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Visual Component Framework is a based on a thoroughly modern C++ design and has built in support for Rapid Application Development (RAD).
The Visual Component Framework framework is designed to be portable over multiple compilers and platforms, so you dont have to lose all that work that went into writing your app for a single platform!

Main features:>
- Modern C++ design - use of modern C++ techniques like exceptions, templates (where useful), name spaces, and heavy use of the Standard Template Library.
- Advanced RTTI features that allow for such things as dynamic object creation given a registered class name or a registered UUID string that represents the class, dynamic introspection of a given objects class and listing such data as the class name, super class, the properties of the class, member methods, and implemented interfaces.
- Modular - built across several libraries as opposed to one huge monolithic library that then becomes difficult to break apart. This means that while the VCF is incredibly powerful as a framework for writing GUI based applications, if you just want to use the core features, such as threads, file IO, and RTTI you can do so, without having to have dependencies on all the GUI code.
- Easy to use, and powerful event system, suitable for console as well as GUI based applications.
- Support for Thread, Mutexes, Semaphores, Files, Streaming data, error logging, string utility functions, and other basic services. All of this is part of the FoundationKit and has no dependencies on the graphics or UI code.
- Powerful and easy to use graphics classes, plus more advanced support for anti aliased vector graphics through the use the AntiGrain Graphics libraries.
- A simple to use image loading architecture that allows multiple formats to be registered dynamically, for loading up a variety of different graphics formats. On Win32 systems the default image loading support is limited to BMP files, but by using the ImageFormats library (also a part of the VCF) a wide variety of additional image types are also supported. Currently the ImageFormats library uses FreeImage to support a image types such as .TIFF, .TGA, .PSD, .PNG, .PCX, .SGI, .MNG, .RAS, .PBM, .PPM. and many others.
- More advanced classes for customizing the drawing process by extending Stroke and Fill classes.
- A complete set of powerful GUI classes, including a common set of base classes enabling advanced custom control creation. Some of the control classes include tree controls, list controls, check box and radio controls, push buttons, single line and multi line text controls, and many others.
- A standard set of application classes for things like resources, loading windows or forms dynamically at application startup, saving of application state, a registry class for common storage of system and application information.
- Other application classes include an Undo/Redo architecture based on commands that allows for undoing and redoing commands as well as notifying other objects of the events.
- GUI controls that support both alignment and anchoring. Any control may be aligned to the top, bottom, left or right of its parent container control. Alternately controls may use their anchoring properties to anchor themselves to the left, right, top and/or bottom sides of their parent container control. In addition to control alignment, it is possible to write custom layout containers and assign them to a control to customize layout logic.
- The ApplicationKit provides a set of Model and View classes for using in MVC patterns. A series of models like the ListModel, TreeModel, and TextModel are used in controls to provide separation of the data from the UI presentation code. Because a View can be dynamically attached to a Control at runtime, it will be possible to develop "themes" in the future.
- Because of the RTTI features and the event handlers, the VCF easily supports component programming with in IDE that allow for visual development.
- The VCF tries to be as flexible as possible, allowing you to use the parts you want, and allowing for inter-operability with other frameworks. Thus VCF controls can be used inside of an MFC application if you like, or only use the graphics module for enhanced graphics features.
- No need of special preprocessor tools - if you have a reasonably complete C++ compiler then youre all set to go.
- The ability to access the low level handles for most native objects. For example, by accessing the Threads peer class, you can get a handle to the native thread handle itself. For a control, you can access the controls peer and get a handle id that represents the windowing systems native handle for a window/widget. This allows you to use platform specific calls when necessary.

Enhancements:
- This is the very first src release of the Mac OS X port of the VCF. It should build and run some of the examples, but is obviously very much still a work in progress.

Mozart has an interactive incremental development environment and a production-quality implementation for Unix and Windows platforms. Mozart is the fruit of an ongoing research collaboration by the Mozart Consortium.

Mozart is based on the Oz language, which supports declarative programming, object-oriented programming, constraint programming, and concurrency as part of a coherent whole.
For distribution, Mozart provides a true network transparent implementation with support for network awareness, openness, and fault tolerance. Mozart supports multi-core programming with its network transparent distribution and is an ideal platform for both general-purpose distributed applications as well as for hard problems requiring sophisticated optimization and inferencing abilities.

