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研究生:黃國軒
論文名稱:植基於橢圓曲線密碼系統的門檻簽章和鑑別加密機制之研究
論文名稱(外文):A Study of Threshold Signature and Authenticated Encryption Schemes based on the Elliptic Curve Cryptosystem
指導教授:陳澤雄陳澤雄引用關係、余心淳
學位類別:碩士
校院名稱:大葉大學
系所名稱:資訊工程學系碩士班
學門:工程學門
學類:電資工程學類
論文種類:學術論文
論文出版年:2003
畢業學年度:91
語文別:英文
論文頁數:75
中文關鍵詞:門檻簽章、鑑別加密機制、分工簽章、訊息鏈結、橢圓曲線密碼系統
外文關鍵詞:threshold signature、authenticated encryption scheme、division-labor signature、message linkage、elliptic curve cryptosystem
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門檻(threshold)的概念在群體導向的簽章機制中被廣泛的應用。截至目前為止,有為數眾多的文章在不斷的探討及發展門檻簽章(threshold signature)。近幾年,門檻驗證(threshold verification)被提出後,也逐漸引起多方關注。考量二者之特性,本論文中將這兩種研究概念加以整合,並且提出一個可指定驗證者的群體導向門檻簽章機制。在該簽章機制中,不論是簽章的產生或驗證,其參與人數不要求全體成員的參與,但須達到一個特定的門檻值。此外,在驗證者的部分,只有被指定的驗證者才有資格進行簽章的驗證,這樣的限制在某些特定情況下將形成一定的效用與安全防範。
為了同時達到訊息傳遞的機密性(privacy)、完整性(integrity)及鑑別性(authenticity),本文中尚提出一種低運算量及低通訊量的鑑別加密機制(authenticated encryption scheme),其中並且包含門檻簽章(threshold signature)與門檻驗證(threshold verification)的特性。
此外,由於考慮所簽署文件的長度可能過大造成簽署者的工作負荷,文中也引入分工(division of labor)及訊息鏈結(message linkage)的概念,提出具有訊息鏈結的分工簽章之門檻鑑別加密機制。在有效減少各個簽署者對於訊息審核及簽章所需花費的時間的同時,也降低其工作負擔,提昇工作效率,並且根據訊息鏈結的特性,驗證者具有能力判別所收到的群體簽章區塊(group-signature block)是否遭人惡意打亂其次序或竄改其內容。
為了使所提的方法具有更佳的執行效率,本研究採用橢圓曲線密碼系統(elliptic curve cryptosystem)為應用平台,使所提方法的安全性構築於橢圓曲線離散對數問題(elliptic curve discrete logarithm problem)的困難度上。
The concept of threshold is broadly used in the group-oriented signature schemes. So far there are numerous studies on the investigation and development of threshold signature. Since the idea of threshold verification is initialed in recent years, it increasingly attracts many researchers’ attentions. In the thesis, these two ideas are integrated into a specified-verifier group-oriented threshold signature scheme. In the proposal, no matter the generation and verification of signature, a threshold value is used in qualifying the number of participants instead of all members’ participance. Moreover, for the part of verifier, no one except for the specific verifier is able to verify a signature. Such a characteristic can be fit to some certain situation.
Furthermore, a new type of authenticated encryption scheme is proposed for achieving the security requirements of privacy, integrity, and authenticity at the same time. Such a kind of scheme is not only provided with the functions and characteristics of the above-mentioned threshold signature and threshold verification schemes, but also with the low-operation and low-communication advantages.
Besides, take the size of messages into account, especially the over-large messages, the concepts of labor division and message linkage are inducted into the proposal ─ a division-labor signature threshold authenticated encryption scheme with message linkage. In the proposal, an over-large message is divided into several readable sub-messages in advance so as to assign these sub-messages to the participant for being examined and signed. Following the way, the workload of signer can be reduced, and the efficiency of performance is also promoted. According to the characteristic of message linkage, a verifier is able to determine whether the content of received group-signature block has been maliciously permuted or altered.
For offering higher efficiency in performance, the elliptic curve cryptosystem is used in the proposals. The security is based on the difficulty for solving the elliptic curve discrete logarithm problem.
封面內頁
簽名頁
授權書 iii
中文摘要 v
英文摘要 vii
誌謝 ix
目錄 x
表目錄 xii
Chapter 1 Introduction 01
1.1 Background of Research 01
1.2 Motivation and Contribution of Research 03
1.3 Organization of Research 05
Chapter 2 The Elliptic Curve Cryptosystem 07
2.1 The Finite Field Fp and F2m 09
2.2 Arithmetic in an Elliptic Curve Group over Fp 13
2.3 Arithmetic in an Elliptic Curve Group over F2m 15
2.4 Elliptic Curve Discrete Logarithm Problem 18
Chapter 3 Integrated Application of Threshold Signature and Threshold Verification 19
3.1 Review of the Scheme by Hsu 20
3.2 The Proposed Scheme 24
3.3 Estimation of Security and Performance 29
3.4 Discussions 33
Chapter 4 An Authenticated Encryption Scheme 34
4.1 Review of the Scheme by Hsu 35
4.2 The Proposed Scheme 40
4.3 Estimation of Security and Performance 46
4.4 Discussions 49
Chapter 5 Extend Application of Division Labor and Message
Linkage to Authenticated Encryption Scheme 51
5.1 Review of the Scheme by Tseng and Jan 54
5.2 The Proposed Authenticated Encryption Scheme 56
5.3 Estimation of Security and Performance 61
5.4 Discussions 66
Chapter 6 Conclusions 67
6.1 Contribution of the Research 67
6.2 Perspective of the Research 68
References 70
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