Visualizing kinetic processes can be an impediment to student mastery of basic science coursework. To remedy this obstacle, I created an educational program called Biology from Molecules to Embryos^© (BioME), which provides 28 animated lessons for genetics and embryology. To provide access to the international educational community, BioME has been posted as an interactive, open access website. Empirical data demonstrates that BioME is an efficacious educational resource, which elicits positive student perception of its utility. The animated lessons are useful for student self-study. For instructors who choose to display BioME lessons as visual aids for their presentations, explanatory text can be hidden so that it does not compete with the instructors’ verbal explanations. For instructors who would not choose to use premade lessons, downloadable excerpts are provided. These excerpts are short presentations of specific topics that can be incorporated at any point of a lesson according to the instructor’s preference and student needs. To provide opportunities for self-quizzing and to summarize key points, multiple PopUp files are provided for most lessons. To allow students to actively access their mastery of the material and to take advantage of the testing effect, multiple-choice practice questions are also provided with each lesson. The level of these questions ranges from first-order recall to third-order application. The higher order questions promote deep processing by requiring students to deduce answers by actively integrating material within and across lessons. Thus, BioME can help to advance the understanding of biological sciences and promote the usage of animations to present dynamic processes.

Primary Image: BioME Animations. Sequential images of ovulation represent the dynamic progressions of BioME animations.

Collaboration is an essential component of research because it allows scientists to share expertise and tackle difficult scientific questions. While many undergraduate science courses include inquiry-based or authentic research projects, opportunities for collaboration outside of the classroom are rarely provided. To address these limitations, we developed a set of course activities and assignments to implement student-to-student collaboration between institutions in a protein-centric CURE. The activities were tested in three courses: an upper-level biochemistry class at primarily undergraduate institution, genetics and an introductory biology class at a community college. A survey was created to assess students' perceptions of collaboration and the impact of the activities on their scientific and communication skills. The results indicated that an important component of students' experiences was the assignments designed to guide participants through the collaboration activities. The survey findings suggest that student-to-student collaboration improves science communication skills and motivates students to be more careful with experimental design and data collection.

Primary Image: Cross Institutional Student to Student Collaboration in a CURE. The image illustrates a research collaboration between students at a community college and a primarily undergraduate institution while participating in a course-based undergraduate research experience (CURE). Students discussed their hypotheses, shared materials, and analyzed data and experimental observations.