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Industrial Embedded Computer

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What is Industrial Embedded Computer

Embedded computer systems go by many names (Box PC, Gateway, Controller, Industrial PC, etc.). An embedded PC is essentially any computer system that is designed for a specific use and implemented as part of a larger device, intelligent system, or installation. The term “embedded PC” doesn’t just refer to one type of computer, and instead encompasses many different types such as industrial and rugged PCs as well as edge servers.

Embedded computers come in an endless array of shapes and sizes from the tiny ARM-based devices that quietly collect and relay data, to all-in-one solutions that run huge earth movers and military equipment. Embedded computers also play a key role in the ever-evolving Internet of Things, enabling the connections between machines, people, places, things, and the cloud.

Advantages of Embedded Computer Systems

Original equipment manufacturers (OEMs) and machine builders consistently incorporate embedded computers into their systems for a wide range of advantages. Unlike their commercial counterparts, the components used in embedded computers are designed to last for an extended period, following a clearly outlined roadmap. OEMs and machine builders need confidence that any component they incorporate into a system will be available for several years. Therefore, embedded computer manufacturers ensure that this roadmap is transparent and strictly followed. Here are seven advantages of embedded computer systems:

Task-Specific: Embedded computers are highly focused on specific tasks, allowing them to perform exceptionally well. They are designed to execute one task very effectively and efficiently. By concentrating all their resources on that task, they can respond quickly, work with minimal delays, and use power wisely. Initially, embedded computers were designed to perform a single task or function. However, with ongoing advancements in technology such as hybrid CPU architecture, AI acceleration, and 5G edge deployments, embedded computers have become significantly more powerful. They now support multiple functions and handle more complex and intelligent tasks, becoming a driving force behind IIoT and automation.

Cost-Effective: Embedded computer systems offer a cost-effective solution through optimized system design. By tailoring hardware and software components to meet specific task requirements, these streamlined systems minimize unnecessary features and complexity. This targeted approach not only enhances performance but also reduces production costs and power consumption.

Form, Fit, and Function: OEMs and machine builders often choose embedded computers for their form, fit, and function. For example, if an OEM machine equipped with an embedded computer needs an upgrade to support a new operating system, it is crucial to find a direct substitute for the embedded computer that meets the same I/O and housing needs. This is also relevant for new versions of an OEM machine where the design might be updated but the I/O needs to remain consistent. An upgraded variant of the embedded computer with the same size or form factor can be easily procured and installed, reducing R&D time and overall expenses. Mounting options typical to embedded computers, such as DIN-rail and VESA mounts, provide greater flexibility for installations in control cabinets or within machinery.

Adaptable With Legacy Hardware: Connecting old and new technologies is a common requirement in Industry 4.0 advancements. Embedded computers often offer expansion options from the past, such as PCI, allowing OEMs and machine manufacturers to adapt older expansion cards as needed. Legacy display outputs are also frequently compatible, with VGA remaining common in industrial and embedded applications due to its durability and widespread use of older display terminals.

DC Power Input: Embedded computers, often situated deep within an OEM system, frequently feature wide-ranging DC power inputs with remote on/off or ignition sensing capabilities. This allows for power cycling without needing to access control panels or shut down the entire system. A single power supply in a control cabinet can power not only the embedded computer but also other peripheral devices.

Built For Demanding Environments: Embedded computers are designed to endure harsh conditions. From basic fanless designs to ruggedized models with waterproof features, industrial-grade embedded systems are stripped of unnecessary components, adopting a lean and efficient architecture that enhances reliability and minimizes points of failure. They can withstand extreme temperatures, moisture, dust, and vibrations, ensuring seamless operation and consistent performance in demanding conditions such as industrial settings, outdoor installations, and remote locations.

Long-Life Solutions Protected By Embedded Roadmaps: Embedded computers are designed with longevity in mind, following established roadmaps that ensure their availability for extended periods. These roadmaps outline the lifecycle of the embedded hardware, software, and components, allowing industries to plan and implement long-term solutions with confidence. By adhering to these roadmaps, embedded computer manufacturers commit to maintaining supply, support, and compatibility over the years, even in rapidly evolving technological landscapes.

What is an Industrial Embedded Computer?

An industrial embedded computer is a specialized computing device designed to operate reliably in industrial environments. Unlike general-purpose computers, embedded computers are built to handle specific tasks within an industrial setting, offering robustness and durability. They are often integrated into machinery or systems to provide control, monitoring, and data processing capabilities.

