The Top 10 Web Browsers for Linux

Linux is renowned for its versatility and customization, allowing users to tailor their computing experience to their preferences. When it comes to web browsing on Linux, you have a wealth of options. In this article, we’ll explore the top 10 web browsers for Linux, each with its unique features and strengths.

1. Google Chrome

While not open-source like Firefox, Google Chrome is a popular choice due to its speed, stability, and compatibility with Google services. Chrome for Linux offers a seamless browsing experience and support for a wide range of web technologies.

2. Mozilla Firefox

Mozilla Firefox has long been a favorite among Linux users. It’s an open-source browser known for its speed, privacy features, and strong support for web standards. Firefox is highly customizable, with a vast collection of add-ons and extensions available.

3. Chromium

Chromium is the open-source project upon which Google Chrome is based. It’s a fantastic choice for users who prefer open-source software but still want the core features of Chrome. Chromium is available in most Linux software repositories.

4. Brave

Brave is a privacy-focused browser that blocks ads and trackers by default. It’s built on Chromium, which means it enjoys excellent performance and compatibility. Brave also offers a unique feature that allows users to earn cryptocurrency by viewing privacy-respecting ads.

5. Opera

Opera is a feature-rich browser that comes with a built-in VPN, ad blocker, and a range of customization options. It’s not as widely used as Firefox or Chrome but has a loyal user base.

6. Vivaldi

Vivaldi is a highly customizable browser that puts a premium on user control. It offers a rich set of features, including tab stacking, note-taking, and extensive keyboard shortcuts. Vivaldi is built on Chromium, ensuring good performance.

7. Midori

Midori is a lightweight and fast web browser designed to be resource-efficient. It’s an excellent choice for users who prefer simplicity and speed in their browsing experience. Midori integrates well with the Linux desktop environment.

8. Falkon

Formerly known as Qutebrowser, Falkon is a Qt-based web browser that emphasizes keyboard-driven navigation. It’s lightweight and aims to provide a minimalistic but efficient browsing experience.

9. Epiphany (GNOME Web)

Epiphany is the default web browser for the GNOME desktop environment. It’s simple and straightforward, focusing on integration with GNOME and adhering to its design principles.

10. Dillo

Dillo is an extremely lightweight and minimalistic browser for Linux. While it lacks many modern features found in other browsers, it’s incredibly fast and is perfect for users with older hardware or those who prioritize speed above all else.

Choosing the Right Browser

The best browser for you on Linux depends on your specific needs and preferences. Factors like performance, privacy, customization, and integration with your desktop environment all play a role in your choice. Experiment with different browsers to find the one that suits you best, as the Linux ecosystem offers a wealth of options to cater to every taste.

In conclusion, Linux users are spoiled for choice when it comes to web browsers. Whether you prioritize speed, privacy, or customization, there’s a Linux browser out there for you. Explore these top 10 options and discover the one that enhances your web browsing experience on the Linux platform.

Kernel.org: The Hub of Linux Kernel Development

Kernel.org, often referred to as the heart of the Linux kernel, is a significant and essential resource for anyone involved in Linux development, system administration, or those simply interested in learning more about the inner workings of the Linux operating system. In this article, we’ll delve into what Kernel.org is, its history, its significance, and the valuable resources it provides to the Linux community.

What is Kernel.org?

Kernel.org is the official website and central repository for the Linux kernel source code. It serves as the primary distribution point for the Linux kernel and related resources. The site hosts the latest stable and development versions of the Linux kernel, making it accessible to developers, system administrators, and enthusiasts worldwide.

A Brief History

Kernel.org has a rich history closely intertwined with the Linux kernel development process. Here are some key milestones:

  1. Inception: Kernel.org was founded in 1996 by H. Peter Anvin, serving as a centralized hub for hosting the Linux kernel source code. This move was significant as it provided a single, reliable source for developers to access the kernel code.
  2. Version Control with Git: In 2005, Linux kernel development transitioned to the Git version control system, developed by Linus Torvalds himself. Git greatly simplified kernel development, and Kernel.org played a pivotal role in hosting Git repositories for various kernel branches.
  3. Security Incident in 2011: In 2011, Kernel.org suffered a security breach that led to a temporary shutdown. This event prompted security improvements and stricter access controls.
  4. Continued Growth: Over the years, Kernel.org has grown in terms of functionality and resources. It offers access to multiple kernel versions, mailing lists, and documentation, making it a comprehensive resource for Linux developers.

