Secure Authentication. Method to identify Authorised Users as defined in Schedule 4.
Secure Authentication. Access to the Licensed Material by Shibboleth authentication, InternetProtocol ("IP") ranges, authentication by user name and user password or by another means of authentication agreed in writing between the Licensor and the Licensees from time to time.
Secure Authentication. “Secure Authentication” is the process whereby Users are authenticated by providing a set of institutional credentials to allow access to STP Products when not physically present at the Licensee’s sites or to STP Products made available on Secure Networks, including but not limited to Electronic Learning Environments.
Secure Authentication. The importance of utilizing secure authentication, including proper management of authentication credentials (login name and password) and multi-factor authentication.
Secure Authentication access to the licensed material on the Publisher's hosting service site by Internet Protocol ("IP") ranges or by a username and password provided by the Institution or by another means of comparable future developments of authentication agreed between the Publisher and the Institution
Secure Authentication. All authentication activity occurring over the network must be encrypted using industry best practices to ensure that logins and passwords are not transmitted in clear text. This includes System User and administrator authentication activity. Fully Compliant 1.3
Secure Authentication. Method to identify Contractually Defined Users as defined in Schedule 5. o. Secure Network: A network which is only accessible to Contractually Defined Users by Secure Authentication.
Secure Authentication. This key property defines that only the entities that hold the correct password will set up the corresponding network. All other entities will be expelled from the constructed network. Forward authentication. This property defines that even if a malicious partner manages to compromise a network entity in a later phase, he will still be unable to participate in the already established network. Contributory key establishment As we have stated an ad- hoc network is established when a session key is agreed among all the network entities. A single entity can easily define a session key, after the authentication procedure is successfully accomplished, and enforce it to the remaining ones. However this solution is against the principle of equality among all participating nodes of the network and moreover lacks of security. Therefore the session key should be generated throughout a process where all participating entities contribute equivalently. Resilience against attacks. An important security requirement is network tolerance against passive attacks. Even if an attacker insert, delete, or modify the messages exchanged among legitimate entities, the security of the network must remain intact and the underlying security should not be affected. The rest of the paper is organized as follows: In section 2 we start with a review of the previous relating work concerning two party and multiparty key agreement and we give a brief introduction on Elliptic Curve Theory. In section 3 we describe the new key agreement protocol and examine some of its properties. A part of the proposed algorithm is presented. We propose a new faster protocol for the dynamic case, where the composition of the network topology changes with time, as the network nodes are entering or exiting the network. A discussion concerning the implementation issues and the arising problems is presented in Section 4. Section 5 concludes this paper by remarking some issues on the already proposed algorithms and our approaches to address these issues.
Secure Authentication. Lightweight Directory Access Protocol (LDAP). Vantage is LDAP-ready. Vantage secure LDAP directory services integration for secure authentication is available through a Teradata Consulting engagement for an additional fee. Teradata supports encrypted connections between LDAPv3-compliant external directory services and a Vantage system over SSL/TLS (LDAPS). Alternatively, customers can use database authentication (TD2 in Teradata). LDAP requires Customer Directory Service and Vantage usernames to match. LDAP requires network connectivity between Vantage and the Customer external directory service. Kerberos. Teradata supports Kerberos single sign-on (SSO) secure user authentication between Customer domain users and a Vantage system where the Customer external directory service is designated as the Kerberos Key Distribution Center (KDC) This option does not require network connectivity between Vantage and the customer’s external directory service.
