation of FANUC servo amplifiers is fundamental for CNC machine operators and maintenance personnel. It allows them to troubleshoot issues effectively, optimize performance, and maintain the reliability and precision of the machinery throughout its operational life.

Troubleshooting FANUC Servo Amplifier Alarms

When troubleshooting FANUC servo amplifier alarms, it’s essential to follow a systematic safety procedures to identify and resolve issues effectively. Here are some basic tips to consider:

Prepping to Troubleshoot

1. Safety First: Before starting any troubleshooting procedures, ensure the CNC machine remains powered off and safely isolated from the power source. Furthermore, follow all recommended safety procedures. This includes using appropriate personal protective equipment (PPE) when working with electrical components.
2. Refer to Documentation: Consult the FANUC servo amplifier manual or documentation provided by the manufacturer for specific alarm code definitions, troubleshooting steps, and safety precautions. Familiarize yourself with the layout and components of the servo amplifier system.

Checking Equipment

1. Check Connections: Inspect all electrical connections, including power cables, signal cables, and feedback cables, for any signs of damage, looseness, or corrosion. Ensure that connections are secure and properly seated.
2. Review Alarm Codes: Take note of the specific alarm code displayed on the CNC machine’s control panel or diagnostic interface. Cross-reference the code with the manufacturer’s documentation to determine the potential cause of the alarm.
3. Inspect Servo Motors: Check the servo motors for any mechanical issues such as binding, excessive wear, or damage to the shafts, couplings, or encoders. Next, check the motors for proper lubrication and potential debris.
4. Test Power Supply: Verify that the power supply to the servo amplifier remains stable and within the specified voltage range. Use a multimeter or other appropriate testing equipment to measure voltage levels and identify any fluctuations or abnormalities.
5. Reset Alarms: In some cases, resetting the alarm may temporarily clear the fault condition and allow the machine to resume normal operation. Make sure to do this after identifying and addressing the underlying cause of the alarm.

Documentation

1. Document Findings: Keep detailed records of the troubleshooting process, including observations, measurements, and actions taken. This information may prove valuable for future reference and for communicating with professional technicians if needed.
2. Know When to Seek Help: If you encounter alarm codes or issues that you are unable to resolve , it’s important to seek assistance from qualified professionals or FANUC-certified technicians. Moreover, attempting complex repairs without the necessary expertise can lead to further damage or safety hazards.

Encountering an Issue with Your FANUC Servo Amplifier?

Get expert assistance now, to minimize downtime and keep your operations running smoothly. MRO offers a wide range of repair services and replacement parts.

Common FANUC Servo Amplifier Alarm Codes

For quite a while now, the tech world has been smitten with the Raspberry Pi.  Since it came on the scene in 2012, it’s evolution and innovation has remained widely successful when it comes to the automation of tasks.  From emulating video games, to automating private homes, to even hacking various electronics, the Raspberry Pi proves itself a dominating force in automation.  So of course the next natural step is integrating it in the industrial automation sector.

Of course there exists questions regarding implementing Raspberry Pi into automation.  “How would it be used?” “Why would anyone use it?” “What advantages does it have?” In this article we  will explore the capabilities of the tiny but mighty process board and what about it and its potential in the industrial sector.

Raspberry Pi: A Brief Introduction

If you’re in the tech sector for whatever reason, be it profession or hobby, chances are you have encountered the Raspberry Pi at some point.  At the very least you may have heard of it.  For those who don’t know, the Raspberry Pi is commonly designated as a SBC or Single-Board Computer.  Honestly, this characterization is pretty accurate.  The main computer component of the Pi is the size of a credit card, with the enclosure, you’re looking at a device that is about the size of a pack of cigarettes.

So a small pocket-sized  computer is cool, but what does it do?  Well, surprisingly a lot of things!  Hobbyists use the Pi when working with things such as robotics. Instructors find Pi as an easy way to teach programming languages to students. For the longest time Pi has gained prominence amongst private consumers and institutions. 

However, most recently, Pi has proven itself very useful in the industrial sector as well.

The Beginning of Raspberry Pi

Raspberry Pi’s origins traces back to Cambridge University during the early 2000’s.  A group of engineers headed by Eben Upton sought ways to rekindle interests in programming among a younger generation.  Today, sites like CodeMonkey, have enough demand from children as young as five years old wanting to get into programming.  However, in the early 2000’s programming remained a niche interest that required sophisticated knowledge of computational language to do.   It existed as a far cry from the more streamlined process that we see today.

In 2006 Upton and his team set out to design a small computer no bigger than a credit card, that was widely programmable, affordable, and adaptable in running various programs. Their work finally came to fruition in 2012 with the release of the Raspberry Pi Model B.  Features on this tiny triumph included both USB and HDMI ports.  It also sported a SD card slot for storage capabilities.  Best of all it was all packaged at a price point of $35.  This made it an overnight hit with professionals, educators, and hobbyists alike. 

