The disorganized symptoms of schizophrenia, including severely disordered thought patterns, may be indicative of a problem with the construction and maintenance of cell assemblies during sensory processing and attention. The gamma and beta frequency bands (15 to 70 Hz) are believed relevant to such processing. This paper addresses the results of an experimental examination of the cortical response of 12 schizophrenia patients and 12 control subjects when presented with auditory click-train stimuli in the gamma/beta frequency band during measurement using Magnetoencephalography (MEG), as well as earlier work by Kwon et al. (1999). These data indicate that control subjects show an increased 40 Hz response to both 20 and 40 Hz stimulation as compared to patients, while schizophrenic subjects show a preference for 20 Hz response to the same driving frequencies. In this work, two computational models of the auditory cortex are constructed based on post-mortem studies that indicate cortical interneurons in schizophrenic subjects have decreased GAT-1 (a GABA transporter) and GAD₆₇ (one of two enzymes responsible for GABA synthesis ). The models transition from control to schizophrenic frequency response when an extended inhibitory decay time is introduced; this change captures a possible effect of these GABA alterations. Modeling gamma/beta range auditory entrainment in schizophrenia provides insight into how biophysical mechanisms can impact cognitive function. In addition, the study of dynamics that underlie auditory entrainment in schizophrenia may contribute to the understanding of how gamma and beta rhythms impact cognition in general.