QUALITY CATEGORY A & CATEGORY B FACTORY

Industrial pc panel used for harsh control and visual tasks The low-power tablet computer series will provide the tenth-generation Intel Bayan processor J4125/J6412. These processors provide high-power computing and graphics performance at low power consumption. The solid tablets use an all-metal shell. Its visible area is made of tempered glass. It is scratched and seamless. It can reach the IP65 waterproof level and is easy to clean. Provide high-definition/full high-definition resolution LCD screen display visualization. If it is applied outdoors, you can also choose a display with an anti-glare and anti-fingerprint surface. The screen needs to be customized according to volume), and it is easy to read even under high-brightness lighting conditions. This is the best prerequisite for human-computer interaction operations. The low-power tablet computer series is equipped with the sixth generation of Intel Saisyan J4125/J6412 processors. In addition to the two display ports and two Gigabit Ethernet interfaces, the integrated tablets also have four USB 2.0 ports, two USB 3.0 ports, and two COM ports. Equipped with 64GB of fast NVMe SSD for storage, you can also integrate fast wireless connections of WIFI and Bluetooth. With their closed fan-free metal shell and sturdy system design, compact tablets can achieve longer service life and high system availability even in the harsh industrial environment, which has been proven thousands of times in the industry. The human-machine interface (HMI) has a built-in version and can also be used as a device to use the VESA installation arm attachment, so it can be easily integrated into various industrial environments. The tablet can be converted into an intuitive web panel, which can be easily configured and maintained. The display screen with IP65 protection grade is easy to clean and reflects. It can be cleaned up with dust and oil stains on the surface of the glass and the surface of the diagonal shell. Projected capacitors can also wear gloves to operate with gloves and detect drops to ensure safe operation. Customized solutions can be implemented quickly and economically. From the display of display, computing performance, and the flexibility of memory expansion, to the touch settings, I/O adjustment, the security reinforcement of BIOS and operating systems, software installation, personalized software, personalized software, personalized software, software installation, personalization Brand, customized services and maintenance kits and special packaging.

Strong computing performance, compact design, and maximum scalability High -performance box -type computer, equipped with the 12th and 13th generation Intel Core processors, is suitable for applications that require harsh Xinhe Smart is the leading IoT/embedded computer technology provider. Now it is equipped with the 12th generation and 13th generation Intel Core processor with powerful BOX SM12H embedded box computers, as well as up to 24 processor kernels. Essence The box computer not only has strong computing performance but also has the greatest scalability in a compact design and maximum 34 DB low noise levels ("whisper quiet operation"). This makes the system very suitable for applications in the fields of high-end image processing, SCADA/MES applications, artificial intelligence, and machine learning. The core of Box SM12H is the main board of industrial control, supporting the 12th and 13th generation Intel Core i3/i5/i7/i9 processor. The motherboard is equipped with two DIMM slots for high-performance DDR5 memory for up to 64GB. The fast NVMe SSD with a 1TB of 1TB is used for large-capacity storage. In addition, Box SM12H provides an easy-to-access "driver bracket", allowing an integrated 2.5 -inch SSD or two M.2 SSD (RAID 1). Box SM12H has two GBE ports and 4 USB ports (optional USB-C), which can ensure high data throughput and connection. It also has 2 DisplayPort and a serial interface. The input voltage is AC 110V ~ 240 V or 12 VDC, which is suitable for widespread industrial applications. In addition, fast wireless connections can be enabled by WIFI. For multifunctional extensions, Box SM12H provides one or two PCIe slots (16 PCIE X2 or 8 PCIe X10). This allows a network card with up to 3 GBE or PCIE graphics cards. Because various installation methods are adopted, they can be used in multiple ways. For example, you can use the VESA bracket to hang behind the display. Or, the system can operate in the control cabinet of the workbench (vertical and horizontal), under the table, on the wall, or using a special installation bracket.

