The Linux XFree86 HOWTO
 by Eric S. Raymond
 v5.12, 12 May 1999

 This document describes how to obtain, install, and configure version
 3.3 of the XFree86 version of the X Window System (X11R6) for Linux
 systems. It is a step-by-step guide to configuring XFree86 on your
 system.
 ______________________________________________________________________

 Table of Contents


 1. Introduction

    1.1 Other sources of information
    1.2 New versions of this document
    1.3 Feedback and Corrections

 2. Hardware requirements

 3. Installing XFree86

 4. Configuring XFree86

    4.1 Normal Configuration
    4.2 Troubleshooting
    4.3 Custom Configuration
    4.4 Using 16-bit Color

 5. Running XFree86

    5.1 Terms of Use
    5.2 Acknowledgements

 6. Translations



 ______________________________________________________________________

 1.  Introduction

 The X Window System is a large and powerful (some might say
 excessively large and overly complex) graphics environment for UNIX
 systems. The original X Window System code was developed at MIT;
 commercial vendors have since made X the industry standard for UNIX
 platforms. Virtually every UNIX workstation in the world runs some
 variant of the X Window system.

 A freely redistributable port of the MIT X Window System version 11,
 release 6 (X11R6) for 80386/80486/Pentium UNIX systems has been
 developed by a team of programmers originally headed by David
 Wexelblat <[email protected]>. The release, known as XFree86, is
 available for System V/386, 386BSD, and other x86 UNIX
 implementations, including Linux. It includes all of the required
 binaries, support files, libraries, and tools.

 Complete information on XFree86 is available at the XFree86 web site,
 <http://www.XFree86.org>.

 In this document, we'll give a step-by-step description of how to
 install and configure XFree86 for Linux, but you will have to fill in
 some of the details yourself by reading the documentation released
 with XFree86 itself. (This documentation is discussed below.)
 However, using and customizing the X Window System is far beyond the
 scope of this document---for this purpose you should obtain one of the
 many good books on using the X Window System.


 1.1.  Other sources of information

 If you have never heard of Linux before, there are several sources of
 basic information about the system. The best place to find these is at
 the Linux Documentation Project home page at
 <http://metalab.unc.edu/LDP>.  You can find the latest, up-to-date
 version of this document there, as
 <http://metalab.unc.edu/LDP/HOWTO/XFree86-HOWTO.html>


 1.2.  New versions of this document

 New versions of the Linux XFree86 HOWTO will be periodically posted to
 comp.os.linux.help and  and news.answers <news:news.answers>.  They
 will also be uploaded to various Linux WWW and FTP sites, including
 the LDP home page.

 You can always view the latest version of this on the World Wide Web
 via the URL  <http://metalab.unc.edu/LDP/HOWTO/XFree86-HOWTO.html>.


 1.3.  Feedback and Corrections

 If you have questions or comments about this document, please feel
 free to mail Eric S. Raymond, at [email protected]. I welcome any
 suggestions or criticisms. If you find a mistake with this document,
 please let me know so I can correct it in the next version. Thanks.

 Please do not mail me questions about how to make your video card and
 monitor work with X.  This HOWTO is intended to be a rapid, painless
 guide to normal installation using the new interactive configurator.
 If you run into problems, browse the XFree86 Video Timings HOWTO,
 <http://metalab.unc.edu/LDP/HOWTO/XFree86-Video-Timings-HOWTO.html>.
 (This is the up-to-date HTML version of XFree86's `Videomodes.doc'
 file.)  That document tells everything I know about configuration
 troubleshooting.  If it can't help you, I can't either.


 2.  Hardware requirements


 XFree86 3.3.3 presently supports the following chipsets: The
 documentation included with your video adaptor should specify the
 chipset used. If you are in the market for a new video card, or are
 buying a new machine that comes with a video card, have the vendor
 find out exactly what the make, model, and chipset of the video card
 is. This may require the vendor to call technical support on your
 behalf; in general vendors will be happy to do this. Many PC hardware
 vendors will state that the video card is a ``standard SVGA card''
 which ``should work'' on your system. Explain that your software
 (mention Linux and XFree86!)  does not support all video chipsets and
 that you must have detailed information.

 You can also determine your videocard chipset by running the
 SuperProbe program included with the XFree86 distribution.  This is
 covered in more detail below.


