All categories
Featured selections
Trade Assurance
Buyer Central
Help Center
Get the app
Become a supplier
(112 products available)
Ready to Ship
Raspberry Pi Boards
The Raspberry Pi board series are some of the more common ARM11 development boards suitable for Desktop computing and software development. The Raspberry Pi Model B is an ARM11-based board that is inexpensive yet powerful enough for various computing tasks. Connection options include USB ports for peripherals and HDMI for display. GPIO pins are also included for basic physical computing. The board runs various operating systems, such as Raspbian and Ubuntu, for software development and projects.
Orangepi boards
Orangepi boards provide a cost-effective ARM11 platform for users to do basic computing tasks and learn physical computing through computing. The OrangePi One and OrangePi Lite are notable ARM11 boards with relatively inexpensive and simple features to undertake basic desktop computing and educational projects. Both boards support Linux and Android operating systems. They also have GPIO connectors for connecting the user to physical computing devices and other hardware expansion options through the microSD board for storage and additional features.
BeagleBone boards
While most BeagleBone boards use Cortex-A processors, some older models have ARM11 cores. One such board is BeagleBone White, which is widely used in industry due to its robustness and reliability. It has extensive connectivity options, including USB and Ethernet, and runs Linux for professional applications and industrial tasks. The board also contains a large number of I/O connectors needed by users for physical computing and hardware expansion, making it ideal for development in robust environments.
Odroid boards
Odroid boards are more powerful ARM development platforms, such as Odroid C1 and U3, which fit desktop computing and some related educational projects. The cores used in these boards are Cortex-A series, which are an improvement on ARM11 for home computing and media use. Connectivity options are sufficiently expansive, with USB and HDMI interfaces available, while system software includes Android and Ubuntu. The boards are suited for development tasks at home and in the educational sector, offering a balance of performance and low cost.
Industry / Manufacturing
ARM development boards are used within industry/ manufacturing to develop and control embedded systems for industrial machinery, automation systems, and IoT devices. Their processing power allows the running of complex applications, while their connectivity options enable integration with industrial networks and other hardware.
Automation/Control Systems
Development boards are used to create control systems that automatically manage and monitor various operations in an industrial setup. Their robustness and ability to resist harsh conditions make them suitable for such applications.
Health/ Medical
In health/ medical, ARM11 development boards power diagnostic equipment, patient monitoring systems, and medical imaging devices. Their energy efficiency and processing capability allow real-time data processing and embedded system operation in medical devices.
Wearables and Monitoring Systems
ARM boards are widely used in wearables, such as fitness and patient monitoring devices, providing the necessary processing power and connectivity features. Their compact size and low power consumption also make them ideal for these applications.
Telecommunications
ARM11 boards are applied in network equipment, such as routers and switches, where they aid in the management of data flows and processing of network protocols. Their multi-core capabilities lend themselves well to these demanding network operations.
Embedded Systems
Development boards are the center of embedded computation in telecom devices, enabling the implementation of complex algorithms while maintaining system integration. Advanced power management features also ensure energy efficiency in these devices.
Auto/Motive
In auto/motive contexts, ARM11 development boards serve as the basis for built-in equipment, such as infotainment systems, navigation devices, and vehicle control systems. Due to their processing capability and connectivity features, the boards can support complicated computations while being integrated into different vehicle components and systems.
Infotainment Systems
ARM boards provide a powerful platform for developing advanced auto infotainment solutions that support several applications, from media playing to navigation systems.
Navigation and Control Systems
ARM11 boards are used to build accurate and responsive navigation systems, with their processing power improving the performance of route calculations and real-time tracking.
Aerospace
ARM development boards find their application in many tasks, including satellite systems, flight control, and ground-based tracking systems. Their fault tolerance makes them suitable for real-time critical applications.
Satellite Systems
ARM11 boards are featured in satellite systems, where they are used in the processing of data and control of satellite operations. Their ability to withstand radiation and extreme conditions makes them ideal for space applications.
Research and Tracking Systems
The boards are also used in ground-based tracking stations and other aerospace research applications due to their processing capabilities and great energy efficiency.
The ARM development boards vary in core number, clock speed, memory capacity, peripheral diversity, connectivity options, board size, and power requirements. These factors significantly influence the suitability of the boards in certain applications while defining users' needs and desires. Some common variations include:
Cores
The ARM development boards have differences in the number of cores they have, with some having single-core and others having multi-core. Multi-core boards give much better performance in applications that require more processing power, while single-core boards are enough for simpler tasks.