With the rapid development of Internet of Things technology, the combination of industrial all-in-one pc and RFID readers has been widely used in various industries. In the field of lockers, this solution provides an innovative solution for storage management and security. This article will focus on the application of industrial all-in-one machines in lockers.   An industrial all-in-one computer is a special-purpose computing device that integrates computing power, a display screen, input and output interfaces, and other functions. Its robustness, stability, and reliability make it ideal for locker applications. With RFID readers, the industrial all-in-one machine can realize an intelligent locker management system, providing efficient access control and management of items.   In lockers, the combination of an all-in-one computer and an RFID reader can bring several advantages. First of all, by using RFID tags, users can easily perform identity verification and item identification without using traditional keys or combination locks. This contactless authentication method improves convenience and security and reduces the risk of lost items.   Secondly, the industrial all-in-one machine can be connected to the background management system to realize real-time data synchronization and tracking. Administrators can monitor the usage, idle status, and item return of lockers through the industrial all-in-one computer. This real-time data feedback and management function improves the utilization and efficiency of the lockers and reduces the workload of manual management.   The industrial all-in-one machine can also be integrated with other devices, such as cameras, sensors, etc., to enhance the security of the locker. For example, monitoring locker areas with cameras can record access and provide video evidence. Sensors can detect intrusions or anomalies and trigger alarms to notify administrators. These features increase the security and monitoring capabilities of the locker.   To choose a suitable industrial all-in-one machine, the following points are worth considering: Ruggedness and protection level: Since lockers are usually used in harsh environments, industrial all-in-one machines should have sufficient dustproof, waterproof, and impact-resistant capabilities. Choose a product with a high degree of protection and a durable case.   Touch screen and display: Consider the touch screen and display characteristics of the industrial all-in-one machine. They should be high resolution, responsive and durable to provide a good user experience and reliable operability.   Interface and expansion capabilities: ensure that the industrial all-in-one machine has sufficient interfaces and expansion capabilities to adapt to different locker configuration requirements. Common interfaces include USB, serial ports, Ethernet, etc., which can easily connect cameras, sensors, and other external devices. MAIN: Front baffle aluminum alloy brushed metal process, seamless design, front panel IP65 waterproof and dustproof. Industrial LCD panel, wide viewing angle, Gonit, true color. Adopt a multi-point PCAP touch panel, covered with 2mm tempered glass, anti-vandalism. High-performance motherboard, 7x24 hours of continuous work. Support wall-mounted installation, desktop bracket, and embedded installation. 2 COM RS232, RS422/RS485 optional. Built-in dual frequency RFID 13.56 Mhz Mifare and 125 Khz EM. To sum up, the locker application scheme of the industrial all-in-one pc and RFID reader provides intelligent storage management and security control. When choosing the right industrial all-in-one, you need to consider its ruggedness, processing power, storage capacity, touchscreen, and display features, interface and expansion capabilities, network connectivity and communication capabilities, as well as supplier reliability and technical support. Through reasonable selection and application, the industrial all-in-one machine and RFID reader will bring a more efficient, intelligent, and safe management experience to the locker.

Custom industrial PCs usually involve customizing hardware and software according to specific needs and requirements. This may include the selection of specific processors, memory, input/output interfaces, operating system, and other additional features and expansion options. Customized industrial PCs may also need to consider special environmental conditions, such as high-temperature resistance, dust and water resistance, and shock resistance.   In order to customize an industrial PC, manufacturers typically need the following capabilities:   Technical expertise: Know an Industrial PC's hardware and software components, as well as their features and compatibility. Possess skills in system integration and configuration, and can select and assemble appropriate components according to customer needs.   Design and Engineering Capabilities: Capable of designing and engineering according to the specific needs of customers, including customized chassis, cooling systems, interface boards, and other necessary customized components.   Partner and Supply Chain Management: Establish partnerships with the right suppliers and partners to ensure access to required special components and custom parts. At the same time, manage the supply chain to ensure timely delivery and quality control.   Testing and Quality Control: Strict testing and quality control procedures are carried out to ensure that the performance, reliability, and stability of customized industrial PCs meet customer requirements. Our technicians will guide you in choosing a processor board for size, cooling, ruggedness, individual fit, usability, longevity, and more. With our many years of experience and primarily through talking to you, we find the ideal industrial PC solution for your application.   CORRECT ADVICE Which type of industrial computer is best for your needs? Tablet, industrial monitor, or (fanless) box mini PC? What factors need to be considered for your specific application? What are the possible solutions? To what extent is customization necessary? Clarify the basic application requirements, and then customize and optimize your equipment for your company. Save time and avoid risks From installing custom software to pre-testing and pre-loading, and custom images,...the customization possibilities are endless. However, making the necessary adjustments yourself can take a lot of valuable time or involve a lot of risk. Too often we see customers start tuning industrial PCs themselves, but end up not getting it right or with enough knowledge to successfully resolve the issue. This is why it is best to leave the customization of industrial PCs to professional manufacturers. They offer solutions that perfectly meet your needs and do so as efficiently as possible.   Therefore, although anyone can sell industrial PCs, customizing industrial PCs requires higher technical capabilities and resources, so not every company has these capabilities. Typically, such customization is done by a dedicated industrial PC supplier or system integrator who has the experience and expertise to meet the customer's specific needs.