    Ark Logic
       ARK1000PV, ARK1000VL, ARK2000PV, ARK2000MT


    Alliance
       AP6422, AT24


    ATI
       18800, 18800-1, 28800-2, 28800-4, 28800-5, 28800-6, 68800-3,
       68800-6, 68800AX, 68800LX, 88800GX-C, 88800GX-D, 88800GX-E,
       88800GX-F, 88800CX, 264CT, 264ET, 264VT, 264GT, 264VT-B, 264VT3,
       264GT-B, 264GT3 (this list includes the Mach8, Mach32, Mach64,
       3D Rage, 3D Rage II and 3D Rage Pro)


    Avance Logic
       ALG2101, ALG2228, ALG2301, ALG2302, ALG2308, ALG2401


    Chips & Technologies
       65520, 65525, 65530, 65535, 65540, 65545, 65546, 65548, 65550,
       65554, 65555, 68554, 69000, 64200, 64300


    Cirrus Logic
       CLGD5420, CLGD5422, CLGD5424, CLGD5426, CLGD5428, CLGD5429,
       CLGD5430, CLGD5434, CLGD5436, CLGD5440, CLGD5446, CLGD5462,
       CLGD5464, CLGD5465, CLGD5480, CLGD6205, CLGD6215, CLGD6225,
       CLGD6235, CLGD6410, CLGD6412, CLGD6420, CLGD6440, CLGD7541(*),
       CLGD7543(*), CLGD7548(*), CLGD7555(*)


    Cyrix
       MediaGX, MediaGXm


    Compaq
       AVGA


    Digital Equipment Corporation
       TGA


    Epson
       SPC8110


    Genoa
       GVGA


    IBM
       8514/A (and true clones), XGA-2


    IIT
       AGX-014, AGX-015, AGX-016


    Matrox
       MGA2064W (Millennium), MGA1064SG (Mystique and Mystique 220),
       MGA2164W (Millennium II PCI and AGP), G100, G200


    MX MX68000(*), MX680010(*)



    NCR
       77C22(*), 77C22E(*), 77C22E+(*)


    NeoMagic
       2200, 2160, 2097, 2093, 2090, 2070


    Number Nine
       I128 (series I and II), Revolution 3D (T2R)


    NVidia/SGS Thomson
       NV1, STG2000, RIVA128, Riva TNT


    OAK
       OTI067, OTI077, OTI087


    RealTek
       RTG3106(*)


    Rendition
       V1000, V2x00


    S3 86C911, 86C924, 86C801, 86C805, 86C805i, 86C928, 86C864, 86C964,
       86C732, 86C764, 86C765, 86C767, 86C775, 86C785, 86C868, 86C968,
       86C325, 86C357, 86C375, 86C375, 86C385, 86C988, 86CM65, 86C260


    SiS
       86C201, 86C202, 86C205, 86C215, 86C225, 5597, 5598, 6326


    3DLabs
       GLINT 500TX, GLINT MX, Permedia, Permedia 2, Permedia 2v


    Tseng
       ET3000, ET4000AX, ET4000/W32, ET4000/W32i, ET4000/W32p, ET6000,
       ET6100


    Trident
       TVGA8800CS, TVGA8900B, TVGA8900C, TVGA8900CL, TVGA9000,
       TVGA9000i, TVGA9100B, TVGA9200CXR, Cyber9320(*), TVGA9400CXi,
       TVGA9420, TGUI9420DGi, TGUI9430DGi, TGUI9440AGi, TGUI9660XGi,
       TGUI9680, ProVidia 9682, ProVidia 9685(*), Cyber 9382, Cyber
       9385, Cyber 9388, 3DImage975, 3DImage985, Cyber 9397, Cyber 9520


    Video 7/Headland Technologies
       HT216-32(*)


    Weitek
       P9000, P9100


    Western Digital/Paradise
       PVGA1


    Western Digital
       WD90C00, WD90C10, WD90C11, WD90C24, WD90C24A, WD90C30, WD90C31,
       WD90C33

 (*) Note, chips marked in this way have either limited support or the
 drivers for them are not actively maintained.

 All of the above are supported in both 256 color, and some are
 supported in mono and 16 color modes, and some are supported an higher
 color depths.

 The monochrome server also supports generic VGA cards, using 64k of
 video memory in a single bank, the Hercules monochrome card, the
 Hyundai HGC1280, Sigma LaserView, Visa and Apollo monochrome cards.

