This course will explore the technological fundamentals used in imaging systems. The course emphasizes the operation of devices/components used to optimize imaging systems. Fundamental concepts prevalent in imaging systems such as resolution, dynamic range, sensor architectures, printer and monitor technologies, color spaces, and image optimization workflows will be presented. Focus will be on the proper selection and underlying principles of these technologies and how to best apply that knowledge to solve problems in the imaging industry. Potential careers in the imaging industry will be presented throughout the course.

The course Photographic Science Fundamentals will introduce the application of physics, mathematics, and optical science behind the processes of photography. The course also provides the students with the opportunity to employ statistical data analysis to identify trends through laboratory exercises utilizing principles of scientific inquiry.

This is the second course in a two-semester course based in the study of the technology of photography, with emphasis on applications to real world photographic problems. Among the topics studied will include color vision, Munsell color system, CIELAB system, color theory, color management, digital color balance during post-processing, digital tone reproduction, and digital workflows.

This course will explore the anatomical structure, function, and physiology of the human eye and brain and their relationship to vision, color, visual perception and imaging systems. The biology and physiology of the eye and psychology of visual perception will be explored. The concepts of depth perception in human vision as they relate to both two-dimensional and three-dimensional contexts will be examined. Relationships of image brightness, contrast and how visual processes lead to seeing will be addressed.

This is the second in a two-course required imaging core sequence, the first being Applied Color Theory. Students develop the background and skills required for successful laboratory practice in color measurement as used in scientific research. This includes data management, data analysis, and technical writing. Topics include the optical and electronic design of spectroradiometric and spectrophotometric instrumentation, the use of standard reference materials for calibration, data analysis techniques, properties of objects and radiation, evaluation of instrumentation and psychophysical experimentation.

Photography independent study will provide students with the ability to study in a specialized area with an individual faculty member. Students, with the assistance of a faculty adviser will propose a course of study. Photography Independent Study students must obtain permission of an instructor and complete the Independent Study Permission Form to enroll. **Note: Students can only earn up to 6 credits of independent study towards completion of their degree**