Significance of Kernel.org

Kernel.org is a vital resource for several reasons:

  1. Centralized Repository: It serves as the centralized repository for the Linux kernel source code, ensuring a single, authoritative source for developers worldwide.
  2. Version Availability: Kernel.org provides access to both stable and development versions of the Linux kernel, catering to different user needs.
  3. Development Infrastructure: It hosts Git repositories and offers tools that enable Linux kernel developers to collaborate effectively.
  4. Mailing Lists: Kernel.org hosts numerous mailing lists where developers discuss kernel-related topics, share patches, and seek assistance, fostering a sense of community.
  5. Documentation: It provides access to essential documentation, including the Linux Kernel API documentation and coding style guidelines.
  6. Security: Kernel.org has implemented security measures to protect the integrity of the Linux kernel source code, ensuring its reliability.

Using Kernel.org

If you’re interested in utilizing Kernel.org, here’s how you can make the most of it:

  1. Accessing Source Code: You can obtain the Linux kernel source code from Kernel.org by visiting the Linux Kernel Archives. Choose the version you need, download the source tarball, and follow the provided documentation for building and installing the kernel.
  2. Git Repositories: If you prefer Git, you can clone the Git repositories hosted on Kernel.org using commands like git clone https://git.kernel.org/pub/scm/linux/kernel/git/torvalds/linux.git.
  3. Documentation: Explore the extensive documentation available on Kernel.org to better understand the Linux kernel, its APIs, and its development process.
  4. Mailing Lists: If you’re interested in participating in kernel development discussions, you can subscribe to the relevant mailing lists hosted on the site.

Understanding chown -R in Linux: Recursively Changing Ownership and Group

Linux is known for its robust command-line tools that give users precise control over their systems. One such tool is chown, which stands for “change owner,” and it’s used to change the ownership and group of files and directories. When it comes to managing ownership and group settings across multiple files and directories, the -R option is invaluable. In this article, we’ll delve into the chown -R command, explaining what it is, when to use it, and how to use it effectively.

What is chown -R?

The chown command in Linux allows you to modify the ownership and group of a file or directory. The -R option, short for “recursive,” extends this functionality to all files and subdirectories within a specified directory. This is particularly useful when you need to change the ownership and group settings for an entire directory tree and its contents.

When to Use chown -R?

You might wonder when it’s necessary to use chown -R. Here are some common scenarios where this command proves valuable:

  1. User Migration: When a user account is deleted or renamed, and you need to transfer ownership of their files to a new user, the -R option allows you to do this efficiently.
  2. Permission Corrections: Sometimes, permissions get misconfigured, and you need to reset ownership and group settings across a directory and its contents to regain proper control.
  3. Shared Directories: In a multi-user environment, shared directories might require consistent ownership and group settings to ensure collaboration and access control. You can use chown -R to enforce these settings.
  4. Backup Restoration: When restoring backups or migrating data, it’s important to preserve ownership and group information. The -R option ensures all files and subdirectories maintain their original ownership and group settings.

Using chown -R in Practice

The syntax for chown -R is as follows:

chown -R new_owner:new_group directory_or_file
  • new_owner: The username or UID (User Identifier) of the new owner.
  • new_group: The group name or GID (Group Identifier) of the new group.
  • directory_or_file: The target directory or file whose ownership and group settings you want to change recursively.

Here’s an example of how to use chown -R:

sudo chown -R john:staff /home/john/documents

In this example:

  • -R makes the ownership change recursive.
  • john is the new owner.
  • staff is the new group.
  • /home/john/documents is the target directory.

Tips and Considerations

  1. Backup First: Before using chown -R, consider creating a backup of the directory or files you intend to modify. This precaution can help you recover from any unexpected issues.
  2. Use ls to Verify: After running chown -R, use the ls -l command to confirm that the ownership and group settings have been changed as expected.
  3. Permissions: Remember that changing ownership and group settings may not address all permission-related issues. Be mindful of file and directory permissions, which might require separate adjustments.
  4. Security: Only use chown -R when necessary, and avoid using it with system directories and files unless you have a compelling reason and understand the implications.

Finally, chown -R is a strong and versatile tool in Linux that allows you to alter ownership and group settings recursively across directories and files.

How to Use the Linux top Command

The top command is a powerful and commonly used utility in Linux for monitoring system resource usage in real-time. It provides a dynamic, interactive view of processes running on your system, along with system-level statistics. Here’s a tutorial on how to use the top command effectively:

Step 1: Open the Terminal

To use top, open a terminal window on your Linux system. You can typically find the terminal application in your applications menu or use a keyboard shortcut like Ctrl + Alt + T.

Step 2: Launch the top Command

Simply type top in the terminal and press Enter:

top

Step 3: Understand the top Interface

When you run top, you’ll see a screen that provides a wealth of information about your system’s performance. Here’s an overview of the key sections of the top interface:

Header Information: The top portion of the screen displays system-level information, including the current time, system uptime, and the number of logged-in users.

