For those with experience, what type of daily support has been most valuable for you or your loved ones? I'd be interested to hear different perspectives.

FAQ

Q: What do professional caregivers help with daily?
A: They often assist with personal care, mobility, meals, medication reminders, and companionship.

Q: Can caregivers support independent living?
A: Yes, many people receive support while continuing to live comfortably in their own homes.

Q: Do caregivers provide emotional support?
A: Companionship and regular social interaction are important parts of quality care.

Q: Is home care suitable for older adults?
A: Home care can be a practical option for individuals who want support while remaining in familiar surroundings.

Q: What should families consider when choosing care services?
A: Experience, communication, reliability, and a person-centred approach are often key factors.

However the UP TWL is not mentioned in any of the documentation:

• Yocto GSG supported boards list or meta-up-board yocto machine configuration directory
• the 40pin board mapping tablesx
• Spec Matrix Overview Atom wiki page

There also isn't any UP TWI category here in the forums, so I can only post to the FAQ section.

I guess this means that it is probably similar to some existing board, but which existing board? When using yocto to build an image for the UP TWL, which machine configuration should be used and what yocto versions are supported?

I am working on a mid-level robotics project and I am trying to decide which UP board would best fit my needs. The project involves real-time motor control, multiple sensor inputs (including camera and LIDAR), and possibly some light AI processing (e.g., object detection).

I have looked at the UP Squared Pro and the UP Xtreme boards.., but I am a bit unsure about performance differences in real-world scenarios—especially regarding I/O latency and support for Ubuntu-based distros.

My questions are:

Which UP board would you recommend for real-time robotics tasks: ??

Are there any compatibility issues with ROS2 or OpenVINO on these boards ??

How is thermal performance under consistent processing loads ??

Would really appreciate input from anyone who has hands-on experience with these boards in robotics or automation applications.

Thanks in advance for your help !!

Marcos

salesforce training in pune

I recently purchased an Up Board and am trying to set it up with Ubuntu 22.04 for a personal project. However.., I am facing some issues with getting everything working smoothly. Specifically.., I am struggling to get the touchscreen and GPIO pins configured properly.

Has anyone here successfully set up Ubuntu 22.04 on the Up Board: ?? If so, could you share the steps or any guides that might help: ?? I have tried searching through the documentation but some instructions seem outdated or unclear for the latest Ubuntu release.

Also.., I am curious if there are any recommendations for additional drivers or software tools to improve the performance or make setup easier. Any advice on getting the best out of the Up Board with Ubuntu would be greatly appreciated! I have also gone through this https://forum.up-community.org/discussion/4921/support-for-ubuntu-power-apps-22-04 but still need some more help.

Thanks in advance for any help or tips you can provide !!

With Regards,

Marcos Andrew

I built a Yocto image (dunfell 3.1.7) for the Upboard and copied the generated .hdd image to a bootable USB drive. However, after connecting the USB drive to the Upboard for flashing the eMMC, the system does not boot and keeps looping in the boot menu.

I followed the instructions provided in this link for building the Yocto image: https://github.com/AaeonCM/meta-up-board/tree/dunfell?tab=readme-ov-file

I have also attached the image for reference.

Is CWAKE# used on the up4000 board? Is this the PCIe_WAKE_1V8 signal on the datasheet and is it pulled up on the UP4000 board or do I need to pull it up externally?

Is CPWRON used on the UP4000 board and if so, which signal on CN21 would this connect to?

My reference for these signals is: https://en.wikipedia.org/wiki/PCI_Express.

Thanks in advance for any support.

The 40-pin GPIO connector on UP Boards provides access to various interfaces like GPIO, UART, I2C, and SPI, which you can utilize depending on your operating system. The setup process differs slightly between Linux and Windows:

• Linux: To use the 40-pin GPIO on Linux, you need to install the UP DKMS driver. This driver, available on GitHub, supports various UP Board models and enables you to configure and control the pins for different functions: https://github.com/up-division/pinctrl-upboard

• Windows: On Windows, the UP SDK provides the necessary tools to access and control the 40-pin GPIO. The SDK includes drivers, documentation, and example code to help you get started with GPIO programming: https://downloads.up-community.org/download/up-sdk-for-windows-10-and-windows-iot/

To enable SPI on UP Boards, you need to install specific ACPI overrides since SPI devices are not enabled by default in user space. After downloading and installing the appropriate overrides, you can find the SPI devices under /dev/spi*. For instance, you might see /dev/spidev0.0 and /dev/spidev0.1. These devices can be accessed using standard Linux tools or libraries like spidev for Python.

