Free aots japan software for linux

Data::SecsPack is a Perl module pack and unpack numbers in accordance with SEMI E5-94.

SYNOPSIS

#####
# Subroutine interface
#
use Data::SecsPack qw(bytes2int config float2binary
ifloat2binary int2bytes
pack_float pack_int pack_num
str2float str2int
unpack_float unpack_int unpack_num);

$big_integer = bytes2int( @bytes );

$old_value = config( $option );
$old_value = config( $option => $new_value);

($binary_magnitude, $binary_exponent) = float2binary($magnitude, $exponent, @options);

($binary_magnitude, $binary_exponent) = ifloat2binary($imagnitude, $iexponent, @options);

@bytes = int2bytes( $big_integer );

($format, $floats) = pack_float($format, @string_floats, [@options]);

($format, $integers) = pack_int($format, @string_integers, [@options]);

($format, $numbers, @string) = pack_num($format, @strings, [@options]);

$float = str2float($string, [@options]);
(@strings, @floats) = str2float(@strings, [@options]);

$integer = str2int($string, [@options]);
(@strings, @integers) = str2int(@strings, [@options]);

@ingegers = unpack_int($format, $integer_string, @options);

@floats = unpack_float($format, $float_string, @options);

@numbers = unpack_num($format, $number_string), @options;

#####
# Class, Object interface
#
# For class interface, use Data::SecsPack instead of $self
#
use Data::SecsPack;

$secspack = Data::SecsPack; # uses built-in config object

$secspack = new Data::SecsPack(@options);

$big_integer = bytes2int( @bytes );

($binary_magnitude, $binary_exponent) = $secspack->float2binary($magnitude, $exponent, @options);

($binary_magnitude, $binary_exponent) = $secspack->ifloat2binary($imagnitude, $iexponent, @options);

@bytes = $secspack->int2bytes( $big_integer );

($format, $floats) = $secspack->pack_float($format, @string_integers, [@options]);

($format, $integers) = $secspack->pack_int($format, @string_integers, [@options]);

($format, $numbers, @strings) = $secspack->pack_num($format, @strings, [@options]);

$integer = $secspack->str2int($string, [@options])
(@strings, @integers) = $secspack->str2int(@strings, [@options]);

$float = $secspack->str2float($string, [@options]);
(@strings, @floats) = $secspack->str2float(@strings, [@options]);

@ingegers = $secspack->unpack_int($format, $integer_string, @options);

@floats = $secspack->unpack_float($format, $float_string, @options);

@numbers = $secspack->unpack_num($format, $number_string, @options);

Generally, if a subroutine will process a list of options, @options, that subroutine will also process an array reference, @options, [@options], or hash reference, %options, {@options}. If a subroutine will process an array reference, @options, [@options], that subroutine will also process a hash reference, %options, {@options}. See the description for a subroutine for details and exceptions.

The subroutines in the Data::SecsPack module packs and unpacks numbers in accordance with SEMI E5-94. The E5-94 establishes the standard for communication between the equipment used to fabricate semiconductors and the host computer that controls the fabrication. The equipment in a semiconductor factory (fab) or any other fab contains every conceivable known microprocessor and operating system known to man. And there are a lot of specialize real-time embedded processors and speciallize real-time embedded operating systems in addition to the those in the PC world.

The communcication between host and equipment used packed nested list data structures that include arrays of characters, integers and floats. The standard has been in place and widely used in China, Germany, Korea, Japan, France, Italy and the most remote corners on this planent for decades. The basic data structure and packed data formats have not changed for decades.

This stands in direct contradiction to the common conceptions of many in the Perl community and most other communities. The following quote is taken from page 761, Programming Perl third edition, discussing the pack subroutine:

"Floating-point numbers are in the native machine format only. Because of the variety of floating format and lack of a standard "network" represenation, no facility for interchange has been made. This means that packed floating-point data written on one machine may not be readable on another. That is a problem even when both machines use IEEE floating-point arithmetic, because the endian-ness of memory representation is not part of the IEEE spec."

There are a lot of things that go over the net that have industry or military standards but no RFCs. So unless you dig them out, you will never know they exist. While RFC and military standards may be freely copyied, industry standards are usually copyrighted. This means if you want to read the standard, you have to pay whatever the market bears. ISO standards, SEMI stardards, American National Standards, IEEE standards beside being boring are expensive. In other words, you do not see them flying out the door at the local Barnes and Nobles. In fact, you will not even find them inside the door.

It very easy to run these non RFC standard protocols over the net. Out of 64,000 ports, pick a port of opportunity (hopefully not one of those low RFC preassigned ports) and configure the equipment and host to the same IP and port. Many times the software will allow a remote console that is watch only. The watch console may even be a web server on port 80. If there is a remote soft console, you can call up or e-mail the equipment manufacturers engineer in say Glouster, MA, USA and tell him the IP and port so he can watch his manchine mangle a cassette of wafers with a potential retail value of half million dollars.

SEMI E5-94 and their precessors do standardize the endian-ness of floating point, the packing of nested data, used in many programming languages, and much, much more. The endian-ness of SEMI E5-94 is the first MSB byte, floats sign bit first. Maybe this is because it makes it easy to spot numbers in a packed data structure.
The nested data has many performance advantages over the common SQL culture of viewing and representing data as tables. The automated fabs of the world make use of SEMI E5-94 nested data not only for real-time communication (TCP/IP RS-2332 etc) between machines but also for snail-time processing as such things as logs and performance data.

