What Is an Industrial Computer?
Knowledge

What Is an Industrial Computer?

An Industrial PC, referred to as IPC, mainly refers to a personal computer that is specially used in the industrial world and can be used as a manufacturing controller.
Published: May 26, 2022
What Is an Industrial Computer?

What Is an Industrial Computer?

The earliest use of industrial computers was for factory production processes. The control and monitoring of instruments and machinery were limited to the industrial automation card system, and its use was mainly in automation equipment. The barriers to entry of industrial computers are high. Large factories are reluctant to produce products that do not reach economies of scale, while small factories cannot easily enter due to a lack of funds. Most of the products are tailor-made according to customer needs.

Due to the requirements of many industrial-grade applications, such as for factory automation, or for general embedded application systems such as point-of-sale systems, etc., it is necessary for systems to be more stable, more durable, more secure, more resilient for use in a harsh environments, and easier to manage. They are used where the supply period of the same product will continue for more than one year. Therefore, PC products designed for various industrial characteristics emerge as demand requires, such as for Industrial PCs (IPCs) and Embedded PCs (EPCs). They are mainly used in the control of factory production lines, such as industrial automation systems for scheduling and feeding. With the advancement of science and technology, the application scope of IPCs has expanded to various new industries.

What are the Application Areas for Industrial Computers?

With the development of 3C, the application of industrial computers has expanded from the original industrial automation to office automation and home automation. In recent years, industrial computers have gradually been applied to integrated communications, networks, software, and optoelectronics, with a special emphasis on applications such as MRT card readers, automatic ticket machines, bank ATMs, and endpoint sales systems. Other emerging markets include IPCs for gaming, network storage (NAS), digital signage, intelligent building automation monitoring systems, environmental monitoring systems, lottery computers, vending machines, large video game machines, health care equipment, computer telephone integration (CTI), VoIP Gateway/PBX, etc.

Industrial computer sales targets are usually system integrators (SIs) or value-added vendors (VARs), with less focus on direct sales to end-users. Most of the customers for Taiwanese manufactured IPC systems are from the industrial sectors in Europe, America, and Japan. When a client purchases a product, complete system integration must be considered. Because the complexity and price of the products are higher than that of general consumer products, the production time is also longer. Embedded computers are able to adapt to various working environments and are used in many different product applications, such as human-machine interfaces, medical care systems, information systems, global satellite positioning systems (GPS), and so on.

What Is the Difference Between an IPC and a PC?

Generally, a Personal Computer (PC) refers to a general-purpose personal computer used for basic applications such as Word, PPT, internet browsing, or holding video conferences. Because the demand is increasing for more and more applications, this indirectly drives the demand for improvement of PC specifications. Therefore, the PC industry and consumer electronics industries are always pursuing products with higher specifications, such as mobile phones and tablets that are faster and have more advanced processors and better memory.

The word “Industrial” means that the IPC "does one thing well and completely" such as controlling a pre-production line of medical robots. In contrast, you do not need to meet as broad of a range of tasks as a with a general PC; you only need to complete specific tasks accurately. Therefore, the basic performance and compatibility requirements of IPCs are similar to (or even lower than) that of ordinary PCs, but IPCs require higher stability and reliability. IPCs are usually designed for special situations, which means that products (both hardware and software) need to be customize to meet the different IPC requirements. For example, IPCs may need to pay more attention to heat dissipation, or need to deal with dust, water, and static electricity problems.

The source of value created by IPC manufacturers is the completion of system integration. What is required is not to upgrade hardware specifications, but to deeply understand the current needs of customers, predict and plan future IPC application scenarios, and complete system integration and production line monitoring solutions. IPC customers don't pay much attention to the price of the product or the cost of the foundry, but they pay more attention to the quality and function of the product. Since most IPC applications are key application processes, they have strict requirements on quality and stability. If the IPC crashes, it can often affect the progress of the entire production line, and may even endanger personal safety.

