The Chester F. Carlson Center for Imaging Science is dedicated to pushing the frontiers of imaging in all its forms and uses. Through education leading to bachelor’s, master’s, and Ph.D. degrees in imaging science, we produce the next generation of educators and researchers who develop and deploy imaging systems that answer fundamental scientific questions, monitor and protect our environment, help keep our nation secure, and aid medical researchers in their quest to conquer disease.
From how light is generated to how the world is perceived, imaging science addresses questions about every aspect of systems that are used to create, perceive, analyze, and optimize images. Imaging science is both truly interdisciplinary in its content and multi-disciplinary in its applications.
Karen Braun had a clear picture of what she wanted to do with her life at a young age. As Braun grew up, she developed a wide variety of interests including photography, psychology, and physics. She ultimately found a new cross-disciplinary Ph.D. program in imaging science at RIT that let her pursue those interests all at once.
An RIT professor is being honored as one of the first American Astronomical Society Fellows. Joel Kastner, a professor in RIT’s Chester F. Carlson Center for Imaging Science and School of Physics and Astronomy, is part of an initial group of more than 200 Legacy Fellows recently named by the society.
Universe Today features Joel Kastner, professor in the Chester F. Carlson Center for Imaging Science, and astrophysical sciences and technology Ph.D. students Annie Dickson-Vandervelde and Emily Wilson.
The Laboratory for Multiwavelength Astrophysics fosters the utilization and advancement of cutting-edge techniques in multiwavelength astrophysics by RIT faculty, research staff, and students, so as to improve human understanding of the origin and fate of the universe and its constituents.
Faculty working on cultural heritage imaging develop novel imaging systems and algorithms to analyze historical artifacts around the world. Research is primarily focused on multi- and hyperspectral imaging, but also includes imaging modalities such as reflectance transformation imaging and X-ray fluorescence. An active area of research is also the development of novel 3D visualization tools for scholars to interact with the digital artifacts after image collection and processing.
Research in this area focuses on the development of novel imaging systems, primarily for astronomical applications. Significant research has been conducted on the use of Digital Micro-mirror Devices in multi-object spectrometers for astronomical imaging systems. Additional work has focused on random apertures for extremely large space-based telescopes and vortex coronagraph imaging systems. Additional work in optical systems includes research into the use of ultrafast lasers for the development of novel photonic detectors and other surface polishing applications.
The Multidisciplinary Vision Research Laboratory combines expertise in eye tracking instrumentation, cognitive science knowledge of the human visual system, and computer vision to understand how the eye-brain system works, as well as how to leverage that knowledge into novel computer vision systems. The research is supported by the PerForM Lab with both full motion capture and multiple AR/VR system capabilities. Additionally, active research into computer vision and deep learning approaches for applications from 3D scene understanding to active learning frameworks are ongoing.
The Digital Imaging and Remote Sensing Laboratory (DIRS) is world-renown for its expertise in remote sensing systems, algorithms, and applications. Their work encompasses novel system design and calibration for NASA Earth-observing satellites to the development of imaging systems to fly on small Unmanned Aerial Vehicles (UAVs) for precision agriculture. Additionally, the DIRSIG software developed and maintained by the DIRS laboratory is the industry standard to simulate remotely sensed imagery and is used for both system engineering trade studies as well as a source of training data for deep learning algorithmic frameworks.
There is active work within the center in nanoimaging through the use of electron microscopy. The NanoImaging Lab is home to four electron microscopes (2 SEMs & 2 TEMs) and focuses on two major research themes. First, using imaging science to improve the performance of electron microscopes computationally. This includes the point spread function determination, electron optics modeling, image restoration, and deconvolution research. Second, in this laboratory, we use the tools of imaging science to characterize materials at the micro- and nano-scale, using electron microscopy.
The center is the home to the Magnetic Resonance Laboratory devoted to solving real-world problems with magnetic resonance. The laboratory has several pieces of specialized magnetic resonance spectroscopy and imaging instrumentation on the RIT campus. Among these are a 500 MHz NMR spectrometer with micro-imaging accessory, a low-frequency electron paramagnetic resonance (LFEPR) spectrometer, an Overhauser magnetometer with a base station, a three-axis magnetometer, and a radio frequency imaging coil test bridge.
Many students are attracted to the Bachelor of Science in imaging science because of its multidisciplinary nature. It is particularly attractive to students who enjoy science, engineering, computing, and math and are searching for careers that apply their unique interests. The program also applies science and engineering concepts to the study of photography and digital media that has a long tradition at RIT.
Imaging science offers an ideal mix of disciplines while promising a well-rounded and highly marketable degree. There are tracks/focuses in optics, computer vision, machine learning, remote sensing, nanoimaging, biomedical imaging, and historical document imaging.
A highly interdisciplinary field that combines aspects of physics, math, computer science, and engineering to understand and develop cutting-edge imaging systems from satellite systems to portable eye trackers to medical imagers to multispectral detectors—anything that involves recording, processing, displaying, or analyzing image data.
The Master of Science and Ph.D. imaging science programs emphasize a systems approach to the study of imaging science and prepares you for careers in research, product development, and management in the imaging industry. Through extensive, hands-on research, you will acquire the knowledge and skills necessary to meet available academic, industrial, and governmental careers.
Imaging science is a highly interdisciplinary field of study that incorporates elements from mathematics, engineering, computer science, and physics to understand, design, and utilize imagery and imaging systems to study scientific phenomena. The imaging science minor is designed to allow students from various departments across RIT to study how to use imaging to enhance their primary field of study or discover how to incorporate imaging science into their major discipline to solve complex, interdisciplinary problems in imaging, imagery exploitation, and the design and evaluation of imaging systems.
The science of film, photography, and imaging immersion explores the basic science behind technologies used in film, photography, and other imaging applications. Introductions to human visual perception, color science, imaging physics, and imaging system engineering set a groundwork for common theories underlying all major imaging industries. This immersion also provides necessary prerequisites for completion of a minor in imaging science.