The UP Framework is a software framework designed to help you utilize the GPIO, I2C, SPI, and other hardware features of UP boards. It includes libraries such as libmraa and supports popular Linux distributions. You can interact with the hardware using standard Linux APIs or through the UP Framework's higher-level abstractions. Installation typically involves adding the necessary drivers and libraries to your Linux environment. We offer two types of drivers for UP 40 pin: for Windows we offer the UP SDK and for Linux we offer the UP DKMS driver.

Read more about:

• Windows: https://downloads.up-community.org/download/up-sdk-for-windows-10-and-windows-iot/

• Linux: https://github.com/up-division/pinctrl-upboard

UP Boards are designed with long-term availability in mind, often offering a lifecycle of 7-15 years, which is crucial for industrial applications. Specific lifecycle details are provided for each board model, ensuring that users can rely on continued support and availability of components.

If you face issues, start by checking the UP Community forum for similar problems and solutions. Ensure your BIOS is up-to-date, verify your power supply and connections, and review any related documentation or troubleshooting guides available in the support section.

Yes, UP Boards are well-suited for AI and machine learning, particularly models like UP AI Core Series, which integrates dedicated AI accelerators, like Hailo 8 AI module. These boards support frameworks like TensorFlow, OpenVINO, and Caffe, enabling efficient AI processing at the edge.

UP Boards can be expanded using various interfaces like GPIO, USB, PCIe, and M.2 slots. You can add components such as AI accelerators, additional storage, wireless modules, or sensors to tailor the board to specific applications. You can read more about expansion options on the our UP Shop Module page ( https://up-shop.org/default/module.html ) and UP Shop Accessories page ( https://up-shop.org/default/accessory.html ).

UP Boards typically require a 5V or 12V power supply, depending on the model. However, some of our products require 19V power supply (UP Xtreme, UP Xtreme i12, UP Xtreme i14 and UP Element). It’s crucial to use a power supply that meets the specified voltage and current requirements to ensure stability and avoid damaging the board. Detailed power requirements for each model are available in the product datasheet which you can also download from here: https://downloads.up-community.org/

UP Boards support a variety of operating systems, including popular options like Ubuntu, Windows 10, and Yocto. Additionally, certain models also support specialized systems like ubilinux (a Debian-based distribution), and other custom Linux distributions optimized for industrial and embedded applications.

To set up an operating system on your UP Board, follow these general steps:

1. Download the OS Image:

You can find OS images and installation guides on the official UP Community GitHub page: https://github.com/up-board/up-community/wiki/Setup
Each OS has its own dedicated section with detailed instructions.

2. Create a Bootable USB Drive:

Use tools like Rufus (for Windows) or Etcher (for Linux/Mac) to create a bootable USB drive with the downloaded OS image.

3. Install the OS:

Insert the bootable USB drive into your UP Board and power it on. Access the BIOS by pressing the appropriate key during boot (typically ESC or F7). From the BIOS menu, set the USB drive as the primary boot device.

Follow the on-screen instructions to complete the OS installation.

4. Post-Installation Setup:

After installation, you may need to install additional drivers or packages depending on the OS. For example, on Ubuntu, you might need to add repositories or install specific packages to fully utilize the hardware capabilities of the UP Board.

For more detailed instructions on setting up each supported operating system, refer to the Setup Guide on GitHub: https://github.com/up-board/up-community/wiki/Setup

This guide provides step-by-step instructions and troubleshooting tips to help you get your UP Board up and running smoothly with your chosen OS.

The UP Community provides a platform where users can ask questions, share projects, and collaborate. It offers forums, technical updates, and a knowledge base that includes wikis, tutorials, and downloadable resources to help users get the most out of their UP products.

UP Boards and accessories can be purchased directly from UP Shop: https://up-shop.org/

And for more information about our products, visit our UP Board website: https://up-board.org/

Unlike many SBCs that use ARM processors, UP Boards utilize Intel processors, providing x86 architecture, which allows them to run standard desktop operating systems like Windows 10 and full-fledged Linux distributions. They are also tailored for professional and industrial use, offering extended temperature ranges, long lifecycle support, and advanced features like AI acceleration.

The UP Board is a versatile, high-performance single-board computer (SBC) designed for a wide range of applications including industrial automation, robotics, IoT, and AI edge computing. It’s equipped with powerful Intel processors, GPIO, and various I/O options, making it suitable for projects that require robust computing power in a compact form factor.