Features of Industrial Computers:

  • IPSs are tailor-made to meet different industrial needs, such as for special I/O systems, networks, and power supply interfaces that require higher stability, durability, and reliability. They need to hold up under long-term exposure to harsh operating conditions, such as high or low temperatures, wide voltage ranges, excessive shock, or exposure to water and moisture, etc.
  • Specially designed Out-Of-Band (OOB) management systems allow for remote repair when the operating system is damaged. A technician will not be required to be onsite to make repairs.
  • The longer the expected production period is, the more beneficial and IPC will be to the production line. Because special consideration must be given to formulating product specifications and material selection, plans of a least 7 years, or even as long as 15 years, are normal when planning IPCs for production lines.
  • Many relevant product certification standards.

Development Constraints of the IPC Industry:

Compared with the vigorous development of the PC industry over the past 20 years, the growth of IPCs has been relatively weak. The business model of mainstream IPC players is to provide system integration and solutions to generate value. The demand for industrial solutions is lower in the business-oriented, B2B market than it is in consumer B2C markets such as for electronics, and not every industry can afford a complete set of solutions. Because the demand for high-end technology is low, competition in the industry is low, making the relevant supply chains less mature, with few improvements.

Challenges Facing the IPC Industry:

  • In-depth consumer application scenarios: The application focus of industrial computers has transformed from manufacturing to close to consumers.
  • Small and diverse production management focus: Industrial computers used to be mostly used at the manufacturing site, and their numbers were relatively large. Current industrial computer development will focus on providing a smaller number of computers with more diverse production capabilities. Because many components of industrial computers, such as CAMERA, DRAM, CPU, etc. are precision key components, and the price of these key components is high, it is important to control material costs, especially when using small amounts and a large variety of components.
  • Software and hardware integration is facing challenges. In the past, industrial computer manufacturers were more aware of the needs of a single industry, such as manufacturing, but now applications are expanding into different industries. Understanding the different requirements of these new industries, and providing professional solutions are the challenges that need to be overcome.

Future Trends of the IPC Industry:

  1. Supply chain trends within the industry:
    • Manufacturing specialization - Overall manufacturing processes in supply chains are becoming more and more specialized. In the past, processes such as SMT/DIP assembly, as well as complete machine assembly were all completed by the same company. However, such a one-stop process will require more and more expensive equipment, personnel, and professionalism. Therefore, recently, industrial computer manufacturers have begun to dismantle the manufacturing process, slowly outsourcing processes such as SMT/DIP processing, and focusing on system integration.
    • The second relocation of production bases and supply chains, and risk diversification - In the past, many Taiwan electronics industry manufacturers moved their production bases for higher-cost, manufacturing processes to China or Southeast Asia. They only retained the final product assembly locally. Recently, manufacturers have been slowly shifting their production and supply chain focus to Southeast Asia. Being affected by the Sino-US trade war, and facing the necessity to avoid risks, it is necessary to be closer to local markets, so manufacturing is transferring to Southeast Asia.
  2. The shift in the business model:
    Taiwan's overall industrial computer industry ranks among the top three in the global IPC field. However, many manufacturers all over the world are catching up, especially in China, where there is a lot of homogeneous competition. Therefore, recently, many Taiwanese manufacturers have changed from pure OEM to ODM including design, and some have even changed to OBM for brand management. Taiwanese manufacturers are gradually beginning to spend time and effort on brand management. Brand management is not only concerned with the production but also must consider whether the overall quality history and after-sales maintenance system can satisfy customers. And the maintenance system cannot only be located in Taiwan but must be located close to the market, such as in Europe and the United States.
Published by May 26, 2022 Source :businessweekly

Further reading

You might also be interested in ...