With the continuous development of information technology, industrial computers are constantly updating to meet changing market demand. This article will explore the development trend of industrial computers, including three aspects: technology, application, and market.   Technical aspect   1. High performance The application of industrial computers is becoming more and more widely used, and the required computing power is getting higher and higher. In the future, industrial computers will use faster and more powerful processors, and will also support higher memory and faster storage speed. This will help improve the processing speed and operating efficiency of industrial computers.   2. Multi-functional Industrial computers are no longer just simple computers; they also need to support more functions. For example, industrial computers can be used to control robots, monitor equipment, and realize automated production. Therefore, future industrial computers will not only require higher performance, but also more sensors, controllers, and other devices to achieve these functions.   3. High reliability The use environment of industrial computers is usually worse than home computers, so industrial computers need higher reliability and stability. In the future, industrial computers will use more advanced radiators to ensure temperature control and stability, while better dustproof and waterproof performance.   4. Low power consumption With the enhancement of environmental awareness, industrial computers need to pay more attention to energy efficiency. In the future, industrial computers will adopt lower power consumption processors and other electronic components to reduce energy consumption and improve energy utilization efficiency.   Application   1. Industrial automation Industrial computers play a very important role in industrial automation. In the future, industrial computers will continue to support the development of industrial automation, including intelligent manufacturing, intelligent logistics, and intelligent storage.   2. Smart traffic Future industrial computers will be widely used in the field of intelligent transportation. For example, industrial computers can be used in urban traffic management systems, smart parking lots, and smart stations, thereby improving the efficiency and safety of urban transportation.   3. Smart medical care Industrial computers are also widely used in the medical field. In the future, industrial computers will support the automation and intelligence of medical equipment, such as medical imaging processing, medical robots, and intelligent pharmacies. This will help improve the efficiency and quality of medical services.   4. Smart Home With the rapid development of smart homes, future industrial computers will become an important part of smart home systems. Industrial computers can be used for the control and monitoring of smart homes, such as smart door locks, smart lights, and smart appliances.   Market aspect   1. Industrial Internet With the rapid development of the Industrial Internet, the future industrial computer market will face more excellent opportunities and challenges. Industrial computers will be combined with technologies such as cloud computing and the Internet of Things to jointly promote the development of the Industrial Internet.   2. Artificial intelligence The rapid development of artificial intelligence technology will have a profound impact on the future industrial computer market. Industrial computers will combine with artificial intelligence technology to jointly promote the development of intelligent production. 3. Globalization With the rapid development of globalization, the industrial computer market will gradually become global. In the future, industrial computers will not only meet the needs of the domestic market but also meet the needs of the international market to improve market competitiveness.   With the continuous development of information technology and the continuous changes in market demand, the industrial computer market will face more opportunities and challenges. In the future, industrial computers will be more high-performance, multifunctional, high-reliability, and low power consumption. At the same time, they will also be applied to more fields, such as industrial automation, intelligent transportation, smart medical care, smart home, and other aspects. At the same time, the industrial computer market will gradually become global, and it is necessary to pay more attention to the needs and competitiveness of the international market.

