DOCSLIB.ORG

Android Based Linux Auto Installer Distro Download 10 Best Linux Distros to Install on a USB Stick

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Android Based Linux Auto Installer Distro Download 10 Best Linux Distros to Install on a USB Stick android based linux auto installer distro download 10 Best Linux Distros to Install on a USB Stick. The GNU/Linux community is blessed with 100+ distributions and we do our best to cover only the best of them on FossMint so if you haven’t checked out titles like the Best Linux Distros for Laptops in 2019, 5 Operating Systems for the IoT, and the Top 10 GNU/Linux Distros for Privacy & Security then you probably should. Today, our attention is Linux distros that are perfect for running from USB sticks (and potentially other portable external storage devices) which means that we’ll be concentrating on portable Operating Systems. These are Operating Systems that are designed to be minimalist in their resource requirements i.e. they can run on hardware with little secondary storage space and/or little RAM. Portable Operating Systems also typically come in small enough sizes to fit on USB drives and CDs without losing the quality of their performance even when running on old machines. With that being said, here’s my list of the best portable Linux distributions. 1. MX Linux. MX Linux is an open-source antiX and MEPIS -based Linux distro designed to work efficiently on both old and modern PCs. It is easy to configure and has been developed to be simple enough for Linux beginners to easily get up and running with it. MX Linux is powerful and sure to run nicely on your USB stick plus its online community is 100% welcoming of new users and developers. MX Linux Distro. 2. Puppy Linux. Puppy Linux is a collection of completely customizable lightweight portable Linux distributions developed with a focus on memory friendliness and ease of use. It ships with common tools for daily computing, a “grandpa”-navigable UI, and several flavors to meet the individual requirements of potential users. Puppy leaves such a small memory footprint that it can run entirely on RAM and it even enables you to save your session data separately. 3. Peppermint OS. Peppermint OS is a fast, fully customizable lightweight Lubuntu-based OS designed to integrate with web-based applications and cloud services. It combines the functionality of Xfce’s panel and application menu with LXDE’s lxsession to offer users a fancy desktop environment and ships with the tools that users typically need in their workstation such as the Software Manager and the terminal. 4. Ubuntu GamePack. Ubuntu GamePack is an Ubuntu-based distro created to provide Linux users with 28,000+ games and applications that typically run on only Windows and MS-DOS. It ships with preinstalled delivery systems for Internet games and apps including Lutris, Steam, Wine , and PlayOnLinux and conveniently allows users to keep copies of their game configuration and progress on multiple drives. 5. Kali Linux. Kali Linux is a Debian-based distro developed especially for penetration testing and digital forensics. It comes with 300+ premier tools built by an elite team of security experts and it is designed to be able to run on a flash drive in order to facilitate an unhindered workflow irrespective of place. If you’re into cybersecurity/forensics you should check out our article on the Best 20 Hacking and Penetration Tools for Kali Linux. 6. Slax. Hailed as a Pocket Operating System , Slax is an open source Debian-based LiveCD distro with a modular installer that enables users to choose the apps they want to be installed on their machine. In total, Slax is about 210MB and requires just about 256MB RAM to run. It works excellently even on old machines as it is available for both 32 and 64-bit architectures. Slax Linux Desktop. 7. Porteus. Porteus is a full Linux Operating System optimized to be run from USB flash drives, CDs, or any bootable storage media including hard drives. Being a little under 300MB, it is among the smallest and yet fastest distros on our planet as, among other features, it boots into the LXDE desktop in under 15 seconds! It implements a modular system which is available for 32 and 64-bit architectures with support for several world languages and a large user community. 8. Knoppix. Knoppix is a Debian-based Operating System designed for running directly from a USB drive and/or CD/DVD thereby successfully placing a Live Linux Filesystem on CD. Knoppix was first released 18 years ago as one of the first LiveCD distributions and has been in active development ever since and giving rise to similar initiatives such as DSL . 