Mozart was used to developed many applications including multi-agent systems, digital assistants and sophisticated collaborative tools, as well as applications in natural language understanding and knowledge representation, in scheduling and time-tabling,

Major Features:

1. Programming:
   • Oz is a concurrent object-oriented language. In a first approach, Oz can be programmed in a very similar way to other such languages, like Java. With experience gained, programs tend to become simpler, for example, as they use the powerful concepts of dataflow execution and first-class procedures.
   • Oz is an eminently concurrent language. The Mozart system implements ultralightweight threads with preemptive fair scheduling. It easily supports applications with many thousands of threads. Dataflow synchronization is achieved transparently through logic variables.
   • Multi-Paradigm Programming: Unlike most other programming languages which lock you into a single programming paradigm, Oz unifies into one simple and coherent framework the functional, object-oriented, and logic flavors of programming. This is possible due to the very general and powerful underlying paradigm of concurrent constraint programming.
2. Inferencing:
   • Oz is a powerful constraint language with logic variables, finite domains, finite sets, rational trees and record constraints. The system is competitive in performance with state-of-the-art commercial solutions, but is much more expressive and flexible, providing first-class computation spaces, programmable search strategies, a GUI for the interactive exploration of search trees, parallel search engines exploiting computer networks, and a programming interface to implement new and efficient constraint systems.
   • Logic Programming: Oz goes beyond Horn-clauses to provide a unique and flexible approach to logic programming. Oz distinguishes between directed and undirected styles of declarative logic programming. For both, Oz lets you specify a programs logical semantics separately from its resolution strategy. Powerful tools and libraries are provided built on the concepts of first-class computation spaces and determinacy-driven disjunctions. Together with distribution, this makes Mozart an ideal platform for both intelligent multi-agent systems and parallel search.
3. Distribution:
   • Open Distributed Computing: The Mozart system is an ideal platform for open distributed computing: it makes the network completely transparent. The illusion of a common store is extended across multiple sites and automatically supported by very efficient protocols. In addition, full control is retained over network communication patterns, permitting very efficient use of network resources. Furthermore, reliable, fault tolerant applications can easily be developed.
   • Distributed Component-Based Programming: Mozart provides first-class software component specifications (called functors) and software components (called modules). The module system facilitates application development and deployment. Both component specifications and components can be transparently referenced through URLs, absolute and relative, and loaded by need. Flexible security policies are implemented by module managers.
   • Mobile Agents: With its dynamic component technology, open computing support, and full-featured implementation, Mozart is an ideal platform for serious programming with mobile agents. A computation can create new computations dynamically. Computations can roam the shared Mozart space at will. Each site has full control over what resources it makes available to incoming computations.
   • Separation of Concerns (Aspects): The Mozart system separates the concerns of application functionality, distribution structure, fault tolerance, and openness (application connectivity). The separation is almost perfect for the first two concerns and quite good for the last two. In the context of aspect-oriented programming, this can be seen as a ``vertical approach, where a few aspects are treated in depth, versus the ``horizontal approach of tools like AspectJ, which provide primitives for handling many aspects.
4. Platform Issues:
   • Cross-Platform Compatibility: Like Java, Oz is `write once, run everywhere and provides automatic local and distributed garbage collection. The Oz virtual machine is portable and known to run on most flavors of Unix as well as on Windows.
   • GUI Programming: The Mozart system comes with an object-oriented library that provides a high-level well integrated interface to Tcl/Tk. This is supplemented with QTk, a tool that supports a mixed declarative/procedural approach to user interface design. This needs only a fraction of the code of standard procedural approaches and is particularly well-suited for building context-sensitive interfaces.
   • Native Extension Modules: The Mozart system was designed to be easily extended with new native functionality packaged as DLLs. Comprehensive support is provided for the convenient creation of DLLs. Thus, the Mozart system is not only aggressively open, but also an ideal very high-level glue language.

Requirements: Aquamacs Emacs

Works with Firewire plug-in devices such as iSight, Video Cameras, DVD Player, HDTV/NTSC TUNER etc. Some devices need third party adapters to plug into your computer.

FGP is being distributed as register-ware. The program requires registration after 10 uses, but registration is free and easy. Sending an email to the author with the name you would like the program registered under will quickly get you a personalized registration code.