Raspbian Buster with Desktop and Recommended Software
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Cubietruck – Mini PC
SPRZĘT Cubietruck – mini PC Rynek komputerków jednopłytkowych opartych o procesory ARM zapoczątkowany przez Raspberry Pi rozwija się doskonale. Może nie jak grzyby po deszczu, ale systematycznie pojawiają się nowe rozwiązania: BeagleBoard, Marsboard, Cubieboard, Olinuxino itp. Różnią się one wyposażeniem, wydajnością, dostępnością dokumentacji oraz wsparciem technicznym. Ciekawie rozwija się propozycja Cubieboard. mocujących. Niby nic, ale te trzy kawałki two- org, zapoczątkowana płytką Cubieboard A10 rzywa i paczka tulejek umożliwiają poskładanie Fotografi a 3. Obudowa Cubietruck (opisaną w EP06/2013) i Cubieboard2 zgod- samodzielnego systemu mini-PC wyposażo- ną mechanicznie, ale zbudowaną w oparciu nego w dysk HDD 2,5”, wystarczająco zabez- rolę domowego centrum multimedialnego lub o nowszy, dwurdzeniowy procesor A20, zwięk- pieczając mechanicznie jego elementy. Osłony Linuxowego komputera PC. Jedyne zastrzeżenie szający wydajność Cubie i paletę jej zastosowań w odpowiednich miejscach mają wyfrezowane można mieć do kilku różnokolorowych LED, (fotografi a 1). Najnowsza propozycja to Cubie- otwory umożliwiające korzystanie z GPIO bez bezlitośnie informujących nasze oczy o stanie truck (Cubieboard3), oparty podobnie jak Cu- zdejmowania obudowy. pracy Cubie. bieboard2 (fotografi a 2) o procesor Allwinner Ciekawą propozycją dla osób wykorzy- Cubieboard3 oparty jest o SoC w architektu- A20, lecz mający znacznie bogatsze wyposaże- stujących Cubieboard3 w roli samodzielnego rze ARM7 – Allwinner A20, który w połączeniu nie, co niestety wiąże się z wyższą ceną. Porów- mini-PC, jest pełna obudowa pokazana na fo- ze sporej wielkości dyskiem NAND Flash oraz nanie parametrów poszczególnych komputer- tografi i 3. W swoim wnętrzu mieści swobodnie zwiększoną pamięcią RAM bezproblemowo ków Cubieboard umieszczono w tabeli 1. płytkę Cubieboard3, dysk HDD 2,5” (fotogra- sprawdza się w roli komputera PC pracującego Podobnie jak w przypadku poprzednich fi a 4) i przewody połączeniowe. -
Development Boards This Product Is Rohs Compliant
Development Boards This product is RoHS compliant. PANDABOARD DEVELOPMENT PLATFORM Features: • Core Logic: OMAP4460 applications Processor • Interface: (1) General Purpose Expansion Header • Wireless Connectivity: 802.11 b/g/n (WiLink™ 6.0) • Memory: 1GB DDR2 RAM (I2C, GPMC, USB, MMC, DSS, ETM) • Debug options: JTAG, UART/RS-232, 1 GPIO button NTL • Full Size SD/MMC card port • Camera Expansion Header • Graphics APIs: OpenGL ES v2.0, OpenGL ES v1.1, • 10/100 Ethernet • Display Connectors: HDMI v1.3, DVI-D. LCD Expansion OpenVGv1.1, and EGL v1.3 • USB: (1) USB 2.0 OTG port, (2) USB 2.0 High-speed port • Audio Connectors: 3.5" In/Out, HDMI audio out For quantities greater than listed, call for quote. MOUSER Pandaboard Price Description STOCK NO. Part No. Each 595-PANDABOARD UEVM4430G-01-00-00 Pandaboard ARM Cortex-A9 MPCore 1GHz OMAP4430 SoC Platform 179.00 595-PANDABOARD-ES UEVM4460G-02-01-00 Pandaboard ARM Cortex-A9 MPCore 1GHz OMAP4460 SoC Platform 185.00 Embedded Modules Embedded BEAGLEBOARD SOC PLATFORMS BeagleBoard.org develops low-cost, fan-less single-board computers based on low-power Texas Instruments processors featuring the ARM Cortex-A8 core with all of the expandability of today's desktop machines, but without the bulk, expense, or noise. BeagleBoard.org provides an open source development platform for A B the creation of high-performance embedded designs. Beagleboard C4 Features: Beagleboard xM Features: Beaglebone Features: • Over 1,200 Dhrystone MIPS using the superscalar • Over 2,000 Dhrystone MIPS using the Super-scalar -
User Manual - S.USV Solutions Compatible with Raspberry Pi, up Board and Tinker Board Revision 2.2 | Date 07.06.2018
