Hacking Raspberry Pi® Timothy L
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Hacking Roomba®
Hacking Roomba® Tod E. Kurt Wiley Publishing, Inc. Hacking Roomba® Published by Wiley Publishing, Inc. 10475 Crosspoint Boulevard Indianapolis, IN 46256 www.wiley.com Copyright © 2007 by Wiley Publishing, Inc., Indianapolis, Indiana Published simultaneously in Canada ISBN-13: 978-0-470-07271-4 ISBN-10: 0-470-07271-7 Manufactured in the United States of America 10 9 8 7 6 5 4 3 2 1 No part of this publication may be reproduced, stored in a retrieval system or transmitted in any form or by any means, electronic, mechanical, photocopying, recording, scanning or otherwise, except as permitted under Sections 107 or 108 of the 1976 United States Copyright Act, without either the prior written permission of the Publisher, or authorization through payment of the appropriate per-copy fee to the Copyright Clearance Center, 222 Rosewood Drive, Danvers, MA 01923, (978) 750-8400, fax (978) 646-8600. Requests to the Publisher for permission should be addressed to the Legal Department, Wiley Publishing, Inc., 10475 Crosspoint Blvd., Indianapolis, IN 46256, (317) 572-3447, fax (317) 572-4355, or online at http://www.wiley.com/go/permissions. Limit of Liability/Disclaimer of Warranty: The publisher and the author make no representations or warranties with respect to the accuracy or completeness of the contents of this work and specifically disclaim all warranties, including without limitation warranties of fitness for a particular purpose. No warranty may be created or extended by sales or promotional materials. The advice and strategies contained herein may not be suitable for every situation. This work is sold with the understanding that the publisher is not engaged in rendering legal, accounting, or other professional services. -
Raspberry Pi Market Research
Raspberry Pi Market Research Contents MARKET ................................................................................................................................................... 3 CONSUMERS ............................................................................................................................................ 8 COMPETITORS ....................................................................................................................................... 12 Element14 ......................................................................................................................................... 12 Gumstix- Geppetto Design ............................................................................................................... 14 Display Module .................................................................................................................................. 17 CoMo Booster For Raspberry Pi Compute Module (Geekroo Technologies ) ................................... 18 2 MARKET When the first Raspberry PI (Pi) was released in February 2012 it made a big impact that extended well beyond the education world for which it was touted. The Pi became a staple amongst the hobbyist and professional maker communities and was used for building everything from media centers, home automation systems, remote sensing devices and forming the brains of home made robots. It has recently been announced that over 5m Raspberry Pi’s have been sold since its inception, making it the best selling -
C 2014 Wenjia Zhou a LIGHTWEIGHT DSP FRAMEWORK for OMAP3530-DRIVEN EMBEDDED DEVICES
