Joonki Paik focuses on Artificial intelligence, Computer vision, Image processing, Image restoration and Edge detection. Joonki Paik regularly ties together related areas like Signal in his Artificial intelligence studies. Computer vision is often connected to Adaptive filter in his work.
His work in Image processing addresses subjects such as Artifact, which are connected to disciplines such as Smoothness and Blocking. His Image restoration study combines topics in areas such as Hopfield network, Upper and lower bounds, Point spread function and Mathematical optimization. His Edge detection research is multidisciplinary, incorporating elements of Smoothing, Triangle mesh, Surface and Interpolation.
Joonki Paik mainly investigates Artificial intelligence, Computer vision, Image restoration, Image processing and Image. His studies link Pattern recognition with Artificial intelligence. His study involves Motion estimation, Filter, Tracking, Histogram and Pixel, a branch of Computer vision.
He focuses mostly in the field of Image restoration, narrowing it down to topics relating to Algorithm and, in certain cases, Mathematical optimization. Joonki Paik combines topics linked to Optics with his work on Image processing. His Image study deals with Distortion intersecting with Brightness.
His primary scientific interests are in Artificial intelligence, Computer vision, Pattern recognition, Image and Distortion. As a member of one scientific family, he mostly works in the field of Artificial intelligence, focusing on Brightness and, on occasion, Color space. In the subject of general Pattern recognition, his work in Convolutional neural network and Sparse approximation is often linked to Context, thereby combining diverse domains of study.
Joonki Paik has included themes like Basis, Wavelet transform and Dual in his Image study. Joonki Paik has researched Distortion in several fields, including Transmission and Image restoration. His Image restoration research incorporates elements of Point spread function and Image fusion.
His primary areas of investigation include Artificial intelligence, Computer vision, Image processing, Image and Pattern recognition. Artificial intelligence connects with themes related to Distortion in his study. His works in Image restoration, Feature extraction, Histogram, Optical flow and Video tracking are all subjects of inquiry into Computer vision.
The concepts of his Image restoration study are interwoven with issues in Image resolution, Zoom, Dual, Image warping and Histogram equalization. His work carried out in the field of Image processing brings together such families of science as Image quality and Optics. His Sparse approximation study, which is part of a larger body of work in Pattern recognition, is frequently linked to Context, bridging the gap between disciplines.
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Recent advances in visual and infrared face recognition: a review
Seong G. Kong;Jingu Heo;Besma R. Abidi;Joonki Paik.
Computer Vision and Image Understanding (2005)
Contrast enhancement system using spatially adaptive histogram equalization with temporal filtering
Tae Keun Kim;Joon Ki Paik;Bong Soon Kang.
IEEE Transactions on Consumer Electronics (1998)
Image restoration using a modified Hopfield network
J.K. Paik;A.K. Katsaggelos.
IEEE Transactions on Image Processing (1992)
Adaptive contrast enhancement using gain-controllable clipped histogram equalization
T. Kim;J. Paik.
IEEE Transactions on Consumer Electronics (2008)
An adaptive motion decision system for digital image stabilizer based on edge pattern matching
Joon ki Paik;Yong Chul Park;Dong Wook Kim.
international conference on consumer electronics (1992)
Normal vector voting: crease detection and curvature estimation on large, noisy meshes
D. L. Page;Y. Sun;A. F. Koschan;J. Paik.
Graphical Models /graphical Models and Image Processing /computer Vision, Graphics, and Image Processing (2002)
Real-time video tracking using PTZ cameras
Sangkyu Kang;Joon-Ki Paik;Andreas Koschan;Besma R. Abidi.
Sixth International Conference on Quality Control by Artificial Vision (2003)
Adaptive mode decision for H.264 encoder
Y.-H. Kim;J.-W. Yoo;S.-W. Lee;J. Shin.
Electronics Letters (2004)
Low-light image enhancement using variational optimization-based retinex model
Seonhee Park;Soohwan Yu;Byeongho Moon;Seungyong Ko.
IEEE Transactions on Consumer Electronics (2017)
Optical flow-based real-time object tracking using non-prior training active feature model
Jeongho Shin;Sangjin Kim;Sangkyu Kang;Seong-Won Lee.
Real-time Imaging (2005)
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