  We present a novel analysis method for measurements of polarization
transferred in $A(\vec{e},e'\vec{N})$ experiments, which can be applied to
other kinds of polarization measurements as well. In this method the
polarization transfer components are presented in spherical coordinates using
an efficient likelihood numerical maximization based on an analytic derivation.
We also propose a formalism that accounts for multi-parameter models, and which
yields a smooth and continuous representation of the data (rather than using
standard binning). Applying this method on simulated data generates results
with reduced statistical and systematic uncertainties and enables revealing
physical information that is lost in standard binning of the data. The obtained
results can be compared easily to theoretical models and other measurements.
Furthermore, CPU time is significantly reduced using this method.