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.
Headline
Knowledge
Choosing the Right Coating for Paper Cups and Food Containers
Selecting the right coating for paper cups and food containers affects far more than leak resistance. For foodservice brands, importers, product teams, and packaging decision-makers, coating choice directly shapes heat resistance, grease performance, sealing behavior, disposal options, compliance risk, and overall cost. A paper cup or food container may look similar on the outside, but the coating often determines whether it performs well in real service conditions or creates problems after launch. That is why coating specifications should be defined early rather than treated as a minor detail after size, structure, or artwork are approved.
Headline
Knowledge
Understanding Lathe Types: Differences Between Manual, Engine, and CNC
When manufacturers evaluate different lathe types, the decision usually goes beyond machine specifications alone. Choosing between a **manual lathe**, an engine lathe, and a CNC lathe can influence production flexibility, machining consistency, labor requirements, and long-term investment efficiency. For many workshops, factories, and industrial buyers, understanding these differences is essential to selecting equipment that truly fits the job. In metalworking, the wrong machine choice can create avoidable problems. A machine that is too simple may limit output, while a machine that is too advanced may increase cost without delivering enough return. That is why buyers often need a clear, practical comparison rather than a purely technical definition. This article explains the differences between manual, engine, and CNC lathes, where each one performs best, and how buyers can choose the right type based on actual production needs.
Headline
Knowledge
Biometric, RFID or Face Recognition: Which Access Controller Fits Your Site Best?
What procurement and technical teams should review when selecting an access controller for security, throughput and long-term fit.
Headline
Knowledge
What Is a Food-Grade rPET Sheet Extrusion Line and How Does It Work?
A practical look at how recycled PET bottle flakes are converted into food-grade sheet materials for thermoformed packaging and other high-value applications.
Headline
Knowledge
What Is Fuel Injector Cleaner and How Does It Work?
Why Fuel Injector Cleaner Matters
Headline
Knowledge
Stainless Steel vs. Titanium Mufflers: Which One Is Actually Worth Your Money in 2026?
If you have spent any time researching exhaust upgrades, you already know the debate: stainless steel or titanium? Both materials have earned their place in the automotive aftermarket, and both have passionate supporters. But when it comes to choosing the right exhaust muffler for your application, whether you are building a track car, upgrading a daily driver, or sourcing components for large-scale distribution, the material decision carries real consequences for performance, longevity, and cost.
Headline
Knowledge
Automatic L Sealer Machine: How It Works in Shrink Packaging
In many packaging operations, shrink wrapping looks simple until output rises, product mix expands or labor becomes harder to schedule. At that point, the sealing step often becomes the bottleneck. Inconsistent seals, slow changeovers and manual handling start affecting throughput, rework and delivery performance. That is where an automatic l sealer machine becomes relevant. It automates the film-wrapping and sealing stage before the product enters a heat tunnel, helping manufacturers standardize presentation, reduce manual touchpoints and support higher packaging volumes. For procurement teams and engineers, however, the real question is not just what the machine does. It is how to judge whether a specific system will fit the line, the product range and the supplier’s real capabilities.
Headline
Knowledge
How Comprehensive Foam Testing Protects Performance in Harsh Environments
Foam materials, particularly NBR rubber foam, are widely used across industries due to their lightweight, cushioning, and insulating properties. However, exposure to harsh environmental conditions, such as moisture, UV radiation, and fluctuating temperatures, can degrade foam performance over time. To mitigate risks and ensure long-term durability, manufacturers employ comprehensive testing methods, including spray, immersion, leak detection, ASTM C272, pressure, UV, salt spray, and compression recovery tests. These procedures provide critical data on how foam materials respond to environmental stress and help maintain product reliability.
Headline
Knowledge
Navigating Supply Chain Volatility - How to Choose a Medical Plastic Components Manufacturer for Rapid Scale-Up
The landscape of medical device manufacturing has shifted dramatically. The days of predictable, long-lead-time forecasting are fading. In their place is a market defined by volatility, rapid innovation cycles, and the urgent need for supply chain resilience. For medical device startups and established OEMs alike, the choice of a medical plastic components manufacturer is no longer just about cost—it is about speed and agility.
Headline
Knowledge
Understanding Dynamic Balance and Clamping Mechanics in Modern CNC Tool Holders
Precision machining has become increasingly dependent on the performance of the CNC machine tool holder, a component often underestimated in its influence on accuracy, surface finish, and tool life. With today’s high-speed spindles, multi-axis machining centers, and micro-tolerance production standards, the interaction between dynamic balance, runout behavior, and clamping mechanics has never been more critical. This article provides a neutral, engineering-focused analysis of these performance factors and introduces several leading global manufacturers contributing to advancements in tool-holding technology.
Agree