Project overview: The project aims to establish an automated pharmaceutical production system to improve production efficiency, reduce costs, and improve product quality and reliability. This system consists of various intelligent devices and software, including stainless steel industrial tablets, automated controllers, sensors, actuators, automation software, and data management systems. Stainless steel industrial tablets play an important role in this system, mainly in production line monitoring and control, data collection and analysis, quality control and quality assurance, warehouse management, and logistics control. They are installed on the production line to monitor and control various parameters in real-time, such as temperature, humidity, air pressure, and flow. In addition, they can also be used to scan and identify barcodes or QR codes to record and track quality-related data and manage and track the transportation and delivery of products. By using automated systems and stainless steel industrial tablets, artificial intervention, and operation errors can be reduced, and production efficiency and production line stability can be improved. In addition, through real-time monitoring and controlling various parameters, the accuracy and consistency of the production process can be ensured, thereby improving product quality and reliability. QYT solution: QYT is a cloud-based automated solution, including automation controllers, sensors, actuators, cloud data management systems, etc. This solution adopts modern technology, which can achieve comprehensive production line automation and data management, which can improve production efficiency, reduce costs, and improve product quality and reliability. In this pharmaceutical automation project, the QYT solution can be used with stainless steel industrial tablet computers to achieve comprehensive automation and data management of the production line. The QYT solution can monitor and control various parameters of the production line in real-time, such as temperature, humidity, air pressure, and flow. Real-time data collection and analysis are performed through cloud data management systems, rapid processing of abnormal conditions, and improving production efficiency and production line stability. QYT solution advantage: Efficient: QYT solution can achieve comprehensive production line automation and data management, greatly improving production efficiency. Precision: QYT solution can monitor and control various parameters of the production line in real-time to ensure the accuracy and consistency of the production process, and improve product quality and reliability. Convenience: The QYT solution is based on the cloud, and data access and management can be performed anytime, anywhere, and the operation is easy and convenient. Safety: The QYT solution adopts modern technology and has high data security and stability to ensure that production data will not be leaked or damaged. Equipment specifications: Stainless steel industrial tablets should meet the following specifications: Protection level: stainless steel 304 or stainless steel 316 shell, which meets the protection level IP65 or above, can resist harsh environments such as water, dust, and corrosion. Screen size: According to actual needs, the appropriate screen size should be selected so that the operator can clearly check the various data and information on the production line. Operating system: You should choose a stable operating system, such as Windows or Linux. Processor: Based on the computing power required for daily production, the efficient processor is selected reasonably to ensure that the tablet can quickly respond to the operator's instructions and run various automated software. Storage capacity: If a large amount of data is required, large storage space is required, such as 512GB or 1TB or even larger, to store various data and files. Communication interface: Generally, it is equipped with a variety of communication interfaces, such as Wi-Fi, Bluetooth, Ethernet, etc. to ensure that tablet computers can perform data exchange and communication with other devices and systems.

In most industrial applications, DIO and GPIO are usually used as digital input and output interfaces for digital communication and control with external devices. They are one of the most basic and common interface types in digital circuits and digital signal processing technology. Let's introduce the characteristics of them: 1. GPIO is a general input and output interface. It is usually supported by the controller chip or I/O module to connect various digital input and output devices, such as buttons, LED lights, motors, electronic switches, etc. GPIO has greater flexibility and programming and can be replaced with different functions by programming to meet specific application needs. For example, GPIO can be configured as PWM output, UART communication, and other functions, and it is usually more common in general processors (such as Raspberries, etc.). 2. DIO is a digital input and output interface, which is usually used to connect digital input and output devices, such as sensors, actuators, relays, etc. Through the DIO interface, the host can read and control the status of external digital devices. The DIO interface usually includes multiple digital input channels and digital output channels, which can be configured and controlled by programming. DIO is usually supported by the controller chip or I/O module, and its function is relatively fixed, usually only for digital input-output. 3. What is the difference between DIO and GPIO? The difference between DIO and GPIO may make people feel a little vague, but the main difference between them is their functions and uses. DIO is usually used to communicate and control with digital input and output devices. For example, in industrial applications such as automation control, robot control, data collection, and monitoring, the state of the sensor and actuator is usually required to be read and controlled. GPIO is more suitable for connecting various digital input and output devices and can be configured to different functions by programming. The flexibility and programming of GPIO make it particularly useful in embedded systems and single-chip microcomputer development. In industrial applications, DIO and GPIO are usually supported by the controller chip or I/O module, which can be configured and controlled through the software program of the host. These digital input and output interfaces are widely used in industrial control applications, including automated control, robot control, data collection, and monitoring. In addition to its use in industrial applications, DIO and GPIO are also widely used in other fields. For example, in embedded systems and single-chip microcomputer development, GPIO is usually used to connect various digital input and output devices and can be replaced with different functions by programming. This flexibility and programming make developers more conveniently achieve various embedded applications. In addition, DIO and GPIO are also widely used in the fields of the Internet of Things and smart homes to achieve digital communication and control between devices. With the continuous development of industrial automation technology, the functions and performance of DIO and GPIO are also continuously improved, which will provide future industrial control applications with more advanced and reliable digital communication and control technology.

