Think XFCE looks dated? Think again!

Updated on: 20/01/2022

This post started out as a note to keep track of the packages I installed in Arch Linux (BTW). Then I realised there’s no comprehensive guide on setting up Arch after getting a working GUI/DE. This post aims to fill that role. I won’t be including any installation instructions for Arch itself, as there’s a plethora of guides out there. If you’re using another distro, feel free to skip the Arch specific sections, only some of it is distro specific. Some of it might be preconfigured in your distro, like trackpad gestures and zRAM. I plan on keeping this post updated.

I’m using an Acer Aspire 7 A715-75G laptop which comes with an Intel i5 9300H, NVIDIA GTX 1650, 8GB RAM and 512GB nVME. For AMD-specific packages, check out the Arch Wiki. Only Intel and NVIDIA packages will be listed here.

Table of Contents

Base Install

The following packages will take care of the base system with Zen kernel, XFCE, LightDM, NetworkManager and Pipewire:

base base-devel linux linux-headers linux-firmware intel-ucode btrfs-progs efibootmgr git
sof-firmware pipewire pipewire-alsa pipewire-pulse pipewire-jack wireplumber pavucontrol
networkmanager network-manager-applet
xorg xfce4 xfce4-goodies lightdm lightdm-gtk-greeter lightdm-gtk-greeter-settings shared-mime-info-gnome noto-fonts noto-fonts-emoji noto-fonts-cjk

Feel free to replace components as per your preference.

I also install the following packages which you can check out:

gvfs-mtp nemo nemo-fileroller nemo-preview neovim firefox vlc stow tmux rate-mirrors fd fzf

For the bootloader, I prefer systemd-boot to GRUB. Set the following boot options regardless of the bootloader:

quiet splash audit=0 nowatchdog nmi_watchdog=0

Run the following snippet to install yay, a pacman wrapper with AUR support:

git clone https://aur.archlinux.org/yay-bin.git ~/yay-bin
cd ~/yay-bin
makepkg -si
cd ~
rm -rf ~/yay-bin

Custom Kernel

There are various alternative Linux kernels available for Arch Linux in addition to the latest stable kernel. Arch Linux officially supports four kernels:

  • Stable kernel (default) - linux
  • Hardened kernel - linux-hardened
  • Longterm kernel - linux-lts
  • Zen kernel - linux-zen

These officially supported kernels have prebuilt binaries in the official repos. Apart from these, there are a plethora of other custom kernels like XanMod, TKG, etc. These have to be compiled from the AUR.

I maintain a custom kernel and offer prebuilt binaries as well, which you can find here.

If you’re switching to a custom kernel, make sure to install the headers for it and use DKMS for your external kernel modules.

Pick your poison!

GPU Drivers

  • Intel: mesa vulkan-intel intel-media-driver
  • NVIDIA: nvidia-dkms libva-vdpau-driver-vp9-git
  • Hybrid Graphics: All the above + optimus-manager optimus-manager-qt

Note: Uninstall xf86-video-vesa so that modesetting drivers are used for Intel.

By running optimus-manager-qt, you can choose between iGPU, dGPU, or hybrid mode. For more info, refer to the Optimus Manager Wiki.

Hardware Acceleration in Firefox

Set the following flags in about:config:

  • gfx.webrender.all: true
  • media.ffmpeg.vaapi.enabled: true
  • media.rdd-ffmpeg.enabled: true

Trackpad Gestures

Paste the following contents to /etc/X11/xorg.conf.d/30-touchpad.conf:

Section "InputClass"
    Identifier "touchpad"
    Driver "libinput"
    MatchIsTouchpad "on"

    Option "Tapping" "on"
    Option "ClickMethod" "clickfinger"
    Option "NaturalScrolling" "true"
    Option "AccelProfile" "adaptive"
    Option "TappingButtonMap" "lrm"


Packages: qt5ct kvantum-qt5

QT apps look bad out of the box with GTK DEs. To fix this, open kvantum-qt5 and set a theme. Now open qt5ct and set Style to kvantum and configure your fonts and icon themes.

Undervolting Intel CPUs

NOTE: This only applies for 4th to 10th gen Intel CPUs. For AMD and older Intel CPUs, checkout the Undervolting CPU article in the Arch Wiki.

Packages: intel-undervolt stress glmark2

Undervolting means lowering the voltage that the CPU is using, as the stock voltage is almost always higher than what’s needed. Undervolting leads to a reduction in CPU temperatures, which then leads to less throttling, more performance, and a quieter machine. It also reduces battery consumption.

-80mV is a good place to start. Open /etc/intel-undervolt.conf and make these modifications:

undervolt 0 'CPU' -80
undervolt 1 'GPU' -80
undervolt 2 'CPU Cache' -80
undervolt 3 'System Agent' -80

Now run sudo intel-undervolt apply. You can confirm it by running sudo intel-undervolt read. sudo intel-undervolt measure gives you the current power consumption. To ensure system stability, run stress tests.

Run glmark2 & stress --cpu $(nproc --all) --io 2 --vm 2 and open your web browser, use it for a minute or two. If your system freezes, your CPU/GPU is not getting enough power. Force reboot and reduce your undervolt by 5mV (-80mV to -75mV) and re-run the tests. Repeat till it’s stable.