Small Embedded Industrial Computer Vision Supplier

Examples of Types of Embedded Computers

GPU Accelerated Embedded PCs: These computers are designed for intelligent video analytics and graphics-intensive applications at the edge. For example, in an AI-based system that captures and analyzes high-definition video, such as facial recognition, it would be costly and inefficient to send all the video data to the cloud. Instead, GPU accelerated embedded computers process and analyze the data locally, sending only relevant information—such as alerts or reports—up to the cloud.

Multi-Media Players: Classified as ‘light-industrial,’ these embedded computers are typically used in less demanding environments. They maintain industrial principles but do not require wide temperature ranges or extensive I/O options. The focus is on high-resolution display outputs and a slim profile to fit behind digital signage screens.

In-Vehicle Embedded Computers: These computers must withstand shock, vibration, and wide voltage fluctuations. They are used in various transportation applications, such as data gateways in railway rolling-stock or embedded PCs in haulage and transport vehicles. They capture and store CCTV images or transmit GPS and driver behavior information to control centers. In-vehicle embedded computers are rugged and designed to handle power fluctuations.

Industrial IoT Gateways: These devices provide connectivity and data management for industrial IoT networks. They facilitate the integration and management of IoT network devices by offering connectivity, protocol compatibility (IT and OT), and WAN connections, often via cellular or Wi-Fi. They are ideal for edge applications requiring minimal computing power.

Application Fields of Industrial Embedded Computers

Industrial Automation

Industrial embedded computers play a vital role in industrial automation systems. They are widely used in production line control, robot control, intelligent manufacturing, and other fields. By leveraging advanced computer technology, industrial automation processes can be automated and made intelligent, greatly improving production efficiency and product quality.

These embedded computers act as stable and reliable control centers in industrial scenarios, capable of processing and analyzing various sensor data in real-time to ensure the proper operation of equipment and production lines. They can also optimize and predict the production process through advanced algorithms and artificial intelligence technology, helping enterprises to better plan production and allocate resources.

Compared with traditional industrial control systems, embedded computers are characterized by their small size, low power consumption, and high performance. They are better suited to the harsh conditions of industrial environments. Their reliability and stability ensure the safety and continuity of industrial production, effectively reducing failures and downtime, lowering production costs, and enhancing the competitiveness of enterprises.

Internet of Things (IoT) Applications

As a key component of Internet of Things applications, industrial embedded computers play an indispensable role. They can connect with various sensors and devices to enable efficient data collection, accurate analysis, and remote monitoring.

In the construction of smart cities, industrial embedded computers serve as smart infrastructure. By linking with sensors, smart cameras, and other equipment, they can monitor traffic flow, environmental pollution, waste disposal, and more in real-time. This provides valuable data for urban planning and resource management. Additionally, they support smart transportation, smart parking, and other services, effectively alleviating urban traffic congestion and resource waste.

In the smart home sector, industrial embedded computers become the core of the home central control system. By connecting with smart home appliances, security equipment, and more, they enable automatic control, remote control, and intelligent linkage of home devices. Residents can manage various devices through mobile apps or voice assistants, enhancing the convenience and comfort of home life.

In intelligent transportation, industrial embedded computers provide technical support for the development of transportation systems. They process data such as traffic signals and vehicle positioning, enabling intelligent signal control, vehicle navigation, and other functions to optimize traffic flow and improve safety.

Transportation Field

Industrial embedded computers are widely used in vehicle control systems. They integrate closely with the vehicle's sensors, actuators, and other components to monitor vehicle status and environmental information in real-time, responding quickly and accurately. Through stable control algorithms and intelligent decision-making, they enhance vehicle handling performance and driving safety, reducing the risk of traffic accidents.

In aerospace, industrial embedded computers play a crucial role as well. In flight control systems, they process data such as flight attitude and navigation information, controlling the aircraft's attitude, heading, and altitude to ensure flight stability and safety. In space missions, embedded computers manage various tasks and operations of the spacecraft to ensure it performs as planned.

In traffic signal control, industrial embedded computers are key to achieving intelligent traffic management. They collect real-time data on traffic flow and vehicle information by connecting with traffic lights, surveillance cameras, and other equipment, enabling intelligent scheduling of signal lights based on current conditions. This intelligent control optimizes road traffic flow, reduces congestion and waiting times, and improves transportation efficiency.

Medical and Medical Equipment

Industrial embedded computers are extensively used in medical equipment, such as medical imaging devices and monitoring instruments, and play a vital role. They not only ensure the efficient operation of medical equipment but also process and analyze large volumes of medical data in real-time, providing accurate services for medical staff.

