Linux Install Guide SOFTWARE VERSION 1.10 March 2019
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Install Redhat/Centos Operating System on UCS M-Series Server
Contents Introduction Prerequisites Requirements Components Used Background Information Download Required Driver ISO Bundle Steps to install RHEL 7.0 or CentOS 7.0 Verify Steps to install RHEL 6.5 or CentOS 6.5 Verify Post Installation Verification Related Information Introduction This document describes how to install Redhat Enterprise Linux ( RHEL ) or CentOS Linux on the Cisco Unified Computing System (UCS) M-Series server using local storage. Prerequisites Requirements Cisco recommends that you have knowledge of these topics: ● Cisco UCS Manager 2.5 or 3.1 version ● Storage Profiles ● Linux Operating Systems (OS) Components Used The information in this document is based on UCS M-Series. The information in this document was created from the devices in a specific lab environment. All of the devices used in this document started with a cleared (default) configuration. If your network is live, make sure that you understand the potential impact of any command. Background Information Cisco M-Series modular server is one of the Cisco products that represents Composable Infrastructure design. The modular servers do not have a local storage but a centralized storage that can be shared by all servers. To access the shared storage, OS requires new Small Computer System Interface (SCSI) driver called as storage Network Interface Card ( sNIC ) and has to be added during installation for OS to detect the disks. The next few sections of this document provides information on how to download the driver and install it during the OS installation. Download Required Driver ISO Bundle The UCS Hardware and Software Interoperability Matrix outlines the driver versions that are required for a particular OS, device, and firmware combination.These links for the Matrix Utility Tool and the Matrix PDFs, determines the required driver version. -
Reverse Engineering Power Management on NVIDIA Gpus - Anatomy of an Autonomic-Ready System Martin Peres
Reverse Engineering Power Management on NVIDIA GPUs - Anatomy of an Autonomic-ready System Martin Peres To cite this version: Martin Peres. Reverse Engineering Power Management on NVIDIA GPUs - Anatomy of an Autonomic-ready System. ECRTS, Operating Systems Platforms for Embedded Real-Time appli- cations 2013, Jul 2013, Paris, France. hal-00853849 HAL Id: hal-00853849 https://hal.archives-ouvertes.fr/hal-00853849 Submitted on 23 Aug 2013 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Reverse engineering power management on NVIDIA GPUs - Anatomy of an autonomic-ready system Martin Peres Ph.D. student at LaBRI University of Bordeaux Hobbyist Linux/Nouveau Developer Email: [email protected] Abstract—Research in power management is currently limited supported nor documented by NVIDIA. As GPUs are leading by the fact that companies do not release enough documentation the market in terms of performance-per-Watt [3], they are or interfaces to fully exploit the potential found in modern a good candidate for a reverse engineering effort of their processors. This problem is even more present in GPUs despite power management features. The choice of reverse engineering having the highest performance-per-Watt ratio found in today’s NVIDIA’s power management features makes sense as they processors. -
High Speed Visualization in the Jetos Aviation Operating System Using Hardware Acceleration*
High Speed Visualization in the JetOS Aviation Operating System Using Hardware Acceleration* Boris Barladian[0000-0002-2391-2067], Nikolay Deryabin[0000-0003-1248-6047], Alexey Voloboy[0000-0003-1252-8294], Vladimir Galaktionov[0000-0001-6460-7539], and Lev Shapiro[0000-0002-6350-851X] The Keldysh Institute of the Applied Mathematics of RAS, Moscow, Russia [email protected],{voloboy, vlgal, pls}@gin.keldysh.ru Abstract. The paper discusses details of the pilot display visualization that uses the hardware acceleration capabilities of the Vivante graphics processor in the JetOS aviation operating system. Previously the OpenGL Safety Critical library was implemented without hardware acceleration. This was