Forour install we chose to use an SSD via a USB3 caddy with USB boot enabled on the Pi. This did not go as expected. The images were successfully written to the drive, and they did indeed boot, but they failed at the device discovery portion of the setup. After discussing the issue with YouTuber leepspvideo, it turned out that our USB 3 caddy was to blame. So we opted to use an Argon M.2 case which has a built in USB 3 to SATA board. This worked the first time, and the added bonus is that our Pi is kept cool.
Before using Windows 11 on the Raspberry Pi 4 with an SSD, we first need to ensure that the firmware and bootloader of our Raspberry Pi 4 is set to the latest version so that we can boot from USB 3. The process to do this is detailed in our How to Boot Raspberry Pi 4 / 400 From a USB SSD or Flash Drive. Please complete those steps before moving on.
There are drawbacks, however. This method takes longer than the manual method (shown below) which involves using a PC to generate the ISO file. Depending on your Internet connection and whether anything fails (which it can, causing you to start again), this method could take an hour or two. The manual (via PC) method below should take less than an hour but has more steps and requires a PC.
The install process will take some time, possibly up to an hour. Take no action but continue to monitor the output for any errors. There is a chance that the install may fail, if so close the terminal and repeat the previous steps,
9. Power off your Raspberry Pi, and remove the Raspberry Pi OS boot drive / micro SD. Ensure your Windows 11 drive is connected via USB3 and then power up your Raspberry Pi
The first boot will take quite some time. Leave the installation to complete and you will soon be presented with the typical Windows 11 setup screens. Follow these screens to complete the installation.
The command prompt will now fill with text. This is the output of a command that will download the Windows 11 for Arm image, patch it and then prepare an ISO image. This process may take some time, depending on your Internet connection and the power of your computer.
9. Insert a micro SD card / SSD via USB into your PC. The drive should appear and be ready for use. Please note that the drive will be formatted, and any existing data on the drive will be lost.
17. Check the installation overview. Is the correct drive selected? Have you chosen the correct model of Raspberry Pi? Click Install. The installation process will take around 10 minutes for an SSD. MicroSD installations are longer.
With the Windows 11 micro SD / SSD inserted and our Raspberry Pi booting we now have to setup the Windows 11 install using the standard post installation setup sequence. Follow the process and your Windows 11 Raspberry Pi is ready for use.
8. Ensure that the CPU Clock is set to Default in the CPU configuration menu, Any overclocking at this time will prevent Windows 11 from booting. Press Esc until you reach the first menu.
In our testing, overall performance is decent, in fact it was much better than our 2020 Windows 10 install. Boot time was good, longer than Raspberry Pi OS, but nothing major. Feeling more like an Intel N4100 Celeron in general use.
Once the desktop was loaded the overall feel of Windows 11 on Raspberry Pi was responsive. Windows 11 responded to our input with minimal lag, and moving windows around the screen held up pretty well. The Edge web browser provided a good browsing experience.
Les Pounder is an associate editor at Tom's Hardware. He is a creative technologist and for seven years has created projects to educate and inspire minds both young and old. He has worked with the Raspberry Pi Foundation to write and deliver their teacher training program \"Picademy\"."}), " -0-10/js/authorBio.js"); } else console.error('%c FTE ','background: #9306F9; color: #ffffff','no lazy slice hydration function available'); Les PounderSocial Links NavigationLes Pounder is an associate editor at Tom's Hardware. He is a creative technologist and for seven years has created projects to educate and inspire minds both young and old. He has worked with the Raspberry Pi Foundation to write and deliver their teacher training program "Picademy".
I'm currently running into issues trying to get Vision Client to run on my Raspberry Pi. I have it running the latest version of the 64bit Raspbian OS. Downloaded the Client Launcher from my Gateway on the primary computer, downloaded as a .tar file. I unzipped that and have been unable to get it to actually execute. What I have done and tried so far:
JavaFX is not available on most ARM cpus, so anything in Ignition that depends on it will fail. The legacy launcher doesn't need javafx itself, and can therefore launch any client that also doesn't need javafx. (IIRC, you cannot use the JxBrowser component without javafx.)