9. Tiny Core Linux. Tiny Core Linux is a mini Linux Operating System developed by Robert Shingledecker to provide a base system using FLTK and BusyBox and it stands out for its small size and minimalist approach to applications manager, among other features. The goal of the Tiny Core Linux project is to create an OS capable of booting from a CD ROM, pen drive, or booting frugally from a hard drive while completing operations speedily. It runs directly from RAM and can have its modules extended using extensions installed in the RAM or mounted from a storage device. Tiny Core Linux. 10. SliTaz. SliTaz is a secure and high-performance GNU/Linux Operating System designed to be fast, simple to use, and completely customizable. Its name stands for Simple, Light, Incredible, Temporary Autonomous Zone and with a total core LiveCD size of 35 – 50MB. SliTaz is possibly the smallest distribution with a desktop GUI on the planet. It is so customizable that you can change anything you want including adding Desktop Effects, persistence (the characteristic of a state that outlives its parent process), etc. Did I mention your favorite portable Linux distro? Feel free to add your suggestions and share your experience with us in the comments section below. And don’t forget to support us by subscribing to FossMint’s newsletter and sharing our articles. How to install Linux on an Android phone. Your Android phone is already powered by the goodness of Linux, but you can enhance it further and make better use of its multi-core processors and oodles of RAM by running a full-blown Linux distro alongside the existing mobile OS. We can think of many reasons why you'd want a proper Linux PC in your pocket. You can, for example, use it to power a LAMP server that can run web apps and serve web pages. If you're a network admin, you can install your favourite Linux tools and turn the smartphone into a portable network troubleshooting or pen-testing device. The LinuxOnAndroid project produces an Android app and a couple of shell scripts, and hosts a bunch of Linux distros that you can boot using the app. In a snap, the scripts mount the Linux image within the Android filesystem and the SD card within the Linux filesystem. They then call on chroot to change the root directory to that of the mounted Linux and open up a shell for you to interact with the mounted Linux system. The scripts also set up SSH for secured remote access, along with VNC to allow you to access this Linux system's graphical desktop. The scripts only prepare the environment for Linux to run on the device. The Linux image files hosted by the project are just customised Linux environments packaged by the project developers to suit different use-cases and devices. The important bit is that all the Linux distros offered by the project are made up of ARM packages, and instead of running in a virtual machine they run on the real hardware on your Android smartphone. This is why you can run it on the measliest of devices. We've managed to run Arch Linux along with the Enlightenment desktop on a Samsung phone with a single-core 1GHz processor and about 400MB RAM. At the time of writing, the project has stable images for Arch Linux, Debian Lenny, Debian Testing, Fedora 20, Fedora 19, Kali Linux, Ubuntu 13.10, Ubuntu 13.04, and Ubuntu 12.04 LTS. There are also Alpha images that aren't meant for production use for other distros, including Slackware, Bodhi, OpenSUSE and Ubuntu 14.04. Each of these distros is available in multiple editions. The Core image is the smallest in size, and includes the minimum set of packages you need to run the distro. This is ideal for creating your own images and include the Openbox window manager. Next there's the Small image, which ships with the LXDE desktop and its suite of programs. Finally you have the Large image, which includes the KDE Plasma Desktop, LibreOffice and Gimp. Some distros have additional images as well. Arch Linux produces images with the Enlightenment desktop, and Fedora ships an image with the MATE desktop. You can grab the images with either the ext2 or ext4 filesystem. The ext4 images are compatible with Android 4.3 while the ext2 images are compatible with earlier versions of Android. Prep the device. Start by grabbing the Complete Linux Installer app from Google's Play Store. Alternatively you can head to the LinuxOnAndroid project's website and download the open source version of the Android app (but go into the Settings > Security menu and toggle Unknown Sources to enable installation of non-Play Store apps). The app requires a rooted Android device. The exact procedure necessary to root an Android device varies between models. Besides the app produced by the LinuxOnAndroid project, you'll also need a VNC viewer to use the graphical desktop. The project suggests using the popular Android VNC Viewer app.