User Manual - S.USV solutions Compatible with Raspberry Pi, UP Board and Tinker Board Revision 2.2 | Date 07.06.2018 User Manual - S.USV solutions / Revision 2.0 Table of Contents 1 Functions .............................................................................................................................................. 3 2 Technical Specification ........................................................................................................................ 4 2.1 Overview ....................................................................................................................................... 5 2.2 Performance .................................................................................................................................. 6 2.3 Lighting Indicators ......................................................................................................................... 6 3 Installation Guide................................................................................................................................. 7 3.1 Hardware ...................................................................................................................................... 7 3.1.1 Commissioning S.USV ............................................................................................................ 7 3.1.2 Connecting the battery .......................................................................................................... 8 3.1.3 Connecting the external power supply ................................................................................. -
Building a Distribution: Openharmony and Openmandriva
Two different approaches to building a distribution: OpenHarmony and OpenMandriva Bernhard "bero" Rosenkränzer <[email protected]> FOSDEM 2021 -- February 6, 2021 1 MY CONTACT: [email protected], [email protected] Way more important than that, he also feeds LINKEDIN: dogs. https://www.linkedin.com/in/berolinux/ Bernhard "bero" Rosenkränzer I don't usually do "About Me", but since it may be relevant to the topic: Principal Technologist at Open Source Technology Center since November 2020 President of the OpenMandriva Association, Contributor since 2012 - also a contributor to Mandrake back in 1998/1999 2 What is OpenHarmony? ● More than an operating system: Can use multiple different kernels (Linux, Zephyr, ...) ● Key goal: autonomous, cooperative devices -- multiple devices form a distributed virtual bus and can share resources ● Initial target devices: Avenger 96 (32-bit ARMv7 Cortex-A7+-M4), Nitrogen 96 (Cortex-M4) ● Built with OpenEmbedded/Yocto - one command builds the entire OS ● Fully open, developed as an Open Source project instead of an inhouse product from the start. ● For more information, visit Stefan Schmidt's talk in the Embedded devroom, 17.30 and/or talk to us at the Huawei OSTC stand. 3 What is OpenMandriva? ● A more traditional Linux distribution - controlled by the community, continuing where Mandriva left off after the company behind it went out of business in 2012. Its roots go back to the first Mandrake Linux release in 1998. ● Originally targeting only x86 PCs - Support for additional architectures (aarch64, armv7hnl, RISC-V) added later ● Repositiories contain 17618 packages, built and updated individually, assembled into an installable product with omdv-build-iso or os-image-builder. -
A Low-Cost Deep Neural Network-Based Autonomous Car
DeepPicar: A Low-cost Deep Neural Network-based Autonomous Car Michael G. Bechtely, Elise McEllhineyy, Minje Kim?, Heechul Yuny y University of Kansas, USA. fmbechtel, elisemmc, [email protected] ? Indiana University, USA. [email protected] Abstract—We present DeepPicar, a low-cost deep neural net- task may be directly linked to the safety of the vehicle. This work based autonomous car platform. DeepPicar is a small scale requires a high computing capacity as well as the means to replication of a real self-driving car called DAVE-2 by NVIDIA. guaranteeing the timings. On the other hand, the computing DAVE-2 uses a deep convolutional neural network (CNN), which takes images from a front-facing camera as input and produces hardware platform must also satisfy cost, size, weight, and car steering angles as output. DeepPicar uses the same net- power constraints, which require a highly efficient computing work architecture—9 layers, 27 million connections and 250K platform. These two conflicting requirements complicate the parameters—and can drive itself in real-time using a web camera platform selection process as observed in [25]. and a Raspberry Pi 3 quad-core platform. Using DeepPicar, we To understand what kind of computing hardware is needed analyze the Pi 3’s computing capabilities to support end-to-end deep learning based real-time control of autonomous vehicles. for AI workloads, we need a testbed and realistic workloads. We also systematically compare other contemporary embedded While using a real car-based testbed would be most ideal, it computing platforms using the DeepPicar’s CNN-based real-time is not only highly expensive, but also poses serious safety control workload. -
