Free operating leverage software for linux

OpenPKG is a flexible and powerful software packaging facility, OpenPKG eases installation and administration of Unix software across several platforms. It primarily targets the Unix platforms FreeBSD, Linux and Solaris, but is portable across mostly all modern Unix flavors.
Consolidating different vendor approaches into a unified architecture, it assists in administration of large networks previously complicated by nonconformant systems. OpenPKG leverages proven technologies like Red Hat Package Manager (RPM)and neatly provides an additional system layer on top of the operating system.
It is a fully self-contained with minimal external dependencies(no RPM pre-installation required), and installs itself by means of a tricky bootstrapping procedure with minimal operating system intrusion. OpenPKG especially supports multiple installation instances on the same system.
Main features:
- Portable across major Unix platforms.
- Available for FreeBSD 4.11/5.4/6.0/7.0, NetBSD 2.0, Sun Solaris 8/9/10, Debian GNU/Linux 3.1, Fedora Core 4, RedHat Enterprise Linux 4, Novell SUSE Linux 9.3/10, Gentoo Linux 1.12.0, Mandriva Linux 10.2.
- Already known to work for IBM AIX 5.1, HP HPUX 11.11.
- Release 2.5 consists of 579 packages.
- Entirely based on Open Source software technology.
- Operating System interference minimized.
- Streamlined software packaging.
- Easy installation, updating and deinstallation of packages.
- Bundled with useful and secure package preconfigurations.
- Includes an abstracted and powerful run-command facility.
- Virtual hosting through multiple instances on a single system.
- Proxy packages for reusing packages across instances.
- Build-time package variations for maximum flexibility.
- Foundation to build self-contained environments.

Inferno is a compact operating system designed for building distributed and networked systems on a wide variety of devices and platforms.
Inferno was originally developed at Bell Labs (the research division of Lucent Technologies).
Inferno Operating System is a well-designed, economical operating system particularly suitable for use in networked devices such as advanced telephones, hand-held devices, TV set-top boxes, and many other embedded applications.
Inferno can run in native mode on an embedded system or in emulation mode under many different operating systems. Inferno has many features in common with Plan 9.
Cross-Platform Portability
Inferno can run as a user application on top of an existing operating system or as a stand alone operating system. Most of the popular operating systems and processor architectures are supported:
Host Operating Systems:
- Windows NT/2000/XP
- Irix
- Linux
- MacOS X
- FreeBSD
- Solaris
- Plan 9
Supported Architectures:
- Intel x86 (386 & higher)
- Intel XScale
- IBM PowerPC
- ARM StrongARM (ARM & Thumb)
- Sun SPARC
Inferno also runs as a plug-in under Internet Explorer version 4 and higher. Each Inferno system presents an identical environment to the applications, irrespective of the underlying host OS or architecture, allowing the developer to work with a truly homogeneous environment across multiple different platforms.
Portable Applications
Inferno applications are written in Limbo, a modern, safe, modular, concurrent programming language with C-like syntax. It is more powerful than C but considerably easier to understand and debug than C++ or Java. Limbo code is compiled into architecture independent byte code which is then interpreted (or compiled on the fly) on the target processor. This means that any Inferno application will run identically on all Inferno platforms.
Transparent Resources
Inferno offers complete transparency of resources and data using a simple but powerful namespace system. By representing resources as files and having one standard communication protocol, resources such as data stores, services and external devices can easily be shared between Inferno systems. A resource interface may be imported to the local system and used by the applications without them knowing, or needing to know, whether it is local or remote.
Security
High level security is an important part of the Inferno system. By using one standard protocol for all network communication, security can be focused on one point and provided at a system level. Inferno offers full support for authenticated, encrypted connections using a certificate based user identification scheme and variety of algorithms including:
- IDEA, 56 bit DES, 40, 128 and 256 bit RC4 encryption algorithms
- MD4, MD5 and SHA secure hash algorithms
A Complete Solution
Inferno is not only an operating system, it is also a complete development environment, providing all the tools necessary for creating, testing and debugging the applications that run within it.
- Acme IDE: includes editor, shell, advanced pattern matching tools & more
- Fast Compiler: with full syntax and compile time type checking
- Graphical Debugger: with full stack trace for currently executing threads
- Powerful Shell: with sophisticated scripting capabilities
- UNIX like commands: including bind, grep, gzip, mount, ps, tar, yacc...
Enhancements:
- New licence terms (a `dual licence scheme allowing use as Free Software)
- Styx revision based on 9P2000, and consequent changes to Sys
- Authentication changes
- Improved colour graphics support, including compositing
- Scalable fonts using Freetype
- Revamped Tk implementation
- Window management moved out of Tk to a separate window manager in Limbo
- Limbo: exception handling and fixed-point
- Limbo: other possible changes
- Dis VM changes
- More commands and library modules
- Better network service configuration
- /net/dns served by host and native DNS resolver
- Hosted kernels configured from a parts list as for native kernels
- Signed modules
- Internet Explorer plug-in revised and in source form
- Expanded documentation