Load more

Recommended publications
  • Tiny Core Linux
    THE TINY CORE LINUX HANDBOOK v 0.965 Not corrected draft (c) 2013 compiled by Thierry SALOMON tsalomon AT hotmail DoT com tinycorelinux.inf.hu Table of Contents TINY CORE LINUX .......................................................................................................................... 1 INTRODUCTION........................................................................................................................... 4 DOWNLOADING TINY CORE LINUX....................................................................................... 5 LIVE-CD MODE.............................................................................................................................6 THE GRAPHICAL USER INTERFACE........................................................................................7 Setting up the right screen resolution and mouse parameters.....................................................7 The Tiny Core Linux desktop..................................................................................................... 7 The Mouse menu.........................................................................................................................8 HOW TO SAVE YOUR SETTINGS (PERSISTENCE).............................................................. 10 INSTALLING TINY CORE LINUX ON A HARD DISK/FREE PARTITION..........................11 INSTALLING TINY CORE LINUX ON A USB-PENDRIVE................................................... 12 EMBEDDED INSTALLATION WITHIN WINDOWS...............................................................13
    [Show full text]
  • Today's Howtos Today's Howtos
    Published on Tux Machines (http://www.tuxmachines.org) Home > content > today's howtos today's howtos By Roy Schestowitz Created 15/09/2020 - 8:41pm Submitted by Roy Schestowitz on Tuesday 15th of September 2020 08:41:50 PM Filed under HowTos [1] How to Install Angular CLI on Ubuntu 20.04 [2] Trying to block all possible web connections to facebook (in the Chrome browser)[3] How to run a phishing attack simulation with GoPhish [4] [Older] Android App Basics: How to install Android Studio on Windows, macOS, Linux, and Chrome OS[5] How to Connect Your Android or iPhone to Your TV [6] Install Puppet Master and Agent on Ubuntu 20.04 [7] How to switch from Windows 10 to Linux [8] Incremental backups with Btrfs snapshots [9] How to install Tiny core Linux on VMware Player? [10] How to Use Docker Run Command [Beginners Guide] [11] How to Restart Pods in Kubernetes [Quick K8 Tip] [12] How to Manage Your Startup Applications in Ubuntu [13] How To Install ElasticSearch On Linux [14] How to Install and Use Wireshark on Ubuntu 20.04 LTS [15] How to Install Arch Linux 2020.09 Minimal (No GUI) on VMware Workstation[16] How To View Linux System Statistics With Saidar [17] Git tutorial for Beginners [18] Creating an SSH Key Pair on the Linux Command Line for OCI Access[19] Interpreting DHCP packets [20] Setting up port redirects in Linux with ncat [21] HowTos Source URL: http://www.tuxmachines.org/node/142151 Links: [1] http://www.tuxmachines.org/taxonomy/term/98 [2] https://tecadmin.net/how-to-install-angular-cli-on-ubuntu-20-04/ [3] https://fossjon.wordpress.com/2020/09/15/trying-to-block-all-possible-web-connections-to-facebook-in-the-chrome-
    [Show full text]
  • CNTR: Lightweight OS Containers
    CNTR: Lightweight OS Containers Jorg¨ Thalheim, Pramod Bhatotia Pedro Fonseca Baris Kasikci University of Edinburgh University of Washington University of Michigan Abstract fundamental to achieve high efficiency in virtualized datacenters and enables important use-cases, namely Container-based virtualization has become the de-facto just-in-time deployment of applications. Moreover, standard for deploying applications in data centers. containers significantly reduce operational costs through However, deployed containers frequently include a higher consolidation density and power minimization, wide-range of tools (e.g., debuggers) that are not required especially in multi-tenant environments. Because of all for applications in the common use-case, but they these advantages, it is no surprise that containers have seen are included for rare occasions such as in-production wide-spread adoption by industry, in many cases replacing debugging. As a consequence, containers are significantly altogether traditional virtualization solutions [17]. larger than necessary for the common case, thus increasing the build and deployment time. Despite being lightweight, deployed containers often include a wide-range of tools such as shells, editors, CNTR1 provides the performance benefits of lightweight coreutils, and package managers. These additional tools containers and the functionality of large containers by are usually not required for the application’s core function splitting the traditional container image into two parts: the — the common operational use-case — but they are “fat” image — containing the tools, and the “slim” image included for management, manual inspection, profiling, — containing the main application. At run-time, CNTR and debugging purposes [64]. In practice, this significantly allows the user to efficiently deploy the “slim” image and increases container size and, in turn, translates into then expand it with additional tools, when and if necessary, slower container deployment and inefficient datacenter by dynamically attaching the “fat” image.
