GBuffy will poll multiple mailboxes for new mail. It will list the
number of new messages in each mailbox you configure. It will also
highlight the mailboxes which have new mail. Pressing the left mouse
button on a mailbox with new mail will display the Sender and Subject
of each new message. Additionally, GBuffy will display the X-Face
header for messages which have them. Pressing the middle mouse button
on a mailbox will launch the configured command, generally a command
to read the mailbox with your favorite mailreader. Pressing the right
mouse button will bring up the configure menu.
GBuffy is currently capable of watching MBOX, MMDF, Maildir and MH
Folders. This version also supports IMAP4rev1 and NNTP with XOVER.
Support for an external program for notification is planned.
IM (Internet Message) provides a series of user interface commands
(imput, imget, imls, ...) and backend Perl5 modules to integrate
E-mail and NetNews user interface. They are designed to be used both
from Mew version 1.x and on command line.
The folder style of IM is exactly the same as that of MH. So, you can
replace MH with this package without any migration works. Moreover,
you are able to operate your messages both by IM and MH with
consistent manner.
IM is copyrighted by IM developing team. You can redistribute it
and/or modify it under the modified BSD license.
Although you installed IM successfully, yet you must be initialized on
your home directory at once. Execute imsetup command with your account
after im installed.
% imsetup
A patch to stock qmail-1.03 to get all user account information
from an LDAP database. It primary target are POP toaster with
huge numbers of users (from thousands up to millions).
Some of it's greatest features:
* Users and virtual domains in an LDAP database
* No local accounts needed
* Perfect for ISP's to build POP toasters
* Native mail server clustering
* Supports size quotas on user maildirs
* Automatic creation of home- and maildir's
* Handles replies with new qmail-reply
* Extensive logging in qmail-smtpd and qmail-pop3d
* Supports tarpitting (based on a patch by Chris Johnson)
* Supports OpenLDAP 2.x, Novell NDS
* Includes extensive Antispam-Features
* Supports automatic maildir creation when the first mail arrives
* Support for SHA, SSHA, MD5, SMD5, MD4 and RIPE-MD160
* Support for NS-MTA-MD5 encrypted passwords used by Netscape Mailserver
* It also supports the password format used by Software.com's Post.Office
* Support TLS (SSL) encrytion of SMTP mail transport (by Frederik Vermeulen)
xpbiff: fancy biff program under X11 environment, supporting Japanese MIME
extensions
This port supports Japanese strings in the From and Subject fields.
Please set the LANG enviroment variable to ja_JP.EUC or ja_JP.SJIS by doing:
setenv LANG ja_JP.EUC
or
setenv LANG ja_JP.SJIS
There is experimental support for Sun audio. This port also supports
XPM bitmap files.
known problem:
(1) HANKAKU-KANA with ja_JP.EUC
Xpbiff dumps core, because code conversion routines jis2euc()
assumes "the conversion does not makes the string longer". But
when converting so-called 'hankaku-kana', this assumption breaks.
This problem is only with ja_JP.EUC.
If you use with ja_JP.SJIS, this problem is not occure.
Thank you.
the Auto Payment Calculator V1.0 Release
Copyright (C) 1997 Eric A. Griff
Auto Payment Calculator is a simple, xforms based, application for
use under the X-windows system, that calculates auto loan payments.
It is pretty straight forward. You enter the Principal (Amount),
Term (in months), and Rate, and then with either [RETURN]
(or [enter] or whatever your keyboard equivelent is), (ALT-C), or
clicking the calculate button; you will have the payment in months,
as well as number of weeks, and weekly payment.
You may also [TAB] through the Amount, Term, and Rate, as well as
hold down ALT and press the character in its Name that is underlined
to go do that function. As long as all three are filled in, you may
hit [ENTER] to Calculate right there. This makes it easy to cycle
quickly through numerous terms, amounts, and rates.
Fityk is a program for nonlinear fitting of analytical functions
(especially peak-shaped) to data (usually experimental data). There are
also people using it only to display data or to remove baseline from
data.
It is reported to be used in crystallography, chromatography,
photoluminescence, infrared and Raman spectroscopy and other fields.
Fityk knows about common peak-shaped functions (Gaussian, Lorentzian,
Voigt, Pearson VII, bifurcated Gaussian, EMG, Doniach-Sunjic, etc.) and
polynomials. It also supports user-defined functions.
Fityk offers intuitive graphical interface (and also command line
interface), variouse optimization methods (standard Marquardt
least-square algorithm, Genetic Algorithms, Nelder-Mead simplex),
equality constraints, modelling error of x coordinate of points (eg.
zero-shift of instrument), handling series of datasets, automation of
common tasks with scripts, and more.
PDL (``Perl Data Language'') gives standard perl the ability to
COMPACTLY store and SPEEDILY manipulate the large N-dimensional data
arrays which are the bread and butter of scientific computing.
The idea is to turn perl in to a free, array-oriented, numerical
language in the same sense as commerical packages like IDL and
MatLab. One can write simple perl expressions to manipulate entire
numerical arrays all at once. For example, using PDL the perl variable
$a can hold a 1024x1024 floating point image, it only takes 4Mb of
memory to store it and expressions like $a=sqrt($a)+2 would manipulate
the whole image in a few seconds.
A simple interactive shell (perldl) is provided for command line use
together with a module (PDL) for use in perl scripts.
Gri is a language for scientific graphics applications. By 'language' I mean
that it is a command-driven application, as opposed to a click/point
application. It is analogous to latex or tex, and shares the property that
extensive power is the reward for tolerating a modest learning curve. Gri
output is in industry-standard PostScript, suitable for incorporation in
documents prepared by various text processors. Gri can make x-y graphs,
contour-graphs, and image graphs. In addition to high-level capabilities, it
has enough low-level capabilities to allow users to achieve a high degree of
customization. Precise control is extended to all aspects of drawing, including
line-widths, colors, and fonts. Text includes a subset of the tex language, so
that it is easy to incorporate Greek letters and mathematical symbols in labels.
Ipopt (Interior Point OPTimizer, pronounced eye-pea-Opt) is a software
package for large-scale nonlinear optimization.
Ipopt is written in C++ and is released as open source code under the
Eclipse Public License (EPL). It is available from the COIN-OR
initiative. The code has been written by Carl Laird and Andreas Wchter,
who is the COIN project leader for Ipopt.
The Ipopt distribution can be used to generate a library that can be
linked to one's own C++, C, or Fortran code, as well as a solver
executable for the AMPL modeling environment. The package includes
interfaces to CUTEr optimization testing environment, as well as the
MATLAB and R programming environments. IPOPT can be used on Linux/UNIX,
Mac OS X and Windows platforms.
An excellent reference for this library can be found in:
Wachter and L. T. Biegler, On the Implementation of a Primal-Dual Interior
Point Filter Line Search Algorithm for Large-Scale Nonlinear Programming,
Mathematical Programming 106(1), pp. 25-57, 2006
PLplot is a library of C functions that are useful for making scientific
plots from a program written in C, C++, or Fortran. The PLplot library
can be used to create standard x-y plots, semilog plots, log-log plots,
contour plots, 3D plots, mesh plots, bar charts and pie charts. Multiple
graphs (of the same or different sizes) may be placed on a single page
with multiple lines in each graph. Different line styles, widths and
colors are supported. A virtually infinite number of distinct area fill
patterns may be used. There are almost 1000 characters in the extended
character set. This includes four different fonts, the Greek alphabet and
a host of mathematical, musical, and other symbols. The fonts can be
scaled to any desired size. A variety of output devices are supported and
new devices can be easily added by writing a small number of device
dependent routines.