c 2014 Wenjia Zhou A LIGHTWEIGHT DSP FRAMEWORK FOR OMAP3530-DRIVEN EMBEDDED DEVICES BY WENJIA ZHOU THESIS Submitted in partial fulfillment of the requirements for the degree of Master of Science in Electrical and Computer Engineering in the Graduate College of the University of Illinois at Urbana-Champaign, 2014 Urbana, Illinois Adviser: Professor Geir E. Dullerud ABSTRACT This thesis provides a lightweight framework, called MiniDSP, for OMAP3530 heterogeneous dual core SoC to run tasks on its DSP co-processor. This framework is composed of a minimal DSP kernel and a set of programs which run on the ARM A8 master processor. The minimal kernel maintains system stability and initializes the interrupt handler. The set of programs includes a DSP device driver, a host program and two utility programs. Through the device driver, the ARM core can send commands to the DSP and control it to execute compute-intensive applications. The host program performs task off-loading and general ARM-DSP communication. Finally the two utility programs are responsible for converting the DSP executable to a bootable format used by the framework. This framework is open source, highly con- figurable and lightweight, enabling the possibility of high performance com- puting on DSP. ii To my parents, for their love and support. iii ACKNOWLEDGMENTS I would like to thank all the lab members for their generous support: Seungho Lee, for patiently guide me through all the technical details of Hovercraft; Bicheng Zhang, for keeping the lab servers up and live; Steve Granda, for the help of debugging the system; Richard Otap, for all Gumstix software introduction; and Rohan Khanna, for helping me put the hardware pieces together. -
Proyecto Fin De Grado
ESCUELA TÉCNICA SUPERIOR DE INGENIERÍA Y SISTEMAS DE TELECOMUNICACIÓN PROYECTO FIN DE GRADO TÍTULO: Despliegue de Liota (Little IoT Agent) en Raspberry Pi AUTOR: Ricardo Amador Pérez TITULACIÓN: Ingeniería Telemática TUTOR (o Director en su caso): Antonio da Silva Fariña DEPARTAMENTO: Departamento de Ingeniería Telemática y Electrónica VºBº Miembros del Tribunal Calificador: PRESIDENTE: David Luengo García VOCAL: Antonio da Silva Fariña SECRETARIO: Ana Belén García Hernando Fecha de lectura: Calificación: El Secretario, Despliegue de Liota (Little IoT Agent) en Raspberry Pi Quizás de todas las líneas que he escrito para este proyecto, estas sean a la vez las más fáciles y las más difíciles de todas. Fáciles porque podría doblar la longitud de este proyecto solo agradeciendo a mis padres la infinita paciencia que han tenido conmigo, el apoyo que me han dado siempre, y el esfuerzo que han hecho para que estas líneas se hagan realidad. Por todo ello y mil cosas más, gracias. Mamá, papá, lo he conseguido. Fáciles porque sin mi tutor Antonio, este proyecto tampoco sería una realidad, no solo por su propia labor de tutor, si no porque literalmente sin su ayuda no se hubiera entregado a tiempo y funcionando. Después de esto Antonio, voy a tener que dejarme ganar algún combate en kenpo como agradecimiento. Fáciles porque, sí melones os toca a vosotros, Alex, Alfonso, Manu, Sama, habéis sido mi apoyo más grande en los momentos más difíciles y oscuros, y mis mejores compañeros en los momentos de felicidad. Amigos de Kulturales, los hermanos Baños por empujarme a mejorar, Pablo por ser un ejemplo a seguir, Chou, por ser de los mejores profesores y amigos que he tenido jamás. -
Guía De Instalación De Debian GNU/Linux
Guía de instalación de Debian GNU/Linux 31 de julio de 2021 Guía de instalación de Debian GNU/Linux Copyright © 2004 – 2021 el equipo del instalador de Debian Este manual es software libre, puede redistribuirlo y/o modificarlo bajo los términos de la licencia general pública GNU. Por favor, consulte la licencia en el Apéndice F para más información. Versión de construcción de este manual: 20210730. Índice general 1. Bienvenido a Debian 1 1.1. ¿Qué es Debian? . 1 1.2. ¿Qué es GNU/Linux? . 1 1.3. ¿Qué es Debian GNU/Linux? . 2 1.4. ¿Qué es el instalador de Debian? . 3 1.5. Obtener Debian . 3 1.6. Obtener la última versión de este documento . 3 1.7. Estructura de este documento . 3 1.8. Sobre copyrights y licencias de software . 4 2. Requisitos del sistema 6 2.1. Hardware compatible . 6 2.1.1. Arquitecturas compatibles . 6 2.1.2. Tres puertos ARM diferentes . 7 2.1.3. Variaciones en los diseños de CPU ARM y en la complejidad del soporte . 7 2.1.4. Plataformas admitidas por Debian/armhf . 7 2.1.5. Plataformas que ya no admite Debian/armhf . 9 2.1.6. Múltiples procesadores . 9 2.1.7. Soporte de hardware gráfico . 9 2.1.8. Hardware de conectividad de red . 9 2.1.9. Periféricos y otro hardware . 10 2.2. Dispositivos que requieren firmware . 10 2.3. Adquisición de hardware específico para GNU/Linux . 10 2.3.1. Evite hardware cerrado o privativo . 10 2.4. Medios de instalación . 11 2.4.1. -
