Tag: Linux

Details of each Linux Distro for Gaming

Here are the details of each distro:

Drauger OS: Drauger OS is a relatively new Linux distro for users with a penchant for games. Several design elements make this Linux gaming platform different from typical distributions that merely pack digital titles. However, it lacks a few productivity tools that otherwise would make this Linux choice a daily computing driver out of the box.

Lakka: Lakka is a lightweight Linux retro gaming distro that turns your computer into a retro gaming console. It’s so lightweight, it can even run on a mini-PC like a Raspberry Pi. It’s still being actively developed and worked on.

ChimeraOS: ChimeraOS is a gaming distro based on Arch Linux. It is designed to be fast and lightweight, with minimal bloatware and maximum performance. It comes with Steam pre-installed and has support for other game launchers like Lutris and Wine.

Ubuntu GamePack: Ubuntu GamePack is an Ubuntu-based distro that comes pre-installed with Steam, Wine, PlayOnLinux, and other gaming software. It also has support for Nvidia graphics cards and comes with the latest drivers pre-installed.

Fedora Games: Fedora Games is an official Fedora spin that comes pre-installed with over 50 games and game development tools. It also has support for Nvidia graphics cards and comes with the latest drivers pre-installed.

Garuda Linux – Gaming Edition: Garuda Linux – Gaming Edition is an Arch-based distro that comes pre-installed with Steam, Lutris, Wine, and other gaming software. It also has support for Nvidia graphics cards and comes with the latest drivers pre-installed.

Batocera.linux: Batocera.linux is another lightweight retro gaming distro that turns your computer into a retro gaming console. It’s based on Recalbox and supports over 50 different consoles and platforms.

SparkyLinux – GameOver Edition: SparkyLinux – GameOver Edition is a Debian-based distro that comes pre-installed with Steam, Wine, PlayOnLinux, and other gaming software. It also has support for Nvidia graphics cards and comes with the latest drivers pre-installed.

Best Linux Distros for gaming

Linux is a great operating system for gaming. It is free, open-source, and has a wide range of games available. However, not all Linux distros are created equal when it comes to gaming. Some are better than others.

Here are some of the best Linux distros for gaming according to Linux Stans:

  • Drauger OS: the most popular gaming Linux distro that’s actively maintained and updated.
  • Lakka: a lightweight Linux retro gaming distro that turns your computer into a retro gaming console.
  • ChimeraOS: a gaming distro based on Arch Linux.
  • Ubuntu GamePack
  • Fedora Games
  • Garuda Linux – Gaming Edition
  • Batocera.linux
  • SparkyLinux – GameOver Edition

Ubuntu or Ubuntu-based distros like Pop!_OS work very well for gaming and daily usage, whereas if you’re looking for a hardcore gaming distro, Garuda and Drauger are great Linux distro options .

Top Ten Open Source Software

Open-source software is software that is free and allows users to access and modify its source code. Here are the top ten open-source software:

  1. Linux: Linux is a popular open-source operating system that is free to use and can be modified by anyone. It is used in servers, desktops, and mobile devices.
  2. LibreOffice: LibreOffice is a free and open-source office suite that includes word processing, spreadsheet, presentation, and database applications. It is compatible with Microsoft Office formats and supports a wide range of languages.
  3. Mozilla Firefox: Mozilla Firefox is a free and open-source web browser that is fast, secure, and customizable. It supports a wide range of add-ons and extensions that can be used to enhance its functionality.
  4. GIMP: GIMP (GNU Image Manipulation Program) is a free and open-source image editing software that can be used for photo retouching, image composition, and image authoring. It is a powerful tool that supports various file formats and provides advanced tools for image manipulation.
  5. VLC Media Player: VLC Media Player is a free and open-source media player that can play a wide range of audio and video formats. It supports subtitles and provides advanced playback options.
  6. WordPress: WordPress is a popular open-source content management system that is used to create websites and blogs. It is easy to use, customizable, and supports various themes and plugins.
  7. MySQL: MySQL is a free and open-source relational database management system that is used to store and manage data. It is widely used in web applications and supports various programming languages.
  8. Apache OpenOffice: Apache OpenOffice is a free and open-source office suite that includes word processing, spreadsheet, presentation, and database applications. It is compatible with Microsoft Office formats and supports a wide range of languages.
  9. Audacity: Audacity is a free and open-source audio editing software that can be used for recording, editing, and mixing audio. It supports various audio formats and provides advanced audio editing tools.
  10. Blender: Blender is a free and open-source 3D creation software that can be used for modeling, animation, and rendering. It is a powerful tool that supports various file formats and provides advanced tools for 3D creation.