Clock Speed
Clock speed variation affects the overall processing speed of the boards. Higher clock-speed boards perform many computations faster, making them more suitable for complex applications, while those with lower speed are appropriate for simple tasks requiring less energy.
Memory Capacity
Development board differences are in RAM and ROM capacity, affecting their ability to handle different applications. Higher RAM capacity boards run more applications simultaneously and improve multitasking, while greater storage capacity boards allow users to install many operating systems and software.
Peripheral
Diversity in peripheral availability affects the development boards' application. Some boards have integrated peripherals, such as Wi-Fi, Bluetooth, or cameras, while others require that these be added externally through connectors. Boards with integrated peripherals are suitable for embedded applications, while those requiring external peripherals give much flexibility.
Connectivity
Differences exist in the connectivity options available, from basic GPIO and UART to advanced ones like USB, HDMI, Wi-Fi, and Bluetooth. A large variety of options foster interaction with other devices or systems, making it possible to develop more complex projects.
Size
The size varies, depending on the application for which it is intended. Smaller boards cater to embedded systems and portable gadgets, whereas larger ones, featuring more connection options and advanced hardware, are great for development and experimentation.
Power requirements
Power consumption varies, some boards designed to consume less power to suit long-term or portable applications, while high-performance boards consume more power but offer increased processing capabilities. It is important to match the power requirements of the board to the specific application demands to ensure optimal performance.
Project Requirements
Identifying specific project requirements will make a choice easier concerning operating system and application software requirements. Certain development boards are designed for embedded operations and other types used for desktop computing, depending on the intensity and type of tasks to be performed. An appropriate board will have a required number of processing cores and sufficient memory and storage.
Power Consumption
The boards will also differ in power consumption, which is essential for time- and energy-efficient projects. Energy-efficient boards are better for long-term or portable uses, while high-power-consuming boards may perform more intensive tasks. In cases where power efficiency is crucial, a low-power-consuming board is more appropriate; in intensive tasks, a higher-consuming power would suit the purpose.
Costs
Development board prices will widely differ, depending on their specifications and features. Establishing a budget and considering costs within the limit is important while choosing according to the project's necessities. Sometimes, it will be necessary to spend a little extra, especially if crucial features are missing, while at other times, a lower-cost option will suffice.
Development and Community Support
The level of development and community support available has a huge effect on project success. A large community can be helpful in providing resources, tutorials, and forums for troubleshooting problems. Development boards with official support tend to be updated frequently, ensuring software stability and security. When choosing a board, consider the degree of development support and community activity available to the board.
Hardware and Expansion options
Several ARM11 development boards also provide basic computing peripherals, such as sensors, cameras, or interfaces. Hardware expansion options will include connectors for adding more shields or other hardware to enhance functionality. Many boards also support various sensor types, which will be useful for projects focusing on physical computing.
Connectivity options
The boards will also differ in connectivity options, ranging from basic GPIO and UART to advanced USB, HDMI, Wi-Fi, and Bluetooth. A large variety in connection fosters interaction with other devices or systems, making it possible to develop more complex projects. Choose a board based on the project connectivity needs. For instance, boards with integrated Wi-Fi and Bluetooth might be more beneficial in developing IoT projects than simple GPIO and UART.
An ARM11 development board is a computing platform that comprises an ARM11 CPU core, meant for embedded system application development and experimentation. These boards have essential features, such as processing units, memory, storage, and interface units, which enable developers to create software for ARM-based products.
ARM11 development boards are mainly used to develop embedded systems in various areas, such as consumer electronics, medical devices, automotive systems, and industrial automation. They are also used in learning and prototyping to help developers understand how to implement ARM architecture in real-world applications.
The advantages include versatility, ease of use, and relatively low cost, especially considering the power and functionality that these boards can offer.
Though the other processors also share similar characteristics, the ARM Cortex-A family offers better performance than Arthur—11 embedded development boards. However, the ARM11 architecture is still relevant to many applications owing to its simplicity and effectiveness.
Various operating systems, such as Linux, Android, and real-time operating systems, can run on these boards, depending on the specific capabilities and requirements.
ARM11 boards can be powered directly from an AC socket or through an external battery or USB connection to a computer for greater portability.
Due to the hardware and software support available for these boards and the resources, they are suitable for beginners and experienced users.
Development boards, such as Raspberry Pi and BeagleBone, are some popular boards that utilize the ARM architecture, though most integrate the more advanced Cortex-A series.
Most ARM11 development boards support hardware expansion through GPIO pins or other connectors, enabling users to add sensors, modules, and other components for various projects.
