Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

International Conference on Next Generation Mobile Applications, Services and Technologies (NGMAST)

A Secure Authentication and Key Agreement Protocol for Telecare Medicine Information System

Xuanang Li, Zhiming Zheng, Xiao Li Zhang

Published Sep 1, 2015• 2 citations
Publisher

Abstract

Telecare Medicine Information System enables patients to get healthcare services at home expediently and efficiently. Authentication and key agreement protocol suited for TMIS protect patient's privacy via the unsecure network. Recently, numerous protocols have been proposed intend to safeguard the communication between patients and server. However, most of them have high computation overhead and security problems. In this paper, we aim to propose a secure and effective authentication and key agreement protocol using smartcard and password for TMIS. The protocol is based on elliptic curve cryptography. Through security analysis we illustrate that our protocol is secure to resist some known attacks and provide user anonymity. Furthermore, by comparing with other related protocols we show our protocol is superior in security and performance aspects.

DOI
10.1109/ngmast.2015.75

Related papers

An enhanced anonymous and unlinkable user authentication and key agreement protocol for TMIS by utilization of ECC

Arezou Ostad‐Sharif, Dariush Abbasinezhad‐Mood, Morteza Nikooghadam

Summary The telecare medicine information systems (TMISs) not only help patients to receive incessant health care services but also assist the medical staffs to access patients' electronic health records anytime and from anywhere via Internet. Since the online communications are exposed to numerous security threats, the mutual authentication and key agreement between patients and the medical servers are of prime significance. During the recent years, various user authentication schemes have been suggested for the TMISs. Nonetheless, most of them are susceptible to some known attacks or have high computational cost. Newly, an effective remote user authentication and session key agreement protocol has been introduced by Ravanbakhsh and Nazari for health care systems. Besides the nice contributions of their work, we found that it has two security weaknesses, namely, known session‐specific temporary information attack and lack of perfect forward secrecy. As a result, to overcome these deficiencies, this paper suggests a novel anonymous and unlinkable user authentication and key agreement scheme for TMISs using the elliptic curve cryptosystem (ECC). We have evaluated the security of the proposed scheme by applying the automated validation of internet security protocols and applications (AVISPA) tool with the intention of indicating that our scheme can satisfy the vital security features. In addition, we have compared the proposed protocol with related schemes to show that it has a proper level of performance. The obtained results demonstrate that the new scheme is more preferable considering both efficiency and security criteria.

International Journal of Communication Systems•Feb 5, 2019•54 citations

Privacy-Preserved, Provable Secure, Mutually Authenticated Key Agreement Protocol for Healthcare in a Smart City Environment

Shaheena Khatoon, Sk. Md. Mizanur Rahman, Majed Alrubaian +1 more

Smart home systems can provide health care services for people with special needs in their own homes. Briefly defined, such a smart home has special electronics to enable the remote control of automated devices specifically designed for remote health care to ensure the safety of the patient at home and the supervision of their health status. These sensors are linked to a local intelligence unit responsible for analyzing sensor data, detecting emergency situations, and interfacing between the patient at home and a set of people involved in their health care, such as doctors, nurses, emergency services, and paramedics. Smart homes can improve the patient's quality of life and safety through the innovative use of advanced technologies. Telemedicine and telecare are driving forces behind the adoption of smart homes. The telecare medicine information system (TMIS) has drawn worldwide attention for the past 20 years, as modern technologies have made remote delivery of healthcare a reality. TMIS using multidisciplinary research and application involves advanced technologies in information processing, telecommunications, bio-sensing, and artificial intelligence including smart technologies. TMIS leverages the latest mobile and wireless communication technologies and widely available internet infrastructure to deliver quality services to home patients enabling them to remotely access information about their health and obtain telemedical services. TMIS delivers capabilities to remotely provide $24\times 7$ health care facilities to patients. Its purpose is to provide patients with convenient and expedited remote health care services, greatly improving the quality and efficiency of health care services. However, the open and insecure nature of the internet poses a number of security threats to patient secrecy and privacy. Security design for TMIS is not trivial. Essential security and privacy are provided by mutual authentication and key agreement protocols. This paper proposes an efficient and secure, bilinear pairing-based, unlink-able, mutual authentication and key agreement protocol for TMIS. The proposed protocol adopts a fuzzy extractor for the identification of patients using the biometric data. The security of the proposed protocol is based on the hardness of the elliptic curve discrete logarithm problem (ECDLP) and elliptic curve computational Diffie-Hellman problem (ECCDHP) to preserve the privacy of the user. The detailed security analysis is discussed, and the results of comparison are provided.