Integrating Raspberry Pi Into Industrial Automation

So how did this unassuming little single-board computer get the attention of the automation industry?  For starters, it’s a very affordable platform that can complete a multitude of tasks. Additionally the small size of Pi also lends to them being energy efficient.  In the industrial sector, Pi boards can be integrated into sensors and used in server units.  They can be used to help manage and control PLCs. Some independent developers have coded apps that allow a Pi board to be used as a PLC.

Arguably, the largest advantage Pi has in the industry is that it exists as a platform that is not tied to any one manufacturer and can be integrated with a wide variety of equipment. You don’t have to worry about whether it’s compatible with Schneider or Yaskawa.

Interested in PLCs

MRO Electric has a number of PLCs in stock available. Access the catalog here. For more information a sales representative can be reached through email: sales@mroelectric.com or by phone: (800) 691-8511. We also offer repair services.

In industrial automation, the significance role contactors play gets overlooked. These unassuming yet pivotal components orchestrate the machinery and processes within manufacturing worldwide. From controlling motors to managing power distribution, contactors play a fundamental role in ensuring seamless operations across various industrial sectors.

What is a Contactor?

At its core, a contactor exists as an electromechanical switch designed to control an electrical circuit. Unlike conventional switches, which operate manually, contactors primarily become utilized in scenarios where automated control is essential. They consist of a coil, which when energized, generates a magnetic field. This field attracts a movable armature, causing electrical contacts to close or open.

Contactor Applications in Industrial Automation

1.  Motor Control: Contactors find extensive use in motor control applications. In industrial settings, contactors serve as the gateway for starting, stopping, and reversing motor operations. By effectively managing the flow of electrical power, contactors ensure smooth and precise control over motor functions. This contributes to enhanced productivity and safety.
2. Power Distribution: Efficient power distribution is critical for maintaining operational integrity within industrial facilities. Contactors facilitate this by enabling the selective routing of electrical power to different equipment and processes. Acting as switches for high-power circuits, contactors ensure power being directed only where and when needed. This optimizes energy utilization and minimizing wastage.
3. Heating and Lighting Control: Contactors also play a vital role in managing heating and lighting systems within industrial environments. They regulate the supply of electricity to heaters, lighting fixtures, and other auxiliary devices. Ultimately, contactors contribute to creating optimal working conditions while simultaneously conserving energy and reducing operational costs.

Advantages of Contactors in Automation

1. Reliability: Companies build contactors to withstand the rigors of industrial environments, ensuring dependable performance even under challenging conditions.
2. Scalability: Whether controlling a single motor or orchestrating complex automation networks, contactors offer scalability, making them suitable for diverse industrial applications.
3. Safety: With features such as overload protection and arc suppression, contactors enhance operational safety by mitigating the risk of electrical faults and hazards.
4. Remote Control: Advanced contactor systems are integrable into broader automation frameworks, allowing for remote monitoring and control of industrial processes. This greatly improves operational efficiency and responsiveness.

Challenges and Innovations

While contactors have long been integral to industrial automation, ongoing advancements in technology continue to shape their evolution. Miniaturization, enhanced efficiency, and integration with digital control systems are just some of the areas witnessing innovation within the realm of contactor functionality. Moreover, the advent of predictive maintenance techniques empowered by artificial intelligence promises to further optimize the reliability and performance of contactor systems, minimizing downtime and maximizing productivity.

In Need of Contactors?

.MRO Electric offers a variety of contactors well-suited for your automation needs. For more information on contactors send an email to sales@mroelectric.com or call (800) 691-8511. Read more information on components of industrial automation equipment, here.

Conclusion

 From motor control to power distribution, their versatility and reliability make them indispensable assets across a spectrum of industrial applications. As technology marches forward, the evolution of contactors continues, poised to further elevate the efficiency, safety, and scalability of automated systems in the years to come.

Programmable Logic Controllers (PLCs) play a crucial role in controlling and monitoring various processes. PLCs are versatile devices designed to automate electromechanical processes, replacing traditional relay-based control systems. Understanding the key components of a PLC is essential for engineers and technicians working in automation. Generally, four main components that make up a PLC.

What is a PLC

In the past we’ve covered PLC’s and what they are, as well has how they function.  The basic run down of a PLC is that it  is a specialized industrial computing device designed to control and automate various processes within manufacturing and industrial environments. It serves as the brain of an automated system, executing programmed instructions to manage machinery, production lines, and other electromechanical processes. PLCs offer flexibility and versatility, enabling engineers and technicians to modify and adapt control logic easily without the need for extensive rewiring or hardware changes.

At the core of a PLC is its Central Processing Unit (CPU), responsible for executing control programs stored in memory. The CPU reads and interprets the instructions, making decisions based on the programmed logic. It then sends signals to output devices such as motors, valves, and sensors. Input modules gather data from the field through various sensors and switches, converting analog or digital signals into a format that the PLC can comprehend. Conversely, output modules translate the processed information from the CPU into signals that control the physical components of the automated system.

The Four Components

Central Processing Unit (CPU)

At the heart of every PLC is the Central Processing Unit (CPU). This component is the brain of the PLC, responsible for executing control programs and processing inputs and outputs. The CPU reads the program from memory, interprets the instructions, and sends signals to the output devices based on the program’s logic. Modern PLCs come with powerful CPUs capable of handling complex control tasks and communication with other devices on the industrial network.