So my questions are:
1: where do I get the files required to launch a vision client on my raspberry pi 4
2: what are the install steps
2:a I have a blank pie ready to go so can start from scratch.
As of Ignition 8, 32-bit Vision Client support was dropped; the availability of 32-bit Java Runtime Environments (JRE) will diminish overtime as the technology is slowly deprecated.However, in an e...
It works fine. You just can't create user interface events. Instead, you can create a Windows application that communicates to the Raspberry Pi using TCP or other network interface. Or you could use G Web Development to create a webpage to communicate with the Raspberry Pi using the Systemlink (Skyline) API. We have done this with success.
Use the TCP/IP VIs to create a client server arrangement. You'd have the Rasp PI running code acting as the TCP/IP server, and then your windows LabVIEW application would be running as the TCP client. Then you can have the two applications talking to each other.
The problem I have is the following: when setting my Raspberry Pi Bluetooth as discoverable, then pairing from a Windows laptop, the Raspberry is incorrectly identified as an audio device, as can be seen on the following screenshot. (This is using Raspberry Pi OS version 11 - Bullseye)
The reason is: I need to interact with this Raspberry Pi with low-level sockets on specific BT ports, and because of this incorrect classification, windows seems to be attempting connections on some BT ports, therefore interfering with the program that I am trying to run. The Raspberry Pi is also to be used headless, so the pairing has to be initiated by the laptop.
Note that might be relevant: on Raspbian 9 (Stretch), the same process lead to the Raspberry Pi being correctly identified as other device. I would like to obtain the same result on an up-to-date version of the OS. Maybe some of you know what has changed in the Bluetooth configurations between these versions ?
Among other things, I have tried changing the Bluetooth device class. This will change the icon displayed on windows, but not the category under which the device is listed. It seems that windows is using another method to determine whether a device is audio or not, which remains quite mysterious to me.
EDIT:
My original answer works well but does not feel very clean. I just found that the GATT service Headset responsible for my problems can be cleanly disabled by stopping every program related to PulseAudio or PipeWire. In fact I just uninstalled them.
I want to be able to run the two Carvey machines we have in my High School Prototype Lab without the need to have a full blown laptop or desktop computer connected to them. Could anyone help me figure out how to make a raspberry Pi work for controlling the machines.?
the Pi is a small very efficient system to use for controlling these machines and there is no fan to draw dust into the system. I use mine with a wireless keyboard and love that I can stand directly over the work piece and move the gantry to exactly where I want it.
@dacap would you guys consider making a raspberry pi version(armv8 I believe) of aseprite available for purchase? I would love that if you could. The current only way I can find to use aseprite on a raspberry pi is through the default repo, which is a very outdated version(1.1.6-dev I think), and missing a lot of features that I need. I have tried to compile it from source, but it throws a lot of errors last I tried.
Thanks a lot!
I have successfully compiled and tested aseprite 1.2.X and 1.3.X-beta with skia laf backend that is working well on the Raspberry Pi 2, 3, 4 and 400 model with OpenGL enabled. It is probably working on Pi Zero 2 as well (untested).
aseprite is not working on Raspberry Pi 1 and Raspberry Pi Zero 1 due to missing support for armv7 instructions on the CPU.
Compilation took about 2h on a Raspberry Pi 400 board. (it took 7gb of c++ sourcecode and generated objectfiles to link the final 19Mb aseprite binary )
During the compilation i had to pass -latomic to the linker in order for the final aseprite executable to link.
Raspberry Pi 3 has only 802.11n WiFi. It cannot "see" 5G, which you know already. There is no need to "turn off" the Orbi 5G. Unlike Internet of Things (IoT) devices which have no display and no keyboard, your Raspberry is probably hooked up to both. (My Raspberry Pi 3b+ is running Raspberrian, so I am not familiar with how networks are set up on LibreELEC.)
One final thing: if I uncheck the 5ghz broadcast, it means that my entire Orbi network it's going to work at 2'4 ghz speed, even with the devices that support 5ghz? If is like that, it's not worth the change, I prefer not connecting the raspberry but having more speed in the devices that support 5ghz.
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