done in such a way because software library is easier to certify in accordance with the avionics re- quirements. But usage of the software OpenGL does not provide acceptable visualization speed for modern Flight Display and 3D relief applications. So more complex visualization approach utilized the GPU acceleration capabilities was elaborated. Although the OpenGL library was implemented for a specific GPU and took into account its specificity, the described approach to adapt the MESA open source library can be used for other GPUs. An effective algorithm for multi-window visualization using the implemented library with hardware acceleration is present. The described approach allows you to achieve the visu- alization speed acceptable for the pilot display of the aircraft. Keywords: Pilot Display, Embedded Systems, Real-time Operating System, OpenGL Safety Critical, Multi-windowing. 1 Introduction In [1] requirements were formulated for a real-time operating system (RTOS) de- signed to work with integrated modular avionics. In particular, the RTOS should comply with the ARINC 653 standard [2]. -
Technology Overview New Features Backupedge
Technology Overview - BackupEDGE™ Introduction to the New Features in BackupEDGE 3.x Technology Overview BackupEDGE has a long history of providing reliable data protection for New Features many thousands of users. As operating systems, storage devices and BackupEDGE 3.x usage needs and tendencies have changed over the years, it has continuously met the challenge of providing inexpensive, stable backup and disaster recovery on a variety of UNIX and Linux platforms. Clients routinely find new and clever ways to utilize products. Storage devices have taken on new and exciting features, and incredible capacities. Products designed years ago had built-in limits that were thought to be beyond comprehension. Today, these limits are routinely exceeded. The need for data security is even more apparent. We’re constantly asking our To continue to meet the evolving needs of our clients, we are always clients what tools our asking what features of our products they find most useful, what products need to serve them improvements we can make, and what new requirements they have. better. We’ve used this knowledge to map out new product strategies designed to anticipate the needs of the next generation of users, systems and storage products. This has resulted in the creation of BackupEDGE 3.x, with a combination of internal improvements, new features and enhanced infrastructure designed to become the backbone of a new generation of storage software. Summary of Major Changes and Additions BackupEDGE 3.x features include: • Improvements to partition sizing, UEFI table cleanup after DR, and SharpDrive debugging (03.04.01 build 3). • Support for Rocky Linux 8.4 and AlmaLinux 8.4 (03.04.01 build 2). -
The Linux Graphics Stack Attributions
I - Hardware : Anatomy of a GPU II - Host : The Linux graphics stack Attributions Introduction to GPUs and to the Linux Graphics Stack Martin Peres CC By-SA 3.0 Nouveau developer Ph.D. student at LaBRI November 26, 2012 1 / 36 I - Hardware : Anatomy of a GPU II - Host : The Linux graphics stack Attributions General overview Outline 1 I - Hardware : Anatomy of a GPU General overview Driving screens Host < − > GPU communication 2 II - Host : The Linux graphics stack General overview DRM and libdrm Mesa X11 Wayland X11 vs Wayland 3 Attributions Attributions 2 / 36 I - Hardware : Anatomy of a GPU II - Host : The Linux graphics stack Attributions General overview General overview of a modern GPU's functions Display content on a screen Accelerate 2D operations Accelerate 3D operations Decode videos Accelerate scientific calculations 3 / 36 I - Hardware : Anatomy of a GPU II - Host : The Linux graphics stack Attributions General overview CPU Clock Front-side Graphics Generator bus card slot Chipset Memory Slots High-speed graphics bus (AGP or PCI Northbridge Memory Express) bus (memory controller hub) Internal Bus PCI Bus Onboard Southbridge graphics PCI (I/O controller controller Bus hub) IDE SATA USB Cables and Ethernet ports leading Audio Codec CMOS Memory off-board PCI Slots LPC Bus Super I/O Serial Port Parallel Port Flash ROM Floppy Disk Keyboard (BIOS) Mouse 4 / 36 I - Hardware : Anatomy of a GPU II - Host : The Linux graphics stack Attributions General overview Hardware architecture GPU: Where all the calculations are made VRAM: Stores -
