Motion Control Systems in Factory
Knowledge

Motion Control Systems in Factory

Motion control encompasses every technology related to the movement of objects. Motion control is also referred to as Servo Control or Robotics and is implemented in industrial processes to move specific loads in a controlled way. It is the core technology of factory automation and is the real-time management of the position and speed of mechanical moving parts according to the expected motion trajectory and specified motion parameters.
Published: Aug 18, 2022
Motion Control Systems in Factory

Motion control is the core technology of factory automation, which originated from the early servo control. Simply put, motion control is the real-time management of the position and speed of mechanical moving parts, so that they can move according to the expected motion trajectory and specified motion parameters.

This technology can be applied to industrial machinery and high-precision CNC machine tools that require precise positioning control or speed control. In industries that require high product cutting precision, a well-functioning motion control system is indispensable, such as: automobile, solar energy, semiconductor, electronic industry, etc.

The establishment of the motion control system must integrate various software and hardware technologies, which not only requires theoretical performance evaluation, but also considers the operating characteristics of the machine itself in actual operation. Whether the operation of the industrial machine can be carried out, in addition to the system The basic functional requirements include controlling the position and speed of each axis. Cost, system stability, frequency of use, warranty service, scalability and compatibility with other software and hardware are all factors to evaluate motion control systems.

Motion control system in recent years, with the development of the Internet, different operation modes have been developed. Machines and equipment can be connected to the whole plant equipment for real-time monitoring and manipulation during operation. The PLC motion control mode in the past was due to PLC controllers are also gradually replaced by PC-Based controllers.

If the controller is divided by structure, the controllers currently seen in the industry can be roughly divided into two types: PLC-Based and PC-Based. PLC-based technology and PC-based technology are two representative control technologies in the field of automatic control, and the technology origin and development of the two are quite different.

PLC was produced in the early 1970s, and its main functions are only simple logic sequence control functions. Once the PLC appeared, it showed strong vitality with its high reliability, small size and intuitive programming mode, and became the mainstream product in the field of automatic control.

PC-based is more used for monitoring the running status of equipment. Compared with PC-based, PLC-based has the advantages of flexible configuration, small size, adaptability to harsh environments, strong anti-interference, and high reliability, but it is worse than PC-based in terms of software functions and system openness.

With the continuous development of computer technology and control technology, PLC-based and PC-based are absorbing each other's advantages to adapt to more applications. For example, the application of PLC in packaging equipment is far more than the application of PC-based in packaging equipment. PC-based is a control system based on PC technology.

The earliest PC-based control system is based on the industrial computer, and PC-based has advantages in computing, storage, and software openness. There are obvious differences in technical characteristics between PLC-based and PC-based. PLC has small size, low power consumption and strong anti-interference ability; it has high reliability, and its average failure rate interval can reach 500,000 or even 1 million hours; it has a simple and intuitive programming mode.

And PC-based has powerful computing power and has open standard system platform and PCI interface, beautiful and low-cost display technology. But the reliability of the system is slightly worse, for example, the average time between failures of IPC with better performance is about 50,000 hours. However, with the advent of the PC and network era, industrial PC or PC-based controllers have gradually replaced the active industrial automation in the past due to the basic characteristics of network systems, that is, high performance, low price, system openness, and basic advantages. PLC in the control area.

Because PC-based products have the basic characteristics of the network, PC-based controller products have strong vitality and develop rapidly as soon as they come out. Some people say that PC-based controllers will replace traditional PLC-based controllers. Of course, security and stability issues must be resolved first.

In recent years, these problems have been basically solved, and PC-based controllers can be similar to PLC-based controllers in terms of appearance and reliability. The introduction and widespread adoption of the IEC61131-3 programming language standard has paved the way for the rapid development of PC-based controllers. In this way, PC-based controllers not only have the advantages of PC, but also have the advantages of traditional PLC. It can be seamlessly integrated into the information system of the Internet age.

With the advancement of PCs and networks, many applications related to digital systems have also advanced rapidly. Microcontrollers with high-speed computing speed such as single-chip and digital signal processors are continuously introduced into the distributed control system, which makes various application systems gradually move towards the trend of professional division of labor. Among them, the motion control system is a good case.

Published by Aug 18, 2022 Source :DIGITIMES

Further reading

You might also be interested in ...

