Linux 5.7 Kernel Update Released: All the Details

Linux Kernel 5 7 Details Featured Image 2

The Linux kernel is undoubtedly the most popular open-source kernel available. The Unix-based kernel has been in existence since 1991 and has made waves since then. The most recent Kernel update was released earlier this year and brings with it some exciting changes.

What Is the Linux Kernel

The Linux Kernel is responsible for interfacing the hardware of a Linux machine with the processes running on the machine. It controls all major hardware functions. The kernel is responsible for memory management, process management, device drivers, system calls, and security. You can think of the kernel as being like your mom. She cleans up your mess, does everything for you, and you don’t even realize it until you move out of her house. Likewise, you don’t know that the kernel is working away in the background, keeping things running smoothly. All you see are things like your files and web browser.

Linux Kernel 5.7 Details

There are many new things that are included in the latest update to the Linux Kernel that should help to improve your Linux experience. However, let’s touch on some of the more useful and exciting things.

Samsung exFAT Drivers

Linux Kernel 5 7 Exfat Driver

exFAT is a file-system that was originally developed by Microsoft. It is commonly used with storage devices like SD cards and flash drives. Linux always has support for this filesystem, but it doesn’t come as a default in the kernel until now. This latest kernel update includes updates developed by Samsung engineers. This driver will run more efficiently. It will replace a less refined version of the driver that was contributed by Microsoft.

Better Thermal Management

Linux Kernel 5 7 Details Thermal Management

Your computer does a number of things to manage cooling. In addition to running your system’s fan, the kernel can cap your CPU’s maximum operating frequency to cool it down. However, the task scheduler sometimes doesn’t get the memo and keeps giving your CPU instructions to run more tasks. This can lead to your CPU performing worse. However, a patch has been applied to address this problem in the latest kernel update.

Extended ARM Support

The new update supports more ARM processors such as the Qualcomm Snapdragon 865 and the Mediatek MT8516 SoC.

A New EFI Mixed-Mode Boot Mode

This update includes support for 64-bit kernels to be booted from 32-bit firmware running on CPUs that can handle 64-bit kernels.

Support for Apple’s USB Fast-Charge Protocol

The popularity of Apple devices cannot be understated. This is therefore a very welcome change. Currently, with the 5.6 kernel, an Apple iPhone won’t be able to draw more than 500mA. However, if Apple’s protocol is active, these devices can draw up to 2500mA. With support for fast-charging enabled in the 5.7 kernel, Apple device owners will be able to charge their devices more quickly.

Support for Zstd Compression

With this latest kernel update, filesystem-level Zstd compression is included. Zstd compression offers high compression ratios.

Intel Tiger Lake Graphics Support

Intel’s new mobile processor (called Tiger Lake) is starting to gain traction, and we should start to see some devices using this processor soon. Linux kernel 5.7 brings support for discrete Tiger Lake graphics just in time. These updates are considered stable, which means that owners of Tiger Lake devices will most probably be able to enjoy the latest Linux kernel update.

Wrapping Up

The Linux kernel is constantly evolving, and these updates will help to further cement Linux as a stable, fast operating system that is completely open source and that can compete with and in many cases outperform some of the more mainstream operating systems.

Subscribe to our newsletter!

Our latest tutorials delivered straight to your inbox

William Elcock Avatar

Read next

Octopuses possess roughly 500 million neurons distributed across their body, with two-thirds located in their arms rather than their central brain, meaning each arm can taste, problem-solve, and react to stimuli independently of whatever the octopus is otherwise paying attention to.
The Roman aqueduct at Segovia, built around the first century AD without mortar, still carried water into the 1970s, its 167 granite arches held together by nothing but the precise weight distribution of stones cut to fit each other within fractions of a millimeter.
When the SS Great Eastern laid the first working transatlantic telegraph cable in 1866, a message that had taken ten days by steamship suddenly crossed the ocean in minutes, and the financial markets of London and New York were forced, within a single trading week, to invent the modern concept of synchronised global price.
The Big Ear telescope was scanning at 1420.4056 megahertz on the night of 15 August 1977, the exact frequency at which hydrogen atoms vibrate across the universe, because Giuseppe Cocconi and Philip Morrison had argued years earlier that any species trying to be found would broadcast on that channel — and then, for 72 seconds, something did.
In 2016, archaeologists dated two rings of snapped stalagmites in France’s Bruniquel Cave to 176,500 years ago, evidence that Neanderthals had walked 336 metres into darkness with fire and built architecture deep underground long before modern humans reached Europe
Otto von Bismarck was 74 when Germany adopted the world’s first national old-age social insurance program in 1889, setting the pension age at 70 after years of fighting socialists with bans, laws, and a promise few workers would live long enough to use
When cosmonaut Valeri Polyakov stepped out of his Soyuz capsule in March 1995 after 437 consecutive days aboard Mir, doctors recorded him at several centimetres above his pre-flight height, and his spine had become so unaccustomed to gravity that the recovery team carried him to a chair rather than risk the compression of letting him walk.
When Bell Labs engineer Karl Jansky pointed a rotating antenna at the sky in 1932 looking for sources of transatlantic radio static, he kept picking up a faint hiss that peaked every 23 hours and 56 minutes, and he eventually realized he had become the first human to hear the center of the Milky Way.