Does this standard communications protocol ensure that everything goes smoothly without any glitches with this wild mixture of hardware and software talking to each other in real time? Of course not. Bytes get reverse. Data gets jumbled from point A to point B. Machine time to test software is non-existance. Big ticket, multi-million dollar fab equipment has to work to earn its keep. And, then there is the everyday business of suiting up, with humblizing hair nets, going through air and other showers with your favorite or not so favorite co-worker just to get into the clean room. And make sure not to do anything that will scatch a wafer with a lot of Intel Pentiums on them. It is totally amazing that the product does get out the door.

Geo::Coder::YahooJapan is a simple wrapper for Yahoo Japan Geocoder API.

SYNOPSIS

use Geo::Coder::YahooJapan;
$r = lookup( $address_in_japanese_characters );
my ($lat, $lng) = ( $r->{latitude}, $r->{longitude} ); # coordinate in WGS87.

# if you want to get result in TOKYO datum, specify it in option.
$r = lookup( $address_in_japanese_characters, { datum => tokyo } );

# if address is ambiguous and the server returns multiple items
$r = lookup( $address_in_japanese_characters );
# $r->{latitude} and $r->{longitude} contains coordinate of first item.
($lat, $lng) = ( $r->{latitude}, $r->{longitude} );

# $r->{hits} has the number of candidates.
if ( $r->{hits} > 1 ) {
# and $r->{items} contains each candidates infomation.
foreach ( $r->{items} ) {
print join "t", ( $_->{title}, $_->{latitude}, $_->{longitude} );
print "n";
}
}

Geo::Coder::YahooJapan is a wrapper for Yahoo Japan Geocoder API that is used by the official Yahoo Japans local search widget http://widgets.yahoo.co.jp/gallery/detail.html?wid=10 . This module converts the coordinate into WGS84 from TOKYO datum which is returned by API server.

SDL Hana is a SDL-based hanafuda game.

SDLHana is a SDL-based Hanafuda game, a Japanese-oriented card game which is popular in Japan and Korea

SDLHana project is a SDL-based Hanafuda game.

Hanafuda is a Japanese-oriented card game which is mostly played in Japan and Korea, also known as "Hwa-Tu" in Korean.

Just like Poker, there are many ways to play with Hanafuda. This program currently supports two of them: Koi-Koi, which is a Japanese game, and Go-Stop, which is a Korean game.

There is also a variant of Koi-Koi game mostly found in gambling Coin-Op game machines, described as "Koi-Koi [BET]" in the game settings menu, which is played with 6 cards instead of 8 cards.

JSokoApplet is a Java applet for playing the game of Sokoban. It features path finding, auto push, auto solving, undo/redo, deadlock detection, and more

JSokoApplet project is written in Java. You must have Java installed to start the game.

There are two ways of starting the program:

1. Starting the program as an applet:

Load the html-file in your browser (usually by doubleclicking the html-file). The applet should be loaded automatically with that html-file.

2. Starting the program as an application:

a) Start the batch-file "Start JSokoApplication.bat" (Windows users)
or
b) open a console window, go to the folder where the file "JSokoApplet.jar" is located and type: java -jar JSokoApplet.jar
or
c) Just double click the file "JSokoApplet.jar"

If the program doesnt start please check if you have Java installed.
If you have questions about how to start the program write to "x-brain@uni.de"

The game:

"Sokoban" is a puzzle game invented in Japan 1982 by Hiroyuki Imabayashi. The rules are very simple but the game itself is not.

The Rules

The object of the game is to push boxes to specially marked positions in a level. The boxes can only be pushed, never pulled, and only one can be pushed at a time. The player can only move on "free" (= no wall and no box) fields.

A level is solved if all boxes have been pushed to specially marked positions.
One field can just be occupied by only one of the following levelelements at a time: the player, a box, a wall

Just start the game. You easily will learn the rules by playing the game.

The computer will help you in positions where you lost the possibility to solve the level (for example, if you pushed a box in a corner) by showing you the message that the level isnt solvable anymore.

Note: Recognizing positions that are unsolvable is very difficult. Hence the computer just shows this message for some kinds of unsolvable positions.

How to Play

You can move the player by using the arrow keys or by using the mouse (or both)

Keyboard Functions

Move the player: Arrow keys

Undo last move: [Delete] or [Backspace]

Redo move from history: [Insert]

Restart level: [Enter]

Previous level: [Page up]

Next level: [Page down].

Mouse Functions

Left-click on a position to let the player automatically move to this position.
Left-click on a box to select it then left-click the target position. The player will automatically push the selected box to the specified position. Unselect a box by clicking on it again.

A click of the right mousebutton will undo the last done activity.

qGo is a full featured SGF editor and Go Client for NNGS/IGS/etc., available for Linux, Mac and Windows.
qGo is based on Qt 3.2.1nc (Windows) and Qt 3.1+ (Linux, Mac). Go is an ancient boardgame, very common in Japan, China, Korea and Taiwan.
Enhancements:
- fixed : mark issue with teaching games
- added : blind go
- added : 2 new translations (latin and simplified chinese)
- changed : added SGF (uppercase) as file suffix