    [Show full text]
  • Cisco Modeling Labs 2.0 Release Notes
    Cisco Modeling Labs 2.0 Release Notes First Published: 2020-04-10 Americas Headquarters Cisco Systems, Inc. 170 West Tasman Drive San Jose, CA 95134-1706 USA http://www.cisco.com Tel: 408 526-4000 800 553-NETS (6387) Fax: 408 527-0883 THE SPECIFICATIONS AND INFORMATION REGARDING THE PRODUCTS IN THIS MANUAL ARE SUBJECT TO CHANGE WITHOUT NOTICE. ALL STATEMENTS, INFORMATION, AND RECOMMENDATIONS IN THIS MANUAL ARE BELIEVED TO BE ACCURATE BUT ARE PRESENTED WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED. USERS MUST TAKE FULL RESPONSIBILITY FOR THEIR APPLICATION OF ANY PRODUCTS. THE SOFTWARE LICENSE AND LIMITED WARRANTY FOR THE ACCOMPANYING PRODUCT ARE SET FORTH IN THE INFORMATION PACKET THAT SHIPPED WITH THE PRODUCT AND ARE INCORPORATED HEREIN BY THIS REFERENCE. IF YOU ARE UNABLE TO LOCATE THE SOFTWARE LICENSE OR LIMITED WARRANTY, CONTACT YOUR CISCO REPRESENTATIVE FOR A COPY. The Cisco implementation of TCP header compression is an adaptation of a program developed by the University of California, Berkeley (UCB) as part of UCB's public domain version of the UNIX operating system. All rights reserved. Copyright © 1981, Regents of the University of California. NOTWITHSTANDING ANY OTHER WARRANTY HEREIN, ALL DOCUMENT FILES AND SOFTWARE OF THESE SUPPLIERS ARE PROVIDED “AS IS" WITH ALL FAULTS. CISCO AND THE ABOVE-NAMED SUPPLIERS DISCLAIM ALL WARRANTIES, EXPRESSED OR IMPLIED, INCLUDING, WITHOUT LIMITATION, THOSE OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT OR ARISING FROM A COURSE OF DEALING, USAGE, OR TRADE PRACTICE. IN NO EVENT SHALL CISCO OR ITS SUPPLIERS BE LIABLE FOR ANY INDIRECT, SPECIAL, CONSEQUENTIAL, OR INCIDENTAL DAMAGES, INCLUDING, WITHOUT LIMITATION, LOST PROFITS OR LOSS OR DAMAGE TO DATA ARISING OUT OF THE USE OR INABILITY TO USE THIS MANUAL, EVEN IF CISCO OR ITS SUPPLIERS HAVE BEEN ADVISED OF THE POSSIBILITY OF SUCH DAMAGES.
