Free winboard driver software for linux

uLan Driver provides 9-bit message oriented communication protocol, which is transferred over RS-485 link.
Characters are transferred same way as for RS-232 asynchronous transfer except parity bit, which is used to distinguish between data characters and protocol control information. A physical layer consists of one twisted pair of leads and RS-485 transceivers.
Use of 9-bit character simplifies transfer of binary data and for intelligent controllers can lower the CPU load, because of the CPU need not to care about data characters send to other node. Producers of most microcontrollers for embedded applications know that and have implemented 9-bit extension in UARTs of most of todays MCUs. There is the list below to mention some of them:
- all Intel 8051 and 8096 based MCUs with UART
- members of Motorola 683xx family ( 68332, 68376, ... )
- Hitachi H8 microcontrollers
The driver is implemented as relatively independent layers and subsystems. Messages are prepared and received in the driver dedicated memory. This memory is divided into blocks with uniform size with atomic allocation routines.
When message is being stored into blocks, head of message with couple of data bytes is stored in the first allocated memory block. If all data cannot be stored in the first block, next blocks are allocated and linked together.
The message heads are linked in bidirectional linked lists of messages prepared for sending, processed messages and messages prepared for client notification. These lists or queues are main mechanism for transferring of messages between subsystems.
Link protocol is programmed as finite state automata with state stack, which state routines are executed by interrupt handler. State routine can return positive integer information, negative error notification or zero, which leads to wait for next interrupt. Information or error is used as input parameter when state routine is called.
When the state routine wants initiate transfer to another state routine it changes pointer to the actual state routine. If previous state routine returns nonzero value new routine is called immediately, in other case next interrupt invokes new state routine.
There is stack of callers of actual state routines which enables to constructs automata subsystems, which can be used in more places in main automata loop. Main purpose of this automata is to send or process messages coming in list of messages prepared for sending and if specified, move these messages onto list of messages prepared for client notification.
Received messages are put onto this list too. Subsystem is supervised by timeout handler, which can revitalize communication in case of die of other node. The interrupt and timeout handlers are fully SMP reentrant.
The automata subsystem uses pointers to chip driver routines for hardware port manipulation. This is only part dependent on used chip, today 82510, 16450 and OX16C950PCI. These routines can send and receive 9 bit character, connect to RS-485 line by the arbitration sequence, wait for specified time for character and initialize and close port.
File operation subsystem makes interface between OS kernel VFS and client message queues. It enables to prepare single or multi-frame messages and stores notifications of received or processed messages in clients private state structures. This part is heavily operating system dependent.
Enhancements:
- This release enables you to build the driver within the WDF framework for Windows.
- Updates to support the latest Linux 2.6.x kernels are included (tested to 2.6.19).
- Changes to allow stand-alone system-less build for ARM targets (LPC21xx) are included.
- The OMK has been selected as the default build.
- The "switch2std" script allows you to switch to the old build system.

MooDriver is a library providing a C++ museekd "driver" class (Moo::Driver) MooDriver makes it easy to write museekd clients without having to deal with the museekd daemon and its protocol directly. museekd is a daemon which acts as a gateway to the SoulSeek P2P network.

The Advanced Linux Sound Architecture is composed of several parts. The first is a fully modularized sound driver which supports module autoloading, devfs, isapnp autoconfiguration, and gives complete access to analog audio, digital audio, control, mixer, synthesizer, DSP, MIDI, and timer components of audio hardware.
It also includes a fully-featured kernel-level sequencer, a full compatibility layer for OSS/Free applications, an object-oriented C library which covers and enhances the ALSA kernel driver functionality for applications (client/server, plugins, PCM sharing/multiplexing, PCM metering, etc.), an interactive configuration program for the driver, and some simple utilities for basic management.
Main features:
- Efficient support for all types of audio interfaces, from consumer soundcards to professional multichannel audio interfaces.
- Fully modularized sound drivers.
- SMP and thread-safe design.
- User space library (alsa-lib) to simplify application programming and provide higher level functionality.
- Support for the older OSS API, providing binary compatibility for most OSS programs.

ATA over Ethernet driver allows the Linux kernel to use the ATA over Ethernet (AoE) network protocol.
Using AoE, a Linux system can use AoE block devices like EtherDrive (R) storage blades.
The block devices appear as local device nodes (e.g. /dev/etherd/e0.0).
Enhancements:
- The driver now handles payloads larger than 4KiB, receives large packets without extra in-memory copy, and handles I/O requests so that the user can choose between the Linux I/O schedulers.

Apache LDAP vhost driver project lets you put vhost with all possible information in an LDAP database for both Apache 1.x and 2.x.

Bug report system

With the new maintainence, there is now also a bug report system at the URL http://bugs.bayour.com/ (project mod_ldap_cfg).

Schemas

A schema called mod_ldap_cfg is used.

Apache config

To setup Apache to use this module, the httpd.conf is used.

EXAMPLE

# This is a really long synopsis, but hopefully it will give you an idea...

package MyPackage;

use Class::Driver;
use base q(Class::Driver);

our %drivers;

return 1;

sub new {
my($class, %args) = @_;
die "mime_type is required" unless($args{mime_type});
die "no driver to handle type $args{mime_type}"
unless($drivers{$args{mime_type}});
return $class->driver_load($drivers{$args{mime_type}}, %args);
}

sub driver_new {
my($class, %args) = @_;
return bless %args, $class;
}

sub driver_required { 1; }
sub driver_requied_here { 0; }

package MyPackage::avi;

use MyPackage;
use base q(MyPackage);
use Video::Info;

$MyPackage::drivers{video/x-msvideo} = avi;

return 1;

sub driver { "avi"; }

sub driver_new {
my($class, %args) = @_;
die "file is a required parameter for $args{mime_type} files"
unless($args{file});
$args{info} = Video::Info->new(-file => $args{file})
or die "Failed to create a Video::Info object for $args{file}";
return $class->SUPER::driver_new(%args);
}

sub duration {
my $self = shift;
return $args{info}->duration;
}

package MyPackage::mp3;
use base q(MyPackage);
use MP3::Info;

$MyPackage::drivers{audio/mpeg} = mp3;

## (etc...)

package main;

my $foo = MyPackage->new(file => foobar.mp3, mime_type => audio/mpeg);
print "foobar.mp3 is ", $foo->duration, " seconds long.n";