 The VGA16 server supports memory banking with the ET4000, Trident,
 ATI, NCR, OAK and Cirrus 6420 chipsets allowing virtual display sizes
 up to about 1600x1200 (with 1MB of video memory).  For other chipsets
 the display size is limited to approximately 800x600.

 You can find an up-to-date list of supported cards at
 http://www.xfree86.org/3.3.3/README3.html
 <http://www.xfree86.org/3.3.3/README3.html>.

 Video cards using these chipsets are supported on all bus types,
 including VLB and PCI.

 One problem faced by the XFree86 developers is that some video card
 manufacturers use non-standard mechanisms for determining clock
 frequencies used to drive the card. Some of these manufacturers either
 don't release specifications describing how to program the card, or
 they require developers to sign a non-disclosure statement to obtain
 the information. This would obviously restrict the free distribution
 of the XFree86 software, something that the XFree86 development team
 is not willing to do. For a long time, this has been a problem with
 certain video cards manufactured by Diamond, but as of release 3.1 of
 XFree86, Diamond has started to work with the development team to
 release free drivers for these cards.

 The suggested setup for XFree86 under Linux is a 486 or better with at
 least 8 megabytes of RAM, and a video card with a chipset listed
 above. For optimal performance, we suggest using an accelerated card,
 such as an S3-chipset card. You should check the documentation for
 XFree86 and verify that your particular card is supported before
 taking the plunge and purchasing expensive hardware.

 As a side note, the personal Linux system of Matt Welsh (this FAQ's
 originator) was a 486DX2-66, 20 megabytes of RAM, equipped with a VLB
 S3-864 chipset card with 2 megabytes of DRAM.  He ran X benchmarks on
 this machine as well as on Sun Sparc IPX workstations.  The Linux
 system was roughly 7 times faster than the Sparc IPX (for the curious,
 XFree86-3.1 under Linux, with this video card, runs at around 171,000
 xstones; the Sparc IPX at around 24,000). In general, XFree86 on a
 Linux system with an accelerated SVGA card will give you much greater
 performance than that found on commercial UNIX workstations (which
 usually employ simple framebuffers for graphics).

 Your machine will need at least 4 megabytes of physical RAM, and 16
 megabytes of virtual RAM (for example, 8 megs physical and 8 megs
 swap).  Remember that the more physical RAM that you have, the less
 that the system will swap to and from disk when memory is low. Because
 swapping is inherently slow (disks are very slow compared to memory),
 having 8 megabytes of RAM or more is necessary to run XFree86
 comfortably.  16 is better.  A system with 4 megabytes of physical RAM
 could run much (up to 10 times) more slowly than one with 8 megs or
 more.
 3.  Installing XFree86

 It's quite likely that you obtained XFree86 as part of a Linux
 distribution, in which case downloading the software separately is not
 necessary.  Or you may be able to get RPM binary packages built for
 your machine, in which case you can just install those using rpm(1).
 In either case you can skip this the rest of this section.

 The Linux binary distribution of XFree86 can be found on a number of
 FTP sites.  On the XFree86 site it's under
 <ftp://ftp.xfree86.org/pub/XFree86/current/binaries/>.

 Before doing anything else, download and run the `preinst.sh' shell
 script first.  This may tell you about prerequisites you'll need to
 have in place before contibuing your installation.

 If you are downloading XFree86 directly, this table lists the files in
 the XFree86-3.3 distribution.

 One of the following servers is required:

    X8514.tgz
       Server for 8514-based boards.


    XAGX.tgz
       Server for AGX-based boards.


    XI128.tgz
       Server for the Number Nine Imagine 128.


    XMach32.tgz
       Server for Mach32-based boards.


    XMach64.tgz
       Server for Mach64-based boards.


    XMach8.tgz
       Server for Mach8-based boards.


    XMono.tgz
       Server for monochrome video modes.


    XP9K.tgz
       Server for P9000-based boards.


    XS3.tgz
       Server for S3-based boards.


    XS3V.tgz
       Server for the S3 ViRGE and ViRGE/VX (considered beta)


    XSVGA.tgz
       Server for Super VGA-based boards.



    XW32.tgz
       Server for ET4000/W32-based boards.


 If you don't know which one to take, take the VGA16 server, XVG16.tgz.
 You want to download this one anyway, because you'll need it to run
 the auto-configuration utility in the next step.