Load Averages: You’ll see three load averages (1-minute, 5-minute, and 15-minute) that indicate the system’s workload. Lower values are generally better, and values near or above the number of CPU cores may indicate performance issues.

Tasks: This section shows the total number of processes, how many are running, sleeping, stopped, or zombie processes.

CPU Usage: The CPU section displays the percentage of CPU usage by system processes (sy), user processes (us), and idle time (id).

Memory Usage: This section shows the system’s memory utilization, including total, used, free, and cached memory.

Swap Usage: If your system uses swap space, this section provides information about swap usage.

Process List: The largest part of the top screen displays a list of running processes. By default, processes are sorted by CPU usage, with the most CPU-intensive processes at the top.

Step 4: Interact with top

While top is running, you can interact with it to perform various tasks:

Sort Processes: You can change the sorting order of processes by pressing the following keys:
P: Sort by CPU usage (default).
M: Sort by memory usage.
T: Sort by total time (cumulative CPU time).
N: Sort by process ID.
U: Prompt for a username and show only processes owned by that user.

Killing Processes: To send a signal to a process (e.g., to kill it), press k, then enter the process ID, and press Enter. Follow the prompts to confirm.

Changing Update Frequency: You can adjust the refresh rate of top by pressing the d key and entering a new update interval in seconds.

Exiting top: To exit top, simply press q.

Step 5: Additional top Options

You can customize the behavior of top by using command-line options. Here are some common options:

top -u username: Show processes for a specific user.

top -p PID: Monitor a specific process by specifying its PID.

top -c: Display full command lines for processes.

top -H: Show individual threads in the process list.

top -n 1: Run top for a specified number of iterations (in this case, once) and then exit.

top -b: Run top in batch mode, suitable for scripting.

The top command is a versatile tool for monitoring system performance and identifying resource-hungry processes. By mastering its interface and options, you can gain valuable insights into your Linux system’s behavior and take actions as needed.

How to Kill a Process Using the Linux Command Line

To kill a process in Linux, you can use the kill command. Here are the basic commands:

Using kill to Kill a Process by PID:

You need to know the PID of the process you want to kill. You can find the PID using the ps command or by using tools like htop or top. Once you have the PID, you can use the kill command as follows:

kill PID

For example, to kill a process with PID 1234, you would run:

kill 1234

By default, the kill command sends a SIGTERM signal, which asks the process to terminate gracefully. If the process doesn’t respond to SIGTERM, you can use the -9 option to forcefully terminate it:

kill -9 PID

kill -9 1234

How To Extract or Unzip Tar Gz File in Linux

To unzip the tar.gz archive, use the tar command with the -xzvf options followed by the archive’s filename.

Here’s the breakdown of the options:

-x: Extract the files from the archive.
-z: Use gzip compression.
-v: Verbose mode (optional but provides more information).
-f: Specify the archive file to be extracted.

The basic syntax is:

tar -xzvf archive.tar.gz

So, for example, if your archive is named “myarchive.tar.gz,” you would run:

tar -xzvf myarchive.tar.gz

Multilingual blink for Raspberry Pi Pico

A year ago today we launched our Raspberry Pi Pico board, the first product powered by the RP2040 microcontroller, a brand-new chip developed right here at Raspberry Pi. A year later we’ve sold nearly 1.5 million Picos, and thousands of you have used RP2040 in your own electronic projects and products.

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AMD Preps for Zen 4: Different Types of Cores Now Supported in Linux

Tech sleuths are following AMD as it prepares its new Zen 4-based architecture. As the prepares its next-gen CPU, some eagle-eyed individuals have found details about the next-gen parts on Linux and other platforms.

AMD has quietly uploaded temperature sensor driver support for Zen 4 and Zen 4C cores, reports Phoronix. While these two cores share the same microarchitecture, they are different and will power AMD’s 96-core Genoa and 128-core Bergamo processors, respectively, so it is not surprising to see separate drivers. The CPUs are marked as AMD Family 19h Models 10h-1Fh and A0h-AFh.

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How Podman can extract a container’s external IP address

Podman is a useful tool for deploying and managing containers. In part one of this article series, I covered how to deploy Podman containers and defined the environment I’ll use in the rest of the series. In part two, I demonstrated several ways to list running containers and format their output. Read the previous parts first to understand the environment and necessary toolkit.

This article shows how to use Podman to extract information about the container’s external Internet Protocol (IP) addresses.

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Make a video game with Bitsy

Make a video game with Bitsy.

There are many game design programs and many different possible approaches to game design, but for me, the one that stands out is Bitsy. Created by Adam Le Doux in 2017 and released under an MIT license, Bitsy is, in the words of its creator: “A little editor for little games or worlds. The goal is to make it easy to make games where you can walk around, talk to people, and be somewhere.”

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