Openbricks Embedded Linux Framework - User Manual I
OpenBricks Embedded Linux Framework - User Manual i OpenBricks Embedded Linux Framework - User Manual OpenBricks Embedded Linux Framework - User Manual ii Contents 1 OpenBricks Introduction 1 1.1 What is it ?......................................................1 1.2 Who is it for ?.....................................................1 1.3 Which hardware is supported ?............................................1 1.4 What does the software offer ?............................................1 1.5 Who’s using it ?....................................................1 2 List of supported features 2 2.1 Key Features.....................................................2 2.2 Applicative Toolkits..................................................2 2.3 Graphic Extensions..................................................2 2.4 Video Extensions...................................................3 2.5 Audio Extensions...................................................3 2.6 Media Players.....................................................3 2.7 Key Audio/Video Profiles...............................................3 2.8 Networking Features.................................................3 2.9 Supported Filesystems................................................4 2.10 Toolchain Features..................................................4 3 OpenBricks Supported Platforms 5 3.1 Supported Hardware Architectures..........................................5 3.2 Available Platforms..................................................5 3.3 Certified Platforms..................................................7 -
D I E B Ü C H S E D E R P a N D O R a Seite 1
D i e B ü c h s e d e r P a n d o r a Infos zur griechischen Mythologie siehe: http://de.wikipedia.org/wiki/B%C3%BCchse_der_Pandora ______________________________________________________________________________________________________________________________________________________ „Das Öffnen der Büchse ist absolute Pflicht, um die Hoffnung in die Welt zu lassen!“ Nachdruck und/oder Vervielfältigungen, dieser Dokumentation ist ausdrücklich gestattet. Quellenangabe: Der Tux mit dem Notebook stammt von der Webseite: http://www.openclipart.org/detail/60343 1. Auflage , © 9-2012 by Dieter Broichhagen | Humboldtstraße 106 | 51145 Köln. e-Mail: [email protected] | Web: http://www.broichhagen.de | http://www.illugen-collasionen.com Satz, Layout, Abbildungen (wenn nichts anderes angegeben ist): Dieter Broichhagen Alle Rechte dieser Beschreibung liegen beim Autor Gesamtherstellung: Dieter Broichhagen Irrtum und Änderungen vorbehalten! Seite 1 - 12 D i e B ü c h s e d e r P a n d o r a Infos zur griechischen Mythologie siehe: http://de.wikipedia.org/wiki/B%C3%BCchse_der_Pandora ______________________________________________________________________________________________________________________________________________________ Hinweis: Weitere Abbildungen von meiner „Büchse der Pandora“ finden Sie unter http://broichhagen.bplaced.net/ilco3/images/Pandora-X1.pdf Bezeichnungen • SheevaPlug ist kein Katzenfutter und kein Ausschlag • DreamPlug ist kein Auslöser für Alpträume • Raspberry Pi ist kein Himbeer-Kuchen • Pandaboard ist kein Servbrett für Pandabären • Die „Büchse der Pandora“ ist keine Legende Was haben SheevaPlug, DreamPlug, Raspberry Pi und Pandaboard gemeinsam? Sie haben einen ARM und sind allesamt Minicomputer. Wer einen ARM hat, ist nicht arm dran. Spaß bei Seite oder vielmehr, jetzt geht der Spaß erst richtig los. Am Anfang war der ... SheevaPlug Das Interesse wurde durch Matthias Fröhlich geweckt, der einen SheevaPlug- Minicomputer vor 2 Jahren im Linux- Workshop vorstellte. -
