SKU | AN3588 |
Processor | 8-core 64 bits Large & Small Core Architecture, 4 *Cortex-A76, 4*Cortex-A55 |
Memory | 4G/8G |
Storage | 32G/64G/128G/256G |
Net work | 2*LAN |
COM | 2*RS232（COM1 support RS485） |
USB | 6*USB |
Display | 1*HDMI |
Expand slot | 1*LINE OUT |
Operating system | Android , Linux(Ubuntu/Debian) |
Power Input | DC12V |
Size included rack (mm) | 183*183*45 |
Individual Gross Weight (KG) | 0.90 |
Mounting Options | Wall-mounted / Desktop |
Operating Temperature | -30 ~ +70°C |
Storage Temperature | -40 ~ +80°C |
Storage Humidity *Non-condensing | 5 ~ 90% |
> Advantages:
There are the most advantages of using ARM-based embedded computers, as outlined in the AN3588 document:
Energy Efficiency: ARM processors are known for their energy efficiency, making them ideal for embedded systems where power consumption is a critical factor. This can result in longer battery life for portable devices and lower energy costs for systems that are always on.
Performance: Despite their low power consumption, ARM processors offer high performance capabilities. This makes them suitable for a wide range of applications, from simple sensor monitoring to complex data processing tasks.
Scalability: ARM-based embedded computers come in a variety of configurations, allowing developers to choose the right level of performance and features for their specific application. This scalability makes it easy to tailor the device to meet the requirements of the project.
Cost-Effectiveness: ARM processors are cost-effective compared to other processor architectures, making them a popular choice for embedded systems with budget constraints. This can help reduce overall project costs without sacrificing performance.
Flexibility: ARM-based embedded computers are highly versatile and can be used in a wide range of applications, from industrial automation to consumer electronics. They can be easily customized and integrated into existing systems, making them a flexible choice for developers.
Overall, ARM-based embedded computers offer a combination of energy efficiency, performance, scalability, cost-effectiveness, and flexibility that make them a popular choice for a wide range of embedded system applications. The AN3588 document may provide further details on these advantages and how to leverage them in your projects.
>Applications:
ARM-based embedded computers, as discussed in the AN3588 document, are used in a wide range of applications across various industries. Some common applications include:
Industrial Automation: ARM-based embedded computers are used in industrial automation systems for tasks such as monitoring and controlling machinery, process automation, and data acquisition. Their energy efficiency and performance make them well-suited for these applications.
Internet of Things (IoT): ARM-based embedded computers play a crucial role in IoT applications, where they are used to connect and control smart devices, collect and analyze data, and enable communication between devices and the cloud. Their scalability and flexibility make them ideal for IoT deployments.
Consumer Electronics: ARM-based embedded computers are commonly found in consumer electronics devices such as smartphones, tablets, smart TVs, and wearable devices. Their low power consumption and high performance capabilities make them a popular choice for these applications.
Automotive: ARM-based embedded computers are used in automotive systems for tasks such as engine control, infotainment systems, advanced driver assistance systems (ADAS), and telematics. Their reliability and real-time processing capabilities make them suitable for automotive applications.
Medical Devices: ARM-based embedded computers are used in medical devices for tasks such as patient monitoring, diagnostic imaging, medical instrumentation, and telemedicine. Their energy efficiency and processing power are essential for these critical applications.
Aerospace and Defense: ARM-based embedded computers are utilized in aerospace and defense applications for tasks such as avionics systems, unmanned aerial vehicles (UAVs), radar systems, and secure communications. Their reliability, performance, and security features make them well-suited for these demanding environments.
Overall, ARM-based embedded computers are versatile and can be adapted to a wide range of applications across industries, thanks to their energy efficiency, performance, scalability, and flexibility. The AN3588 document may provide more specific examples and guidelines on how to implement these computers in various applications.
SKU | AN3588 |
Processor | 8-core 64 bits Large & Small Core Architecture, 4 *Cortex-A76, 4*Cortex-A55 |
Memory | 4G/8G |
Storage | 32G/64G/128G/256G |
Net work | 2*LAN |
COM | 2*RS232（COM1 support RS485） |
USB | 6*USB |
Display | 1*HDMI |
Expand slot | 1*LINE OUT |
Operating system | Android , Linux(Ubuntu/Debian) |
Power Input | DC12V |
Size included rack (mm) | 183*183*45 |
Individual Gross Weight (KG) | 0.90 |
Mounting Options | Wall-mounted / Desktop |
Operating Temperature | -30 ~ +70°C |
Storage Temperature | -40 ~ +80°C |
Storage Humidity *Non-condensing | 5 ~ 90% |
> Advantages:
There are the most advantages of using ARM-based embedded computers, as outlined in the AN3588 document:
Energy Efficiency: ARM processors are known for their energy efficiency, making them ideal for embedded systems where power consumption is a critical factor. This can result in longer battery life for portable devices and lower energy costs for systems that are always on.
Performance: Despite their low power consumption, ARM processors offer high performance capabilities. This makes them suitable for a wide range of applications, from simple sensor monitoring to complex data processing tasks.
Scalability: ARM-based embedded computers come in a variety of configurations, allowing developers to choose the right level of performance and features for their specific application. This scalability makes it easy to tailor the device to meet the requirements of the project.
Cost-Effectiveness: ARM processors are cost-effective compared to other processor architectures, making them a popular choice for embedded systems with budget constraints. This can help reduce overall project costs without sacrificing performance.
Flexibility: ARM-based embedded computers are highly versatile and can be used in a wide range of applications, from industrial automation to consumer electronics. They can be easily customized and integrated into existing systems, making them a flexible choice for developers.
Overall, ARM-based embedded computers offer a combination of energy efficiency, performance, scalability, cost-effectiveness, and flexibility that make them a popular choice for a wide range of embedded system applications. The AN3588 document may provide further details on these advantages and how to leverage them in your projects.
>Applications:
ARM-based embedded computers, as discussed in the AN3588 document, are used in a wide range of applications across various industries. Some common applications include:
Industrial Automation: ARM-based embedded computers are used in industrial automation systems for tasks such as monitoring and controlling machinery, process automation, and data acquisition. Their energy efficiency and performance make them well-suited for these applications.
Internet of Things (IoT): ARM-based embedded computers play a crucial role in IoT applications, where they are used to connect and control smart devices, collect and analyze data, and enable communication between devices and the cloud. Their scalability and flexibility make them ideal for IoT deployments.
Consumer Electronics: ARM-based embedded computers are commonly found in consumer electronics devices such as smartphones, tablets, smart TVs, and wearable devices. Their low power consumption and high performance capabilities make them a popular choice for these applications.
Automotive: ARM-based embedded computers are used in automotive systems for tasks such as engine control, infotainment systems, advanced driver assistance systems (ADAS), and telematics. Their reliability and real-time processing capabilities make them suitable for automotive applications.
Medical Devices: ARM-based embedded computers are used in medical devices for tasks such as patient monitoring, diagnostic imaging, medical instrumentation, and telemedicine. Their energy efficiency and processing power are essential for these critical applications.
Aerospace and Defense: ARM-based embedded computers are utilized in aerospace and defense applications for tasks such as avionics systems, unmanned aerial vehicles (UAVs), radar systems, and secure communications. Their reliability, performance, and security features make them well-suited for these demanding environments.
Overall, ARM-based embedded computers are versatile and can be adapted to a wide range of applications across industries, thanks to their energy efficiency, performance, scalability, and flexibility. The AN3588 document may provide more specific examples and guidelines on how to implement these computers in various applications.