Amiga Research Operating System (AROS) is a portable and free desktop operating system aiming at being compatible with AmigaOS 3.1, while improving on it in many areas. The source code is available under an open source license, which allows anyone to freely improve upon it.

Goals

The goals of the AROS project is it to create an OS which:

1. Is as compatible as possible with AmigaOS 3.1.
2. Can be ported to different kinds of hardware architectures and processors, such as x86, PowerPC, Alpha, Sparc, HPPA and other.
3. Should be binary compatible on Amiga and source compatible on any other hardware.
4. Can run as a standalone version which boots directly from hard disk and as an emulation which opens a window on an existing OS to develop software and run Amiga and native applications at the same time.
5. Improves upon the functionality of AmigaOS.

To reach this goal, we use a number of techniques. First of all, we make heavy use of the Internet. You can participate in our project even if you can write only one single OS function. The most current version of the source is accessible 24 hours per day and patches can be merged into it at any time. A small database with open tasks makes sure work is not duplicated.

History

Some time back in the year 1993, the situation for the Amiga looked somewhat worse than usual and some Amiga fans got together and discussed what should be done to increase the acceptance of our beloved machine. Immediately the main reason for the missing success of the Amiga became clear: it was propagation, or rather the lack thereof. The Amiga should get a more widespread basis to make it more attractive for everyone to use and to develop for. So plans were made to reach this goal. One of the plans was to fix the bugs of the AmigaOS, another was to make it an modern operating system. The AOS project was born.

But exactly what was a bug? And how should the bugs be fixed? What are the features a so-called modern OS must have? And how should they be implemented into the AmigaOS?

Two years later, people were still arguing about this and not even one line of code had been written (or at least no one had ever seen that code). Discussions were still of the pattern where someone stated that "we must have ..." and someone answered "read the old mails" or "this is impossible to do, because ..." which was shortly followed by "youre wrong because ..." and so on.

In the winter of 1995, Aaron Digulla got fed up with this situation and posted an RFC (request for comments) to the AOS mailing list in which I asked what the minimal common ground might be. Several options were given and the conclusion was that almost everyone would like to see an open OS which is compatible to AmigaOS 3.1 (kickstart 40.68) on which further discussions could be based upon to see what is possible and what is not.

So the work began and AROS was born.

Kaboot Linux Operating system aims to provide an operating system which you can take anywhere and has all your favourite programs on.
Kaboot operating system is avaliable as a Live CD or Live USB you can take with you anywhere.
A number of different versions are avaliable, two optimised for size or speed, one for functionality, and one science based.
All containing a host of useful programs able to boot virtually any computer (meeting the minimum requirements) from CD and
USB.Kaboot is still in active development and if you find a bug or fix, you can let me know in the forums.
Enhancements:
- A network bug was fixed.
- A few debugging utilities were added.
- Hotplugging was implemented.

EasiLiX is a Linux integrated software that makes easy and secure for using and administering Linux operating system and other services.
- EasiLiX makes easier,
- EasiLiX makes more simple,
- EasiLiX makes more secure,
- EasiLiX makes more stable,
- EasiLiX makes more reliable,

Ganglia is a scalable distributed monitoring system for high-performance computing systems such as clusters and Grids. Ganglia is based on a hierarchical design targeted at federations of clusters.
It leverages widely used technologies such as XML for data representation, XDR for compact, portable data transport, and RRDtool for data storage and visualization. It uses carefully engineered data structures and algorithms to achieve very low per-node overheads and high concurrency.
The implementation is robust, has been ported to an extensive set of operating systems and processor architectures, and is currently in use on over 500 clusters around the world. It has been used to link clusters across university campuses and around the world and can scale to handle clusters with 2000 nodes.
Enhancements:
- This release corresponds to SVN revision 695 and is mainly fixing bugs.