In medical imaging equipment, industrial embedded computers handle crucial tasks such as image acquisition, processing, and display. They quickly and accurately obtain patient image data, generating clear and detailed results through advanced processing algorithms to aid in accurate diagnosis and treatment planning. Additionally, these computers seamlessly integrate image data with medical information systems, facilitating information sharing and collaboration among medical staff.

In medical monitoring instruments, industrial embedded computers serve as a critical control and processing center. They monitor patients' vital signs and health status in real-time, such as heart rate, blood pressure, and respiration. They can detect abnormalities promptly and alert medical staff to take necessary action through an early warning system. The embedded computers also record and save patient monitoring data, supporting medical decision-making and condition assessment.

The efficient operation and stability of industrial embedded computers ensure the reliable performance of medical equipment at critical times. Their intelligent and automatic features enhance the convenience and accuracy of medical equipment operation, reduce the workload of medical staff, and improve the quality and efficiency of medical services.

A Typical Embedded Computer Consists Mainly of the Following Elements

CPU and Microcontroller (One or More): These components consist of logic gates containing transistors and arithmetic processing units (ALUs) packaged within a single chip. They serve as the "brain" of the embedded system, responsible for performing the main system operations and calculations. They manage data from all levels of cache (L1, L2, L3) and system memory (RAM).

CPU Cache (L1, L2, L3): CPU cache is optimized for extreme speed and occupies a significant portion of the die. It uses a single-level cell architecture (SLC) to increase speed, meaning each cell contains 1 bit of data. Due to the high transistor count, the cache on the CPU is limited in size: L1 cache is the fastest but typically limited to 32 KB, L2 cache to 256 KB–1 MB, and L3 cache to 2–16 MB. The speed and proximity of this cache to the CPU are critical for processor performance.

System Memory (RAM): Although slower than the cache, system memory is many times faster and more resilient than non-volatile storage such as hard disk drives and solid-state NAND drives. It is used to store running applications for fast access and transfer to the processor cache. RAM writes thousands of times per minute as applications move data and perform complex operations, so it does not suffer from cell degradation and limited write/erase cycles.

Non-Volatile Storage: Hard drives, SSDs, NAND, and other non-volatile storage technologies offer the highest capacity but are the slowest storage components in the system. They are used to store larger system files and data files for normal system use.

CMOS-RAM: This component stores important system configuration and real-time information. Powered by a small coin cell battery, it maintains its functions even when the system is powered down.

I/O Ports: This category includes all connection interfaces from Ethernet RJ45 ports to 3.5mm audio jacks. I/O ports allow systems to accept and process external inputs through standardized interfaces such as USB and HDMI.

5 Factors to Consider Before Buying an Embedded Industrial PC

Choosing the right embedded system to power your industrial application is crucial. To help you make the correct decision, here are five factors to keep in mind when shopping for an embedded industrial PC:

1. Longevity

Product lifecycles can be tricky. It’s common to choose an older processor to save costs, only for it to reach its end-of-life within a year. You need to consider the long term as well.
The good news is that chipsets designed for embedded applications generally have longer lifecycles, easily lasting five to seven years. A Long Term Servicing Channel (LTSC) product has a 10-year lifecycle, making it ideal for industrial applications.
An embedded industrial PC with a long lifecycle not only reduces expenses but also ensures stability. You are guaranteed to obtain replacement parts and compatible peripherals throughout its lifecycle, saving you the hassle of frequent upgrades.

2. Durability

Industrial computers are rarely deployed in sterile, air-conditioned rooms. Most embedded PCs operate in dusty, high-temperature environments and are occasionally subjected to jarring impacts. You need a durable system that can withstand these conditions.
Rugged embedded computers are designed to handle just that. They use components that function well in high temperatures and employ fanless cooling to minimize dust intake. The best models are also impact resistant.
Even if your industrial application doesn’t involve particularly harsh conditions, prioritizing durability is a good idea. A durable embedded industrial PC can help reduce frequent system breakdowns.

3. Scalability

Situations change, and needs evolve over time. A PC that met your requirements two years ago might not be sufficient now. Ensuring that your embedded industrial PC can be expanded with additional features will future-proof your investment.
Common expansions include networking cards, SSDs, and GPUs. All of these components require PCI slots, so the number and quality of these slots are important factors to consider.
Power requirements should also be taken into account, so selecting a system capable of supplying more power than it currently needs is a wise choice. This allows you to add expansion cards as needed.

