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Nuclear transport models are important tools for interpretation of many heavy-ion experiments and are essential in efforts to probe the nuclear equation of state. In order to fulfill these roles, the model predictions should at least agree with observed single-particle-inclusive momentum spectra; however, this agreement has recently been questioned. The present work compares the VlasovUehling-Uhlenbeck model to data for mass-symmetric Systems ranging from '2~+12~ to '39La+'39~a, and we find good agreement within experimental uncertainties at 0.4 A and 0.8 A GeV. For currently available data, these uncertainties are too large to permit effective nucleon-nucleon scattering cross sections in the nuclear medium to be extracted at a useful level of precision.

Nuclear transport models can reproduce charged-particle-inclusive measurements but are not strongly constrained by them