IEEE Access•Jan 1, 2019•89 citations

An Anonymous Authenticated Key Agreement Scheme for Telecare Medical Information Systems

Ghassan Hameed Faraj, Kamal Shahtalebi, Hamid Mala

With the rapid development of information technology from one side and the experience of the COVID-19 pandemic from the other side, people presently prefer to access healthcare services remotely. Telecare Medical Information System (TMIS) provides more flexible, faster, and more convenient e-healthcare services available to all people, particularly those who lack access to physicians due to their geographical restrictions. However, due to the sensitivity of medical information, preventing unauthorized access to patient data and preserving patient privacy is crucial. In this paper, we propose an authenticated key agreement scheme for TMIS to preserve the privacy of the patient’s identity from all internal (even the health server and the physician) and external entities. Moreover, the physician’s identity is kept secret from all external entities. Formal and informal security analysis of the proposed scheme indicates that it is secure against all attacks in the context.

Cryptography•Nov 13, 2024•4 citations

An enhanced scheme for mutual authentication for healthcare services

Salman Shamshad, Muhammad Faizan Ayub, Khalid Mahmood +3 more

With the advent of state-of-art technologies, the Telecare Medicine Information System (TMIS) now offers fast and convenient healthcare services to patients at their doorsteps. However, this architecture engenders new risks and challenges to patients' and the server's confidentiality, integrity and security. In order to avoid any resource abuse and malicious attack, employing an authentication scheme is widely considered as the most effective approach for the TMIS to verify the legitimacy of patients and the server. Therefore, several authentication protocols have been proposed to this end. Very recently, Chaudhry et al. identified that there are vulnerabilities of impersonation attacks in Islam et al.'s scheme. Therefore, they introduced an improved protocol to mitigate those security flaws. Later, Qiu et al. proved that these schemes are vulnerable to the man-in-the-middle, impersonation and offline password guessing attacks. Thus, they introduced an improved scheme based on the fuzzy verifier techniques, which overcome all the security flaws of Chaudhry et al.'s scheme. However, there are still some security flaws in Qiu et al.'s protocol. In this article, we prove that Qiu et al.'s protocol has an incorrect notion of perfect user anonymity and is vulnerable to user impersonation attacks. Therefore, we introduce an improved protocol for authentication, which reduces all the security flaws of Qiu et al.'s protocol. We also make a comparison of our protocol with related protocols, which shows that our introduced protocol is more secure and efficient than previous protocols.

Digital Communications and Networks•Jul 16, 2021•64 citations

REAS-TMIS: Resource-Efficient Authentication Scheme for Telecare Medical Information System

Muhammad Tanveer, Abd Ullah Khan, Ahmed Hussein Alkhayyat +3 more

The phenomenal growth of smartphones and wearable devices has begun crowd-sourcing applications for the Internet of Things (IoT). E-healthcare is considered the essential service for crowd-sourcing IoT applications that help remote access or storage medical server (MS) data to the authorized doctors, patients, nurses, etc., via the public Internet. As the public Internet is exposed to various security attacks, remote user authenticated key exchange (AKE) has become a pressing need for the secure and reliable use of these services. This paper proposes a new resource-efficient AKE scheme for telecare medical information systems, called REAS-TMIS. It uses authenticated encryption with associative data (AEAD) and a hash function. AEAD schemes are devised specifically for encrypted communication among resource-constricted IoT devices. These features of AEAD make REAS-TMIS resource-efficient. Moreover, REAS-TMIS dispenses with the elliptic curve point multiplication and chaotic map that are computationally expensive operations. In addition, REAS-TMIS renders the functionality of session key (SK) establishment for future encrypted communication between MS and users after validating the authenticity of the user. The security of SK is corroborated employing the well establish random oracle model. Moreover, Scyther-based security corroboration is implemented to show that REAS-TMIS is secure, and informal security analysis is executed to show the resiliency of REAS-TMIS against various security attacks. Besides, a thorough analysis shows that REAS-TMIS, while accomplishing the authentication phase, requires less computational, communication, and storage resources than the related authentication protocol.

