libMR provides core MetaRecognition and Weibull fitting functionality. It is used to calculate w-scores used for multi-modal fusion, renormalize SVM data and in general support open-set algorithms with outlier detection

Determine when something is an outlier is tricky business. Luckily extreme value theory provides a strong basis for modeling of the largest or smallest known values and then determing if something else is too large or too small. This library supports such computations. Its also easy to do the work in almost any advanced package (R, Matlab, etc) but it is trick to keep it all straight. the C++ classes here track translation and flipping to make it easier to correctly use the meta-recognition concepts

This version libMR is released under the BSD 3-Clause license. (see License.txt) and superseed previous license. We dropped pursing the patent protection.

Please cite libMR in your publications if it helps your research:

@article{Scheirer_2011_TPAMI, author = {Walter J. Scheirer and Anderson Rocha and Ross Michaels and Terrance E. Boult}, title = {Meta-Recognition: The Theory and Practice of Recognition Score Analysis}, journal = {IEEE Transactions on Pattern Analysis and Machine Intelligence (PAMI)}, volume = {33}, issue = {8}, pages = {1689--1695}, year = {2011} }

or one of our later works if combining it with them.

Provide code examples and explanations of how to get the project.

This version uses object, that retain the "transforms" (including save/load) need to compute the actual w-scores. It includes functions for Prediction, CDF, Inverse, FitHigh (larger is better), FitLow (smaller is better) and FitSVM.

This needs CMake (version > 2.8)

Quick build instructions for Windows: use CMake GUI Source code = libMR/libMR Where to build binaries = < where libmr is > /libMR/build Click generate Select correct visual studio version compiler Click yes to add directory build Open Visual Studio Solution Build ALL_BUILD project to build libmr Build INSTALL project to install Add install dir to path to link against libmr dll.

Quick build instructions for linux/Mac: $&gt; tar -zxf libMR.tgz $&gt; cd libMR %You can edit the CMakeLists.txt in libMR level, to change install dir if desired $&gt; mkdir build; % or whereyou like to build it $&gt; cd build $&gt; cmake -DCMAKE_BUILD_TYPE=Debug .. $&gt; make

Running examples - Run after installing libMR $&gt; examples/mr-test $&gt; examples/wlb-test

Optionally you can "install" wherever the CMAKE file, $> sudo make install

Project layout:

• libMR Library source code and resources
• python A python wrapper for libweibull using Cython
• examples Directory with example programs that test that also test for correctness
• doc Documentation directory starts at html/index.html

Python bindings to LibMR are provided by Cython >=0.17. When building this way, LibMR is statically linked into the Python library which means you don't have to build the entire package.

There are several ways to install LibMR for Python:

1. (preferred) Installing with Pip

   This method will build LibMR as a Python extension and will install it into your python path. If you are inside a virtualenv, this allows you to install LibMR as a standard user without needing sudo.

   $ virtualenv venv && source venv/bin/activate $ pip install -r python/requirements.txt $ pip install .

2. Building a shared object

   If you have Cython and NumPy already installed but you do not want to install LibMR into Python's path, you can simply build the module directly:

   $ python setup.py build_ext -i

   This will place 'libmr.so' into the current folder. You can import it directly:

   $ file libmr.so libmr.so: ELF 64-bit LSB shared object, ... $ python

   import libmr mr = libmr.MR()

   Now, move libmr.so into your project's folder.

There are built in tests in examples/mr-test to ensure it compiled correctly and is computing proper values

Developed by Dr. Terrance (Terry) Boult, Dr. Walter Scheir with some implemntation by Vijay Iyer @Securics and Enhancements for Python by Ethan Rudd