Input Modules

Input modules are responsible for interfacing the PLC with the external world by collecting data from various sensors and switches. These modules convert analog or digital signals from field devices into a format that the PLC can understand. Digital input modules handle binary signals (on/off). In contrast, analog input modules process continuous signals such as voltage or current. Input modules are crucial for monitoring the state of the controlled system and providing real-time feedback to the PLC’s CPU.

Output Modules

Output modules facilitate communication between the PLC and the external devices such as motors, valves, or actuators. These modules convert signals from the CPU into a form that can control the physical processes in the industrial environment. Just like input modules, there are digital output modules for binary control and analog output modules for continuous control. The accuracy and reliability of output modules are vital for ensuring that the controlled system responds appropriately to the PLC’s commands.

Memory

PLCs have two types of memory: RAM (Random Access Memory) and ROM (Read-Only Memory). RAM is used for storing the control program and data temporarily while the PLC is powered on. ROM contains the firmware and the operating system that are essential for the PLC’s functionality. The memory capacity of a PLC varies, and it is crucial to choose a PLC with sufficient memory to accommodate the complexity of the control program and the amount of data processing required.

Conclusion

Programmable Logic Controllers have revolutionized industrial automation, providing a robust and flexible solution for controlling and monitoring complex processes. Understanding the four main components of a PLC – CPU, Input Modules, Output Modules, and Memory – is fundamental for anyone working in the field of industrial automation. As technology advances, PLCs continue to evolve, incorporating new features and capabilities. Furthermore PLCs enhance their role in modern manufacturing and industrial processes.

In today’s technology-driven world, our homes are filled with a plethora of electronic devices, appliances, and smart technologies. These advancements bring convenience and efficiency, but they also make our homes more vulnerable to power surges. A sudden surge in electrical voltage can damage or destroy electronic equipment. This leads to expensive repairs and replacements. For this reason, whole house surge protectors are an essential line of defense.

What Happens During a Power Surge

A power surge is a rapid and temporary increase in voltage that exceeds the standard flow of electrical current in your home’s wiring. These surges can result from various sources like, lightning and power grid fluctuations. While minor surges may go unnoticed, repeated exposure to these events or a severe surge can cause irreparable damage to sensitive electronics.

What Goes Into a Whole House Surge Protector

Whole house surge protectors are advanced devices designed to safeguard your entire home from power surges. Unlike individual surge protectors that you plug into outlets, whole house surge protectors are installed at your main electrical panel. Their primary purpose is to intercept and divert excess voltage away from your home’s wiring. This ensures sensitive electronic devices receive a consistently safe level of power.

The Pros of a Whole House Surge Protector

1. Comprehensive Protection: Whole house surge protectors safeguard all appliances and devices connected to your home’s electrical system.
2. Increased Device Lifespan: Whole house surge protectors extend the lifespan of electronic devices, reducing the need for costly replacements.
3. Ease of Installation: Professional electricians can install whole house surge protectors directly into the main electrical panel fairly easily.
4. Fire Prevention: Whole house surge protectors contribute to fire prevention by mitigating the potential for electrical overloads that could lead to fires.
5. Insurance Benefits: Some insurance providers may offer premium discounts to homeowners who install whole house surge protectors, recognizing the reduced risk of electrical damage.
6. Appliance Compatibility: Whole house surge protectors are compatible with all appliances and devices connected to your home’s electrical system, ensuring consistent protection throughout the house.

The Cons of Whole House Surge Protector

1. Initial Cost: Whole house surge protectors have a higher upfront cost compared to individual surge protectors. However, this cost may be offset by the comprehensive protection they offer.
2. Professional Installation: Installation of whole house surge protectors typically requires a licensed electrician, adding to the overall cost. Attempting DIY installation without the necessary expertise can lead to safety hazards and ineffective protection.
3. Limited Protection from External Sources: While whole house surge protectors are effective against internal surges originating from within the home, they may provide limited protection against extremely powerful external sources, such as a direct lightning strike.
4. Maintenance and Replacement: Surge protectors, like any electrical device, may require periodic maintenance or replacement to ensure optimal performance. This can result in additional costs over time.
5. Not a Guarantee Against All Surges: While whole house surge protectors significantly reduce the risk of damage from power surges, they cannot guarantee absolute protection against all types of surges or catastrophic events.
6. Compatibility with Older Wiring: In some cases, homes with outdated or incompatible wiring may face challenges in integrating whole house surge protectors. Upgrading the wiring may be necessary for optimal functionality.
7. Limited Effectiveness in Certain Scenarios: In extremely severe cases, such as a direct lightning strike on the power lines, whole house surge protectors may not provide complete protection. However, they can still offer a substantial level of defense in many situations.

Conclusion

Before investing in a whole house surge protector, it’s essential to weigh these pros and cons based on your specific needs, budget, and the electrical characteristics of your home. Consulting with a professional electrician can help determine the most suitable surge protection solution for your circumstances.