 All of the following files are required:

    preinst.sh
       Pre-installation script


    postinst.sh
       Post-installation script


    Xbin.tgz
       The rest of the X11R6 binaries.


    Xcfg.tgz
       Config files for xdm, xinit and fs.


    Xdoc.tgz
       Documentation.


    Xman.tgz
       Manual pages.


    Xfnts.tgz
       75dpi, misc and PEX fonts


    Xlib.tgz
       Shared X libraries and support files.


    Xset.tgz
       XF86Setup utility.


    XVG16.tgz
       Server for VGA/EGA-based boards.


 The following files are optional:

    Xf100.tgz
       100dpi fonts


    Xfcyr.tgz
       Cyrillic fonts


    Xfnon.tgz
       Other fonts (Chinese, Japanese, Korean, Hebrew)


    Xfscl.tgz
       Scalable fonts (Speedo and Type1)
    Xfsrv.tgz
       Font server and config files


    Xprog.tgz
       X header files, config files and compile-time libs


    Xlkit.tgz
       X server LinkKit


    Xlk98.tgz
       PC98 X server LinkKit


    Xnest.tgz
       Nested X server


    Xprt.tgz
       X print server


    Xvfb.tgz
       Virtual framebuffer X server


    Xps.tgz
       PostScript version of the documentation


    Xhtml.tgz
       HTML version of the documentation


 The XFree86 directory should contain release notes for the current
 version in RELNOTES.  Consult those for installation details

 All that is required to install XFree86 is to obtain the above files,
 create the directory /usr/X11R6 (as root), and unpack the files from
 /usr/X11R6 with a command such as:


      gzip -dc Xbin.tgz | tar xfB -




 Remember that these tar files are packed relative to /usr/X11R6, so
 it's important to unpack the files there.

 You need to make sure that /usr/X11R6/bin is on your path.  This can
 be done by editing your system default /etc/profile or /etc/csh.login
 (based on the shell that you, or other users on your system, use). Or
 you can simply add the directory to your personal path by modifying
 .bashrc or .cshrc, based on your shell.

 You also need to make sure that /usr/X11R6/lib can be located by
 ld.so, the runtime linker. To do this, add the line


      /usr/X11R6/lib



 to the file /etc/ld.so.conf, and run /sbin/ldconfig, as root.


 4.  Configuring XFree86


 4.1.  Normal Configuration

 Configuring XFree86 to use your mouse, keyboard, monitor, and video
 card correctly used to be something of a black art, requiring
 extensive hand-hacking of a complex configuration file.  No more; the
 3.2/3.3 release made the process nearly trivial.  All you do is fire
 up the program XF86Setup.

 This program depends on the fact that all new PC hardware these days
 ships with EGA/VGA capable monitors.  It invokes the VGA16 server and
 uses it to bring up X in a lowest-common-denominator 640x480 mode.
 Then it runs an interactive program that walks you through a series of
 five configuration panels -- mouse, keyboard, (video) card, monitor,
 and `other' (miscellaneous server options). The whole process is quite
 painless.

 (If you're running Red Hat Linux, you may see a different program
 called xf86config.  This works fairly similarly to XF86Setup but does
 not itself use an X interface and the VGA16 server.)

 One minor point to keep in mind is that, if you're like most people
 using a current PC, your keyboard is actually what XF86Setup calls
 `Generic 102-key PC (intl)' rather than the default `Generic 101-key
 PC'.  If you pick the default (101) the key cluster on the extreme
 right of your keyboard (numeric keypad and friends) may stop working.

 If you're not sure of your monitor type, you can try the listed ones
 in succession.  Work your way from top down (upper choices involve
 lower dot-clock speeds and are less demanding on the hardware).  Back
 off if you get hash or a seriously distorted picture. Minor
 distortions (picture slightly too large, slightly too small, or
 slightly off-center) are no problem; you'll get a chance to correct
 those immediately by fine-tuning the mode.

 And, when the program brings up xvidtune to allow you to tweak your
 video mode, don't let the initial warning box make you nervous.
 Modern multisync monitors (unlike their fixed-frequency predecessors)
 are not easy to damage this way.

 XF86Config may assume that your mouse device is /dev/mouse.  If you
 find this doesn't work, you may need to link /dev/mouse to whatever
 /dev/ca[01] the mouse is on.   If you find that XFree86 gives you a
 "mouse busy" error when gpm is running, you may need to link to
 /dev/ttyS[01] instead.