Industrial all-in-one pc and PLC all-in-one pc are both devices used for industrial automation control, but their designs and purposes are different. An all-in-one industrial machine is a device that integrates various functions such as a computer, display, and touch screen. On the other hand, a PLC all-in-one machine is specifically designed for controlling and executing industrial automation tasks. Its design is more streamlined and only includes necessary input/output interfaces, controllers, and communication interfaces. The characteristics of a PLC all-in-one machine are stable and reliable, with strong anti-interference ability, suitable for automation tasks that require rapid response and high-precision control.   Although industrial all-in-one pc and PLC all-in-one pc are widely used in the field of industrial automation control, they have certain differences in cost, application environment, and special advantages.   In terms of equipment cost, the cost of industrial all-in-one pc is relatively high because they require high computing and data processing capabilities, as well as large memory capacity and storage space. They also need to have high-definition touch screens, sturdy casings, and excellent heat dissipation design, among other factors, all of which increase the equipment cost. In contrast, PLC all-in-one pc is relatively low in cost, with a more streamlined design that only includes necessary input/output interfaces, controllers, and communication interfaces.   In terms of the application environment, an industrial all-in-one pc is usually used in automation control systems that require advanced functions such as data analysis and processing, data visualization, and human-machine interaction. They typically have high computing and processing capabilities and can install and run various industrial software, such as SCADA (supervisory control and data acquisition system) and MES (manufacturing execution system). For example, industrial all-in-one pc can serve as the core controller of a factory's MES, responsible for managing information on materials, equipment, and personnel during the production process, and providing advanced functions such as real-time data analysis and decision support. They are suitable for automation control systems that require advanced functions such as data analysis and processing, data visualization, and human-machine interaction. PLC all-in-one pc are more suitable for automation tasks that require rapid response and high-precision control, such as automation control on production lines and robot control. PLC all-in-one pc typically have strong reliability and anti-interference capabilities, enabling them to operate stably in complex industrial environments.   In addition, both industrial all-in-one pc and PLC all-in-one pc have their unique advantages. The advantage of an industrial all-in-one machine lies in its flexibility and scalability, being able to adapt to various automation control application scenarios and provide advanced data analysis and processing capabilities. The advantage of a PLC all-in-one machine lies in its reliability and high performance, enabling high-precision automation control and rapid response. PLC all-in-one pc typically have powerful protective performance and anti-interference ability, enabling them to operate stably in complex industrial environments. Both industrial all-in-one pc and PLC all-in-one pc are important industrial automation control devices, playing an irreplaceable role in the field of industrial automation control. For automation control systems that require advanced functions such as data analysis and processing, data visualization, and human-machine interaction, industrial all-in-one pc are a good choice. For automation tasks that require rapid response and high-precision control, PLC all-in-one pc is a good choice. Users need to consider factors such as functionality, performance, cost, and reliability when selecting devices based on their own needs and application scenarios to choose the most suitable device.

Industrial computers need to be designed with electromagnetic compatibility (EMC) considerations in mind. This includes designing EMC for the ventilation ports, the seams between the chassis, the connection between the circuit boards and the chassis, and the surface of the chassis.   EMC design for ventilation ports: While ventilation ports are crucial for cooling, they can also become pathways for electromagnetic waves. Therefore, when designing ventilation ports, it's important to consider their impact on electromagnetic radiation and induction, and to take appropriate shielding measures such as adding shield covers or metal mesh around the ports.   EMC design for seams between chassis: The seams between chassis are one of the main pathways for electromagnetic radiation and induction. To reduce electromagnetic leakage, metal gaskets and EMI shielding materials can be used to seal the seams. Additionally, it's important to ensure a good interface connection between the chassis and the circuit board to reduce electromagnetic leakage and interference.   EMC design for the connection between circuit boards and chassis: The ground connection between circuit boards and chassis is a critical part of EMC design as it determines the degree of electromagnetic leakage and induction. To ensure good grounding, multiple PCB layers, connectors, and conductive pads can be used. When designing connectors, EMC performance should also be considered, and connectors that meet EMC standards should be selected.   Special design for the surface of the chassis: The surface of the chassis can be directly exposed to the external environment, so it's important to consider its sensitivity to external electromagnetic radiation. Special surface treatment techniques such as electroplating and spraying can be used to reduce electromagnetic interference and leakage. Additionally, shield materials and electromagnetic absorption materials can be added to the chassis surface to reduce electromagnetic leakage and interference.   In summary, EMC design requires comprehensive consideration of all aspects to ensure that industrial computers meet EMC standards and do not cause electromagnetic interference to surrounding electronic devices and the environment, nor be affected by electromagnetic interference from surrounding electronic devices and the environment.