IEEE Access•Jan 1, 2022•48 citations

Privacy-Enhancing Authenticated Key Agreement Protocols Based on Elliptic Curve Cryptosystem

Hong Lei

Authenticated key agreement protocol is designed to provide pair of parties communicating over an insecure network with a secure session key.However,most of the existing authenticated key agreement protocols are not designed for protecting privacy.We emphasize user's privacy properties in network services,in particular we stress anonymity and deniability.We specify the desired security properties of privacy-enhancing authentication key agreement protocols,i.e.mutual authentication,key control,key confirmation,session-key confidentiality,known-key security,forward secrecy,anonymity of user,forward anonymity of user,unlinkability,deniability.Based on elliptic curve cryptosystem we also propose a protocol which satisfies all the desired security properties.

Dianzi xuebao•Jan 1, 2008•4 citations
Telecare Medicine Information System enables patients to get healthcare services at home expediently and efficiently. Authentication and key agreement protocol suited for TMIS protect patient's privacy via the unsecure network. Recently, numerous protocols have been proposed intend to safeguard the communication between patients and server. However, most of them have high computation overhead and security problems. In this paper, we aim to propose a secure and effective authentication and key agreement protocol using smartcard and password for TMIS. The protocol is based on elliptic curve cryptography. Through security analysis we illustrate that our protocol is secure to resist some known attacks and provide user anonymity. Furthermore, by comparing with other related protocols we show our protocol is superior in security and performance aspects.
Summary The telecare medicine information systems (TMISs) not only help patients to receive incessant health care services but also assist the medical staffs to access patients' electronic health records anytime and from anywhere via Internet. Since the online communications are exposed to numerous security threats, the mutual authentication and key agreement between patients and the medical servers are of prime significance. During the recent years, various user authentication schemes have been suggested for the TMISs. Nonetheless, most of them are susceptible to some known attacks or have high computational cost. Newly, an effective remote user authentication and session key agreement protocol has been introduced by Ravanbakhsh and Nazari for health care systems. Besides the nice contributions of their work, we found that it has two security weaknesses, namely, known session‐specific temporary information attack and lack of perfect forward secrecy. As a result, to overcome these deficiencies, this paper suggests a novel anonymous and unlinkable user authentication and key agreement scheme for TMISs using the elliptic curve cryptosystem (ECC). We have evaluated the security of the proposed scheme by applying the automated validation of internet security protocols and applications (AVISPA) tool with the intention of indicating that our scheme can satisfy the vital security features. In addition, we have compared the proposed protocol with related schemes to show that it has a proper level of performance. The obtained results demonstrate that the new scheme is more preferable considering both efficiency and security criteria.
Smart home systems can provide health care services for people with special needs in their own homes. Briefly defined, such a smart home has special electronics to enable the remote control of automated devices specifically designed for remote health care to ensure the safety of the patient at home and the supervision of their health status. These sensors are linked to a local intelligence unit responsible for analyzing sensor data, detecting emergency situations, and interfacing between the patient at home and a set of people involved in their health care, such as doctors, nurses, emergency services, and paramedics. Smart homes can improve the patient's quality of life and safety through the innovative use of advanced technologies. Telemedicine and telecare are driving forces behind the adoption of smart homes. The telecare medicine information system (TMIS) has drawn worldwide attention for the past 20 years, as modern technologies have made remote delivery of healthcare a reality. TMIS using multidisciplinary research and application involves advanced technologies in information processing, telecommunications, bio-sensing, and artificial intelligence including smart technologies. TMIS leverages the latest mobile and wireless communication technologies and widely available internet infrastructure to deliver quality services to home patients enabling them to remotely access information about their health and obtain telemedical services. TMIS delivers capabilities to remotely provide 24×724\times 724×7 health care facilities to patients. Its purpose is to provide patients with convenient and expedited remote health care services, greatly improving the quality and efficiency of health care services. However, the open and insecure nature of the internet poses a number of security threats to patient secrecy and privacy. Security design for TMIS is not trivial. Essential security and privacy are provided by mutual authentication and key agreement protocols. This paper proposes an efficient and secure, bilinear pairing-based, unlink-able, mutual authentication and key agreement protocol for TMIS. The proposed protocol adopts a fuzzy extractor for the identification of patients using the biometric data. The security of the proposed protocol is based on the hardness of the elliptic curve discrete logarithm problem (ECDLP) and elliptic curve computational Diffie-Hellman problem (ECCDHP) to preserve the privacy of the user. The detailed security analysis is discussed, and the results of comparison are provided.
