The photodissociation dynamics of jet-cooled BrCl molecules have been investigated at four different wavelengths in the range 425-485 nm by high-resolution velocity map ion imaging. Four images of the Cl(P-2(3/2)) atomic fragments are recorded at each photolysis wavelength with the probe laser polarization, respectively, linearly aligned and vertical (i.e., perpendicular to the detection axis), right circularly polarized, horizontally linearly polarized (i.e., parallel to the detection axis) and left circularly polarized on successive laser shots, thereby ensuring automatic mutual self-normalization. Appropriate linear combinations of these images allow quantification of the angular momentum alignment of the Cl(P-2(3/2)o) fragments [i.e., the correlation between their recoil velocity (v) and their electronic angular momentum (J)] in terms of the alignment anisotropy parameters s(2), alpha(2), eta(2), and gamma(2), and determination of the "alignment-free" recoil anisotropy parameter, beta(0), as a function of parent excitation wavelength. Both incoherent and coherent contributions to the alignment are identified, with both simultaneous parallel and perpendicular excitations to the B (3)Pi(0(+)) and C (1)Pi(1) states and excitations to the Omega=+/-1 components of the C state contributing to the latter. The deduced values of the alignment-free beta parameters indicate (wavelength dependent) contributions from both parallel and perpendicular parent absorptions in this wavelength range. Such a conclusion accords with approximate deconvolutions of the parent absorption spectrum that are currently available, and with determinations of the orientation parameter gamma(1)(') obtained by fitting the difference image obtained when using left and right circularly polarized radiation to probe the ground state Cl atoms arising in the 480.63 nm photodissociation of BrCl when the photolysis laser radiation is polarized linearly at 45degrees to the detection axis.