Numerical building of the vibroacoustic transfer function for a structure v
ibrating in its real environment needs to proceed to the vibroacoustic inve
rse problem resolution from measured acoustic pressures. These pressures al
low actually a density function allocated to point sources on the structure
to be calculated. Thus, the obtained function values, coupled with vibrato
ry velocities measured at the same point sources, constitute the data in or
der to determine the vibroacoustic transfer function. This latter permits t
he acoustic radiation from the structure on its site to be predicted for an
y new vibratory state. Our paper presents first and in a short manner, the
mathematical formulation establishing the vibroacoustic transfer function c
onstruction. Next, the numerical resolution of the inverse problem is detai
led. This is typically an ill-posed problem, introduced by a Fredholm integ
ral equation of the first kind. The inversion is carried out with SVD. The
regularization process is based on the Miller method using a priori informa
tion on the solution and on the measurement errors contaminating the acoust
ic data. Some numerical simulations and experimental results illustrate the
presentation of this regularization test.