    [Show full text]
  • Securing Embedded Systems: Analyses of Modern Automotive Systems and Enabling Near-Real Time Dynamic Analysis
    Securing Embedded Systems: Analyses of Modern Automotive Systems and Enabling Near-Real Time Dynamic Analysis Karl Koscher A dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy University of Washington 2014 Reading Committee: Tadayoshi Kohno, Chair Gaetano Borriello Shwetak Patel Program Authorized to Offer Degree: Computer Science and Engineering © Copyright 2014 Karl Koscher University of Washington Abstract Securing Embedded Systems: From Analyses of Modern Automotive Systems to Enabling Dynamic Analysis Karl Koscher Chair of the Supervisory Committee: Associate Professor Tadayoshi Kohno Department of Computer Science and Engineering Today, our life is pervaded by computer systems embedded inside everyday products. These embedded systems are found in everything from cars to microwave ovens. These systems are becoming increasingly sophisticated and interconnected, both to each other and to the Internet. Unfortunately, it appears that the security implications of this complexity and connectivity have mostly been overlooked, even though ignoring security could have disastrous consequences; since embedded systems control much of our environment, compromised systems could be used to inflict physical harm. This work presents an analysis of security issues in embedded systems, including a comprehensive security analysis of modern automotive systems. We hypothesize that dynamic analysis tools would quickly discover many of the vulnerabilities we found. However, as we will discuss, there
    [Show full text]
  • Root Filesystem
    >>> Operating Systems And Applications For Embedded Systems >>> Root Filesystem Name: Mariusz Naumowicz Date: 27 sierpnia 2018 [~]$ _ [1/21] >>> Plan 1. Root Filesystem Useful System Filesystem Hierarchy Standard (FHS) Staging directory 2. Programs The init program Shell Utilities BusyBox ToyBox Libraries Reducing size by stripping Device nodes The proc and sysfs flesystems Mounting flesystems Additional reading Standalone ramdisk Minimizing size Booting with QEMU Additional reading [~]$ _ [2/21] >>> Useful System * init: The program that starts everything off, usually by running a series of scripts. * shell: Needed to give you a command prompt but, more importantly, to run the shell scripts called by init and other programs. * daemons: Various server programs, started by init. * libraries: Usually, the programs mentioned so far are linked with shared libraries which must be present in the root filesystem. * Configuration files: The configuration for init and other daemons is stored in a series of ASCII text files, usually in the /etc directory. * Device nodes: The special files that give access to various device drivers. * /proc and /sys: Two pseudo filesystems that represent kernel data structures as a hierarchy of directories and files. Many programs and library functions read these files. * kernel modules: If you have configured some parts of your kernel to be modules, they will be here, usually in /lib/modules/[kernel version]. [1. Root Filesystem]$ _ [3/21] >>> Filesystem Hierarchy Standard (FHS) * /bin: programs essential for all
    [Show full text]
  • Yocto-Slides.Pdf
    Yocto Project and OpenEmbedded Training Yocto Project and OpenEmbedded Training © Copyright 2004-2021, Bootlin. Creative Commons BY-SA 3.0 license. Latest update: October 6, 2021. Document updates and sources: https://bootlin.com/doc/training/yocto Corrections, suggestions, contributions and translations are welcome! embedded Linux and kernel engineering Send them to [email protected] - Kernel, drivers and embedded Linux - Development, consulting, training and support - https://bootlin.com 1/296 Rights to copy © Copyright 2004-2021, Bootlin License: Creative Commons Attribution - Share Alike 3.0 https://creativecommons.org/licenses/by-sa/3.0/legalcode You are free: I to copy, distribute, display, and perform the work I to make derivative works I to make commercial use of the work Under the following conditions: I Attribution. You must give the original author credit. I Share Alike. If you alter, transform, or build upon this work, you may distribute the resulting work only under a license identical to this one. I For any reuse or distribution, you must make clear to others the license terms of this work. I Any of these conditions can be waived if you get permission from the copyright holder. Your fair use and other rights are in no way affected by the above. Document sources: https://github.com/bootlin/training-materials/ - Kernel, drivers and embedded Linux - Development, consulting, training and support - https://bootlin.com 2/296 Hyperlinks in the document There are many hyperlinks in the document I Regular hyperlinks: https://kernel.org/ I Kernel documentation links: dev-tools/kasan I Links to kernel source files and directories: drivers/input/ include/linux/fb.h I Links to the declarations, definitions and instances of kernel symbols (functions, types, data, structures): platform_get_irq() GFP_KERNEL struct file_operations - Kernel, drivers and embedded Linux - Development, consulting, training and support - https://bootlin.com 3/296 Company at a glance I Engineering company created in 2004, named ”Free Electrons” until Feb.
