Free 4.4 liters equal how many gallons software for linux

Squirrel Shell is made as a cross-platform alternative to system shells like bash in *nix.
Main features:
- object-oriented programming;
- C++-like syntax;
- dynamic typing;
- delegation;
- generators;
- exception handling;
- weak references;
Enhancements:
- Added: fprintl() function.
- Added: regcompile(), regmatch(), regfree(), regfreeall() and regerror() functions.
- Fixed: Passing null as redirIn parameter for run() function.
- Fixed: readdir() function truncated path at the first slash.
- Fixed: Floating point numbers staring with integer part equal to zero (for example, 0.123) were treated as octal integers.
- Fixed: Documentation for printl() function.
- Fixed: Potential buffer overflow in scan() and fscan() functions.
- Fixed: substr() returned one redundant character.
- Changed: Leading and trailing spaces in paths are removed.
- Changed: SQUIRREL_VERSION is now "2.1.3.1".
- Changed: Increased internal buffer for scan() and fscan() functions.
- Changed: Removed .dummy files and source code from Windows installer.

Quantum::Entanglement package contains QM entanglement of variables in perl.

SYNOPSIS

use Quantum::Entanglement qw(:DEFAULT :complex :QFT);

my $c = entangle(1,0,i,1); # $c = |0> + i|1>
my $d = entangle(1,0,1,1); # $d = |0> + |1>

$e = $c * $d; # $e now |0*0> + i|0*1> + |1*0> + i|1*1>, connected to $c, $d

if ($e == 1) { # observe, probabilistically chose an outcome
# if we are here, ($c,$d) = i|(1,1)>
print "* $e == 1n";
}
else { # one of the not 1 versions of $e chosen
# if we are here, ($c,$d) = |(0,0)> + i|(1,0)> + |(0,1)>
print "* $e != 1n";
}

BACKGROUND

"Quantum Mechanics - the dreams that stuff is made of."

Quantum mechanics is one of the stranger things to have emerged from science over the last hundred years. It has led the way to new understanding of a diverse range of fundamental physical phenomena and, should recent developments prove fruitful, could also lead to an entirely new mode of computation where previously intractable problems find themselves open to easy solution.

While the detailed results of quantum theory are hard to prove, and even harder to understand, there are a handful of concepts from the theory which are more easily understood. Hopefully this module will shed some light on a few of these and their consequences.

One of the more popular interpretations of quantum mechanics holds that instead of particles always being in a single, well defined, state they instead exist as an almost ghostly overlay of many different states (or values) at the same time. Of course, it is our experience that when we look at something, we only ever find it in one single state. This is explained by the many states of the particle collapsing to a single state and highlights the importance of observation.

In quantum mechanics, the state of a system can be described by a set of numbers which have a probability amplitude associated with them. This probability amplitude is similar to the normal idea of probability except for two differences. It can be a complex number, which leads to interference between states, and the probability with which we might observe a system in a particular state is given by the modulus squared of this amplitude.

Consider the simple system, often called a qubit, which can take the value of 0 or 1. If we prepare it in the following superposition of states (a fancy way of saying that we want it to have many possible values at once):

particle = 1 * (being equal to 1) + (1-i) * (being equal to 0)

we can then measure (observe) the value of the particle. If we do this, we find that it will be equal to 1 with a probability of

1**2 / (1**2 + (1-i)(1+i) )

and equal to zero with a probability of

(1+i)(1-i) / (1**2 + (1-i)(1+i) )

the factors on the bottom of each equation being necessary so that the chance of the particle ending up in any state at all is equal to one.

Observing a particle in this way is said to collapse the wave-function, or superposition of values, into a single value, which it will retain from then onwards. A simpler way of writing the equation above is to say that

particle = 1 |1> + (1-i) |0>

where the probability amplitude for a state is given as a multiplier of the value of the state, which appears inside the | > pattern (this is called a ket, as sometimes the bra or < |, pattern appears to the left of the probability amplitudes in these equations).

Much of the power of quantum computation comes from collapsing states and modifying the probability with which a state might collapse to a particular value as this can be done to each possible state at the same time, allowing for fantastic degrees of parallelism.

Things also get interesting when you have multiple particles together in the same system. It turns out that if two particles which exist in many states at once interact, then after doing so, they will be linked to one another so that when you measure the value of one you also affect the possible values that the other can take. This is called entanglement and is important in many quantum algorithms.

Search::Binary is a Perl module for generic binary search.

SYNOPSIS

use Seach::Binary;
$pos = binary_search($min, $max, $val, $read, $handle, [$size]);

binary_search implements a generic binary search algorithm returning the position of the first record whose index value is greater than or equal to $val. The search routine does not define any of the terms position, record or index value, but leaves their interpretation and implementation to the user supplied function &$read(). The only restriction is that positions must be integer scalars.