Headline
Knowledge
Industrial Ultrasonic Cleaning Machines-Applications, Specifications, and Buyer Selection Guide
An industrial ultrasonic cleaning machine is a precision cleaning system that uses high-frequency sound waves to remove contaminants from surfaces. Unlike manual or spray-based cleaning, ultrasonic systems rely on cavitation the rapid formation and collapse of microscopic bubbles in a liquid medium to dislodge particles from even the most complex geometries.
Headline
Knowledge
Scaling and Corrosion in Plastic Machinery Cooling Systems: Causes, Risks, and Preventive Measures
Scaling and corrosion are persistent risks in plastic machinery cooling systems. This article outlines their causes, their effect on heat transfer and flow stability, and practical maintenance measures manufacturers can use to reduce efficiency loss, blockage risk, and long-term equipment damage.
Headline
Knowledge
Chemical Packaging Lines Evolve as Safety and Precision Demands Increase
As chemical manufacturers face stricter safety regulations and complex material requirements, packaging lines are evolving from standalone machines into fully integrated production systems. This article explores key considerations including filling technology selection, equipment durability under chemical exposure, workplace safety, and the shift toward complete system solutions. Understanding these factors helps manufacturers improve accuracy, ensure safety, and enhance overall production efficiency in hazardous chemical packaging environments.
Headline
Knowledge
Grease Pumps in Maintenance Operations: Types, Applications, and Selection Considerations
A Practical Guide to Grease Pump Applications, Performance, and Selection
Headline
Knowledge
BLDC vs. Induction Motors in Lifting and Hoisting Applications: Efficiency, Safety, and System Cost
What makes BLDC motors a better fit for today’s lifting and hoisting systems.
Headline
Knowledge
Improving Multi-Computer Workflow Efficiency with a 4-Port USB-C KM Switch
How mouse roaming, 10Gbps USB sharing, and flexible control help streamline modern multi-system environments
Headline
Knowledge
How Anti-Static And Protective Films Reduce Surface Damage In Sensitive Manufacturing
In sensitive manufacturing, many costly defects do not begin with machine failure or operator error. They begin with static charge, airborne particles, micro-scratches, adhesive residue, and unnoticed surface contamination. These issues are often underestimated because they appear as scattered defects rather than one major failure. Yet in electronics, optics, display processing, and coated surface production, even small flaws can reduce yield, increase rework, slow inspection, and weaken final product quality.
Headline
Knowledge
What Buyers Should Know Before Choosing a Automatic Plastic Blow Molding Machine
For buyers, factory owners, and packaging manufacturers, selecting an automatic blow molding machine is no longer just a matter of comparing output speed or initial price. In real production environments, the performance of a plastic blowing machine is often determined by the quality and coordination of its core components. A machine may appear competitive on paper, yet still create costly problems once production begins. Uneven wall thickness, unstable parison formation, excessive scrap, slow cooling, and difficult maintenance are all issues that can usually be traced back to the design of several key modules. This is why experienced buyers tend to look beyond catalog specifications and focus instead on the machine’s screw, die head, clamping system, and cooling design. These components do more than support production. They directly influence product quality, material efficiency, energy use, maintenance frequency, and overall return on investment.
Headline
Knowledge
What Buyers Overlook When Choosing a Wire Harness Manufacturer
A practical guide to evaluating engineering support, quality control, customization and sourcing risk
Headline
Knowledge
How High-Efficiency Gear Motors and Brushless Motors Support ESG and Energy Savings
Industrial motor efficiency directly affects a factory’s electricity use, carbon footprint, maintenance burden, and long-term operating cost. For factory owners, procurement teams, and equipment designers, choosing a more efficient gear motor or Brushless Motor is not only a technical upgrade. It is also a practical way to improve ESG performance, reduce energy waste, and strengthen return on investment. In most industrial facilities, motors are among the largest sources of electricity consumption. When motors run continuously in conveyors, packaging lines, automated machinery, food processing systems, and material handling equipment, even a modest improvement in efficiency can produce significant annual savings. That is why motor efficiency is increasingly linked to ESG strategy, cost control, and supply chain competitiveness.
Headline
Knowledge
Die Casting Vs. Forging: How To Choose Based On Strength, Geometry, And Volume
Choosing between die casting and forging affects far more than part cost. It influences structural performance, design flexibility, tooling strategy, machining requirements, lead time, and long-term production efficiency. When the wrong process is selected too early, projects often run into redesigns, extra machining, or higher-than-expected production costs. The right decision depends on how much strength is required, how complex the part geometry is, and whether the target is lower-volume production or stable high-volume output.
Headline
Knowledge
How Material Design Affects Fitness And Rehabilitation Rubber Products
In fitness and rehabilitation products, material design has a direct effect on performance, comfort, durability, hygiene, and long-term user trust. A resistance band that stretches unevenly, a grip that becomes slippery, or a flexible component that tears too early can quickly lead to complaints, returns, and lower confidence in the product. The key challenge is not simply choosing an elastic material. It is selecting and validating a material system that can perform consistently under repeated stretching, skin contact, sweat exposure, and ongoing mechanical stress.
Agree