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研究生:陳哲恩
研究生(外文):CHEN, CHE-EN
論文名稱:整合深度學習與多重特徵提取之人物辨識及全身追蹤系統
論文名稱(外文):Integrating Deep Learning and Multiple Feature Extraction Methods for Person Recognition and Full-Body Tracking System
指導教授:侯雍聰侯雍聰引用關係
指導教授(外文):HOU, YUNG-TSUNG
口試委員:吳梅君、郭文宏
口試委員(外文):WU, MEI-CHUN、KUO, WEN-HUNG
口試日期:2025-01-13
學位類別:碩士
校院名稱:國立虎尾科技大學
系所名稱:資訊管理系碩士班
學門:電算機學門
學類:電算機一般學類
論文種類:學術論文
論文出版年:2025
畢業學年度:113
語文別:中文
論文頁數:67
中文關鍵詞:人物辨識、全身追蹤、多模態特徵融合、深度學習、零樣本學習
外文關鍵詞:Person Recognition、Full-body Tracking、Multimodal Feature Fusion、Deep Learning、Zero-shot Learning
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本研究提出一套整合深度學習與多重特徵提取之人物辨識及全身追蹤系統。有別於傳統僅依賴人臉辨識的方法,本系統結合AM-RADIO與AIMv2等先進視覺模型,透過零樣本學習實現了從人臉到全身特徵的無縫轉換,大幅提升了在複雜場景下的追蹤穩定性。系統採用YOLOv11進行目標檢測,輔以GFP-GAN進行影像品質優化,並透過FAISS實現高效能的特徵檢索。
實驗採用零樣本學習方法,在未經過特定訓練的情況下,於Market-1501資料集上進行評估。結果顯示,本系統的RADIO v2.5-H版本達到92.99%的Rank-1辨識準確率,在Rank-5與Rank-10準確率更分別達到97.18%與97.80%。透過零樣本特徵學習,系統在人物屬性辨識方面展現優異效能,特別是在配件與服裝顏色辨識的準確率普遍達95%以上。在遮擋情境測試中,本系統成功處理了九種不同類型的遮擋場景,包含動態人群遮擋、機車交會等複雜場景,展現出優於傳統ByteTrack與BoT-SORT方法的追蹤穩定性。
本研究的創新貢獻在於提出一套基於零樣本學習的多模態特徵融合框架,不僅解決了傳統人臉辨識在複雜場景中的局限性,更無需額外標註資料即可快速應用於新場域。此設計大幅降低了系統部署成本,為智慧零售等應用場域提供了可靠且具彈性的技術方案。實驗證實本系統在準確性、穩定性與效能上均達到預期目標,為未來相關研究提供重要參考。

This research proposes an integrated system for person recognition and full-body tracking using deep learning and multiple feature extraction methods. Unlike traditional face-recognition-only approaches, our system combines advanced vision models such as AM-RADIO and AIMv2, achieving seamless transition from facial to full-body feature tracking through zero-shot learning, significantly enhancing tracking stability in complex scenarios. The system employs YOLOv11 for object detection, incorporates GFP-GAN for image quality enhancement, and utilizes FAISS for efficient feature retrieval.
Using a zero-shot learning approach, without task-specific training, the system was evaluated on the Market-1501 dataset. Results demonstrate that our system's RADIO v2.5-H version achieves 92.99% Rank-1 recognition accuracy, with Rank-5 and Rank-10 accuracies reaching 97.18% and 97.80%, respectively. Through zero-shot feature learning, the system exhibits exceptional performance in person attribute recognition, consistently achieving over 95% accuracy in identifying accessories and clothing colors. In occlusion scenario tests, our system successfully handles nine different types of occlusion scenarios, including dynamic crowd occlusion and motorcycle encounters, demonstrating superior tracking stability compared to traditional ByteTrack and BoT-SORT methods.
The innovative contribution of this research lies in proposing a zero-shot learning-based multimodal feature fusion framework that not only addresses the limitations of traditional face recognition in complex scenes but also enables rapid deployment to new domains without additional annotation requirements. This design significantly reduces system deployment costs, providing a reliable and flexible technical solution for smart retail applications. Experiments confirm that the system meets expected objectives in terms of accuracy, stability, and performance, offering valuable references for future research in this field.

摘要......i
Abstract......ii
誌謝......iv
目錄......v
表目錄......viii
圖目錄......ix
第一章 緒論......1
1.1 研究背景與動機......1
1.2 研究目的......2
1.3 研究範圍與限制......3
1.4 研究架構與流程......4
1.4.1 研究架構......4
1.4.2 研究流程......4
第二章 文獻探討......6
2.1 聊天室與即時通訊技術概述......6
2.1.1 聊天室概述......6
2.1.2 即時通訊技術概述......6
2.2 加密技術概述......8
2.2.1 對稱式加密(Symmetric Encryption)......9
2.2.2 非對稱式加密(Asymmetric Cryptography)......10
2.2.3 AES-GCM對稱加密算法......11
2.3 Diffie-Hellman密鑰交換算法......11
2.4 前後端技術開發相關概述......12
2.4.1 Vue.js框架概述......12
2.4.2 Web Worker API概述......13
2.4.3 Spring Boot框架概述......15
2.4.4 IPFS(Inter Planetary File System)檔案儲存系統概述......15
2.4.5 JWT技術概述......16
第三章 研究方法......17
3.1 研究架構與軟體框架......17
3.1.1 前端技術選擇......17
3.1.2 伺服器與性能優化......17
3.1.3 後端技術選擇......17
3.1.4 資料庫設計......18
3.1.5 檔案存取與加密技術......18
3.1.6 架構設計與使用者體驗......18
3.2 系統設計......19
3.2.1 系統技術架構......19
3.2.2 系統模組......19
3.3 功能模塊設計......20
3.3.1 即時資訊分享模塊......20
3.3.2 即時聊天模塊......22
3.3.3 佈告欄模塊......23
3.3.4 作業板模塊......25
3.4 使用案例......25
3.5 預期成效與驗證方法......28
第四章 系統設計與實作......30
4.1 系統架構環境......30
4.2 系統架構設計......30
4.2.1 系統架構......30
4.2.2 前端架構設計......31
4.2.3 後端架構設計......32
4.2.4 安全架構設計......33
4.2.5 系統整合......34
4.3 資料庫設計......34
4.4 加密技術的實施......41
4.4.1 Diffie-Hellman密鑰交換算法......41
4.4.2 AES-GCM 對稱加密算法......42
4.5 功能模塊的實作與展示......43
4.5.1 登入功能展示......43
4.5.2 即時資訊分享模塊......46
4.5.3 即時聊天模塊......52
4.5.4 佈告欄與作業版模塊......57
4.6 實驗設計與測試......67
4.6.1 實驗設計......67
4.6.2 實驗測試......69
第五章 結論與建議......70
5.1 結論......70
5.2 建議......71
參考文獻......72
Extended Abstract......75
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