Cubieboard Cubieboard2 Cubietruck Beaglebone Black
Raspberry Pi (Model B rev.2) Cubieboard Cubieboard2 Cubietruck Beaglebone Black 1 Ghz (OC) ARM® Cortex-A6 1 Ghz ARM® Cortex-A8 1 Ghz ARM® Cortex-A7 Dual Core 1 Ghz ARM® Cortex-A7 Dual Core 1 Ghz ARM® Cortex-A8 CPU ARM1176JZF-F Allwinner A10 C8096CA Allwinner A20 Allwinner A20 AM335x GPU/FPU VideoCore IV Mali-400 (CedarX, OpenGL) Mali-400MP2 (CedarX, OpenGL) Mali-400MP2 (CedarX, OpenGL) SGX350 3D / NEON FPU accelerator RAM 512 MB 1 GB DDR3 2 GB 2 GB 512 MB DDR3 Storage micro SD/SDHC 4 GB NAND Flash, micro SD/SDHC, SATA 4 GB NAND Flash, micro SD/SDHC, SATA 4 GB NAND Flash, micro SD/SDHC, SATA 2.0 2GB eMMC Power micro USB (5V/1A) 3.5 W DC 5v/2A DC 5v/2A DC 5v/2.5A DC 5V/500mA Video RCA Composite Video, HDMI 1.4 HDMI HDMI HDMI/VGA microHDMI Audio 3.5 mm Headphone Jack 3.5 mm Headphone Jack / Line In 3.5 mm Headphone Jack 3.5 mm Headphone Jack, SPDIF Network 10/100 Mbps 10/100 Mbps 10/100 Mbps 10/100/1000 Mbps, Wifi, Bluetooth 10/100 Mbps 2x46 PIN GPIO I/O ports 26 PIN GPIO, 2x Ribon 2x48 PIN GPIO, 4PIN Serial, 1IR 2x48 PIN GPIO, 4PIN Serial, 1IR 1x 54 PIN GPIO (Arduino Shield Compatible) USB ports 2x USB 2.0 2x USB 2.0 2x USB 2.0, 1 mini USB OTG 2x USB 2.0, 1 mini USB OTG 1x USB 2.0 Linux (Raspbian, Debian, Fedora, Arch, Gentoo, Kali), Andoid, Angstrom, Ubuntu, Fedora, Gentoo. -
Raspberry Pi: Ubuntu Retro Remix, Raspex Kodi OS for Raspberry Pi and Pi Compute Module 4
Published on Tux Machines (http://www.tuxmachines.org) Home > content > Raspberry Pi: Ubuntu Retro Remix, RaspEX Kodi OS for Raspberry Pi and Pi Compute Module 4 Raspberry Pi: Ubuntu Retro Remix, RaspEX Kodi OS for Raspberry Pi and Pi Compute Module 4 By Roy Schestowitz Created 27/07/2020 - 2:37am Submitted by Roy Schestowitz on Monday 27th of July 2020 02:37:18 AM Filed under GNU [1] Linux [2] Hardware [3] Meet Ubuntu Retro Remix, an Ubuntu Distro to Turn Your Raspberry Pi into a Retro Gaming Console[4] Meet Ubuntu Retro Remix, a new, upcoming Ubuntu distro designed for retro gamers and Raspberry Pi fans. It?s an unofficial remix of Ubuntu that will turn your Raspberry Pi into a retro gaming machine. After building the Rolling Rhino, a command-line tool that lets you convert your regular Ubuntu installation into a rolling release, Canonical?s Ubuntu Desktop lead Martin Wimpress is now building a new Ubuntu-based distro specifically designed for Raspberry Pi computers and retro gaming, called Ubuntu Retro Remix. Why retro gaming? Because Martin Wimpress is a hardcore retro gamer who built several Raspberry Pi retro games consoles using cases that imitate the classic retro gaming consoles. RaspEX Kodi for Rpi4, Rpi3 and Rpi2 with LXDE Desktop and Kodi 18.7 Media Center ?Leia? with Netflix, YouTube, Plex and Amazon Video addons ? Build 200713 (32-bit) and Build 200726 (64-bit)[5] The system is made especially for the new Raspberry Pi 4 (8GB, 4GB and 2GB). RaspEX Kodi is based on Debian 11 Bullseye respectively Debian 10 Buster, Raspberry Pi OS (previously called Raspbian) and Kodi Media Center. -
End-To-End Learning for Autonomous Driving Robots
End-to-End Learning for Autonomous Driving Robots Anthony Ryan 21713293 Supervisor: Professor Thomas Bräunl GENG5511/GENG5512 Engineering Research Project Submitted: 25th May 2020 Word Count: 8078 Faculty of Engineering and Mathematical Sciences School of Electrical, Electronic and Computer Engineering 1 Abstract This thesis presents the development of a high-speed, low cost, end-to-end deep learning based autonomous robot driving system called ModelCar-2. This project builds on a previous project undertaken at the University of Western Australia called ModelCar, where a robotics driving system was first developed with a single LIDAR scanner as its only sensory input as a baseline for future research into autonomous vehicle capabilities with lower cost sensors. ModelCar-2 is comprised of a Traxxas Stampede RC Car, Wide-Angle Camera, Raspberry Pi 4 running UWA’s RoBIOS software and a Hokuyo URG-04LX LIDAR Scanner. ModelCar-2 aims to demonstrate how the cost of producing autonomous driving robots can be reduced by replacing expensive sensors such as LIDAR with digital cameras and combining them with end-to-end deep learning methods and Convolutional Neural Networks to achieve the same level of autonomy and performance. ModelCar-2 is a small-scale application of PilotNet, developed by NVIDIA and used in the DAVE-2 system. ModelCar-2 uses TensorFlow and Keras to recreate the same neural network architecture as PilotNet which features 9 layers, 27,000,000 connections and 252,230 parameters. The Convolutional Neural Network was trained to map the raw pixels from images taken with a single inexpensive front-facing camera to predict the speed and steering angle commands to control the servo and drive the robot. -