As the fifth generation (5G) of mobile networks continues to roll out globally, it presents numerous opportunities for industrial computers to revolutionize various industries. Here are five potential application scenarios for industrial computers in the era of 5G: Smart Manufacturing: 5G-enabled industrial computers can be utilized in smart factories to enable real-time monitoring and control of production processes. With ultra-low latency and high bandwidth, 5G can enable industrial computers to connect and communicate with many smart devices and sensors, facilitating seamless coordination of machines and systems. Industrial computers powered by 5G can optimize production workflows, improve efficiency, and reduce downtime, leading to cost savings and increased productivity. Remote Operations: Industrial computers equipped with 5G can enable remote operations in hazardous or hard-to-reach environments. For example, in the oil and gas industry, 5G-enabled industrial computers can be deployed in offshore platforms, pipelines, or remote drilling sites, allowing operators to monitor and control operations from a safe location. This can enhance safety, reduce the need for physical presence, and lower operational costs. Autonomous Vehicles: 5G can enable autonomous vehicles to communicate with each other and the surrounding infrastructure in real-time. Industrial computers embedded in autonomous vehicles, such as drones, autonomous robots, or self-driving cars, can leverage 5G's low latency and high bandwidth to exchange data with other cars, control centers, and cloud-based services. This can enable efficient coordination, navigation, and decision-making, leading to safer and more reliable autonomous operations. Augmented Reality (AR) and Virtual Reality (VR): Industrial computers powered by 5G can deliver high-quality AR and VR experiences in industrial settings. For instance, 5G can enable remote AR-assisted maintenance or repair tasks, where technicians can wear AR headsets connected to industrial computers to receive real-time instructions or visualizations. This can streamline complex tasks, reduce errors, and enhance worker productivity. Internet of Things (IoT) Deployment: 5G can accelerate the deployment of IoT devices in industrial environments. Industrial computers can serve as gateways or edge computing nodes that connect and manage IoT devices, sensors, and systems. With 5G's low latency and high bandwidth, industrial computers can process and analyze vast amounts of IoT data locally, enabling real-time decision-making, predictive maintenance, and process optimization. 5G presents a plethora of opportunities for industrial computers to enable transformative applications in various industries, ranging from smart manufacturing and remote operations to autonomous vehicles, AR/VR, and IoT deployments. By leveraging the capabilities of 5G, industrial computers can unlock new levels of connectivity, efficiency, and productivity in the industrial landscape.

