Free aag 1 wire software for linux

Wired project aims to be a professional music production and creation software running on the Linux operating system. Wired supports unlimited Audio/Midi tracks playback and recording, and introduces a Plugin system for instruments and effects. It can also read AKAI CDs and import 18 different Wave formats.

The following instruments and effects are being developed:

Loop sampler, with pitch shifting and time-stretching
Beatbox with a new editing concept, to create reallistic and complex drum sequences
MIDI controlled sampler, which can read AKAI program and sample files.
High-pass, Low-pass and Notch filters
Compressor/Limiter
Delay

Wired is composed of a Audio/MIDI sequencer and a rack based plugin system, which enables you to record your instruments and mix them with electronic effects at the same time. The user interface of Wired has been designed to make it easy for professionals or beginners to compose music in a software based environment.

Wired targets the Linux operating system, and uses GTK and wxWindows for the graphic interface. It supports the ALSA sound architecture and OSS for Audio and MIDI I/O.

The following parts of the project are already implemented :

Wired

Multitrack Audio playback and recording
Multitrack Midi playback and recording
Sequencer engine
ALSA/OSS/Jack Audio support
ALSA MIDI Input support
Plugin system
Rack view
Sequencer view
Dynamic Mixer console
Transport panel
Online help
Import Wave and Midi files
Reads AKAI CDs

Plugins

Loop Sampler
Beatbox
Sampler
Low-pass filter
Delay
Crusher

Laptops which use dynamic IP address assignment via DHCP have the problem that the boot process is much longer when no wire is connected to the Ethernet card. This is because the startup scripts have to wait for the DHCP request to time out.

ethwireck can detect if the physical layer of the Ethernet is up. This can then be used in the init script for your network card to determine whether or not an interface should be brought up. In other words a timeout is avoided.

ethwireck is similar to mii-tool but it can work with more ethernet cards (not only drivers with an mii interface).


Note: I discovered recently that ethwireck does not work with all cards as expected. The problem seems to be that some cards support the interface but do not report the status as expected. I am currently invesitgating this problem. Wait for ethwireck-1.3.

To install it:
run
make
make install
or to not install to /usr/sbin/ethwireck but to /opt you can use
make PREFIX=/opt install

So far I have tested ethwireck only with 2.4.x Kernels. Probably
it will also work with 2.6.x Kernels but I have not used it
on a 2.6.x Kernel.

kannasaver is a screensaver for people who want to learn japanese. The idea is that by randomly shoving hiragana or katakana at you, together with the romaji transcript, they start to stick to your memory after a while.
Inspired by a windows screensaver that does exactly the same, which sits an www.thejapanesepage.com for free.
Dependencies: Other than KDE 3.3, you need to have soft-scalable (truetype) fonts that contain the japanese characters. Google for the mikachan font set if anything else fails.
Enhancements:
- a few composite katakana were wrong; corrected.

Gabedit is a Graphical User Interface to Gaussian, Molcas, Molpro and MPQC computational chemistry packages.
Gabedit includes graphical facilities for generating keywords and options, molecule specifications and ther input sections for even the most advanced calculation types Gabedit includes an advanced Molecule Builder.
You can use it to rapidly sketch in molecules and examine them in three dimensions. You can build molecules by atom, ring, group, amino acid and nucleoside. You can also read geometry from a file. Most major molecular file formats are supported.
Gabedit includes a Gaussian, Molcas, Molpro and MPQC Calculation Setup window which allows you to set up Gaussian, Molcas, Molpro and MPQC jobs in a simple and straightforward manner.
Gabedit includes a text editor for editing Molcas, Molpro, Gaussian and MPQC input files.
Gabedit can graphically display a variety of Gaussian, Molcas, Molpro, MPQC and (partially) ADF calculation results, including the following:
- Molecular orbitals.
- Surfaces from the electron density, electrostatic potential, NMR shielding density, and other properties.
- Surfaces may be displayed in solid, translucent and wire mesh modes.
- Surfaces can be colored by a separate property.
- Contours (colorcoded).
- Planes (colorcoded).
- Dipole
- XYZ axes and the principal axes of the molecule.
- Animation of the normal modes corresponding to vibrational frequencies.
- Animation of the rotation of geometry, surface, dipole, xyz and the principal axes of the molecule.
- Animation of contours.
- Animation of colorcoded planes.
Gabedit can display IR and Raman computed spectra. Gabedit can generate a povray file for geometry (atoms + bonds, including hydrogens bond), surfaces (including colorcoded surfaces), contours, colorcoded planes.
Gabedit can save picture in PPM, BMP , (JPEG) and PS format. Gabedit can generate automatically a series of pictures for animation (vibration, geometry convergence, rotation, contours, colorcoded planes).

