- #BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF INSTALL#
- #BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF MANUAL#
- #BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF PATCH#
- #BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF SOFTWARE#
- #BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF WINDOWS#
Learn more from our article on herbstluftwm here. workspaces or virtual desktops), a configuration script which runs at startup, exactly one tag per monitor, etc. Herbstluftwm’s main features include tags (i.e. Basically, it works using a layout based on splitting frames into sub-frames which can be further split and filled with windows.
#BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF MANUAL#
Herbstluftwm is a free and open-source configurable manual tiling window manager for x11 using Glib and Xlib.
#BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF INSTALL#
The package bspwm is provided by the distribution you are using, just use the package manager to install it as shown.
#BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF WINDOWS#
It is based on binary space partitioning which represents windows as the leaves of a complete binary tree and it handles key binding with a separate utility, sxhkd, which allows for smoother performance and support for other input devices.īspwm’s features include support for multiple windows, partial support for EWMH, automatic mode for automatically setting the position of app tiles, and it is configured and controlled through messages, among others. $ sudo yum install i3 īspwm is a free, lightweight, and open-source Linux tiling manager known for adhering to the Linux philosophy by concentrating on doing one thing and getting it done properly.
#BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF SOFTWARE#
Platform Abstractions: Hardware config is separated from software config so a project specified in a ptxconfig file can be built for different hardware platforms.The package i3 is provided by the distribution you are using, just use the package manager to install it as shown. Build system could be changed towards other packet formats, so we are neither fixed to do-it-yourself, nor to.ipkg Complete recompilation with synced config: Want to oprofile your system? Just build it completely with debug symbols.
#BUILDING YOUR MOUSELESS DEVELOPMENT ENVIRONMENT PDF PATCH#
Building a toolchain goes like ptxdist go Patches are documented in a clean way, canonical patch headers Several topics have been resolved in the GCC bugzilla so far Slideģ2 Other Cool Features ipkg: Installing packages on the target is possible.
OSELAS.Toolchain( ) is based on ptxdist's make mechanics to deduce the order of things which have to be done Selecting a set of config options is a simple matter of selecting the right ptxconfig file (we have > 25 toolchains in ). Unfortunately, it turned out that crosstool was so broken internally, that starting from scratch was faster and cleaner. We noticed that Dan had different aims than we have: We want to have recent gcc + glibc versions Patches have to be separated in a clean way, per tool revision Problems have to be sorted out with upstream Crude hacks which have been necessary in the gcc era are not needed for gcc any more :-) Slideģ1 Building Cross GCCs: OSELAS.Toolchain ( ) We tried to be a good OSS citisen and make crosstool better, instead of forking our own project. The workspace is pretty small: Slideģ0 Building Cross GCCs: OSELAS.Toolchain ( ) An important prerequisite for building embedded systems are Toolchains: gcc / binutils / glibc / kernel headers But where to get recent toolchains from? Started with Dan Kegel's crosstool, which was an excellent choice at that time. SlideĢ9 Workspace Concept All project work is being executed on a project workspace, which is a directory containing all project relevant files. but distros often rely on that Adapt kernel + userland to well-know embedded hardware No need for initramfs, module loading etc.
gtk -> broken with newer DirectFB backends) Slideĩ Some questions Can systems be customized exactly to our needs? Customizing is the most important feature for us! Examples: Flicker-free booting of 400 MHz i.mx27 into Qt in < 6 s Small headless systems with something like 8 MB RAM We don't have SQL databases, Perl. quickboot nfig) Do we immediately get new software versions once we have mainlined our patches? SlideĨ Some questions Can we really adapt new features quickly? Does our laser controller need the same features as Ubuntu? Do we get new features when our project demands them? Can we stay with selected old versions if we want to? (i.e. hardfloat VFP, with and without debug, debug in glibc.? Most standard distributions have no mechanism for these requirements! Slideħ Some questions Can bugs really be fixed? Can we fix bugs now? Can everything be cross compiled? Care of endianess Issues? Can we change configuration? (i.e. systems can be customized exactly to our needs SlideĦ Some questions Do we have control over the sources? Can we manage a patch collection against upstream? (mainlining helps, of course) Can hacks be maintained for a long time? Can we recompile the system: ARM OABI vs. 5 Linux & OSS are good, because we have control over the sources.
0 kommentar(er)