With the rapid development of information technology from one side and the experience of the COVID-19 pandemic from the other side, people presently prefer to access healthcare services remotely. Telecare Medical Information System (TMIS) provides more flexible, faster, and more convenient e-healthcare services available to all people, particularly those who lack access to physicians due to their geographical restrictions. However, due to the sensitivity of medical information, preventing unauthorized access to patient data and preserving patient privacy is crucial. In this paper, we propose an authenticated key agreement scheme for TMIS to preserve the privacy of the patient’s identity from all internal (even the health server and the physician) and external entities. Moreover, the physician’s identity is kept secret from all external entities. Formal and informal security analysis of the proposed scheme indicates that it is secure against all attacks in the context.
With the advent of state-of-art technologies, the Telecare Medicine Information System (TMIS) now offers fast and convenient healthcare services to patients at their doorsteps. However, this architecture engenders new risks and challenges to patients' and the server's confidentiality, integrity and security. In order to avoid any resource abuse and malicious attack, employing an authentication scheme is widely considered as the most effective approach for the TMIS to verify the legitimacy of patients and the server. Therefore, several authentication protocols have been proposed to this end. Very recently, Chaudhry et al. identified that there are vulnerabilities of impersonation attacks in Islam et al.'s scheme. Therefore, they introduced an improved protocol to mitigate those security flaws. Later, Qiu et al. proved that these schemes are vulnerable to the man-in-the-middle, impersonation and offline password guessing attacks. Thus, they introduced an improved scheme based on the fuzzy verifier techniques, which overcome all the security flaws of Chaudhry et al.'s scheme. However, there are still some security flaws in Qiu et al.'s protocol. In this article, we prove that Qiu et al.'s protocol has an incorrect notion of perfect user anonymity and is vulnerable to user impersonation attacks. Therefore, we introduce an improved protocol for authentication, which reduces all the security flaws of Qiu et al.'s protocol. We also make a comparison of our protocol with related protocols, which shows that our introduced protocol is more secure and efficient than previous protocols.
The phenomenal growth of smartphones and wearable devices has begun crowd-sourcing applications for the Internet of Things (IoT). E-healthcare is considered the essential service for crowd-sourcing IoT applications that help remote access or storage medical server (MS) data to the authorized doctors, patients, nurses, etc., via the public Internet. As the public Internet is exposed to various security attacks, remote user authenticated key exchange (AKE) has become a pressing need for the secure and reliable use of these services. This paper proposes a new resource-efficient AKE scheme for telecare medical information systems, called REAS-TMIS. It uses authenticated encryption with associative data (AEAD) and a hash function. AEAD schemes are devised specifically for encrypted communication among resource-constricted IoT devices. These features of AEAD make REAS-TMIS resource-efficient. Moreover, REAS-TMIS dispenses with the elliptic curve point multiplication and chaotic map that are computationally expensive operations. In addition, REAS-TMIS renders the functionality of session key (SK) establishment for future encrypted communication between MS and users after validating the authenticity of the user. The security of SK is corroborated employing the well establish random oracle model. Moreover, Scyther-based security corroboration is implemented to show that REAS-TMIS is secure, and informal security analysis is executed to show the resiliency of REAS-TMIS against various security attacks. Besides, a thorough analysis shows that REAS-TMIS, while accomplishing the authentication phase, requires less computational, communication, and storage resources than the related authentication protocol.
Authenticated key agreement protocol is designed to provide pair of parties communicating over an insecure network with a secure session key.However,most of the existing authenticated key agreement protocols are not designed for protecting privacy.We emphasize user's privacy properties in network services,in particular we stress anonymity and deniability.We specify the desired security properties of privacy-enhancing authentication key agreement protocols,i.e.mutual authentication,key control,key confirmation,session-key confidentiality,known-key security,forward secrecy,anonymity of user,forward anonymity of user,unlinkability,deniability.Based on elliptic curve cryptosystem we also propose a protocol which satisfies all the desired security properties.