4. Connectivity

While it might not seem significant, the I/O options of an industrial board are crucial. This includes display requirements, which are difficult to change even with expansion cards.
There is a wide variety of connectivity standards, from well-supported HDMI and USB ports to more obscure serial ports and interfaces. Always ensure that the industrial system can connect with your existing hardware.
Even if you only need standard LAN ports, consider the number of connections. Specialized network appliances might be necessary to serve as surveillance platforms, as these systems typically require multiple connectivity ports.

5. Storage

Storage is a fundamental component of any computer, but the type and capacity can vary greatly. This has a major impact on performance, especially for industrial applications.
Opting for an SSD is essential, given the significant performance gains over standard hard drives. The type of SSD you choose can be confusing.
The SATA interface has been used for years to connect hard drives to motherboards, but it doesn’t offer optimal performance for SSDs. The newer M.2 standard allows SSDs to perform at their full potential.
While not all industrial applications require high-speed storage, it’s beneficial if your work involves storing and accessing large amounts of data quickly. An M.2 SSD can greatly improve efficiency in such cases.

About us

Haxun is a professional supplier of industrial computer and touch panel pc solution.

Unlike consumer computers, industrial computers and touch panel pc on the market, haxun computers are designed by professional technical teams to operate stably in demanding environments and applications.

Haxun has always put customer demand first, product quality assurance we will be very strict control, all the raw materials used are up to industrial standards, the assembled computer must be certified and monitored to ensure stable operation in a harsh environment. Before delivery, we will have special quality supervision personnel to check, and then 48 hours of aging, in line with the company's shipping standards before arranging delivery.

Whether the service is pre-sale, in-sale or after-sales service is first-class, we will introduce the items we need to know from the customer's point of view before purchasing, and our technical staff will answer them in detail in time if there are any doubts or support in the process of use. in short, if you have any needs, please come to us so that customers can purchase and use products with peace of mind.

FAQ

Q: What do you mean by embedded computer?

A: An embedded computer/embedded PC is a dedicated computer system that forms an integral part of a larger machine or system. In contrast to an ordinary desktop computer, an embedded computer is generally designed or purposed for a single purpose.

Q: What are 5 uses of an embedded computer?

A: Applications that embedded computers are deployed for range from Industrial Automation and Control, Intelligent Transportation, Medical Imaging, Digital Signage, to unmanned military & defence – to name but a few. There numerous applications where a Embedded Computer can be deployed.

Q: Where are embedded computers?

A: Embedded systems are commonly found in consumer, industrial, automotive, home appliances, medical, telecommunication, commercial, aerospace and military applications. Telecommunications systems employ numerous embedded systems from telephone switches for the network to cell phones at the end user.

Q: What are two types of embedded computers?

A: There are several types of embedded computer systems that we will discuss today, and these include the following: rugged industrial PCs, in-vehicle computers, IoT gateways, embedded automation computers, small form factors PCs, and panel PCs.

Q: What is the general purpose of embedded computer systems?

A: Embedded systems are computer systems that carry out a small number of tasks. When designing an embedded system, manufacturers will focus on the dedicated functions that the system needs to perform. They will optimise the system until it performs each of these tasks very efficiently.

Q: What are the benefits of embedded computers?

A: Embedded systems offer several advantages, such as increased reliability due to their dedicated function, lower power consumption, compact size, and the ability to perform real-time operations, making them suitable for time-sensitive applications.

Q: What is an embedded computer and its functions?

Q: What are the tasks of embedded computers?

A: These embedded systems monitor and control systems such as climate control, flight control systems, and communication systems. Home automation systems use embedded systems that perform a variety of tasks, such as regulating temperature, adjusting lighting, operating home security systems, and other connected devices.

Q: What is an Embedded Computer also known as?

A: Embedded computer systems go by many names (Box PC, Gateway, Controller, Industrial PC, etc.). An embedded PC is essentially any computer system that is designed for a specific use and implemented as part of a larger device, intelligent system, or installation.

Q: What are the characteristics of an Embedded Computer?

A: Embedded systems are computer systems designed to perform dedicated functions. Their basic characteristics include single functionality, efficiency optimisation, reactivity to their environment and in many cases, strict real-time functionality.

As one of the leading industrial embedded computer manufacturers in China, we warmly welcome you to buy discount industrial embedded computer made in China here from our factory. All customized products are with high quality and competitive price. For more information, contact us now.

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