Free built in bookcase design software for linux

Build Order Anlyzer for the Axis & Allies RTS is a tool for analyzing builds in the Axis & Allies RTS game. Many sites go to great lengths to explain Build Orders, but the Build Order Analyzer is the first tool to actually allow players the ability to define a Build Order and then compare it to other Build Orders over time.

Key Facts to know about the Build Order Analyzer:

Only tool of its kind
Can support multiple types of RTS based games (not just Axis & Allies RTS!)
Built on Java technology & open source software

The Build Order Anlyzer 2.0 for Axis & Allies RTS is a tool for analyzing builds in the Axis & Allies RTS game. Wikipedia has a great defnition for a Build Order. To summarize, a Build Order in an RTS game defines the order in which a player builds their buildings, units, and upgrades. Understanding the timing and affect of various build trees is critical in making the appropriate tactical decisions during the game.

The BOA allows a player to build and analyze multiple Build Orders without playing a game. Lose to a player due to their build? Then plug it into the BOA and figure out a build to counter it! Gamers no longer have to play game, after game, after game to figure out a decent counter to another players Build Order, they can use the BOA to figure it out. The BOA can literally save serious gamers hundreds of hours of game play!

Boost.Join is an asynchronous, message based C++ concurrency library based on join calculus. It is applicable both to multi-threaded applications and to the orchestration of asynchronous, event-based applications.
The project follows Comegas design and implementation and builds with Boost facilities. It provides a high level concurrency API with asynchronous methods, synchronous methods, and chords which are "join-patterns" defining the synchronization, asynchrony, and concurrency.
Enhancements:
- Major design changes were made for simplicity and efficiency.
- The library and executables are now smaller and faster.
- The design was kept more consistent with Cw (by removing guards which are error-prone and multi synch methods).
- Many changes were made to reduce copying and buffering.
- The documentation was updated with design changes and the addition more information about implementation and integration with other libraries.

GNU libtool is a generic library support script. Libtool library hides the complexity of using shared and static libraries behind a consistent, portable interface.

Libtool supports building static libraries on all platforms.

In the past, if a source code package developer wanted to take advantage of the power of shared libraries, he needed to write custom support code for each platform on which his package ran. He also had to design a configuration interface so that the package installer could choose what sort of libraries were built.

GNU Libtool simplifies the developers job by encapsulating both the platform-specific dependencies, and the user interface, in a single script. GNU Libtool is designed so that the complete functionality of each host type is available via a generic interface, but nasty quirks are hidden from the programmer.

GNU Libtools consistent interface is reassuring... users dont need to read obscure documentation in order to have their favorite source package build shared libraries. They just run your package configure script (or equivalent), and libtool does all the dirty work.

There are several examples throughout this document. All assume the same environment: we want to build a library, libhello, in a generic way.

libhello could be a shared library, a static library, or both... whatever is available on the host system, as long as libtool has been ported to it.

This chapter explains the original design philosophy of libtool. Feel free to skip to the next chapter, unless you are interested in history, or want to write code to extend libtool in a consistent way.

libCoroutine is a simple stackfull coroutine implementation, largely based on ucontext and fibers.

This library is built from the coroutine implementation of the Io programming language project.

Java::Import::Design is the design of the Java::Import Module.

MOTIVATIONS

The original motivation for writing this module came out of a project I was working on during my previous employment. We had built a system in which a major part was implimented using EJBs on a J2EE server. In addition, we had a large component of the system, that already existed, and was written in Perl. We did not want to scrap our Perl work but it was becoming more tedious to maintain two implimentations as more and more things were being added to the system.

So, we decided that the major pieces of business logic would reside on the J2EE server and the Perl would be modified to make calls to the server. After some time and experimentation we began to realize that the memory footprint as well as the amount of time needed to make calls to the server using existing Perl to Java integration sulutions were just not acceptable. We therefore set out to find some other way. We tried all sorts of things but in the end we couldnt find anything that met our requirements and therefore decided to keep the origional system of doing things.

While at that job we never did find a suitable way to integrate our two systems. However, the problem still haunted me. It wasnt until the end of my career at that company that I saw an announcement for Googles first Summer of Code. It just so happened that as Google was announcing their brand new program that I had begun to play with the GNU GCJ suite of Java tools and came up with the idea of taking advantage of their ability to natively compile Java code for use with Perl. This may not have been a new idea but I couldnt find anything that would help me so I decided to write and submit a proposal to Google. Well, I was accepted and you now have Java::Import.

When I began to work on this project I started by creating my own namespace instead of stepping on the toes of the other existing Java/Perl integration project, Inline::Java. I did this primarily because I wanted a clean slate on which I could fully explore the nuances of GCJ, in particular its CNI interface. As I worked my module started to evolve into its own beast and at that point it seemed locigal to keep my own namespace. It is not my intention to replace Inline::Java and I still think that in te future much of the work I have done can be used by Inline::Java as an option to use GCJ specific functionality.

Tadpoles project is a 4-player action game similar to QBasics Nibbles.

Tadpoles is an action game for up to 4 players with ties to the original "snakes" or "nibbles" game concept. In Tadpoles, you control using a direction and velocity rather than the tired up/down, left/right controls. You can also collect various power-ups.

In Tadpoles, you control using a direction and velocity rather than the tired up/down, left/right controls. Not only that, but you can collect power-ups such as Lightning and GhostWalks.

The game is built on an object-oriented design concept, with the intent to create an adventure game out of the engine.

This is small ncurses based bar designed to match the coolness of evilWM. evilbar sports a right-aligned clock, APM status and XMMS control
evilbar has successfully been built and tested on the following systems:
- FreeBSD 4.3, 4.6, 4.7, 5.0, -CURRENT
- Debian 3.0 (kernel 2.4.18-bf2.4)
- RedHat 7.3 (kernel 2.4.18-3)
Installation:
Basic:
This will get you the vanilla evilbar with XMMS control and the clock.
./configure
make
make install
Advanced:
./configure has a few special evilbar options:
--enable-apm Enables the APM module that shows battery-status
--disable-xmms Disable XMMS control