    [Show full text]
  • MANAGING a REAL-TIME EMBEDDED LINUX PLATFORM with BUILDROOT John Diamond, Kevin Martin Fermi National Accelerator Laboratory, Batavia, IL 60510
    MANAGING A REAL-TIME EMBEDDED LINUX PLATFORM WITH BUILDROOT John Diamond, Kevin Martin Fermi National Accelerator Laboratory, Batavia, IL 60510 Desktop distributions are an awkward Buildroot + ucLibc + Busybox + RTAI Quantitative Results implementation of an Embedded RTOS Buildroot – downloads, unpacks, • Whole build process is automated resulting in • Architecture-dependent binary configures, compiles and installs system much quicker build times (hours not days) software automatically • Kernel and root filesystem size: 3.5 MB – 20 packages uClibc – Small-footprint standard C library MB (reduction of 99%) • Loaded with unnecessary software Busybox – all-in-one UNIX utilities and shell • Boot-time: ~9 seconds • Huge footprints RTAI – Real-Time Linux extensions = Qualitative Results • Allows integration with revision control into First Try: Build Linux from Source the platform development process, making it • Success! But.. 2. Buildroot’s menuconfig generates a package configuration file easier to manage an ecosystem of targets • Is as difficult as it sounds and kernel configuration file • Community support for x86 & ARM targets Linux Kernel • Overwhelming number of packages and Configuration gives us confidence that future targets can be patches Package supported without much effort 1. Developer Configuration • No version control configures build via Buildroot’s • Cross-compile even more headaches menuconfig Internet Build Process Power Supply Control Quench Protection Git / CVS / SVN and Regulation for the System for Tevatron Did not do what we needed: Fermilab Linac Electron Lens (TEL II) 3. The build process pulls 4. The output from the software packages from build process is a kernel • Small-footprint network bootable image the internet and custom bzImage bzImage file with an softare packages from a integrated root filesystem ARM Cortex A-9 source code repository file PC/104 AMD • Automated build system Geode SBC Beam Position Monitor Power Supply Control prototype for Fermilab and Regulation for • Support for multiple architectures 5.
    [Show full text]
  • Cross-Compiler Bipartite Vulnerability Search
    electronics Article Cross-Compiler Bipartite Vulnerability Search Paul Black * and Iqbal Gondal Internet Commerce Security Laboratory (ICSL), Federation University, Ballarat 3353, Australia; [email protected] * Correspondence: [email protected] Abstract: Open-source libraries are widely used in software development, and the functions from these libraries may contain security vulnerabilities that can provide gateways for attackers. This paper provides a function similarity technique to identify vulnerable functions in compiled programs and proposes a new technique called Cross-Compiler Bipartite Vulnerability Search (CCBVS). CCBVS uses a novel training process, and bipartite matching to filter SVM model false positives to improve the quality of similar function identification. This research uses debug symbols in programs compiled from open-source software products to generate the ground truth. This automatic extraction of ground truth allows experimentation with a wide range of programs. The results presented in the paper show that an SVM model trained on a wide variety of programs compiled for Windows and Linux, x86 and Intel 64 architectures can be used to predict function similarity and that the use of bipartite matching substantially improves the function similarity matching performance. Keywords: malware similarity; function similarity; binary similarity; machine-learning; bipar- tite matching 1. Introduction Citation: Black, P.; Gondal, I. Cross-Compiler Bipartite Function similarity techniques are used in the following activities, the triage of mal- Vulnerability Search. Electronics 2021, ware [1], analysis of program patches [2], identification of library functions [3], analysis of 10, 1356. https://doi.org/10.3390/ code authorship [4], the identification of similar function pairs to reduce manual analysis electronics10111356 workload, [5], plagiarism analysis [6], and for vulnerable function identification [7–9].
