Sihoon Seong

Sihoon Seong


Research Focus & Metrics

Academic Career Length

4Years (2023-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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12 February 2025 in Internet of Things
Verified
Journal Article
Closed access
JPJong-Ik Park
Jong-Ik Park
SSSihoon Seong
Sihoon Seong
JLJunKyu Lee
JunKyu Lee
CHCheol-Ho Hong
Cheol-Ho Hong

24 June 2024 in IEEE Transactions on Industrial Informatics
Verified
Journal Article
Closed access
HAHyunho Ahn
Hyunho Ahn
LMLee Mun-Kyu
Lee Mun-Kyu
SSSihoon Seong
Sihoon Seong
GNGapjoo Na
Gapjoo Na
ICIngeol Chun
Ingeol Chun
Cheol-Ho HongCheol-Ho Hong
Cheol-Ho Hong
Industrial Internet of Things (IIoT) applications can greatly benefit from leveraging edge computing. For instance, applications relying on deep neural network (DNN) models can be sliced and distributed across IIoT devices and the network edge to reduce inference latency. However, low network performance between IIoT devices and the edge often becomes a bottleneck. In this study, we propose ScissionLite, a holistic framework designed to accelerate distributed DNN inference using lightweight data compression. Our compression method features a novel lightweight down/upsampling network tailored for performance-limited IIoT devices, which is inserted at the slicing point of a DNN model to reduce outbound network traffic without causing a significant drop in accuracy. In addition, we have developed a benchmarking tool to accurately identify the optimal slicing point of the DNN for the best inference latency. ScissionLite improves inference latency by up to 15.7× with minimal accuracy degradation.

5 November 2023 in Electronics
Verified
Journal Article
Open access
PDF file
HAHyunho Ahn
Hyunho Ahn
LMLee Mun-Kyu
Lee Mun-Kyu
SSSihoon Seong
Sihoon Seong
Minhyeok LeeMinhyeok Lee
Minhyeok Lee
GNGapjoo Na
Gapjoo Na
Cheol-Ho HongCheol-Ho Hong
Cheol-Ho Hong
Convolutional neural networks (CNNs) have enabled effective object detection tasks in bioimages. Unfortunately, implementing such an object detection model can be computationally intensive, especially on resource-limited hardware in a laboratory or hospital setting. This study aims to develop a framework called BioEdge that can accelerate object detection using Scaled-YOLOv4 and YOLOv7 by leveraging edge computing for bioimage analysis. BioEdge employs a distributed inference technique with Scaled-YOLOv4 and YOLOv7 to harness the computational resources of both a local computer and an edge server, enabling rapid detection of COVID-19 abnormalities in chest radiographs. By implementing distributed inference techniques, BioEdge addresses privacy concerns that can arise when transmitting biomedical data to an edge server. Additionally, it incorporates a computationally lightweight autoencoder at the split point to reduce data transmission overhead. For evaluation, this study utilizes the COVID-19 dataset provided by the Society for Imaging Informatics in Medicine (SIIM). BioEdge is shown to improve the inference latency of Scaled-YOLOv4 and YOLOv7 by up to 6.28 times with negligible accuracy loss compared to local computer execution in our evaluation setting.