This yearlong research-based lecture-laboratory course exposes students to fundamental concepts across the life sciences through interdisciplinary research. Cannot be repeated for credit. Course only open to first-year students. Enrollment limit of 18 students. Fall: 2 credit; spring: 3 credits; 5 credits total. (E) What is the cause of a disease? How do the cells and tissues of an organism respond to the disease state? In order to address these questions scientists need accurate animal models to investigate the pathology and potential treatments associated with a particular disease.

Students in this course investigate the structure, function and physiology of cells, the properties of biological molecules, information transfer from the level of DNA to cell-cell communication, and cellular energy generation and transfer. The development of multicellular organisms and the physiology of selected organ systems is also explored. In addition to attending lectures, each student participates in discussion sections that focus on data analysis and interpretation while integrating mechanisms across scales. Laboratory (BIO 151) is recommended but not required.

Students in this course investigate the structure, function and physiology of cells, the properties of biological molecules, information transfer from the level of DNA to cell-cell communication, and cellular energy generation and transfer. The development of multicellular organisms and the physiology of selected organ systems is also explored. In addition to attending lectures, each student participates in discussion sections that focus on data analysis and interpretation while integrating mechanisms across scales. Laboratory (BIO 151) is recommended but not required.

Students in this course investigate the structure, function and physiology of cells, the properties of biological molecules, information transfer from the level of DNA to cell-cell communication, and cellular energy generation and transfer. The development of multicellular organisms and the physiology of selected organ systems is also explored. In addition to attending lectures, each student participates in discussion sections that focus on data analysis and interpretation while integrating mechanisms across scales. Laboratory (BIO 151) is recommended but not required.

Students in this course investigate the structure, function and physiology of cells, the properties of biological molecules, information transfer from the level of DNA to cell-cell communication, and cellular energy generation and transfer. The development of multicellular organisms and the physiology of selected organ systems is also explored. In addition to attending lectures, each student participates in discussion sections that focus on data analysis and interpretation while integrating mechanisms across scales. Laboratory (BIO 151) is recommended but not required.

An introduction to techniques of personality research and their application to the experimental study of personality. Based on discussions of current research, students design and conduct original research either individually or in teams. Prerequisites: 112 and either 270 or 271 and permission of the instructor.

This course offers an in-depth exploration of aesthetic and interpretive issues in dance performance. Through experiments with improvisation, musical phrasing, partnering, personal imagery and other modes of developing and embodying movement material, dancers explore ways in which a choreographer's vision is formed, altered, adapted, and finally presented in performance. Audition required. May be taken twice for credit. Prerequisite: Permission of the instructor.

The elements of line, texture and color, and their application to design and character delineation. Research of clothing styles of various cultures and eras. Enrollment limited to 15.

The concepts of linear system theory (e.g., signals and systems) are fundamental to all areas of engineering, including the transmission of radio signals, signal processing techniques (e.g., medical imaging, speech recognition, etc.), and the design of feedback systems (e.g., in automobiles, power plants, etc.). This course introduces the basic concepts of linear system theory, including convolution, continuous and discrete time Fourier analysis, Laplace and Z transforms, sampling, stability, feedback, control and modulation.