A Lightweight Continuous Authentication Protocol for Internet of Things
管理學院 - 資訊管理系
Department of Information Management
|Thesis Publication Year:||2016|
|Graduation Academic Year:||104|
|Keywords (in Chinese):||物聯網 、連續性身分鑑別 、安全性分析|
|Keywords (in other languages):||Internet of Things, Continuous Authentication, Security Analysis|
|Reference times:||Clicks: 84 Downloads: 13|
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隨著資訊科技的進步，智慧型感測裝置與無線通訊技術的成熟，使得物聯網(Internet of Things)時代的來臨，物聯網出現將帶給我們更舒適的生活方式，但由於感測裝置皆被部屬在開放與無人看守的環境中，使得感測裝置很容易受到攻擊，因此在物聯網中很需要一套安全的身分鑑別機制來確保資料的可用性與真實性。而近年來有些相關研究方法被提出，但物聯網有著在短時間內進行頻繁傳輸資料的現象，然而這些過去的研究方法尚未考慮到物聯網這種特別的現象，因為在短時間大量傳資料會使得感測裝置需要頻繁地進行通訊前的身分鑑別，對於資源受限的感測裝置將會耗費相當的資源與時間，因此設計一套有效率的身分鑑別機制是非常重要的。
In recent years, Information Technology (IT) has been developing rapidly. Smart phones, wearable devices, sensors, and wireless network technologies are getting more and more well-developed. As a consequence, we have come to the era of Internet of Things (IoT). The IoT will bring a more convenient and comfortable life. However, the sensors are deployed in unguarded surroundings, in which these devices are easily attacked. In order to ensure the availability and authenticity of information, it is important to establish secure authentication between IoT devices. There are some related approaches have been proposed. In addition, the devices need to regularly transmit sensed data to other devices in a short time period. According to the existing approach, the sensors need to frequently authentication in the beginning of each data transmission session. The resource-limited devices cost respectable resources and time in the course of such authentication. Hence, an effective and lightweight authentication protocol is vital to IoT environment.
In this thesis, we propose a device-based lightweight continuous authentication protocol for IoT environment to address the issues mentioned above. We introduce time-bounded concept in our protocol. We utilize token and the dynamic factor of IoT device to quickly authenticate communicating parties in each session. The security analysis proves that the proposal protocol satisfies security requirements. Hence, the proposed protocol is favorable and effective between devices for IoT environments.
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