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@@ -34,10 +34,32 @@
using Boost.Python as your Python/C++ binding solution, we'd be proud to
list your project on this page. Just <a href=
"mailto:c++-sig@python.org">post</a> a short description of your project
and how Boost.Python helps you get the job done, and we'll add it to
.</p>
and how Boost.Python helps you get the job done, and we'll add it to this
page .</p>
<hr>
<h3>Enterprise Software</h3>
<dl class="page-index">
<dt><b><a href="http://openwbem.sourceforge.net">OpenWBEM</a></b></dt>
<dd>
The OpenWBEM project is an effort to develop an open-source
implementation of Web Based Enterprise Management suitable for
commercial and non-commercial application
<p><a href="mailto:dnuffer@sco.com">Dan Nuffer</a> writes:</p>
<blockquote>
I'm using Boost.Python to wrap the client API of OpenWBEM.This will
make it easier to do rapid prototyping, testing, and scripting when
developing management solutions that use WBEM.
</blockquote>
</dd>
</dl>
<h3>Financial Analysis</h3>
<dl class="page-index">
<dt><b>TSLib</b> - <a href="http://www.fortressinv.com">Fortress
Investment Group LLC</a></dt>
@@ -51,8 +73,8 @@
<p>Tom Barket of Fortress writes:</p>
<blockquote>
<i>We have a large C++ analytical library specialized for research
in finance and economics, built for speed and mission critical
We have a large C++ analytical library specialized for research in
finance and economics, built for speed and mission critical
stability. Yet Python offers us the flexibility to test out new
ideas quickly and increase the productivity of our time versus
working in C++. There are several key features which make Python
@@ -60,16 +82,14 @@
web are all valuable, but the most important is its extensibility,
due to its open source transparency. Boost.Python makes Python
extensibility extremely simple and straightforward, yet preserves a
great deal of power and control.</i>
great deal of power and control.
</blockquote>
</dd>
</dl>
<dt><a href="http://www.llnl.gov/CASC/emsolve"><b>EMSolve</b></a></dt>
<dd>EMSolve is a provably stable, charge conserving, and energy
conserving solver for Maxwell's equations.<br>
&nbsp;</dd>
<h3>Graphics</h3>
<dl class="page-index">
<dt><b><a href=
"http://www.openscenegraph.org">OpenSceneGraph</a></b></dt>
@@ -89,36 +109,6 @@
to Python.<br>
&nbsp;</dd>
<dt><b><a href="http://openwbem.sourceforge.net">OpenWBEM</a></b></dt>
<dd>
The OpenWBEM project is an effort to develop an open-source
implementation of Web Based Enterprise Management suitable for
commercial and non-commercial application
<p><a href="mailto:dnuffer@sco.com">Dan Nuffer</a> writes:</p>
<blockquote>
<i>I'm using Boost.Python to wrap the client API of OpenWBEM.This
will make it easier to do rapid prototyping, testing, and scripting
when developing management solutions that use WBEM.</i>
</blockquote>
</dd>
<dt><a href="http://camfr.sourceforge.net"><b>CAMFR</b></a></dt>
<dd>
CAMFR is a photonics and electromagnetics modelling tool. Python is
used for computational steering.
<p><a href="mailto:Peter.Bienstman@rug.ac.be">Peter Bienstman</a>
writes:</p>
<blockquote>
<i>Thanks for providing such a great tool!</i>
</blockquote>
</dd>
<dt><b>HippoDraw</b> - <a href="http://www.slac.stanford.edu">Stanford
Linear Accelerator Center</a></dt>
@@ -134,36 +124,88 @@
writes:</p>
<blockquote>
<i>Don't have a web page for the project, but the organization's is
<a href=
Don't have a web page for the project, but the organization's is <a
href=
"http://www.slac.stanford.edu">http://www.slac.stanford.edu</a>
(the first web server site in America, I installed it).</i>
(the first web server site in America, I installed it).
</blockquote>
Which was just too cool a piece of trivia to omit.<br>
&nbsp;</dd>
&nbsp;
</dd>
</dl>
<h3>Scientific Computing</h3>
<dl class="page index">
<dt><a href="http://camfr.sourceforge.net"><b>CAMFR</b></a></dt>
<dt><a href="http://cctbx.sourceforge.net"
><b>cctbx - Computational Crystallography Toolbox</b></a></dt>
<dd>
Computational Crystallography is concerned with the derivation
of atomic models of crystal structures, given experimental
X-ray diffraction data. The cctbx is an open-source library of
fundamental algorithms for crystallographic computations. The
core algorithms are implemented in C++ and accessed through
higher-level Python interfaces. The cctbx grew together
with Boost.Python and is designed from the ground up as
a hybrid Python/C++ system. With one minor exception,
CAMFR is a photonics and electromagnetics modelling tool. Python is
used for computational steering.
<p><a href="mailto:Peter.Bienstman@rug.ac.be">Peter Bienstman</a>
writes:</p>
<blockquote>
Thanks for providing such a great tool!
</blockquote>
</dd>
<dt><a href="http://cctbx.sourceforge.net"><b>cctbx - Computational
Crystallography Toolbox</b></a></dt>
<dd>
Computational Crystallography is concerned with the derivation of
atomic models of crystal structures, given experimental X-ray
diffraction data. The cctbx is an open-source library of fundamental
algorithms for crystallographic computations. The core algorithms are
implemented in C++ and accessed through higher-level Python
interfaces.
<p>The cctbx grew together with Boost.Python and is designed from the
ground up as a hybrid Python/C++ system. With one minor exception,
run-time polymorphism is completely handled by Python. C++
compile-time polymorphism is used to implement performance
critical algorithms. The Python and C++ layers are seamlessly
integrated using Boost.Python.
<p>
The SourceForge cctbx project is organized in modules to
facilitate use in non-crystallographic applications.
The scitbx module implements a general purpose
array family for scientific applications and pure C++
ports of FFTPACK and the LBFGS conjugate gradient
minimizer.
compile-time polymorphism is used to implement performance critical
algorithms. The Python and C++ layers are seamlessly integrated using
Boost.Python.</p>
<p>The SourceForge cctbx project is organized in modules to
facilitate use in non-crystallographic applications. The scitbx
module implements a general purpose array family for scientific
applications and pure C++ ports of FFTPACK and the LBFGS conjugate
gradient minimizer.</p>
</dd>
<dt><a href="http://www.llnl.gov/CASC/emsolve"><b>EMSolve</b></a></dt>
<dd>EMSolve is a provably stable, charge conserving, and energy
conserving solver for Maxwell's equations.<br>
&nbsp;</dd>
<dt><b><a href="http://cern.ch/gaudi">Gaudi</a></b> and <b><a href=
"http://cern.ch/Gaudi/RootPython/">RootPython</a></b></dt>
<dd>
Gaudi is a framework for particle physics collision data processing
applications developed in the context of the LHCb and ATLAS
experiments at CERN.
<p><a href="mailto:Pere.Mato@cern.ch">Pere Mato Vila</a> writes:</p>
<blockquote>
We are using Boost.Python to provide scripting/interactive
capability to our framework. We have a module called "GaudiPython"
implemented using Boost.Python that allows the interaction with any
framework service or algorithm from python. RootPython also uses
Boost.Python to provide a generic "gateway" between the <a href=
"http://root.cern.ch">ROOT</a> framework and python
<p>Boost.Python is great. We managed very quickly to interface our
framework to python, which is great language. We are trying to
facilitate to our physicists (end-users) a rapid analysis
application development environment based on python. For that,
Boost.Python plays and essential role.</p>
</blockquote>
</dd>
</dl>
<hr>