 The configuration process operates by selecting a server corresponding
 to to the general type of your video card (such as XF86_VGA16,
 XF86_Mach64, or XF86_S3) and configuring an XF86Config that the server
 will read on startup to get specific parameters for your installation.
 The location of XF86Config varies depending on your OS, but one place
 to look for it is /etc/X11.

 On older versions of XFree86, XF86Setup links the `X' command directly
 to the chosen server.  In recent versions, `X' is instead linked to a
 set-user-id wrapper program called Xwrapper.  The idea is that all the
 setuid root stuff gets localized in Xwrapper so the server doesn't
 have to run setuid root.



 4.2.  Troubleshooting


 Occasionally, something will not be quite right when you initially
 fire up the X server. This is almost always caused by a problem in
 your configuration file. Usually, the monitor timing values are off,
 or the video card dot clocks set incorrectly. Minor problems can be
 fixed with xvidtune; a really garbled screen usually means you need to
 go back into XF86Setup and choose a less capable monitor type.

 If your display seems to roll, or the edges are fuzzy, this is a clear
 indication that the monitor timing values or dot clocks are wrong.
 Also be sure that you are correctly specifying your video card
 chipset, as well as other options for the Device section of
 XF86Config. Be absolutely certain that you are using the right X
 server and that /usr/X11R6/bin/X is a symbolic link to this server.

 If all else fails, try to start X ``bare''; that is, use a command
 such as:


      X > /tmp/x.out 2>&1




 You can then kill the X server (using the ctrl-alt-backspace key com�
 bination) and examine the contents of /tmp/x.out. The X server will
 report any warnings or errors---for example, if your video card
 doesn't have a dot clock corresponding to a mode supported by your
 monitor.

 Remember that you can use ctrl-alt-numeric + and ctrl-alt-numeric - to
 switch between the video modes listed on the Modes line of the Screen
 section of XF86Config. If the highest resolution mode doesn't look
 right, try switching to lower resolutions. This will let you know, at
 least, that those parts of your X configuration are working correctly.

 Also, check the vertical and horizontal size/hold knobs on your
 monitor.  In many cases it is necessary to adjust these when starting
 up X. For example, if the display seems to be shifted slightly to one
 side, you can usually correct this using the monitor controls.

 The USENET newsgroup comp.windows.x.i386unix is devoted to discussions
 about XFree86, as is comp.os.linux.x.  It might be a good idea to
 watch that newsgroup for postings relating to your video
 configuration---you might run across someone with the same problems as
 your own.


 4.3.  Custom Configuration

 You will need to hand-hack your X configuration to get optimal
 performance if your monitor can support 1600x1200 -- the highest
 canned resolution XF86Setup supports is 1280x1024.

 If you want to hand-hack your video configuration for this or any
 other reason, go see the LDP's XFree86 Video Timings HOWTO,
 <http://metalab.unc.edu/LDP/HOWTO/XFree86-Video-Timings-HOWTO.html>.
 (This is the up-to-date HTML version of XFree86's `Videomodes.doc'
 file.)





 4.4.  Using 16-bit Color


 By default, X uses 8-bit color depth giving 256 colors. To circumvent
 this restriction, many applications allocate their own colormaps,
 resulting in sudden color jumps when the cursor moves between two
 windows each having a color map of its own. The Arena WWW browser does
 it this way.

 If you want to use advanced graphic applications 256 colors may be not
 sufficient.  You may need to go to 16-bit color depth (65,536 colors).
 But beware, not all applications will work with 16bit colors.

 You can use 16bit color depth with 65K different colors simply by
 starting X with


 ______________________________________________________________________
     startx -- -bpp 16
 ______________________________________________________________________



 or putting


 ______________________________________________________________________
     exec X :0 -bpp 16
 ______________________________________________________________________



 into your .xserverrc file.  In order for this to work, however, you
 need to have a

 ______________________________________________________________________
 screen
 ______________________________________________________________________




 ______________________________________________________________________
     DefaultColorDepth 16
 ______________________________________________________________________



 If you're using xdm, you may need to change the Xservers file, which
 is probably located in /etc/X11/xdm/.  A typical configuration has
 just one uncommented line, looking something like


 ______________________________________________________________________
       :0 local /usr/X11R6/bin/X
 ______________________________________________________________________



 Add

 ______________________________________________________________________
 -bpp 16
 ______________________________________________________________________


 ______________________________________________________________________
       :0 local /usr/X11R6/bin/X -bpp 16
 ______________________________________________________________________



 Also, you'll need to add to the `screen' section of your X
 configuration a Display part with a Depth value of 16.  Generally you
 can just duplicate the 8-bit Display section and change the Depth
 field.

