While the USB port is more modern and faster than the serial port, the legacy serial port is still prevalent in most industrial systems. Legacy serial ports are often used to control production lines and automation systems. Their speed and reliability are important factors. But, modern IoT devices require higher bandwidth than legacy serial ports. For these reasons, industrial systems must balance between the two ports. Some may even require both. If you can’t decide between the two types of ports, consider using an IOIOI port instead.

Fanless system architecture

Industrial computers are typically designed to run complex applications and regulate factory equipment. As such, they must withstand high temperatures, dust, shock, vibration, and extreme vibration. Industrial computers designed by companies such as Moxa, Advantech, and Axiomtek are especially designed to withstand these conditions and withstand continuous exposure to extreme heat and cold. In addition, they can withstand power surges, vibration, and shock.

Fanless industrial computers are ideal for harsh environments because of their ability to handle extreme temperatures. Because industrial computers use an internal passive heat sink, they can function in a wide temperature range. In addition, they can withstand dust and other airborne particles because they have no fans to deal with. This makes it possible for industrial computers to function in extreme temperatures without having to be refilled with air. They can be powered by 24 VDC and feature integrated micro UPS power supplies.

Industrial PCs use a combination of technologies to maintain optimal temperature levels. The most popular design for industrial PCs is a Fanless System Architecture. Fans are an important part of consumer electronics, but they can also cause system problems and hardware failure. Fans are not necessary in industrial environments, but a fanless system can significantly increase the system’s energy efficiency. This design is perfect for factory automation, process control, and smart factories.

Another type of fanless computer is a Box PC, which offers the same technical specifications of a traditional Panel PC. It is ultra compact and can operate in a range of temperatures from -22 to 131 degrees Fahrenheit. It also has dual display outputs. Another fanless industrial PC is the Windows Box Pro. It is lightweight and convenient to install. It also has a fanless embedded system. A fanless industrial PC is also ideal for a digital signage application.

Extreme temperatures

While standard computers are designed to work in moderate temperatures, the extremes of the industrial environment can damage components. Silicon, the building block of modern computing, can only withstand a maximum of 867 degrees Fahrenheit. As the temperature rises, the data stored in the silicon would suffer. To address these problems, researchers from Case Western University developed nanoelectromechanical switches and mechanical parts that can withstand a range of temperatures. In a study published in the September 10th issue of Science, they revealed the solution to the high-temperature problem.

Embedded boards with Extended Temperature support are designed for extreme environments. There are two main categories of WiTAs: WiTAS 1 for temperatures ranging from -20 to 70 degrees Celsius and WiTAS 2 for -40 to 85 degrees Celsius. The higher temperature ranges require greater components that can withstand harsh environments. To ensure maximum performance, industrial computers with Extended Temperature support are designed to endure extreme conditions. AAEON is committed to providing industrial computing solutions that are designed for extreme environments.

To ensure that a rugged industrial computer can withstand extreme temperatures, manufacturers must test the systems in temperature and humidity chambers. The test simulates real-world environments, allowing engineers to determine their endurance in extreme conditions. Extreme temperatures, or temperature shock, can cause a variety of problems for industrial computers. By testing industrial-grade PCs in these environments, manufacturers ensure that their systems will function properly in a wide range of environments.

For extreme environments, industrial computers are typically designed fanless. This prevents the need for fans, which are fragile and can cause a high temperature. In addition to fanless computers, industrial PCs are typically built with military-grade components, which can tolerate higher temperatures. Industrial computers also contain low power components, so they don’t overheat. They are also often designed with high-performance processors and memory, which make them the best choice for industrial environments.

Dust resistance

In industrial environments, dust is a real problem. Whether the dust is metallic or powdered, the PC can create a spark that ignites the cloud, causing an explosion. To avoid this situation, industrial computers need to be dust resistant. This feature makes industrial computing equipment an excellent investment for these environments. Here are some of the benefits of industrial computing equipment. You may be surprised at the difference dust resistance makes. Ensure your computer is dust proof before purchasing it.

Industrial computers are often placed in very harsh environments, where water and dust are present. To operate properly, they must be protected against these elements and remain reliable even if they are exposed to extreme temperatures and humidity. While some people refer to industrial computers as dustproof or waterproof, they are actually rated with special standards called IP ratings. The IP rating is the main industrial standard. If your computer is not dustproof or waterproof, it probably won’t be able to perform its tasks.

Industrial computers are often subjected to rigorous testing to ensure that they are dust and moisture resistant. They are also able to withstand immersion in one-meter of water for 30 minutes. Dust resistance makes them an excellent choice for industrial deployments where space is at a premium. IP67-rated computers don’t need an enclosure like NEMA-certified units, and they perform optimally in spaceconstrained deployments. The IP67-rated computers are also dust-tight and waterproof, which makes them an ideal choice for outdoor use.

IP ratings are an essential factor when considering the dust resistance of an industrial computer. IP ratings are a measurement of the computer’s sealing ability against moisture and other airborne particles. IP ratings are listed on the specifications of industrial computers. If the rating is higher than six, it means that the computer is completely protected from dust. Generally, this is the best option. But, the IP rating is not always an indicator of dust and water resistance.

Long life cycle components

Embedded systems, including industrial computers, have a relatively long life cycle. They use Intel embedded processors that have a seven-year life cycle. Since they use the same enclosures, I/O ports, and operating systems, they are easy to replace if they become outdated. The design of an embedded system is also closely tied to its life cycle. Listed below are some characteristics of embedded systems that make them ideal for industrial applications.

Most computers are built using raw materials that must undergo various processes. Processing raw materials requires large amounts of energy, and it requires a lot of transportation of materials. Finished computer components are shipped to a central location for assembly. After assembly, computers are packaged to protect them from damage in transport. Packaging materials typically include plastic, styrofoam, or cardboard. The end result is a computer that lasts for five to ten years.

An industrial computer offers extended lifecycle support compared to consumer or business-class computers. Consumer computers are typically discontinued within six to twelve months, and they may cause unwanted side effects. Software developed for one system may not work on the next. As such, many industrial IT professionals lock down the operating system image. They do not allow for unauthorized users to alter its settings or install software. Industrial computers are also highly reliable, with long life cycle components that last for several decades.

Embedded systems offer the potential to decrease spare parts costs. However, technology often becomes outdated far quicker than long-life embedded systems. Support companies are often forced to buy “end of life” semiconductor components, which means they must tie up funds for years. Likewise, the auto industry must provide spare parts for 10 years after the vehicle is manufactured. Therefore, embedded systems offer the potential to reduce spare parts costs by allowing users to replace the expensive components with cheaper ones.