mod_trace_output is an Apache plugin implementing server monitoring for output Web pages.

mod_trace_output is part of the WASA application developed by Jean-Pierre Norguet. WASA aims to analyse the semantic content viewed by a Web site visitors. Such analysis not only needs to log urls, but also actual content seen by the visitors.
The mission of mod_trace_output is to supply the WASA application with the content of dynamic web pages. The problem is that dynamic content is generated in real-time. Furthermore, with new programming techniques using XML and CSS/XSLT, there is nearly no semantic content left in the pages. The content therefore needs to be stored after it is generated.

Server monitoring compares with network monitoring. Network monitoring mines the output Web pages on the network wire. A network monitor could be implemented on the basis of a network packet capture library like ethereal. The implementation would listen to the network, get TCP-IP packets, rebuild the TCP streams, and extract HTML data from the HTTP protocol.

Installation:

In previous version, mod_trace_output had no handler for the fixup phase, so the module needed to be executed first, but this is not a requirement anymore.
Ill give the installation steps if you compile mod_trace_output statically with Apache. But you can also use DSO and apxs to compile it out of Apache.

Here we go. Create a directory mod_trace_output in the modules directory of the source distribution of apache, copy all the files provided in the mod_trace_output release (mod_trace_output.c, mod_trace_output.h, filter.c, gzipcomp.c, mysql.c and MakeFile.tmpl), then add the following line in the configuration file.

AddModule modules/mod_trace_output/mod_trace_output.o
It uses libmysqlclient (.a or .so) so you need to set extra options in the Configuration file.

Add -L/path/to/libmysqlclient/folder -lz -lmysqlclient (if you have libmysqlclient.so) or -L/path/to/libmysqlclient/folder/libmysqlclient.a (if you have libmysqlclient.a) to EXTRA_LDFLAGS.

Add -I/path/to/mysql/include to EXTRA_INCLUDES.

KNetworkManager is the KDE front end for NetworkManager. KNetworkManager project provides a sophisticated and intuitive user interface which enables users easily to switch their network environment.

The range of functions encompasses the features implemented by NetworkManager daemon. Up until now NetworkManager supports:

Wired Ethernet Devices (IEEE 802.3)
Wireless Ethernet Devices (IEEE 802.11): Unencrypted, WEP, WPA Personal, WPA Enterprise
Virtual Private Network (VPN): OpenVPN, VPNC
Dial-Up (PPP)

How does it work?

For both, Wireless LAN and Wired LAN, NetworkManager supports devices known to HAL. Unless working in offline mode, NetworkManager tries to keep the system connected at any time. For this, NetworkManager follows the following policy.

Once started, NetworkManager asks HAL about available network interfaces. If a wired network interface with a carrier is found, NetworkManager connects to this. Either by DHCP (default) or by setting up previously defined static configuration. Later on, when KNetworkManager starts up, NetworkManager will expose its information about network devices and wireless networks found by scanning to the applet.

At this point, if a user decides to unplug the wired connection, NetworkManager will not connect to an arbitrary wireless network. By default all available networks are untrusted. Only if a user decides to connect to a network manually once, this specific network n henceforth being marked as trusted.

n = { ESSID, Hardware address or addresses of the access point}

The trusted networks are stored individually for each user. KNetworkManager stores them and informs NetworkManager about the known, trusted networks. If a wired connection drops due to unplugging the cable NetworkManager will automatically connect to a trusted network. As this step was done without user interaction, NetworkManager will reconnect to the wired connection once it has a carrier.

If a user joins a wireless network by manual intervention (e.g. user clicks on a network listed in the context menu of KNetworkManager or connects to a hidden wireless network), NetworkManager will take down any previous connection. If one unplugs the wired connection after such a step, NetworkManager will not connect to the wired connection once it has a carrier.

DIY Zoning is a repository containing the information about architecting, designing and implementing the Do It Yourself Temperature Zoning system, introductory course for those planning to install a ready-made temperature zoning system, and those who just want their home comfort.

Whats New in This Release:

This release introduces support for many logical devices per one physical 1-Wire device in general, and humidity sensor support in particular.

DAC2CORE protocol has changed, backward compatibility is broken. To upgrade your configuration, you have to add a literal T in front of 1-Wire temperature sensors, and add a literal S in front of 1-Wire switch devices.