Yeonggon Kim
Seoul National University · Medicine
About the Lab
Professor Yeonggon Kim's research lab specializes in applying deep learning and advanced signal processing to medical imaging and physiological data for improved disease prediction and diagnosis. The lab focuses on developing automated AI systems for early detection and classification of conditions such as fractures, epilepsy, and renal tumors using medical imaging (CT, X-ray, EEG). A key direction involves leveraging non-invasive, routinely acquired clinical data—like hip CT scans and EEG—to build interpretable, clinically actionable models. The lab also emphasizes accessibility, promoting tools like KNIME to enable researchers without programming expertise to conduct deep learning in healthcare.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
15Background Patients have the highest risk of subsequent fractures in the first few years after an initial fracture, yet models to predict short-term subsequent risk have not been developed. Purpose To develop and validate a deep learning prediction model for subsequent fracture risk using digitally reconstructed radiographs from hip CT in patients with recent hip fractures. Materials and Methods This retrospective study included adult patients who underwent three-dimensional hip CT due to a frac
Epilepsy is a neurological disorder in which the brain is transiently altered. Predicting outcomes in epilepsy is essential for providing feedback that can foster improved outcomes in the future. This study aimed to investigate whether applying spectral and temporal filters to resting-state electroencephalography (EEG) signals could improve the prediction of outcomes for patients taking antiseizure medication to treat temporal lobe epilepsy (TLE). We collected EEG data from a total of 46 patient
BACKGROUND: To develop and test the performance of a fully automated system for classifying renal tumor subtypes via deep machine learning for automated segmentation and classification. MATERIALS AND METHODS: The model was developed using computed tomography (CT) images of pathologically proven renal tumors collected from a prospective cohort at a medical center between March 2016 and December 2020. A total of 561 renal tumors were included: 233 clear cell renal cell carcinomas (RCCs), 82 papill
In this study, a researcher who does not have basic knowledge of python programming successfully performed deep learning analysis of chest x-ray image dataset using the KNIME independently. The KNIME will reduce the time spent and lower the threshold for deep learning research applied to healthcare.
The rate of metabolic syndrome (MetS) is exceptionally high in Korea, and the health risks and dietary implications of MetS have been reported extensively. Although most meals include combination foods, little is known about metabolic responses to meals containing various foods (such as a hamburger, which typically includes meat, bread, and vegetables). The purpose of this study was to compare glycemic responses and postprandial-triglyceride (PTG) concentrations after consuming each of four test
Among patients with epilepsy, 30-40% experience recurrent seizures even after adequate antiseizure medications therapies, making them refractory. The early identification of refractory epilepsy is important to provide timely surgical treatment for these patients. In this study, we analyze interictal electroencephalography (EEG) data to predict drug refractoriness in patients with temporal lobe epilepsy (TLE) who were treated with monotherapy at the time of the first EEG acquisition. Various EEG
Accurate real-time optical diagnosis that distinguishes neoplastic from non-neoplastic colorectal lesions during colonoscopy can lower the costs of pathological assessments, prevent unnecessary polypectomies, and help avoid adverse events. Using a multistep process, this study developed an explainable artificial intelligence method, niceAI, for classifying hyperplastic and adenomatous polyps. Radiomics and color were extracted, followed by feature selection with deep learning features using Spea
이 논문은 블록체인[1] 기술을 활용한 소규모 분산전력자원 거래 플랫폼에서의 정산소요시간에 대한 고찰이다. 먼저 연구에 적용한 “AMI 인프라를 활용한 국민 VPP 에너지 관리 시스템 (AI 기반의 에너지 거래 플랫폼)”을소개한 후, 테스트베드 환경 내 IoT 전력 빅데이터[2] 분석으로 인증된 프로슈머의 발전(감축)량에 근거하여 지급되는 블록체인 암호화폐 코인의 정산과정 그리고 소요시간에 대하여 알아본다. 더불어 기존 람다 아키텍처에MapD[3]를 적용한 GPU Fast 빅데이터 전력 빅데이터 분석 시스템 구성을 제시 한다.
The proposed computational pathology model demonstrated a strong ability to identify preeclamptic placentas. Computational pathology has the potential to improve the identification of PE placentas.
BACKGROUND: Immunoglobulin A nephropathy (IgAN) is a major cause of end-stage kidney disease (ESKD). The International IgA Nephropathy Prediction Tool (IIgAN-PT) predicts IgAN prognosis, but improvement in the prediction performance using machine learning (ML)-based methods is needed. METHODS: We analyzed 4,425 biopsy-confirmed patients with IgAN and ≥6 months of follow-up from nine tertiary university hospitals in Korea. The study population was divided into development and validation cohorts.
Kidney pathology of immunoglobulin A nephropathy (IgAN), which is the key finding of both diagnosis and risk stratification, involves labor-intensive manual interpretation as well as unavoidable interpreter-dependent variabilities. We propose artificial intelligence-based frameworks for quantitatively analyzing glomerular histologic features that can predict kidney progression in IgAN. A deep learning model, based on DeepLabV3Plus and EfficientNet-B3, was developed for segmenting glomeruli and q
이 논문은 에너지 클라우드 참여 프로슈머의 신뢰성 있는 생산 및 소비량 인증에 기반 한 개인 간 거래, 클라우드 간 거래, 그리고 소규모 분산전력 중개시장 참여 등의 다양한 에너지 프로슈머 비즈니스 모델에 필요한 생산· 소비량 인증 기반 전력 거래 시스템에 관한 고찰이다. 이 시스템은 에너지 거래에 있어 가장 중요한 파라미터로 간주할 수 있는 거래 정산의 신뢰성을 확보하기 위한 것으로써 에너지 프로슈머로부터 수집되는 발전· 소비빅데이터 분석에 의한 인증 기반 블록체인 스마트 컨트랙트 체결을 위한 것이다. 이를 위하여 IoT AMI로부터수집 된 빅데이터 분석 시스템과 AMI 와 연계 구성된 프라이빗 블록체인 네트워크를 적용한 생산량 인증 시스템 구성을 소개하고 블록체인 스마트 컨트랙트를 활용한 전력 거래 매칭 방식을 제안한다. 마지막으로 에너지클러스터 거래 시스템 및 비즈니스모델을 알아본다.
이 논문은 강화학습[1]기반으로 지역난방 열사용자 기계실 설비의 열효율 향상을 시도하는 연구를 소개하며, 한 예시로서 모델을 특정하지 않는 강화학습 알고리즘인 딥큐러닝(deep Q learning)[2]을 활용하는 학습 네트워크(DQN)[3]를 구성하는 일반적인 방법을 제시한다. 또한 복수의 열에너지 기계실에 설치된 IoT 센서로부터 유입되는 방대한양의 데이터 처리에 있어 에너지 분야에 특화된 빅데이터 플랫폼[4] 시스템과 열수요 통합관리시스템에 대하여 소개 한다.
Research Areas
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