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Recently, community-derived core concepts for neuroscience higher education were developed and published. These core concepts can serve as a valuable resource to ensure that a neuroscience-based educational program is not only concept-focused but also addresses the call for reform of higher education, as noted in the vision and change report. The number of undergraduate neuroscience programs is expanding throughout the nation, but unfortunately, the existing blueprints to design and launch such programs do not incorporate these core concepts. Furthermore, unpacking these core concepts in a resource-limited setting is logistically challenging. We reflected on the coverage of these core concepts within our existing neuroscience minor at a medium-sized, primarily residential, high undergraduate, public 4-year institution. In addition to assessing the number of community-derived core concepts addressed in our courses, our reflection discusses strategies for addressing challenges associated with (1) a departmental home for the program, (2) a meaningful student experience with limited resources, and (3) growing and developing the program into a minor, or from a minor into a major. These strategies may provide a roadmap for other institutions to launch or grow their own neuroscience program. [ABSTRACT FROM AUTHOR]

Hybrid and online courses and advances in assistive technologies make accommodating students with disabilities ever-changing, requiring innovation. This reality, coupled with students' reluctance to disclose disabilities, points toward a need for replacing accommodations directed at those with disabilities with universal design whereby they become accessible to all--virtually eliminating the need for accommodations. In this paper, a master's of social work student (Chad) and his instructor (Regina) document their collaborations to revise a social work research course to meet his request for accommodations to make options more universally accessible. These revisions are done through reflections from both Chad and Regina from a phenomenological autoethnographic perspective--depicting their lived experiences.

Color losses of central origin (cerebral achromatopsia and dyschromatopsia) can result from cortical damage and are most commonly associated with stroke. Such cases have the potential to provide useful information regarding the loci of the generation of the percept of color. One available tool to examine this issue is the chromatic visual evoked potential (cVEP). The cVEP has been used successfully to objectively quantify losses in color vision capacity in both congenital and acquired deficiencies of retinal origin but has not yet been applied to cases of color losses of cortical origin. In addition, it is not known with certainty which cortical sites are responsible for the generation of the cVEP waveform components. Here we report psychophysical and electrophysiological examination of a patient with color deficits resulting from a bilateral cerebral infarct in the ventral occipitotemporal region. Although this patient demonstrated pronounced color losses of a general nature, the waveform of the cVEP remains unaffected. Contrast response functions of the cVEP are also normal for this patient. The results suggest that the percept of color arises after the origin of the cVEP and that normal activity in those areas that give rise to the characteristic negative wave of the cVEP are not sufficient to provide for the normal sensation of color.