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[from web site] This is a simple Python script to register your dynamic IP address using the NIC V2.0 protocol. We aim to be fully compliant with the dyndns client specification. Starting with version 0.141, we use https by default and will fall back to plain http if a timeout occurs. We currently support all options and latest recommendations by Dyndns. Ipcheck is easy to install and very easy to use. Root access is not required and no configuration files are needed. Just specify your username, password and hostname(s) on the command line (or cron entry). You can specify the interface (default tun0) to search for your ip address on or use web based IP detection. There is also direct support for determining the IP address on the following devices: Linksys (-L), Netgear (-N), Draytek (-D), Netopia (-O), HawkingTech (-H), Cisco 667i (-C), Cisco 700 series (-I), ZyXEL Prestige (-Z), SMC Barricade (-S)

This module will parse a Zone File and put all the Resource Records (RRs) into an anonymous hash structure. At the moment, the following types of RRs are supported: SOA, NS, MX, A, CNAME, TXT, PTR. It could be useful for maintaining DNS zones, or for transferring DNS zones to other servers. If you want to generate an XML-friendly version of your zone files, it is easy to use XML::Simple with this module once you have parsed the zonefile. DNS::ZoneParse scans the DNS zonefile - removes comments and separates the file into it's constituent records. It then parses each record and stores the records internally. See below for information on the accessor methods.

Aewan is a multi-layered ascii-art/animation editor that produces both stand-alone cat-able art files and an easy-to-parse format for integration in your terminal applications. Aewan is a curses-based program that allows for the creation and editing of ascii art. The user is able to move the cursor around the screen by means of the arrow keys and 'paint' characters by pressing the corresponding keys. There are dialog boxes that allow the user to choose foreground and background colors, as well as bold and blink attributes. The user may also select rectangular areas of the canvas in order to move, copy and paste them. Aewan also supports 'intelligent' horizontal and vertical flipping (e.g. converts '\' to '/', etc).

SEMI, Library of MIME feature for GNU Emacs for emacs20. SEMI is a library to provide MIME feature for GNU Emacs. MIME is a proposed internet standard for including content and headers other than (ASCII) plain text in messages. SEMI has the following features: - MIME message viewer (mime-view-mode) (RFC 2045 .. 2049) - MIME message composer (mime-edit-mode) (RFC 2045 .. 2049) MIME message viewer and composer also support following features: - filename handling by Content-Disposition field (RFC 1806) - PGP/MIME security Multiparts (RFC 2015) - application/pgp (draft-kazu-pgp-mime-00.txt; obsolete) - text/richtext (RFC 1521; obsolete; preview only) - text/enriched (RFC 1896) - External method configuration by mailcap (RFC 1524) Notice that this package does not contain MIME extender for any MUAs. They are released as separated packages. Ported by shige@FreeBSD.ORG

SLIME is a new Emacs mode for Common Lisp development. Inspired by existing systems such Emacs Lisp and ILISP, we are working to create a fresh new environment for hacking Common Lisp in. Features: * slime-mode: An Emacs minor-mode to enhance lisp-mode with: o Code evaluation, compilation, and macroexpansion. o Online documentation (describe, apropos, hyperspec). o Definition finding (aka Meta-Point aka M-.). o Symbol and package name completion. o Automatic macro indentation based on &body. o Cross-reference interface (WHO-CALLS, etc). o ... and more. * SLDB: Common Lisp debugger with an Emacs-based user interface. * REPL: The Read-Eval-Print Loop ("top-level") is written in Emacs Lisp for tighter integration with Emacs. The REPL also has builtin "shortcut" commands similar those of the McCLIM Listener. * Compilation notes: SLIME is able to take compiler messages and annotate them directly into source buffers. * Inspector: Interactive object-inspector in an Emacs buffer.

/***************************************************************************/ /* */ /* Copyright (c) 1989, Robert Silvers - All rights reserved. */ /* */ /* This software is supplied free of charge. This software, or any part */ /* of it, may not be redistributed or otherwise made available to, or */ /* used by, any other person without the inclusion of this copyright */ /* notice. This software may not be used to make a profit in any way. */ /* */ /* This software is provided with absolutely no warranty, to the extent */ /* permitted by applicable state law. In no event, unless required by */ /* applicable law, will the author(s) of this this software be liable for */ /* any damages caused by this software. */ /* */ /***************************************************************************/ Uzap is a visual binary file editor for Unix systems written by Robert Silvers at the University of Lowell. See the included man page for more info. rsilvers@hawk.ulowell.edu

AdvanceMAME and AdvanceMESS are unofficial MAME and MESS versions with an advanced video support for helping the use with TVs, Arcade Monitors, Fixed Frequencies Monitors and also for PC Monitors. They run in GNU/Linux, Mac OS X, DOS, Windows and in all the other platforms supported by the SDL library. The main difference compared with the official emulators is that the Advance versions are able to program directly the video board to always get a video mode with the correct size and frequency. Generally the Advance emulators are able to use a video mode which doesn't require any stretching or other unneeded effects to match the original arcade display. The direct video board programming is fully supported in Linux and DOS. It's partially supported in Windows. It isn't supported in Mac OS X and other platforms. See website for other improvements.

AdvanceMAME and AdvanceMESS are unofficial MAME and MESS versions with an advanced video support for helping the use with TVs, Arcade Monitors, Fixed Frequencies Monitors and also for PC Monitors. They run in GNU/Linux, Mac OS X, DOS, Windows and in all the other platforms supported by the SDL library. The main difference compared with the official emulators is that the Advance versions are able to program directly the video board to always get a video mode with the correct size and frequency. Generally the Advance emulators are able to use a video mode which doesn't require any stretching or other unneeded effects to match the original arcade display. The direct video board programming is fully supported in Linux and DOS. It's partially supported in Windows. It isn't supported in Mac OS X and other platforms. See website for other improvements.

You've found David Firth's Atari 800 emulator which can emulate the 8-bit Atari 800 and XL series of home computers. Please refer to /usr/local/share/doc/atari800 (or equivalent on your system) for the distribution documents. A man page has also been installed. The system wide configuration file can be found at /usr/local/share/atari800/atari800.cfg (or similar) which you will probably want to copy to your home directory, at some stage, to personalise the settings. The ROM's for the Atari computers are, unfortunately, copyright. This port will attempt to down-load another freeware Atari emulator for DOS called PC Xformer 2.5 which contains copies of these ROM files. If you would like to take a further look at XF2.5 you should find it in your distfiles directory (if it successfully down-loaded :->).

SEGA Genesis emulator Generator is an open source emulator designed to emulate the Sega Genesis / Mega Drive console, a popular games machine produced in the early 1990s. It is a portable program written in C and has been ported to the Amiga, Macintosh, Windows and even pocket PCs such as the iPAQ and Cassiopeia. Natively it compiles under Unix for X Windows with either tcl/tk or gtk/SDL, for svgalib and even cross-compiles to DOS with djgpp/allegro. Generator uses it's own custom 68000 processor emulation which is and uses compilation techniques such as block-marking, flag calculation removal, operand pre-calculation, endian pre-conversion etc. There are approximately 1600 C routines generated by the first stage of compilation to cope with the 67 instruction families. These include two versions of every instruction - one that calculates flags and one that doesn't, so that unnecessary flag computation is avoided.