Installation Oreka TR on Linux Centos 7 - 1 Prerequisites (Provided by Customer)
Installation Oreka TR in Linux Contents What is Oreka TR? 1 Architecture 1 Prerequisites (provided by customer): 2 Prerequisites (provided by Orecx): 2 OrkAudio Installation 3 Configuring OrkAudio for Active Recording 5 Upgrading OrkAudio (optional) 6 Orkwebapps Installation 8 Additional documentation: 12 Upgrading Orkwebapps 12 What is Oreka TR? Oreka TR is an enterprise cross-platform system for recording and retrieval of audio streams, computer screens, and text messages (SMS). It supports recording from VoIP telephony systems via active and passive recording methods. It also supports recording from TDM telephony systems. The Oreka TR user interface (OrkUI) is web-based and provides a rich feature set such as call live monitoring, recordings playback, extensive search and query capabilities, audit trail, reporting, tagging, media manager, and many others. Architecture The Oreka TR system consists of a combination of the following services: ● OrkAudio : This is the audio capture background service. It supports active and passive VoIP recording as well as TDM based recording. ● OrkTrack : This service centrally tracks activity on the entire system and logs recordings to any popular SQL database. It is also responsible for background tasks such as the Media Manager, User and Group Auto-Provisioning as well as most API functionality through a RESTful interface. ● OrkUI: This service is the web interface accessible via any standard compliant web browser. It relies on the Tomcat web server. Installation Oreka TR on Linux CentOS 7 - 1 Prerequisites (provided by customer): ● Centos 7.x – 64-bit (minimal ISO or higher) or RHEL 7.x/8.x ● For hardware requirements see: http://files.orecx.com/docs/oreka-voip-server-specs.pdf ● Root-level or Administrator access on the server ● Internet connection to download MySQL or MariaDB as well the Oreka TR installation files Prerequisites (provided by Orecx): ● Valid OrkAudio and OrkWeb Licenses ● OrkAudio installer (e. -
Centos and OS Support
CentOS and OS support Antoine Delvaux ・ PSNC / GÉANT project ・ [email protected] Mark Feit ・ Internet2 ・ [email protected] nd 2 European perfSONAR User Workshop 14-15 April 2021 perfSONAR is developed by a partnership of ©2021 The perfSONAR Project and its Contributors ・ Licensed CC BY-SA 4.0 ・ https://www.perfsonar.net perfSONAR is running on different OSes ● CentOS ○ And some Red Hat derivatives, but you’re on your own ● Debian and Ubuntu ○ And some other Debian derivatives, but you’re on your own ● The times, they are a-changing... 2 CentOS 3 CentOS 7 ● End of life is June 30, 2024. ● perfSONAR support will continue until then. 4 CentOS 8 ● July, 2019 IBM closes Red Hat acquisition ● December, 2020 New CentOS 8 EOL December, 2021 Eight years ahead of originally-scheduled 2029 5 CentOS Stream • What Was: Fedora → Red Hat Enterprise Linux → CentOS CentOS derived from very-stable EL code Infrequent releases • What Is: Fedora → CentOS Stream → Red Hat Enterprise Linux CentOS derived from Fedora ahead of EL development Rolling releases Welcome to the EL beta program! • Not what people running production systems want. 6 CentOS 8 Alternatives Based on In General Community Distribution Free Stable Code Release Development Red Hat Enterprise Linux ✔ ✔ CentOS Stream ✔ ✔ Oracle Linux ✔ ✔ ✔ Rocky Linux ✔ ✔ ✔ Alma Linux ✔ ✔ ✔ ✔ 7 Alma Linux Checks All the Boxes • Free • Based on stable code • In general release • March 31,2021 • Community development • Non-profit foundation • $1M annual sponsorship from CloudLinux, Inc. • Deployed on Internet2 Next-Generation Infrastructure PoP systems • Two perfSONAR nodes (in Docker containers) • Internal network management applications 8 Future Development on EL-Derived Linux • CentOS is our primary development platform. -
Oracle Linux for Oracle Cloud Infrastructure
