Free ics software for linux

ICS::Simple is a simple interface to CyberSource ICS2.

SYNOPSIS

Here is some basic code. Hopefully Ill come back through soon to document it properly.

use ICS::Simple;

my $ics = ICS::Simple->new(
ICSPath => /opt/ics,
MerchantId => v0123456789, # CyberSource supplies this number to you
Mode => test,
Currency => USD,
Grammar => UpperCamel, # defaults to raw ICS responses, so you might want to set this
#ErrorsTo => all-errors@some.fun.place.com,
CriticalErrorsTo => only-critical-errors@some.fun.place.com,
);

my $request = {
OrderId => order19857219,
FirstName => Fred,
LastName => Smith,
Email => fred.smith@buyer-of-stuff.com,
CardNumber => 4111111111111111,
CardCVV => 123,
CardExpYear => 2008,
CardExpMonth => 12,
BillingAddress => 123 Main St,
BillingCity => Olympia,
BillingRegion => WA,
BillingPostalCode => 98501,
BillingCountryCode => US,
ShippingAddress1 => 6789 Industrial Pl,
ShippingAddress2 => Floor 83, Room 11415,
ShippingCity => Olympia,
ShippingRegion => WA,
ShippingPostalCode => 98506,
ShippingCountryCode => US,
ShippingFee => 25.05,
HandlingFee => 5.00,
Items => [
{ Description => Mega Lizard Monster RC,
Price => 25.00,
SKU => prod15185 },
{ Description => Super Racer Parts Kit,
Price => 15.30,
SKU => prod23523 },
{ Description => Uber Space Jacket,
Price => 72.24,
SKU => prod18718 },
],
};

my $response = $ics->requestBill($request);

if ($response->{success}) {
print "Woo! Success!n";
$response = $response->{response};
print "Thanks for your payment of $$response->{BillAmount}.n";
}
else {
print "Boo! Failure!n";
print "Error: $response->{error}->{description}n";
}

CSBoard is a small GUI for gnuchess. It is written in C# and uses gtk-sharp and mono. CSBoard is simple, but allows you just play chess with SVG graphics and native look and desktop theme usage.

CSBoard has very detailed user documentation and fully integrated with GNOME desktop environment for many things, like support of mime-types.

CSBoard use gnuchess as playing engine, but you can also play with crafty of phalanx.

Currently user part of CSBoard is almost finished, it can satisfy newbie user needs. But the requirements of advanced chess users are much more complicated.

So the main goal is development of architecture that will allow things like ICS (internet chess server) support but still keep interface simple.

Data::ICal is a Perl module that generates iCalendar (RFC 2445) calendar files.

SYNOPSIS

use Data::ICal;

my $calendar = Data::ICal->new();

my $vtodo = Data::ICal::Entry::Todo->new();
$vtodo->add_properties(
# ... see Data::ICal::Entry::Todo documentation
);

# ... or

$calendar = Data::ICal->new(filename => foo.ics); # parse existing file
$calendar = Data::ICal->new(data => BEGIN:VCALENDAR...); # parse existing file


$calendar->add_entry($vtodo);

print $calendar->as_string;

# Or, if youre printing to something you want google to read:
print $calendar->as_string(fold => 0);

A Data::ICal object represents a VCALENDAR object as defined in the iCalendar protocol (RFC 2445, MIME type "text/calendar"), as implemented in many popular calendaring programs such as Apples iCal.

Each Data::ICal object is a collection of "entries", which are objects of a subclass of Data::ICal::Entry. The types of entries defined by iCalendar (which refers to them as "components") include events, to-do items, journal entries, free/busy time indicators, and time zone descriptors; in addition, events and to-do items can contain alarm entries. (Currently, Data::ICal only implements to-do items and events.)
Data::ICal is a subclass of Data::ICal::Entry; see its manpage for more methods applicable to Data::ICal.

gnome-chess is chess game, a graphical user interface for playing chess.

It works with chess programs and chess servers - it is also a PGN viewer. For chess programs, it works best with the chess engine crafty (ftp://ftp.cis.uab.edu/pub/hyatt) but most features should also work with GNU Chess (ftp://ftp.gnu.org).

You can use the "first chess program" option to choose the computer engine you want to play against.

E.g. try "gnome-chess --fcp crafty" or "gnome-chess --fcp gnuchessx"

You can use the --ics* options to choose the server and pick user name and passwords.

