臺灣博碩士論文加值系統

本研究的目的是實現在雲端系統上設計一個具有門禁安全認證系統的網路視訊電話(Video/Voice over IP)，簡稱VVoIP，可讓各種不同作業系統的PC或Notebook以web介面方式且使用以Authentication、Authorization、Accounting (AAA)管理機制登入雲端計算系統，透過雲端計算系統作人臉辨識和指紋辨識的認證與帳號和密碼的驗證來登入視訊電話系統，便能使用雲端VVoIP應用程式與另一位線上使用者做即時網路視訊通話。對於Android行動裝置的使用者則經由Android Market下載及安裝我們發佈雲端的門禁安全認證系統和VVoIP 的應用程式來使用。門禁安全認證系統應用程式的影像傳輸服務是採用TCP/IP通訊協定，而生物辨識是採用人臉和指紋的影像來辨識使用者身分，經由身分驗證通過後，使用者才能順利登入VVoIP系統。最後根據實驗結果，我們所提出的雲端網路視訊電話的效能是優於其他市面上相類似的產品。

The purpose of this study is to implement an access control authentication system for Video/Voice over IP, commonly called VVoIP, on the cloud system, where different operation systems on the PC or Notebook can proceed to the scheme of Authentication, Authorization, and Accounting (AAA) management through web interfaces to log into the cloud computing system. The cloud computing system will authenticate using face recognition and fingerprint identification, as well as verify user account and password in order to log into the video/voice over IP system, so that one can use the cloud VVoIP application to have an instant Internet video phone chat with another online user. For Android users, they will need to download and install the cloud access control authentication system and the VVoIP application released by us on the Android Market. The video transmission service used in the access control authentication is adopted from TCP/IP protocol, and the biometrics used to identify user identity is adopted from face and fingerprint images. After the identity verification is complete, users can successfully sign in online VVoIP system. Finally, regarding performance evaluation, as a result the experiments show that the proposed approach outperforms the other biometric devices in the current market.

1 摘要 ii
2 ABSTRACT iii
3 誌謝 iv
4 Directory v
5 List of Figures vi
6 List of Tables vii
Chapter 1. Introduction 1
Chapter 2. Background and Related Work 5
2.1 Biometric access control product - FaceKey 7
2.2 Biometric access control product - FACE ID2 8
2.3 Biometric access control product - eSSL 9
Chapter 3. Research Method 12
3.1 Deployment of the cloud host－Proxmox Virtual Environment 12
3.2 Establishment of access control authentication system 13
3.2.1 Create virtual machine and install Ubuntu 10.04 OS 13
3.2.2 Build application servers in the virtual machine 15
3.3 Communication architecture in both server and client 17
3.4 Operation procedure of access control authentication system 19
3.5 Setup of developing environment 21
3.6 Execution of access control authentication system 22
3.7 Performance indicators of biometrics 25
Chapter 4. Experimental Results and Discussion 29
4.1 Experimental environment 29
4.2 Experimental results 30
4.2.1 Using access control authentication system on the PC 30
4.2.2 Using access control authentication system on the browser 32
4.2.3 Using access control authentication system on the smart phone 34
4.2.4 Performance evaluation of access control authentication system 35
4.2.5 Performance assessment of access control authentication system on the smart phone 36
4.2.6 Stress test 37
Chapter 5. Conclusion 38
References 40

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