Free jasperassistant vs ireport software for linux

Debian vs Pimientos is an arcade game developed using the SDL libraries SDL, SDL_image, SDL_mixer, and SDL_ttf. This permits the portability of the game to some systems and machines.
Debian vs Pimientos is the first game of NEOPONTEC Games, and the first to use the NNG Engine (New Neopontec Gaming Engine) developed by Hector Blanco (me) that uses the mentioned SDL Libraries.
The game concept is very easy to understand and to play. There are a lot of peppers (pimientos is the spanish word for peppers) that are flying by the sky, and you, armed with the Debian logo must fight them. The Debian logo shoots GNU heads to kill these devil pimientos
Main features:
- 800x600 resolution at 32 bits.
- High quality images.
- Addictive and funny playing experience
- Cross-platform open source game: (binaries for Win32 & Linux, and sources for other systems).
- Different classes of peppers (pimientos).

Cascade Historian software is an event driven data storage program used to maintain persistent time-sequence data sets derived from process data.

Features and Benefits

In addition to providing storage the Historian also offers a historical query facility suitable for generating graphs and tabular output for export to other analysis programs. Other programs can also send data to the Cascade Historian by linking the API library and making the appropriate function calls.

The data storage mechanism within the Cascade Historian will maintain any number of simultaneous time histories, one for each configured process point.

The data for each point is maintained in one or more files, allowing for removal of stale data or offline archival of old data. These files are either numbered in increasing numerical order, or dated. When using dated files, the Cascade Historian automatically begins logging to a new file at midnight.

Data logging by event

The Cascade Historian records data by event. If no data change event occurs for a point, no data is written to disk. This saves disk space when the process point is idle, and captures even very short duration events when the point is changing. This is both more efficient and more accurate than a sampling historian. It is possible to place both a time and value deadband on each point to reduce storage for points whose values are constantly changing by insignificant amounts. The Cascade Historian will not reorder out of sequence data.

Data is stored on disk in fixed length binary records to minimize disk space, with a time resolution of nanoseconds. These files can be easily read by any custom program as well as by the Cascade Historian.

Any process may request data from the Cascade Historian. The Cascade Historian maintains a configurable in-memory cache for each point being recorded so that queries of recent data will not require disk access. If the request cannot be satisfied from the in-memory cache, then the disk files related to the point will be consulted for the data to satisfy the request. The requests can take one of the following forms:

Raw Data - Simply returns all recorded events for the data point, reported vs. time.
Periodic Data - Performs linear interpolation on the data to produce a data set at an even time interval. This produces the same result that a sampling historian would produce.
Relative Interpolation - Performs interpolation of one data point against another to produce a Y vs. X data set. Interpolation is performed on Y to produce (X,Y) pairs at the times of known values of X.
Periodic Relative Interpolation - Performs interpolation of one data point against another to produce a Y vs. X data set. Interpolation is performed on both X and Y to produce (X,Y) pairs at an even time interval.

The Cascade Historian has been built to allow quick addition of other forms of historical query.

Basic Local Alignment Search Tool is a set of similarity search programs designed to explore all of the available sequence databases regardless of whether the query is protein or DNA.
It uses a heuristic algorithm which seeks local as opposed to global alignments, and is therefore able to detect relationships among sequences which share only isolated regions of similarity.
It can be run locally as a full executable, and can be used to run BLAST searches against private, local databases, or downloaded copies of the NCBI databases. It runs on Mac OS, Win32, LINUX, Solaris, IBM AIX, SGI, Compaq OSF, and HP- UX systems.
Main features:
Nucleotide
- Quickly search for highly similar sequences (megablast)
- Quickly search for divergent sequences (discontiguous megablast)
- Nucleotide-nucleotide BLAST (blastn)
- Search for short, nearly exact matches
- Search trace archives with megablast or discontiguous megablast
Protein
- Protein-protein BLAST (blastp)
- Position-specific iterated and pattern-hit initiated BLAST (PSI- and PHI-BLAST)
- Search for short, nearly exact matches
- Search the conserved domain database (rpsblast)
- Protein homology by domain architecture (cdart)
Translated
- Translated query vs. protein database (blastx)
- Protein query vs. translated database (tblastn)
- Translated query vs. translated database (tblastx)
Genomes
- Human, mouse, rat, chimp cow, pig, dog, sheep, cat
- Chicken, puffer fish, zebrafish
- Environmental samples
- Protozoa
- Insects, nematodes, plants, fungi, microbial genomes, other eukaryotic genomes
Special
- Search for gene expression data (GEO BLAST)
- Align two sequences (bl2seq)
- Screen for vector contamination (VecScreen)
- Immunoglobin BLAST (IgBlast)
- SNP BLAST
Meta
- Retrieve results

QtTV is a TV Guide. It reads from an XMLTV formatted document to retrieve listings, then allows output sorted by time, per channel or in a grid of time vs channel.