A fanless computer, also known as a passively cooled computer, is a type of industrial computer that does not require any fans for cooling. Instead, it relies on passive cooling methods such as heat sinks and heat pipes to dissipate heat generated by the computer's components. Here are some advantages of using a fanless computer in industrial applications:   Reliable and durable: Fanless computers have fewer moving parts compared to traditional computers with fans, which makes them less prone to mechanical failures. The absence of fans also reduces the risk of dust and debris accumulation, which can improve the overall reliability and durability of the computer, especially in harsh industrial environments. Noiseless operation: Fans can generate noise when they spin, which can be undesirable in quiet industrial environments or applications where noise is a concern. Fanless computers offer silent operation, making them suitable for noise-sensitive applications such as audio recording, broadcasting, or medical settings where a quiet environment is essential. Dust and debris resistance: Fans in traditional computers can draw in dust and debris, which can accumulate over time and affect the performance and reliability of the system. Fanless computers are inherently more resistant to dust and debris due to the absence of fans, making them ideal for industrial environments with high levels of dust, dirt, or other contaminants. Increased system longevity: The use of passive cooling methods in fanless computers can help extend the lifespan of the computer by reducing wear and tear on fans, which are known to be a common point of failure in traditional computers. This can result in longer operational lifetimes and lower total cost of ownership (TCO) for industrial computing systems. Improved thermal management: Fanless computers typically incorporate advanced thermal management techniques, such as heat sinks, heat pipes, and thermal pads, to efficiently dissipate heat generated by the computer's components. This can result in better temperature regulation and improved performance, especially in industrial applications that require stable and reliable operation under varying temperature conditions. Compact and space-saving design: Fanless computers are often designed to be compact and space-saving, making them suitable for installations with limited space or where a small form factor is required. This can be beneficial in industrial settings where space is at a premium, such as in embedded systems, factory automation, or transportation applications. Reduced maintenance: With no fans to clean or replace, fanless computers typically require less maintenance compared to traditional computers. This can result in lower maintenance costs and reduced downtime, making fanless computers a preferred choice for industrial applications where minimizing maintenance efforts is important. In summary, fanless computers offer several advantages in industrial applications, including improved reliability, durability, noiseless operation, dust and debris resistance, increased system longevity, improved thermal management, compact design, and reduced maintenance requirements. These advantages make fanless computers an attractive choice for various industrial computing needs.

There are several ways to install a touch monitor, and the best method will depend on the specific requirements and constraints of the installation environment. Here are some common ways to install touch monitors:   Desktop stand: A desktop stand is a simple and convenient way to install a touch monitor on a desk or tabletop. The stand can be adjustable or fixed and can be used with monitors of different sizes. embedded mounting: embedded mounting is a way to install a touch monitor in a device or system where the monitor is integrated into the design and not meant to be removed. Pole mount: A pole mount is a flexible option that allows you to adjust the height and angle of the touch monitor. It can be mounted on a single pole or a double pole, depending on the size and weight of the monitor. VESA mount: Many touch monitors come with a VESA mount that is compatible with standard VESA mounting brackets. This allows the monitor to be mounted on various surfaces, including walls, poles, and desks. Open frame mount: An open frame mount is used when the touch monitor needs to be integrated into a kiosk, enclosure, or other custom application. The monitor is mounted on a metal frame or bracket that is secured to the enclosure. When installing a touch monitor, it is important to ensure that the mounting method is secure and stable, and that the monitor is positioned at an appropriate height and angle for the intended use.

The required nits of brightness for touch monitors used in outdoor environments can vary depending on the specific application and conditions. Generally, a minimum of 1000 nits is recommended for touch monitors used in bright outdoor environments with direct sunlight. For especially bright conditions or applications, may be higher levels of brightness to ensure visibility. In addition to brightness, it is important to consider factors such as durability, heat dissipation, and anti-reflection capabilities when selecting a touch monitor for outdoor. A ruggedized design with protection against water, dust, and shock is important for outdoor use in rainy conditions, while efficient heat dissipation is necessary to prevent overheating in hot environments. Anti-reflection capabilities are also important for touch monitors used in outdoor environments. This can be achieved through specialized coatings or treatments that reduce glare and increase visibility in bright light conditions.

What is optical bonding? In all TFT LCDs, there is an air gap between the TFT panel and the cover glass. In high brightness displays, the air gap will cause repeated refraction of the monitor, and fog will also form in an environment with large temperature differences. Optical bonding is a layer of resin is applied between the glass or touchscreen and the TFT LCD to bond, them together to form a strong laminate without gaps.   Which industries are most suitable for optical bonding? Optical bonding is very popular in the military, marine, and medical industries. Due to the harsh environment, higher performance displays are required. When applied to equipment running outdoors or in strong sunlight environments, the optical bonding process is particularly suitable and more effective. What are the benefits of optical bonding? The normal display is produced by the light of the LCD reflecting through the gap and then to the outer glass of the screen. This reflection through the layer will weaken the strength and clarity of the final image, thereby reducing brightness and readability. Through optical bonding technology, we can be reduced internal reflections to provide better contrast, and interference and light reflection can be eliminated. More light gets through to the surface of the screen and therefore the image is brighter.