During the search the read function will be called with three arguments: the input parameters $handle and $val, and a position. If the position is not undef, the read function should read the first whole record starting at or after the position; otherwise, the read function should read the record immediately following the last record it read. The search algorithm will guarantee that the first call to the read function will not be with a position of undef. The read function needs to return a two element array consisting of the result of comparing $val with the index value of the read record and the position of the read record. The comparison value must be positive if $val is strictly greater than the index value of the read record, 0 if equal, and negative if strictly less. Furthermore, the returned position value must be greater than or equal to the position the read function was called with.

The input parameters $min and $max are positions and represents the extent of the search. Only records which begin at positions within this range (inclusive) will be searched. Moreover, $min must be the starting position of a record. If present $size is a difference between positions and determines when the algorithms switches to a sequential search. $val is an index value. The value of $handle is of no consequence to the binary search algorithm; it is merely passed as a convenience to the read function.

pTest framework is an Object Oriented PHP 5 testing framework. The project differs from other testing frameworks in that it doesnt suffer from a dogmatic following of JUnit.

A good feature of this framework is that it can be as easily used from the commandline as embedded and extended by your application. Tests are easy to write and dont require naming conventions or other weirdness.

A simple test

< ?php

class SimpleTest extends BaseTest {
public function setup() {

}

public function aIsB() {
$this->false( ( 1 == 2 ), "one is not equal to two" );
$this->false( ( a == b ), "a is not equal to b" );
}

public function knownFacts() {
$this->true( ( 1 + 1 == 2 ), one and one is two );
}

public function fatal() {
$this->true( new thisfatalerror(), division by zero );
}

public function tearDown() {

}
}

? >

The console output

SimpleTest:
aIsB
false( one is not equal to two ) = passed
false( a is not equal to b ) = passed
knownFacts
true( one and one is two ) = passed
fatal
errored
Output
====================================================

Fatal error: Class thisfatalerror not found in /usr/local/pTest/examples/SimpleTest.php on line 18

====================================================


4 total tests
3 passed
0 failed
0 skipped
1 errored
75.00% success

Deep Breathing is a small program program I wrote that guides a user for deep breathing. It’s been nice to use while at work or when looking for moment’s relaxation. The program has values for setting the number of beats for breathing in and breathing out, the beats per minute, and if to use sound or not.

In the texts I’ve read, breathing out longer than breathing in is good for detoxifying, breathing in longer than breathing out is good for energizing, and an equal amount of both is calming.

Suggested uses:

2 beats in, 4 beats out, 40 beats per minute
4 beats in, 2 beats out, 40 beats per minute
4 beats in, 4 beats out, 40 beats per minute

Also, I sometimes start at a a faster beats per minute when I’m just getting settled in, and slowly lower the beats per minute as I go along. Enjoy!

Note: If you are not hearing any sound it is most likely that your installation of Java does not have a MIDI Soundbank installed. You can install one from here. If you’re having problems installing the soundbank, please feel free to email me.

If you’ve found this program to be of value to you, please consider making a donation.

EDU-Nix is a Live CD, this means that it is a complete computer Operating System that runs off of a Compact Disc instead of being installed onto the computers hard drive. EDU-Nix is based upon Gentoo Linux and the K Desktop Environment.

EDU-Nix Live CD also contains installation programs for OpenOffice.org for Windows, a fully-featured Office Productivity Suite that is Free to use and redistribute.

EDU-Nix contains numerous Educational, Office Productivity and Internet programs within a portable, Live CD Environment. You can access the EDU-Nix desktop on any PC that can boot from CD, bringing your system with you wherever you go.
EDU-Nix is Free Software, meaning school districts may legally copy and redistribute the system to students and faculty.

EDU-Nix aims to provide U.S. Public Schools with Open-Source alternatives to expensive proprietary software products. The project will consist initially of a redistributable CD that has both a live CD environment, as well as Windows versions of the office and productivity programs.

By ensuring that all students and faculty have equal access to high-quality Free Software, EDU-Nix will help to bridge the digital divide in American schools, allowing students access to the same software they use at school wherever they can get computer time.

Newsmail was created to allow easy news publication to one or more sites, using email messages to insert, delete, and manage news.
It is a simple PHP news ticker that allows you to publish news via email. Newsmail can generate RSS feeds for news matching a given category.
Main features:
- import plain text or HTML email messages with or without attachments, and with or without Markdown syntax.
- store messages in database (currently Postgresql and MySQL are supported, but the PHP code uses Pear::DB abstraction) and attachments in filesystem.
- request a confirmation message before publishing or deleting news.
- require an approvation from a moderator before publishing or deleting news.
- answer to some administration commands directly via email (e.g. news listing, news delete and update).
- generate an RSS feed with news matching a particular category or with category equal to all
Enhancements:
- A small improvement was made to the install instructions.
- An approval option was added, which requires BCC_ADDRESS approval for inserting and deleting messages.
- The approval process uses a randomly generated token password to improve security.
- The database structure was changed to use a token for approval security.
- The MySQL table definition was improved to use INNODB.