7-Inch DIY Touch Screen
7-inch DIY Touch Screen www.sunfounder.com Jul 15, 2021 CONTENTS 1 Components List 3 2 Install the Raspberry Pi OS 5 3 Connect the Screen to the Raspberry Pi 11 4 Settings for Raspberry Pi 15 4.1 Adjust the Resolution.......................................... 15 4.2 Install Virtual Keyboard on Raspberry Pi................................ 18 4.3 Right Click on Raspberry Pi....................................... 23 5 Connect the Screen to the PC 25 6 Parameters 27 6.1 General Information........................................... 28 6.2 Absolute Maximum Ratings....................................... 29 6.3 CTP Characteristics........................................... 30 6.4 Interface Description........................................... 30 6.5 HDMI Interface Description....................................... 31 6.6 Reliability Conditions.......................................... 33 7 FAQ 35 8 Copyright Notice 37 i ii 7-inch DIY Touch Screen 7-inch touch screen supports Raspbian/Win7/Win8/Win10(Plug and play), Android/Linux (need to be configured first). Equipped with Micro USB and HDMI port support, the screen can be connected to the device via HDMI interface and be powered via USB. Achieving touch function powered by USB doesn’t need power cord or drive-free. CONTENTS 1 7-inch DIY Touch Screen 2 CONTENTS 3 7-inch DIY Touch Screen CHAPTER ONE COMPONENTS LIST 4 Chapter 1. Components List CHAPTER TWO INSTALL THE RASPBERRY PI OS In this chapter, we firstly learn to write the Raspberry Pi OS to your Micro SD card. You can check the complete tutorial on the official website of the Raspberry Pi: https://projects.raspberrypi.org/en/projects/raspberry-pi-setting-up. Note: If you have already done it, you can skip this chapter. Required Components 1 * Micro SD Card 1 * Personal Computer 1 * Micro SD Card Reader Step 1 Raspberry Pi have developed a graphical SD card writing tool that works on Mac OS, Ubuntu 18.04 and Windows, and is the easiest option for most users as it will download the image and install it automatically to the SD card. -
WLAN Hacking Workshop
WLAN Hacking Workshop Oz Krakowski – [email protected] Luciano Coelho – [email protected] Agenda What is “OpenLink™”? Workshop intro Board setup Getting WLAN to work on BeagleBoard The OpenLink Challenge Wrap-up – Demo – Ubuntu – Prizes – What’s next What is “OpenLink™”? An open source initiative Wireless connectivity technologies – Wi-Fi™ – Bluetooth® – FM – Roadmap: • Bluetooth Low Energy • ANT • Zigbee® • NFC What is “OpenLink™”? Open link drivers available today Part of mainline Linux kernel Easily attach to open source development platform such as BeagleBoard and PandaBoard What is “OpenLink™”? Website – OpenLink.org – Community – News – Projects – Support – Platforms – Resources … And more to come… Workshop Outline Short hands-on demo Learn how to connect to an AP from the CLI Your chance to get your own BeagleBoard with a WLAN daughter card! Board Setup Pre-requisite: minicom (or another terminal app) Insert the micro-SD card Connect the USB-serial adapter Connect the USB cable (power supply) Serial Console Start minicom – minicom -s -o • /dev/ttyUSB0 • 115200 8N1 • No HW/SW flow control Log in to the serial console • user: root • pwd: rootguri BeagleBoard boot basics Two-phase boot – X-Loader (MLO) – u-boot.bin • Environment setup • Kernel parameters Kernel – Mainline-based (2.6.39-rc1) – One patch for the WLAN daughtercard Connecting to an open Access Point Set your own MAC address ifconfig wlan0 hw ether 08:00:28:00:00:<number> ifconfig wlan0 up Using the iw tool to scan iw wlan0 scan Connecting to an open AP iw wlan0 connect