Profile photo of Aro Kim

Aro Kim

Researcher in Computer Vision / Generative Models / Video Coding (VVC, ECM) / 3D Vision

Fourth-year Integrated M.S./Ph.D. student in Computer Science and Engineering at Kyungpook National University, advised by Prof. Sang-hyo Park.

About

My research focuses on computer vision, generative models, video coding for machine vision tasks, and 3D vision.
I am particularly interested in developing efficient and high-performance visual intelligence systems for real-world image and video understanding.

Research Strengths

Education

Kyungpook National University 2024 – Present

Integrated M.S. /Ph.D. Student in Computer Science and Engineering

Fourth-year student in the Integrated M.S./Ph.D. Program

Advisor: Prof. Sang-hyo Park

Expected Graduation: Summer 2027

Research Interests

Publications

FiDeSR: High-Fidelity and Detail-Preserving One-Step Diffusion Super-Resolution

Aro Kim, Myeongjin Jang, Chaewon Moon, Youngjin Shin, Jinwoo Jeong, Sang-hyo Park

CVPR 2026

A one-step diffusion super-resolution method designed to preserve high-fidelity details while maintaining efficient inference.

Deep Learning-Guided Video Compression for Machine Vision Tasks

Aro Kim, Seung-taek Woo, Minho Park, Dong-hwi Kim, Hanshin Lim, Soon-heung Jung, Sangwoon Kwak, Sang-hyo Park

EURASIP Journal on Image and Video Processing, 2024, Vol. 2024, No. 1, Article 32

Published: September 20, 2024 · Publisher: Springer International Publishing

This work proposes a video compression framework tailored to machine vision tasks. It applies encoders to video regions distinguished by machine vision to improve coding efficiency, achieving an average BD-rate gain of 5.91% and up to 19.51% BD-rate gain.

Pruning-Guided Feature Distillation for an Efficient Transformer-Based Pose Estimation Model

Dong-hwi Kim, Dong-hun Lee, Aro Kim, Jinwoo Jeong, Jong Taek Lee, Sungjei Kim, Sang-hyo Park

IET Computer Vision, 2024, Vol. 18, No. 6, pp. 745–758

Published: September 2024

This work proposes a pruning-guided feature distillation strategy for an efficient transformer-based 3D human pose estimation model. The approach reduces model size by 30% compared to the state of the art while maintaining high accuracy.

Work Authorization

Open to research and engineering opportunities in the U.S. and internationally.

Contact

Email: arokim37@gmail.com / arokim37@knu.ac.kr