 More colors makes your video card transfer more data during the same
 time. If your video card cannot cope, then either the resolution has
 or the refresh rate has to be reduced.  By default, XFree reduces the
 resolution.  If you want to keep the resolution and reduce the refresh
 rate, you must insert a new appropriate Modeline into your XF86Config
 file which defines that resolution with a lower refresh rate. For
 instance replace the old value


      Modeline "1024x768"  75  1024 1048 1184 1328 768 771 777 806 -hsync -vsync




 with


      Modeline "1024x768"  65  1024 1032 1176 1344 768 771 777 806 -hsync -vsync.




 The magic numbers 75 and 65 are the respective clock rates which you
 find reported by X in your .X.err file. Consult the monitors file in
 the XF86 documentation for Modelines suitable to the maximum clock
 rate your video card can deliver under 16bit color depth.


 5.  Running XFree86

 With your XF86Config file configured, you're ready to fire up the X
 server and give it a spin. First, be sure that /usr/X11R6/bin is on
 your path.

 The command to start up XFree86 is

      startx


 This is a front-end to xinit (in case you're used to using xinit on
 other UNIX systems).

 This command will start the X server and run the commands found in the
 file .xinitrc in your home directory. .xinitrc is just a shell script
 containing X clients to run. If this file does not exist, the system
 default /usr/X11R6/lib/X11/xinit/xinitrc will be used.

 A standard .xinitrc file looks like this:







 #!/bin/sh

 xterm -fn 7x13bold -geometry 80x32+10+50 &
 xterm -fn 9x15bold -geometry 80x34+30-10 &
 oclock -geometry 70x70-7+7 &
 xsetroot -solid midnightblue &

 exec fvwm2




 This script will start up two xterm clients, an oclock, and set the
 root window (background) color to midnightblue.  It will then start up
 fvwm2, the window manager. Note that fvwm2 is executed with the
 shell's exec statement; this causes the xinit process to be replaced
 with fvwm2. Once the fvwm2 process exits, the X server will shut down.
 You can cause fvwm2 to exit by using the root menus: depress mouse
 button 1 on the desktop background---this will display a pop up menu
 which will allow you to Exit Fvwm2.

 Be sure that the last command in .xinitrc is started with exec, and
 that it is not placed into the background (no ampersand on the end of
 the line). Otherwise the X server will shut down as soon as it has
 started the clients in the .xinitrc file.

 Alternately, you can exit X by pressing ctrl-alt-backspace in
 combination. This will kill the X server directly, exiting the window
 system.

 The above is a very, very simple desktop configuration. Many wonderful
 programs and configurations are available with a bit of work on your
 .xinitrc file.

 If you are new to the X Window System environment, we strongly suggest
 picking up a book such as The Joy of X: An Overview of the X Window
 System by Niall Mansfield (Addison-Wesley 1993, ISBN 0201-565129).
 Using and configuring X is far too in-depth to cover here. See the man
 pages for xterm, oclock, and fvwm2 for clues on getting started.


 5.1.  Terms of Use

 This document is copyright 1996 by Eric S. Raymond. You may use,
 disseminate, and reproduce it freely, provided you:


 �  Do not omit or alter this copyright notice.

 �  Do not omit or alter the version number and date.

 �  Do not omit or alter the document's pointer to the current WWW
    version.

 �  Clearly mark any condensed or altered versions as such.

 These restrictions are intended to protect potential readers from
 stale or mangled versions.  If you think you have a good case for an
 exception, ask me.


 5.2.  Acknowledgements

 This document was originated by Matt Welsh in the dim and backward
 abysm of time.  Thanks, Matt!

 6.  Translations


 �  Italian <http://www.pluto.linux.it/ildp/HOWTO/XFree86-HOWTO.html>

 �  Slovenian <http://www.lugos.si/delo/slo/HOWTO-sl/XFree86-HOWTO-
    sl.html>

 �  Croatian <http://meta.mioc.hr/XFree86-KAKO.html>

 �  Dutch <http://www.nl.linux.org/doc/HOWTO/>