For now, the package requires the XMLTV listings to be in "/root/Documents/tv.xml" if you are installing on the zaurus. Windows or linux compilations allow you to choose a file.

Be aware that this software is slow to load and may be buggy.

Video server is a streaming video server which feeds a Java applet/application for display. The updates are rather slow, somewhere in the 10 frames/second range on a PIII. The server is written in Bigloo scheme and C. The client is written in Java.

To bring up the video server you have to do the following.

./vs --channel 25 --sd 12 --input 0

./vs --help
for more options. (This seems broken with the newest version of bigloo .... )

How to bring up a java client to connect to a server:
Insure that video/java is in your classpath, and invoke

java vpanel servername

Project VDW contains a package that generates van der Waerden sequences.
Project VDW is a an attempt to further research into van der Waerden sequences.
The software consists of a client that generates sequences, and a utility to generate unique starting seeds.
The ultimate goal of this project is to develop a BOINC-based client that can supply the massively parallel computing resources necessary to solve currently untouched sequences.
Currently the makefile will compile and test several different versions using char, u_char, int, u_int, long, and u_long as the element type.
Different architectures perform differently on chars vs ints and differently given the size of the data cache.
Feel free to try different combinations of element type to optimize the code for your particular configuration.
Enhancements:
- Changed to timed checkpointing
- Changed to millionbased accounting from 2^32 accounting
- Added Interrupted/Completed messages to output file
- Changed makefile to test different element types
- and lots of other cool stuff.

MassSpec::ViewSpectrum::RealVsHypPeptide is a Perl module to view a real mass spectrum on the same graph as a hypothetical spectrum generated by fragmenting a peptide in silico.

SYNOPSIS

use MassSpec::ViewSpectrum::RealVsHypPeptide;
open GRAPHIC, ">mygraphic.png" or die "Unable to open output filen";
binmode GRAPHIC;

my @masses = (78.1,81.1,81.7,85.4,86.8,88.8,89.4,97.6,99.0,99.4,108.7,112.1,129.1,
130.1,132.1,147.7,157.1,158.1,159.1,169.1,171.1,175.1,187.1,229.1,246.2,258.1,
266.0,327.2,328.2,345.2,415.2,426.2,432.2,531.2,559.3,623.4,639.3,643.3,644.4,
645.0,647.5,686.4,687.4,689.4);
my @intensities = (8.7,7.7,7.3,10.5,7.7,7.3,8.4,8.0,9.1,9.1,7.3,29.0,12.6,7.3,8.0,
7.7,11.9,9.8,10.1,7.3,10.5,131.0,9.4,50.3,22.7,44.7,16.8,30.4,18.2,53.1,25.5,
15.7,7.7,14.0,46.8,38.4,7.3,11.5,8.7,7.3,8.7,7.3,24.8,194.2);
my $peptide = "RTSVAR";

my $vs = MassSpec::ViewSpectrum::RealVsHypPeptide->new($peptide, @masses,@intensities);
$vs->set(yaxismultiplier => 1.8); # a sample tweak to adjust the output
$vs->set(title => "BSA-689 -- " . $peptide);

my $output = $vs->plot();
print GRAPHIC $output;
close GRAPHIC;

MassSpec::ViewSpectrum::RealVsHypPeptide - View a real mass spectrum on the same graph as a hypothetical spectrum generated by fragmenting a peptide in silico. The in silico fragmention is performed by generating all of the possible peptides which contain either the amino-terminal or carboxyl-terminal amino acids.

Negative peak intensity values are permitted; this permits the drawing of "pseudospectra" which, for example, illustrate peaks present in one spectrum but missing in another. Note that these negative peaks have no true intensities, but in some cases we assign different heights to illustrate the differences among different hypothetical peaks. In addition, pseudocoloring of both positive and negative peaks is performed to illustrate what type of ion that peak represents. In some cases these ions are labelled explicitly, although in practice it is best to minimize this labelling to avoid excessive clutter.