Oracle Linux for Oracle Cloud Infrastructure Frequently Asked Questions May 25, 2021 Copyright © 2021, Oracle and/or its affiliates Public INTRODUCTION Oracle Linux is a proven operating environment that is optimized for performance, scalability, reliability, and security. It offers the most cost-effective and integrated operating environment for Oracle Cloud, with the best platform experience for Oracle and non-Oracle applications alike. This document provides answers to frequently asked questions relating to Oracle Linux for Oracle Cloud Infrastructure, and includes support, licensing, compatibility, deployment, and resources information. ORACLE LINUX FEATURES IN ORACLE CLOUD INFRASTRUCTURE What Oracle Linux features are provided for Oracle Cloud Infrastructure customers? Customers deploying Oracle Linux on Oracle Cloud Infrastructure (OCI) have access to the features, components, and Linux programs supported under Oracle Linux Support as outlined in the Oracle Linux License Information User Manual, as well as additional features and tools provided to facilitate and enhance the deployment and development platform experience in Oracle Cloud Infrastructure. Oracle Linux customers on Oracle Cloud Infrastructure have access to: Oracle Autonomous Linux, based on the Oracle Linux operating environment, provides autonomous capabilities such as automated zero downtime patching and known exploit detection, to help keep the operating system highly secure and reliable. The Oracle OS Management Service, an Oracle Cloud Infrastructure integrated solution helps users manage which of their servers to automate or control manually. It also enables users to automate capabilities that will execute common management tasks for Linux systems, including patch and package management, and security and compliance reporting. Frequent Oracle Linux image updates with the latest bug fixes, security errata, Oracle Cloud tools and enhancements. -
Mechdyne-TGX-2.1-Installation-Guide
TGX Install Guide Version 2.1.3 Mechdyne Corporation March 2021 TGX INSTALL GUIDE VERSION 2.1.3 Copyright© 2021 Mechdyne Corporation All Rights Reserved. Purchasers of TGX licenses are given limited permission to reproduce this manual, provided the copies are for their use only and are not sold or distributed to third parties. All such copies must contain the title page and this notice page in their entirety. The TGX software program and accompanying documentation described herein are sold under license agreement. Their use, duplication, and disclosure are subject to the restrictions stated in the license agreement. Consistent with FAR 12.211 and 12.212, Commercial Computer Software, Computer Software Documentation, and Technical Data for Commercial Items are licensed to the U.S. Government under vendor's standard commercial license. This publication is provided “as is” without warranty of any kind, either express or implied, including, but not limited to, the implied warranties of merchantability, fitness for a particular purpose, or non- infringement. Any Mechdyne Corporation publication may include inaccuracies or typographical errors. Changes are periodically made to these publications, and changes may be incorporated in new editions. Mechdyne may improve or change its products described in any publication at any time without notice. Mechdyne assumes no responsibility for and disclaims all liability for any errors or omissions in this publication. Some jurisdictions do not allow the exclusion of implied warranties, so the above exclusion may not apply. TGX is a trademark of Mechdyne Corporation. Windows® is registered trademarks of Microsoft Corporation. Linux® is registered trademark of Linus Torvalds. -
Fermi.Gsfc.Nasa.Gov/Ssc