Cubox-I Pro Carrier Board for Imx6 Som (System-On-Module)
NXP-Freescale i.MX6 CuBox-i Pro Carrier Board for iMX6 SoM (System-On-Module) SolidRun Ltd. 3 Dolev st., 3rd floor, P.O. Box 75 Migdal Tefen 2495900, Israel. Simple. Robust. Computing Solutions www.solid-run.com CuBox-i Pro Data Sheet Overview At only 2”×2”×2” the CuBox-i is the tiniest computer in the world. Its elegant enclosure makes it ideal for mini-computing solutions, while its size is perfect for integrated solutions. Take advantage of the wide variety of features, interfaces and processor options, including onboard real-time clock, in selecting the solution that’s just right for you. CuBox-i Carrier Pro Highlighted Features: • Based on NXP’s iMX6 Single to Quad Core • Up to 4GB DDR3 • Small size 2”×2”×2” • Fanless, Robust and Industrial Design © SolidRun Ltd. 2016 3 Dolev St., 3rd floor, P.O. Box 75, Migdal Tefen 2495900, Israel / 2 CuBox-i Pro Data Sheet System Specifications System on Chip CuBox-i Pro HDMI 1080p with CEC USB 2.0 2 PWM LED Ethernet 5V DC Jack eSATA II Depends on MicroSOM model MicroUSB for development Micro SD interface RTC with backup battery Optical SPDIF audio out Infra-Red Remote Control Receiver Infra-Red Transmit (Remote Control) Tiny GPIO Button Passive Thermal Management High Polish Plastic Enclosure WiFi and BlueTooth Antenna Depends on MicroSOM model Power Management © SolidRun Ltd. 2016 3 Dolev St., 3rd floor, P.O. Box 75, Migdal Tefen 2495900, Israel / 3 CuBox-i Pro Data Sheet Interfaces Back View © SolidRun Ltd. 2016 3 Dolev St., 3rd floor, P.O. -
Autonomous Blimp Major Qualifying Project Report
Project ID: FJL-BLMP Project ID: GTH-AAA6 Towards the Realization of an Autonomous Blimp Major Qualifying Project Report Submitted to the Faculty Of WORCESTER POLYTECHNIC INSTITUTE In partial fulfillment of the requirements for the Degree of Bachelor of Science in Electrical and Computer Engineering and Computer Science by Jeremy Colon (CS) Melinda Race (ECE) Darius Toussi (ECE) Richard Walker (ECE) Date Submitted: April 25, 2013 Project Advisors: George Heineman Fred Looft 0 Abstract This project continues an MQP from the 2011-12 academic year: Development of an Autonomous Blimp. The objective of our project was to modify the existing design by implementing autonomous flight capability using an Android phone, a power system capable of tracking energy usage, and a camera mission module for aerial photography. Through testing and flight tests, we demonstrated that we successfully implemented non-optimized autonomous flight, portions of the power system design, and a camera mission module. i Acknowledgements We would like to thank our advisors Professor George Heineman and Professor Fred Looft for their continued support throughout this project. We would also like to thank the following individuals for their help with this project: Thomas Angelotti Danielle Beaulieu Torbjorn Bergstrom Professor Stephen Bitar Adam Blumenau Nicholas DeMarinis Cathy Emmerton Richard Gammon Mitchell Monserrate Patrick Morrison Earl Ziegler ii Table of Contents Abstract ........................................................................................................................................... -
2021-07-28-Netbsd-Raspi-Earmv6hf.Img (Re: Raspberry Pi U
京都 NetBSD 2021 Announcing NetBSD 9.2 (May 12, 2021) http://www.netbsd.org/releases/formal-9/NetBSD-9.2.html Announcing NetBSD 9.2 (May 12, 2021) Introduction The NetBSD Project is pleased to announce NetBSD 9.2 "Nakatomi Socrates", the second update of the $32,672 raised of $50,000 goal NetBSD 9 release branch. It represents a selected subset of fixes deemed important for security or stability reasons since the release Home of NetBSD 9.1 in October 2020, as well some enhancements backported from the development branch. It is Recent changes fully compatible with NetBSD 9.0. NetBSD blog Quick download links Presentations About USB stick installation images: 64-bit x86, 32-bit x86 Developers SD card live images: 