Free energy solutions software for linux

E/AS Automation Solutions is open source software system for help automate your solutions even for personal and/or corporate ones.
E/AS written on CLIP language (CA-Clipper dialect, compiler can be obtained from ITK.ru) and uses CODB (CLIP Object Database) as data storage.
Main features:
- client-server technology (both data and interface forms)
- component infrastructure with interaction between components by messages
- interface forms on XML
- MDI
E/AS contains in typical distribution:
- client software written on clip-ui library
- server software with wrapper for run as daemon
- maintenance tools: CODB console and component manager
- base (form, auth) and example (contact) components
Enhancements:
- completely rewrite code for implement E/AS architecture
- component infrastructure
- own server program instead COBRA
- maintenance tools: CODB console and component manager
- base and example components
- autoupdate views

The KTA is a complete telnet and SSH application designed for use by both end-users and developers. For end-users it provides a cross-platform vt320-compatible terminal written in Java.

For developers it provides an extensible plugin API that can be used to implement automated telnet and SSH solutions in a client/server environment.

OpenScientist is an integration of open source products working together to do scientific visualization and data analysis, in particular for high energy physics (HEP).
The project is definitely NOT one million lines of intricated and unnecessary complicated home made code reinventing everything.
Motivations
Experiments in high energy and nuclear physics need to be at the edge of computing technologies but at the same time have to face a very long life time (LHC experiments are going to be a matter of decades). This involves that the software must be organized in a way that permits to include or discard some technologies in an easy way without having to recode everything at each change of a piece.
For data analysis, the HEP community had used the CERN/PAW tool for years. Whilst this program had been used and is probably still used by hundred of physicists in the world, it is not any more maintained by the lab that created and promoted it : CERN. This lab had not been able to establish long term collaborative software engineering plans in order to have a technical follow up of this program and analysis tools in general. (What is astounding, is that the same people that were behind CERN/PAW come now with another tool (ROOT) which has exactly the same engineering defects).
OpenScientist is first of all an architecture trying to handle the problem differently to avoid upseting huge software phase transitions in the future. The key points of the system are the modularity and the openness. See the Languages, Coarse graining architecture, and The file formats intrinsic pain section for more about the technical choices and design.
Enhancements:
- An HDF5 driver was introduced in BatchLab.
- The build system was replaced with obuild.
- Support for CoinPython was added.
- Initial support was added for both Qt4 and SDL.
- Examples were added.
- Assorted code cleanups and speedups were done.

qrypto is a project aimed to provide simple, easy to use Blowfish encryption across popular languages for enhanced data security.

the Better Eggdrop Management Suite , or tBEMS, is a collection of utilities to allow easy installation, removal and configuration of eggdrop bots, while saving space, energy, bandwidth and time.
Enhancements:
Eggdrop-base-install
- Uses tar.bz2 and retrys once if download fails
Eggdrop-install
-
- Fixed bug that didnt check right directory to see if eggdrop was installed already

gen_names populates customer/invoice tables with random (but realistic looking) data. Thedata has been gathered from various sources including census and local council Web sites.
The project is supposed to be used to road test various DBMS solutions.
Enhancements:
- This release fixes Oracle support, which was previously broken.

Overslack is a slackline simulator/game. A configurable model world containing a slackline, a slacker and ground is visualized and its time evolution is calculated while the user controls the slacker using the mouse. Just like with real slacklining there is no predefined goal, but it keeps track of the time you stand on the line.

The simulated world has only two dimensions. Although the forward direction offers many possibilities on a real slackline, it has very little to do with balancing and is quite uninteresting to simulate. Slow speeds are assumed, so the air resistance is neglected. The time evolution is calculated by applying Newtonian physics numerically as many times per second as the machine can handle.

The speed of the simulated world is configurable, making it run five times as slow as the real world makes it slow enough to be manageable and fast enough to keep the attention up. Unlike normal grass ground, the ground in the simulation is bouncy and doesnt cause injuries. It is (unfortunately) a bit unrealistic, but makes it more fun.

The simulated line behaves according to a quite simple model. An ideal spring between the lines point of equilibrium and the slackers feet makes a good approximation, but an ideal spring gives back all energy it stores, which would cause you to bounce forever without helping with your legs. To simulate some friction, it has a somewhat different spring constant depending on whether its extending or compressing. It is of course fully configurable, so anything from an ideal spring to an old, tired and non-elastic line are possible to simulate.

The slacker is controlled with the mouse. Move the mouse down to extend the legs, and move it up to crouch. Move the mouse to the right to lower your right arm and raise your left, and to the left to do the opposite. This is pretty much all you can do on a real slackline too, except that you can move more than just your arms, but thats just a question of terminology.

The slacker is infinitely fast and strong, if you move the mouse the slacker will move instantly to the new position regardless of the force and energy required.
It is possible to jump off the line and land on it again, with or without bouncing on the ground in between, but to make it simpler the slacker is moved to a perfectly balanced position whenever you press the right mouse button.

In addition to the line, slacker and some on-screen numerical physical information, vectors visualizing location (white), speed (green) and acceleration (red), both translational and rotational, are shown.