Running the Fermi Science Tools on Windows Thomas E. Stephens (Innovim/GSFC) and the Fermi Science Support Center Team fermi.gsfc.nasa.gov/ssc Abstract Introduction The Fermi Science Tools, publicly released software for performing analysis on science data from The Fermi Science Tools, now distributed as the FermiTools (see poster P4.3) are developed collaboratively between the Fermi instrument teams and the Fermi Science Support Center (FSSC). Development of these tools began before the Fermi Gamma-ray Space Telescope, have been available and supported on Linux and Mac launch and the tools have been available since the very first public data release in 2009. since launch. Running the tools on a Windows based host has always required a virtual machine For a time, the Fermi Large Area Telescope (LAT) collaboration, maintained a natively compiled version of the tools for running Linux. New technologies, such as Docker and the Windows Subsystem for Linux has Windows, this version regularly had issues and was never publicly released or supported. It was discontinued, even made it possible to use these tools in a more native like environment. for use within the LAT collaboration, in 2014. In this poster we look at three different ways to run the Fermi Science Tools on Windows: via a VM, While it has always been possible to run the tools on Windows using a virtual machine with a Linux guest operating system, this is a somewhat “heavy” solution. With the recent development of both Docker and the Windows Subsystem a Docker container, and using the Windows Subsystem for Linux. -
Linux, Yocto and Fpgas
Embedded Open Source Experts Linux, Yocto and FPGAs Integrating Linux and Yocto builds into different SoCs From a Linux software perspective: ➤ Increased demand for Linux on FPGAs ➤ Many things to mange, both technical and practical ➤ FPGAs with integrated CPU cores – very similar many other SoCs Here are some experiences and observations... © Codiax 2019 ● Page 2 Why use Linux? ➤ De-facto standard ➤ Huge HW support ➤ FOSS ➤ Flexible ➤ Adaptable ➤ Stable ➤ Scalable ➤ Royalty free ➤ Vendor independent ➤ Large community ➤ Long lifetime Why not Linux? ➤ Too big ➤ Real-time requirements ➤ Certification ➤ Boot time ➤ Licensing ➤ Too open? Desktop Shells: Desktop Display server: Display BrailleDisplay Touch-Screen Mouse & Keyboard Wayland Compositor Wayland + development tools = a lot code!of source Linux system example weston, clayton,mutter,KWin evdev libinput GNOME Shell D radeon nouveau lima etna_viv freedreno tegra-re lima nouveau radeon freedreno etna_viv e libwayland-server libwayland-server s Cinnamon k t o kms p Linux kernel, Linux kernel, Plasma 2 w i (Kernel Mode Setting) Mode (Kernel d g Cairo-Dock e t s drm (Direct Rendering Manager) Rendering (Direct drm cache coherent L2-Caches L2-Caches cache coherent CPU &GPU Enlight. DR19 System libraries: System oflibraries): form (in the Toolkits Interface User µClibc Pango glibc glibc main memory possibly adaptations to Wayland/Mir libwayland / COGL libwayland Cairo Cairo (Xr) GTK+ Clutter 2D Application 2D GModule GThread GThread GLib GObject Glib GIO ATK devicedrivers other& modules System -
Linux? POSIX? GNU/Linux? What Are They? a Short History of POSIX (Unix-Like) Operating Systems
Unix? GNU? Linux? POSIX? GNU/Linux? What are they? A short history of POSIX (Unix-like) operating systems image from gnu.org Mohammad Akhlaghi Instituto de Astrof´ısicade Canarias (IAC), Tenerife, Spain (founder of GNU Astronomy Utilities) Most recent slides available in link below (this PDF is built from Git commit d658621): http://akhlaghi.org/pdf/posix-family.pdf Understanding the relation between the POSIX/Unix family can be confusing Image from shutterstock.com The big bang! In the beginning there was ... In the beginning there was ... The big bang! Fast forward to 20th century... Early computer hardware came with its custom OS (shown here: PDP-7, announced in 1964) Fast forward to the 20th century... (∼ 1970s) I AT&T had a Monopoly on USA telecommunications. I So, it had a lot of money for exciting research! I Laser I CCD I The Transistor I Radio astronomy (Janskey@Bell Labs) I Cosmic Microwave Background (Penzias@Bell Labs) I etc... I One of them was the Unix operating system: I Designed to run on different hardware. I C programming language was designed for writing Unix. I To keep the monopoly, AT&T wasn't allowed to profit from its other research products... ... so it gave out Unix for free (including source). Unix was designed to be modular, image from an AT&T promotional video in 1982 https://www.youtube.com/watch?v=tc4ROCJYbm0 User interface was only on the command-line (image from late 80s). Image from stevenrosenberg.net. AT&T lost its monopoly in 1982. Bell labs started to ask for license from Unix users.