Sungyoon Cho
Pohang University of Science and Technology · Computer Science
About the Lab
Professor Sungyoon Cho's research lab specializes in computer vision, augmented reality, and wearable robotics, with a focus on real-time 3D rendering, stereo image synthesis, and human-robot interaction. The lab develops advanced algorithms for occlusion removal in intermediate view synthesis, enhances driver safety through vehicle-mounted augmented reality systems, and investigates biomechanical impacts of wearable robots to improve comfort and joint safety. Research spans from low-level image processing to high-level human-centered system design, emphasizing real-time performance and user well-being.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
6In synthesizing intermediate views from two stereo images with the help of stereo matching, we suggest an efficient method for removing occlusion. The proposed method can deal with the problems: noise correction from stereo matching using photometric method, occlusion removal for high fidelity rendering using disparity consistency, and parallel computing for real-time synthesis. The proposed algorithm is compared with the state-of-the-art algorithms to show the better performance in rendering an
Objective: This paper proposes a prototype of the vehicle augmented reality (AR) information system which overlays relevant information about environment around the vehicle in the form of AR in a head-up display (HUD). Background: The dangers of inattentive driving are well known. One example is navigation equipments near the instrument cluster often distracting the drivers from their usual viewpoint. Thus HUD systems gain popularity recently to display relevant information within the driver’s r
In synthesizing multiple intermediate views from two stereo using stereo-matching, we suggest an efficient method for removing occlusion. We dealt with the noise correction from stereo matching, occlusion removal for high fidelity rendering, and parallel computing for real-time synthesis. The proposed algorithm shows the better performance in rendering quality and computational speed.
Recent advancements in wearable robots have focused on developing soft, compliant, and lightweight structures to provide comfort for the users and to achieve the primary function of assisting body motions. The interaction forces induced by physical human-robot interaction (pHRI) not only cause skin discomfort or pain due to relatively high localized pressures but also degrade the wearability and the safety of the wearer's joints by unnaturally altering the joint reaction forces (JRFs) and the jo
Research Areas
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