You can also undervolt further if the system is fully stable at -80mV by increasing the undervolt in increments of 5mV (-80mV to -85mV). When your system eventually freezes, go back one step.

Run sudo systemctl enable --now intel-undervolt to make the undervolt persistent.


Taken from the Arch Wiki:

Zswap is a kernel feature that provides a compressed RAM cache for swap pages. Pages which would otherwise be swapped out to disk are instead compressed and stored into a memory pool in RAM. Once the pool is full or the RAM is exhausted, the least recently used (LRU) page is decompressed and written to disk, as if it had not been intercepted. After the page has been decompressed into the swap cache, the compressed version in the pool can be freed.

The difference compared to ZRAM is that zswap works in conjunction with a swap device while zram is a swap device in RAM that does not require a backing swap device.

If you don’t already have a swap file/partition, create one. Zswap is enabled by default; it uses the lz4 compression algorithm. To switch to the zstd algorithm, add the following to your cmdline:


CPU Frequency Scaling

Packages: power-profiles-daemon acpi

power-profiles-daemon offers to modify system behaviour based upon user-selected power profiles. There are 3 different power profiles, a “balanced” default mode, a “power-saver” mode, as well as a “performance” mode. Running powerprofilesctl shows the available modes and the active one. The profile can be changed by running powerprofilesctl set <mode>. To automate this, we’ll use udev, a systemd service and a bash script.

Save the following contents to a file:


if [ -z "$1" ]; then
    power_supply=$(acpi -a | cut -d' ' -f3 | cut -d- -f1)

if [ "$power_supply" = "on" ]; then
    powerprofilesctl set performance
    powerprofilesctl set power-saver

The above script switches to performance profile on AC and power-saver profile on battery. If you’re on my custom kernel, Intel’s performance p-state uses EPP 32, which allows maximum performance to be achieved while also allowing the processor to enter the lowest frequency state.

The udev rule doesn’t get triggered on boot, so we’ll use a systemd service to handle it.

Create a file /etc/systemd/system/pstate.service and copy the following contents:




Replace /path/to/script with the actual path. Run sudo systemctl enable --now pstate.service to run the script on boot.

Create a file /etc/udev/rules.d/powersave.rules and copy the following contents:

SUBSYSTEM=="power_supply", ATTR{online}=="0", RUN+="/usr/bin/bash /path/to/script off"
SUBSYSTEM=="power_supply", ATTR{online}=="1", RUN+="/usr/bin/bash /path/to/script on"

Like before, replace /path/to/script with the actual path.

Runtime Power Management

Runtime power management can be enabled for devices using the following command:

sudo find /sys -regex '.*?power/control$' ! -path '*usb*' -exec bash -c 'echo on > {}; echo auto > {}' \;

The kernel exposes runtime PM settings for devices via a sysfs file (/sys/devices/…/power/wakeup). Writing “on” to it disables runtime PM and writing “auto” enables it. The above command enables it for all devices except ones connected through USB. If you want to leave a certain device untouched, you can exclude it. For example, to exclude wlp8s0, add ! -path '*wlp8s0*' to the command.

To automate this, create /etc/systemd/system/powersave.service and copy the following contents:

Description=Powersave auto tune

ExecStart=/usr/bin/bash -c "find /sys -regex '.*?power/control$' ! -path '*usb*' -exec bash -c 'echo on > {}; echo auto > {}' \\\;"


Run sudo systemctl enable --now powersave.service. Thanks to @kerneltoast for this script.

I/O Scheduler

Arch Wiki suggests none for NVMe drives, mq-deadline for SSDs and eMMCs, and bfq for traditional HDDs.

Create a file /etc/udev/rules.d/60-ioschedulers.rules and paste the following content:

# set scheduler for NVMe
ACTION=="add|change", KERNEL=="nvme[0-9]n[0-9]", ATTR{queue/scheduler}="none"
# set scheduler for SSD and eMMC
ACTION=="add|change", KERNEL=="sd[a-z]*|mmcblk[0-9]*", ATTR{queue/rotational}=="0", ATTR{queue/scheduler}="mq-deadline"
# set scheduler for rotating disks
ACTION=="add|change", KERNEL=="sd[a-z]*", ATTR{queue/rotational}=="1", ATTR{queue/scheduler}="bfq"

Changes will be performed after a reboot or running sudo udevadm trigger.

AUR Optimizations

Create ~/.makepkg.conf and copy the following contents:


CFLAGS="$(echo $CFLAGS | sed 's/-march=x86-64 -mtune=generic/-march=native/')"
RUSTFLAGS="-C opt-level=2 -C target-cpu=native"

COMPRESSZST=(zstd -c -z -q --threads=0 -)
COMPRESSXZ=(xz -c -z --threads=0 -)

This enables some compiler optimization flags which results in a faster binary that’s optimized for your CPU. It also speeds up compile and install times for AUR packages by using all available threads.


I hope you’ve benefitted from these tweaks. If you have any suggestions, please message me via mail or Telegram and I’ll add them.