In conclusion, open-source software provides users with free and customizable tools that can be used for various purposes. The above-listed software are just a few examples of the wide range of open-source software available to users.

How to build a Raspberry Pi cluster

Clustering Raspberry Pi 4 involves connecting multiple Raspberry Pi 4 devices together to create a cluster. Here are the general steps for setting up a Raspberry Pi 4 cluster:

  1. Set up the individual Raspberry Pi 4 devices: Each Raspberry Pi 4 should be set up with its own power supply, SD card, and a compatible operating system. It’s recommended to use the same operating system for each device, to simplify the configuration process.
  2. Connect the Raspberry Pi 4 devices: To connect the Raspberry Pi 4 devices, you can use a network switch, hub, or router. Each device should be connected to the same network, either through Ethernet or Wi-Fi.
  3. Configure the network settings: The network settings for each Raspberry Pi 4 device need to be configured to ensure that they can communicate with each other. The IP address and hostname for each device should be set up correctly, and a unique hostname should be assigned to each device.
  4. Install cluster software: There are several software packages available for clustering Raspberry Pi 4 devices, including Kubernetes, Docker Swarm, and Apache Hadoop. Choose a software package that suits your requirements, and install it on each device.
  5. Configure the cluster software: After the cluster software is installed, the cluster needs to be configured. This includes defining the roles of each node in the cluster, setting up load balancing and resource allocation, and configuring the networking and security settings.
  6. Test the cluster: Once the cluster is set up and configured, it’s important to test it to ensure that it’s working correctly. You can run sample applications or benchmarks to test the performance and scalability of the cluster.

In summary, clustering Raspberry Pi 4 devices involves setting up and connecting multiple Raspberry Pi 4 devices, configuring the network settings, installing and configuring cluster software, and testing the cluster. There are several software packages available for clustering Raspberry Pi 4 devices, each with its own configuration and setup process.

How to install Bind 9 DNS

BIND (Berkeley Internet Name Domain) is a popular open-source implementation of the Domain Name System (DNS) protocol. BIND version 9 is the current stable release and is widely used to provide DNS services on Linux and Unix-based systems. Setting up BIND 9 DNS server involves several steps, including configuring the BIND software, creating DNS zones, and configuring DNS records.

Here is a general overview of the steps to set up a BIND 9 DNS server:

  1. Install BIND: To set up a BIND 9 DNS server, you first need to install the BIND software on your Linux or Unix-based system. This can be done by using the package manager of your operating system, such as apt-get or yum.
  2. Configure BIND: Once the BIND software is installed, you need to configure the BIND server by editing the main configuration file, named.conf. You will need to specify the IP address of the DNS server, the location of the zone files, and other settings.
  3. Create DNS zones: A DNS zone is a container for DNS records. You will need to create one or more zones for your DNS server, depending on your network configuration. This can be done by creating text files with the zone information and placing them in the location specified in the named.conf file.
  4. Configure DNS records: DNS records are used to map domain names to IP addresses or other resources. You will need to create DNS records for each zone you created in the previous step. This can be done by editing the zone files and adding the appropriate DNS records.
  5. Test the DNS server: Once you have completed the configuration, you should test the DNS server to ensure that it is working correctly. You can use the “dig” command to perform a DNS lookup and check the results.
  6. Start the BIND service: After the test, you can start the BIND service by running the command systemctl start named or service named start depending on the linux distribution you are using.
  7. Secure the service: Make sure to secure your DNS service by following best practices for securing BIND 9. This includes restricting access to the DNS server, configuring access controls, and implementing security measures such as TSIG and DNSSEC.

It’s important to note that this is a general overview of the steps to set up a BIND 9 DNS server, and more detailed steps and considerations are required to make sure that the process is done correctly. It’s always recommended to have a backup and a plan before proceeding with the setup, and also to use the official BIND documentation as a reference.