64-bit ARM, ARMv7 (most 32-bit boards), ARMv6 (Raspberry Pi 1 only) CD installation images: 64-bit x86, 32-bit x86, 64-bit SPARC Gallery Other images and distribution files Ports The CD images support booting from an actual CD/DVD or virtual machine only, for everything else use the Packages other images. In order to write USB drive and SD card images, use gunzip(1) and dd(1) on Unix, or Documentation Rawrite32 on Windows. On ARM boards (not Raspberry Pi), you may also need to write U-Boot to the SD card. FAQ & HOWTOs The Guide Upgrade instructions Manual pages Wiki An existing installation can be upgraded by booting an installation image and selecting the Upgrade option. Support Unattended upgrades can be performed using the sysupgrade tool from pkgsrc. If you are using sysupgrade Community from a release earlier than 9.0, update the kernel and modules first, reboot and make sure the NetBSD 9.2 Mailing lists kernel is running, then update the rest of the system. -
Full Circle Magazine #170 Contents ^ Full Circle Magazine Is Neither Affiliated With,1 Nor Endorsed By, Canonical Ltd
VIE Full Circle RE W THE INDEPENDENT MAGAZINE FOR THE UBUNTU LINUX COMMUNITY ISSUE #170 - June 2021 L U 4 B .0 UNTU 21 ) m o c . r VIE k E W c R i l F ( k e t i c w r : X o t U 4 o h B .0 P UNTU 21 TTAAMMEE YYOOUURR GGRRUUBB MMEENNUU GIVE YOUR BOOT MENU A MAKE OVER full circle magazine #170 contents ^ Full Circle Magazine is neither affiliated with,1 nor endorsed by, Canonical Ltd. HowTo Full Circle THE INDEPENDENT MAGAZINE FOR THE UBUNTU LINUX COMMUNITY Python p.15 Linux News p.04 Latex p.18 Command & Conquer p.13 ... p.XX Everyday Ubuntu p.31 Tame Your GRUB Menu p.20 Ubuntu Devices p.XX The Daily Waddle p.43 Micro This Micro That p.33 p.XX My Opinion p.40 Letters p.XX Review p.45 Inkscape p.26 Q&A p.52 Review p.48 Ubuntu Games p.55 Graphics The articles contained in this magazine are released under the Creative Commons Attribution-Share Alike 3.0 Unported license. This means you can adapt, copy, distribute and transmit the articles but only under the following conditions: you must attribute the work to the original author in some way (at least a name, email or URL) and to this magazine by name ('Full Circle Magazine') and the URL www.fullcirclemagazine.org (but not attribute the article(s) in any way that suggests that they endorse you or your use of the work). If you alter, transform, or build upon this work, you must distribute the resulting work under the same, similar or a compatible license. -
08-R1283 Li-Warren
GumPack: A Personal Health Assistant with Reconfigurable Surface Components by Kejia Li and Steve Warren Reprinted from Journal of Healthcare Engineering Vol. 4 · No. 1 · 2013 Multi-Science Publishing ISSN 1756-8250 Journal of Healthcare Engineering · Vol. 4 · No. 1 · 2013 Page 145–166 145 GumPack: A Personal Health Assistant with Reconfigurable Surface Components Kejia Li* and Steve Warren Department of Electrical & Computer Engineering, Kansas State University, Manhattan, KS 66506, USA Submitted September 2012. Accepted for publication November 2012. ABSTRACT Wearable and everyday-carry medical devices can improve quality of life for individuals that need frequent health monitoring. Such tools can supplement ubiquitous home care environments populated with medical sensors, extending the reach of these environments and increasing the freedom of their occupants. This paper presents the concept design for an everyday-carry medical device called a ‘GumPack’: a small cuboid-shaped device that offers wireless connectivity and plug-and-play surface components, where a component can be a biomedical sensor or a wireless network coordinator that manages a body area network. This geometrical layout optimizes access to surface-based medical hardware mounted on a small form factor. The device offers substantive computing power, supports local component reconfigurability, and promotes interoperability with medical device coordination environments. The GumPack is envisioned to be a personal health assistant carried in a pocket or handbag that can operate alone or interface to, e.g., a cell phone. Keywords: body area network, interoperability, personal health assistant, reconfigurability, surface component 1. INTRODUCTION Wearable and everyday-carry devices that integrate with healthcare information networks promise to increase the quality of care rendered to individuals that desire mobility yet require frequent or continuous health monitoring [1–4]. -
