Provided by: jconvolver_0.9.3-2build1_amd64 bug

NAME

       jconvolver  -  is  a  Convolution  Engine  for JACK using FFT-based partitioned convolution with multiple
       partition sizes.

SYNOPSIS

       jconvolver [options][config-file][connect-file]

DESCRIPTION

       This manual page documents briefly the jconvolver program.

       jconvolver is a Convolution Engine for JACK, based on FFT convolution using the  convolution  engine  for
       reverberation  processing.  This  distributes  the  calculation  over  up  to  five threads, one for each
       partition size, running at priorities just below the the one of JACK's processing thread.

       To run this program you need config file and wav file for convolution. Demo config files you can find  in
       /usr/share/jconvolver/config-files directory.
       (You have to edit path to your convolution wav file)
       Set     of     wav     files     you     can     download    from    Fons    Adriaensen's    web    pages
       http://kokkinizita.linuxaudio.org/linuxaudio/downloads/index.html (jconvolver-reverbs.tar.bz2) or you can
       use another convolution files which are supported by libsndfile.

       Some other info can be found in README and README.COFNFIG files in /usr/share/doc/jconvolver.

OPTIONS

       A summary of options is included below.

       -h     Display short help

       -v     Print partition list to stdout [off]

       -L <nframes>
              Try to compensate <nframes> latency

       -M     Use the FFTW_MEASURE option [off]

       -N <name>
              Name to use as JACK client [jconv]

SEE ALSO

       jackd(1),

AUTHOR

       jconvolver was written by Fons Adriaensen <fons@linuxaudio.org>.

       This    manual    page    was    written    by    Debian    Multimedia    Maintainers    <pkg-multimedia-
       maintainers@lists.alioth.debian.org>, for the Debian project (but may be used by others).

                                                January 29, 2012                                   JCONVOLVER(1)