    [Show full text]
  • Spack Tutorial on AWS
    Spack Tutorial on AWS The most recent version of these slides can be found at: July 28-29, 2020 https://spack-tutorial.readthedocs.io LLNL-PRES-806064 This work was performed under the auspices of the U.S. Department of Energy by Lawrence Livermore National Laboratory under contract DE-AC52-07NA27344. Lawrence Livermore National Security, LLC Tutorial Materials Download the latest version of slides and handouts at: spack-tutorial.readthedocs.io For more: § Spack website: spack.io § Spack GitHub repository: github.com/spack/spack § Spack Reference Documentation: spack.readthedocs.io Q&A on Slack: spackpm.herokuapp.com Tutorial materials: spack-tutorial.readthedocs.io 2 LLNL-PRES-806064 Software complexity in HPC is growing glm suite-sparse yaml-cpp metis cmake ncurses parmetis pkgconf nalu hwloc libxml2 xz bzip2 openssl boost trilinos superlu openblas netlib-scalapack mumps openmpi zlib netcdf hdf5 matio m4 libsigsegv parallel-netcdf Nalu: Generalized Unstructured Massively Parallel Low Mach Flow Q&A on Slack: spackpm.herokuapp.com Tutorial materials: spack-tutorial.readthedocs.io 3 LLNL-PRES-806064 Software complexity in HPC is growing adol-c automake autoconf perl glm suite-sparse yaml-cpp metis cmake ncurses gmp libtool parmetis pkgconf m4 libsigsegv nalu hwloc libxml2 xz bzip2 openssl p4est pkgconf boost hwloc libxml2 trilinos superlu openblas xz netlib-scalapack netcdf-cxx netcdf mumps openmpi zlib netcdf hdf5 nanoflann matio m4 libsigsegv parallel-netcdf matio hdf5 Nalu: Generalized Unstructured Massively Parallel Low Mach Flow sundials
    [Show full text]
  • Operating System Components for an Embedded Linux System
    INSTITUTEFORREAL-TIMECOMPUTERSYSTEMS TECHNISCHEUNIVERSITATM¨ UNCHEN¨ PROFESSOR G. F ARBER¨ Operating System Components for an Embedded Linux System Martin Hintermann Studienarbeit ii Operating System Components for an Embedded Linux System Studienarbeit Executed at the Institute for Real-Time Computer Systems Technische Universitat¨ Munchen¨ Prof. Dr.-Ing. Georg Farber¨ Advisor: Prof.Dr.rer.nat.habil. Thomas Braunl¨ Author: Martin Hintermann Kirchberg 34 82069 Hohenschaftlarn¨ Submitted in February 2007 iii Acknowledgements At first, i would like to thank my supervisor Prof. Dr. Thomas Braunl¨ for giving me the opportunity to take part at a really interesting project. Many thanks to Thomas Sommer, my project partner, for his contribution to our good work. I also want to thank also Bernard Blackham for his assistance by email and phone at any time. In my opinion, it was a great cooperation of all persons taking part in this project. Abstract Embedded systems can be found in more and more devices. Linux as a free operating system is also becoming more and more important in embedded applications. Linux even replaces other operating systems in certain areas (e.g. mobile phones). This thesis deals with the employment of Linux in embedded systems. Various architectures of embedded systems are introduced and the characteristics of common operating systems for these devices are reviewed. The architecture of Linux is examined by looking at the particular components such as kernel, standard C libraries and POSIX tools for embedded systems. Furthermore, there is a survey of real-time extensions for the Linux kernel. The thesis also treats software development for embedded Linux ranging from the prerequi- sites for compiling software to the debugging of binaries.
    [Show full text]
  • Arch Linux Installation
    (DELL)ARCH LINUX INSTALLATION INFORMATION Current installed version archlinux-2014.05.01, Arch Linux is also run on the Raspberry Pi:s but way easier to install. Check out the Raspberry Pi installation document for that. Text in Bold Courier New is either something on the screen you’ll see in text or something you should type in. This guide is mainly for the Dell Dimension 9200 we use in the room, but everything could be adapted to your own computer. Just check your hard drive space and which driver you should use for your graphic card. DOWNLOAD Get latest version from: https://www.archlinux.org/download/ Create a bootable USB drive, recommended program for that is USBWriter, since it’s just to open USBWrite, chose the .iso-file (the file you downloaded from Arch Linux’s site) and see that you have the USB plugged in and that the program finds it, then click Start. Easy as pie. http://sourceforge.net/projects/usbwriter/ Keyboard Arch Linux will have the English layout so here’s a picture in case you need it. There’s also a way of temporary switching the keyboard layout but not going to bring that up here. (DELL)ARCH LINUX INSTALLATION INSTALLATION Now that you have your USB ready, plug it in and let’s boot and install Arch Linux. You should get something like the picture below, choose “Boot Arch Linux (x86_64)”. If you don’t get it your boot order settings are most likely not set to have USB drive boot first (pressing F12 during boot will get you a boot order list, or F2 to go into BIOS settings, F12 usually works and there you can select USB Device).
    [Show full text]