Running Debian on Inexpensive Network Attached Storage Devices
Running Debian on Inexpensive Network Attached Storage Devices Martin Michlmayr [email protected] This is my personal opinion; no recommendation implied FOSDEM Brussels, Belgium Martin Michlmayr Running Debian on Inexpensive Network Attached Storage Devices Network Attached Storage devices For most people, a Network Attached Storage device (NAS) is an external hard drive on steroids For geeks, a NAS is a complete computer Martin Michlmayr Running Debian on Inexpensive Network Attached Storage Devices Advantages of NAS Power efficient Quiet Cheap Makes a nice home server Martin Michlmayr Running Debian on Inexpensive Network Attached Storage Devices Linksys NSLU2, aka Slug Intel IXP42x, 133 or 266 MHz 32 MB RAM 8 MB flash no internal disk 1 10/100 Ethernet 2 USB Martin Michlmayr Running Debian on Inexpensive Network Attached Storage Devices Linksys NSLU2 Advantages: It’s cheap It’s quiet (no fan) Firmware can be upgraded via the network It can run on flash only Disadvantages: Ethernet needs proprietary microcode It’s slooow and doesn’t have much memory Martin Michlmayr Running Debian on Inexpensive Network Attached Storage Devices Linksys NSLU2 Feature complete, maintenance mode Packages nslu2-utils and ixp4xx-microcode Support for LEDs, beeper, Ethernet Ethernet driver: Krzysztof Halasa Some new ideas about improving d-i support (example: mounting ext3 as ext2) Gordon Farquharson, Joey Hess, NSLU2-Linux team Martin Michlmayr Running Debian on Inexpensive Network Attached Storage Devices Thecus N2100 Intel IOP 80219, 600 MHz 1 DDR400 slot (up -
ARM Linux Kernels and Graphics Drivers on Popular "Open" Hardware: Bleeding Edge Vs
SCaLE 13x – Open Source Hardware ARM Linux Kernels and Graphics Drivers on Popular "Open" Hardware: Bleeding Edge vs. Vendor Blobs and Kernel Forks - How Much is in Mainline, and How Open is Open? Prepared / Presented by Stephen Arnold, Principal Scientist VCT Labs Gentoo Linux / OpenEmbedded Developer What is ARM/Embedded? · Small Single Board Computer (SBC) or System on Chip (SoC) · Very resource-constrained · Zaurus 5000-D – 32 MB RAM, StrongARM SA-1100 (DEC/ARM) · Kurobox HG – 128 MB RAM, 256 MB flash, no display (G3, no altivec) · Modern devices blurring the lines between “embedded” and desktop/server-class hardware · Multicore CPUs – 2/4/8 cores · Per-core FPUs - VFP3/VFP4, NEON · Multicore GPUs – 192-core Cuda on Tegra K1 · Accelerated HD video processing · USB3, 10/100/1000 Ethernet, SATA, HDMI ARM Devices and Graphics Hardware · ARMv7 HardFloat VFP/NEON · Wandboard / udoo / cubox-i - iMX.6 quad core, Vivante GPU · Beaglebone black / white - AM335X single core, OMAP3 / SGX GPU, PRUs · Sunxi MK802-II 1GB TV stick - Allwinner A10 single core, Mali GPU · Samsung Chromebook - Exynos5 dual core, Mali GPU · Acer Chromebook / Jetson TK1 – Tegra K1 quad-core, NVDIA Cuda GPU · Genesi SmartBook - Freescale iMX.5 single core, AMD z430 GPU ARM Graphics Hardware cont. · ARMv7 HardFloat VFP (no NEON) · Trimslice Diskless - NVIDIA Tegra 2 dual core CPU/GPU · ARMv6 HardFloat VFP (no NEON) · Raspberry Pi - Broadcom SoC single core, VideoCore IV GPU The State of ARM Graphics · (mostly) Current Vendor Blobs · Cubox-i4Pro (iMX.6) · RaspberryPi (VideoCore IV) · Allwinner (Mali) · ChromeOS K1 (Tegra124) · TI (OMAP/SGX) · Open Source Graphics · Tegra/Nouveau – opentegra/grate, nouveau w/firmware · Broadcom/VideoCore IV – weston/wayland, fbturbo · Mali – lima, fbturbo · OMAP – omapfb, omap3 · Vivante – etna-viv, fbturbo · Adreno – freedreno (2D/3D, xorg) Vendor Kernel Forks · Typically a single (older) kernel branch with lots of patches · Minimal backporting (maybe none) · Forwardporting to new branch can take a long time..