E.g. try "gnome-chess --ics --icshost freechess.org"

Emacs Chess is an object-oriented library written in Elisp for manipulating chess objects (games, plies, positions, etc.), and for displaying them.
Main features:
- Emacs Chess is also an object-oriented library for manipulating chess objects (games, plies, positions, etc), and for displaying them. It supports a wide range of engine objects to use as move sources. This what allows chess.el to act as a chess client.
- chess-announce.el announces your opponents moves verbally, such as "knight takes at f4"provided you have "festival" installed.
- chess-sound.el is similar to chess-announce, but uses specific WAV files for each sound used. It takes up much more disk space, but is nicer to listen to. Available in English only at the moment.
- chess-irc.el provides a tiny IRC bot, allowing you to play games over IRC so long as your opponent enters moves in short algebraic notation. If they dont have chess.el, all they need is a regular chessboard, and a knowledge of SAN (short alegebraic notation).
- chess-ics.el lets you to play on Internet Chess Servers, using chess.el as your chessboard display (which means chess-announce works with it, etc). It has only been tested with FICS so far.
- chess-crafty.el, chess-gnuchess.el and chess-phalanx.el let you play against the Crafty, Gnuchess and Phalanx engines.
- chess-random.el will create Fischer Random positions to play against. Note that this feature only really works against opponents who are also using chess.el. Simply type "S" in the chessboard display buffer to setup a Fischer Random starting position.
- chess-network.el lets you play against other chess.el users directly, over a single open port on the server side. To be a server, you must have "netcat" installed, or be using Emacs 21.3 or higher (which supports server side network sockets). To be a client, all you need is Emacs 21.1 or higher.
- chess-link.el lets you tie two engines together, so that events from one are responded to by events from another. This can let you run a chess bot on your computer over any of the transport, or you can use it to pit two computer chess engines against each other.
- chess.el can even export chessboard display to other X servers, allowing you to play against people in your meeting room, even if they dont have Emacs installed!
Enhancements:
- This maintenance release includes several bugfixes.

Agenda is a Web-based application that let you manage your appointments.
It can display information by day, week, month, and year. Agenda Displayer supports official holidays.
Enhancements:
- This release added a world clock, an astrological calendar, a todo handler, a login system, a countdown function, support for generating iCal files with a .ics extension, a new way to handle your annual days off, sunrise and sunset times, and moon phase classes.

jSVR is a java implementation of a semi-automatic process for identifying and exporting three-dimensional information from a single un-calibrated image. The project is based on previous publications of A. Criminisi, A. Zisserman and others. svrIn the section "svr theory" there is a brief presentation of the principals behind single view reconstruction, using perspective information of an image.

jSVR was originally developed as my degree project in the computer science department of the university of Crete, in 2004. Most of the initial work was done in the CVRL lab of ics-forth, under the supervision of professors A. Argyros and M. Lourakis. Many documents in this site come from my report on svr, and where initially converted from latex using latex2html and then modified. If you find any broken links or other problems please let me know.

I recently decided to try and continue that work, as an open source project.

Single View reconstruction is a technique that can have various applications in different areas of interest. From acquiring metric information from low quality images, to reconstructing scenes from paintings. The process of reconstructing an image is semi-automated and can be really tricky for the user, who is requested to define and/or fine tune a set of difficult to understand parameters, (see the "svr theory" section for some examples).

Depending on the goal, the demands to the reconstruction technique differ. In the original work the goal was to test the proposed methodology in the relevant literature and to implement the techniques into an application that could reconstruct an image. The new goal of svr is to provide a user-friendly and intuitive way for reconstructing images, as well as to improve the existing implementation to produce better results. Determining the correct vanishing points with an automatic algorithm would be a great improvement to the whole process.

One step towards this direction would be an MLE estimation for the best intersection point. Also it is probable that suitable heuristics could be used to exclude intersections (false vanishing points) in areas that vanishing points are not expected (i.e. the center of the image). In order to exclude as many false VP detections as possible, appropriate filters could be applied on the image before the reconstruction (i.e. noise reduction, removing the radial distortion, and sharpen edges).

The phase of manual reconstruction could also be made semi-automatic by implementing object identification algorithms. This would help by automatically identifying the bigger structures in the image (i.e the vertical planes). In addition smaller structures can be interactively traced. This would also allow better texture extraction from the objects in the image.