권호기사보기
| 기사명 | 저자명 | 페이지 | 원문 | 기사목차 |
|---|
결과 내 검색
동의어 포함
Conventional inspection methods for Through-Silicon Via (TSV) 3D shape defect detection, such as Scanning Electron Microscopy (SEM) and X-ray inspection, have been widely used due to their precision in structural analysis. However, these methods suffer from significant limitations including high equipment cost, long inspection time, and the inability to operate in real-time. Moreover, SEM is inherently a destructive technique, while X-ray imaging lacks sufficient resolution to detect nanoscale shape anomalies or polymer residues. These drawbacks hinder the implementation of fast and scalable inspection systems, which are increasingly demanded in modern semiconductor manufacturing, especially for high-density 3D integration. Therefore, a new approach is urgently required—one that ensures high detection accuracy while also being non-destructive, fast, and suitable for realtime inspection in practical production environments. In this paper, we develop a real-time TSV 3D shape defect inspection system implemented with a deep learning-based object detection method. For the real-time operation of the proposed system, YOLOv8 and YOLOv10 are utilized because the YOLO family of networks can guarantee fast inference performance as well as excellent detection performance. The YOLOv8 and YOLOv10 have intrinsic differences in the network architecture, such as anchor-free detection structure and NMS-free training and a dualhead structure, resulting in different inference and detection performance. Therefore, based on the performance comparison of the two networks, the appropriate model should be selected according to the specific needs for either faster inference or higher detection accuracy. In addition, for more reliable training of object detection networks, we collect 3D point cloud data containing TSV normal and defective pattern data created on real 8-inch silicon wafers.
By obtaining the datasets from real silicon wafers, we can ensure the reliability and the practical applicability of the trained network performance. For the performance comparison, we utilize several performance metrics, which are processing time, precision, F1 score, and Fβ score. Finally, extensive evaluations confirm that the YOLOv8-l model achieves the highest precision (0.99997) and F1 score (0.99989), while the YOLOv10-n model exhibited the fastest processing time (0.18601 seconds) and the highest Fβ score (0.92565).*표시는 필수 입력사항입니다.
| 전화번호 |
|---|
| 기사명 | 저자명 | 페이지 | 원문 | 기사목차 |
|---|
| 번호 | 발행일자 | 권호명 | 제본정보 | 자료실 | 원문 | 신청 페이지 |
|---|
도서위치안내: 정기간행물실(524호) / 서가번호: 국내17
2021년 이전 정기간행물은 온라인 신청(원문 구축 자료는 원문 이용)
우편복사 목록담기를 완료하였습니다.
*표시는 필수 입력사항입니다.
저장 되었습니다.