Optical engineering uses classical optics techniques to create novel devices and instrumentation, and the Wyant College of Optical Sciences leads the field in designing and fabricating highly specialized optics. OSC maintains state-of-the-art facilities and a superb technical staff for grinding, polishing, measuring and aligning the world’s most challenging mirrors — including those for astronomical telescopes. Students work side-by-side with experienced professionals on extensive, distinctive projects like the Giant Magellan Telescope, the Large Synoptic Survey Telescope and OSIRIS-REx, an unmanned space probe that will launch in 2016, land on an asteroid and return to Earth with a material sample.
1) All-MEMS Lidar System Demonstrated, an Important Milestone Towards All-solid-state Lidar System
A recent publication from the Takashima Lab on all-MEMS (Micro Electro Mechanical System) LIDAR address a quasi-solid-state lidar system employing Texas Instruments Digital Micromirror Device (DMD) and 2-dimensional MEMS mirror for lidar transmitter and a 2nd DMD for receiver.
2) High-Precision Printing of Complex Glass Imaging Optics with Precondensed Liquid Silica Resin
3D printing of optics has gained significant attention in optical industry, but most of the research has been focused on organic polymers. In spite of recent progress in 3D printing glass, 3D printing of precision glass optics for imaging applications still faces challenges from shrinkage during printing and thermal processing, and from inadequate surface shape and quality to meet the requirements for imaging applications. This paper reports a new liquid silica resin (LSR) with higher curing speed, better mechanical properties, lower sintering temperature, and reduced shrinkage, as well as the printing process for high-precision glass optics for imaging applications.
3) Solidstate Laser Beam Steering Technology for Lidar
A recent publication from Takashima Lab on LIDAR is address laser beam steering by motion-less and solid-state MEMS (Micro Electro Mechanical System) device, Texas Instruments Phase Light Modulator (TI-PLM). The research team demonstrated a quasi-continuous and multi-points beam steering by TI-PLM.
4) Optical Enhancement of Diffraction Efficiency of Texas Instruments Phase Light Modulator by Talbot Imaging-Based Pixel Matching for Infrared LIDAR Beam Steering
Periodicity of the Computer Generated Holograms (CGHs) for beam steering makes it possible to utilize the Talbot self-phase-image of the CGH to enhance the diffraction efficiency in the infrared domain. The architecture doubles phase modulation by a factor of two, which enables using TI-PLM designed for visible wavelength for infrared laser beam steering for lidar applications.
5) Here's How OSC is Creating One of the Most Powerful Telescopes on Earth
Researchers at the Wyant College of Optical Sciences (OSC) are helping to build what Daewook Kim, Ph.D., an OSC professor who specializes in optical engineering science, calls the “telescope of the future.” “We are trying to redefine what we can do on the ground in terms of looking at space,” Dr. Kim said. Intended to be one of the most powerful telescopes on Earth, the Giant Magellan Telescope (GMT) will have a primary mirror 24 meters across, and it will be about 100 times more powerful in terms of light collection capability and enable 10 times higher imaging resolution than the Hubble Space Telescope.