603 results about "Authentication scheme" patented technology

A security architecture has been developed in which a single sign-on is provided for multiple information resources. Rather than specifying a single authentication scheme for all information resources, the security architecture associates trust-level requirements with information resources. Authentication schemes (e.g., those based on passwords, certificates, biometric techniques, smart cards, etc.) are employed depending on the trust-level requirement(s) of an information resource (or information resources) to be accessed. Once credentials have been obtained for an entity and the entity has been authenticated to a given trust level, access is granted, without the need for further credentials and authentication, to information resources for which the authenticated trust level is sufficient. The security architecture allows upgrade of credentials for a given session. This capability is particularly advantageous in the context of a single, enterprise-wide log-on. An entity (e.g., a user or an application) may initially log-on with a credential suitable for one or more resources in an initial resource set, but then require access to resource requiring authentication at higher trust level. In such case, the log-on service allows additional credentials to be provided to authenticate at the higher trust level. The log-on service allows upgrading and/or downgrading without loss of session continuity (i.e., without loss of identity mappings, authorizations, permissions, and environmental variables, etc.).

A security architecture has been developed in which a single sign-on is provided for multiple information resources. Rather than specifying a single authentication scheme for all information resources, the security architecture associates trust-level requirements with information resources. Authentication schemes (e.g., those based on passwords, certificates, biometric techniques, smart cards, etc.) are associated with trust levels and a log-on service obtains credentials for an entity commensurate with the trust-level requirement(s) of an information resource (or information resources) to be accessed. Once credentials have been obtained for an entity and the entity has been authenticated to a given trust level, access is granted, without the need for further credentials and authentication, to information resources for which the authenticated trust level is sufficient.

By including environment information in a security policy, a security architecture advantageously allows temporal, locational, connection type and/or client capabilities-related information to affect the sufficiency of a given credential type (and associated authentication scheme) for access to a particular information resource. In some configurations, time of access, originating location (physical or network) and/or connection type form a risk profile that can be factored into credential type sufficiency. In some configurations, changing environmental parameters may cause a previously sufficient credential to become insufficient. Alternatively, an authenticated credential previously insufficient for access at a given trust level may be sufficient based on a changed or more fully parameterized session environment. In some configurations, the use of session tracking facilites (e.g., the information content of session tokens) can be tailored to environmental parameters (e.g., connection type or location). Similarly, capabilities of a particular client entity (e.g., browser support for 128-bit cipher or availablity of a fingerprint scanner or card reader) may affect the availability or sufficiency of particular authentication schemes to achieve a desired trust level.

Embodiments are directed to authenticating a user to a remote application provisioning service. In one scenario, a client computer system receives authentication credentials from a user at to authenticate the user to a remote application provisioning service that provides virtual machine-hosted remote applications. The client computer system sends the received authentication credentials to an authentication service, which is configured to generate an encrypted token based on the received authentication credentials. The client computer system then receives the generated encrypted token from the authentication service, stores the received encrypted token and the received authentication credentials in a data store, and sends the encrypted token to the remote application provisioning service. The encrypted token indicates to the remote application provisioning service that the user is a valid user.

Wireless network devices discover individual mesh nodes and networks of mesh nodes. An association is formed on the basis of peer-to-peer interactions at layer-1, layer-2 and/or higher layers of the Open System Interconnect (OSI) model. In particular, the system uses Beacon, Probe Request, Probe Response, Association Request, Association Response, and Disassociation frames and introduces a new Extensible Mesh Information Element (EMIE) used by mesh nodes to discover, authenticate, and associate with other peer nodes.

The secure wireless local area network of the present invention includes a single wired network that supports both wired and wireless devices. The network addresses security concerns by including an authentication server that services a plurality of access points. Each access point includes a first authentication device that generates and transmits a first authentication message to the corresponding wireless device over an air channel. The first authentication message includes encrypted validating information about the access point including an access point key that uniquely identifies the access point. Each wireless device includes a second authentication device. The wireless device receives the first authentication message and determines whether the access point is authorized to connect to the wired network. If the access point is valid, the second authentication device responds to the first authentication message by generating and transmitting a second authentication message to the access point. The second authentication message includes encrypted validating information about the wireless device and operator, e.g., a device key and the operator's logon name and password. The access point determines the authenticity of the wireless device by decrypting the portion of the second authentication message that includes the device key. If the wireless device is valid, the AP opens a control channel with the authentication server. The AP transmits the first and second authentication messages to the authentication server. If the authentication server validates the access point and the operator's logon name and password, it will authorize access to the wired network.

A client is authenticated to a network resource wherein the client is coupled to a biometric sensor. The client signals a request to the network resource (e.g., by connecting to an access point). The network resource initiates a point-to-point LAN authentication protocol between the network resource and the client. The network resource requests biometric data from the client via the LAN authentication protocol (optionally either before or after authenticating with other credentials). The client captures biometric data of an attendant user of the client. The client transmits the captured biometric data to the network resource via the LAN authentication protocol. The network resource encapsulates the biometric data in the LAN authentication protocol into an authentication server protocol and forwards the encapsulated biometric data to an authentication server. The authentication server compares the biometric data to a biometric template stored in conjunction with the authentication server for making a determination whether the attendant user should be granted access to the network resource. The authentication server sends either an access-accept message or an access-deny message in the authentication server protocol to the network resource in response to the determination. The network resource grants access to the client only after receiving an access-accept message.

A web site can be authenticated by a third party authentication service. A user designates an authentication device that is a shared secret between the user and the authentication service. A web site page includes a URL that points to the authentication service. The URL includes a digital signature by the web site. When the user receives the page, the user's browser issues a request to the authentication service, which attempts to authenticate the digital signature. If the authentication is successful, it sends the authentication device to the user computer.

A method and system for using an Internet client's local authentication mechanism in systems having updated browser code, so as to enable third party authentication according to an authentication scheme specified by a participating server on clients with updated browser code, while not breaking clients with legacy browser code. A redirect response from a server has authentication data added thereto such that updated browser code can detect the data's presence and enable the use of local security mechanisms for authentication purposes with the server-specified authentication scheme, including local credential entry for verification at a third party login server. At the same time, if such a redirect response is received by prior browser code, the added data is ignored while conventional redirection occurs, such that third party authentication may be performed via redirection to a third party's Internet page that provides a form for credential entry.

A method is presented for managing authentication credentials for a user. A session management server performs session management with respect to the user for a domain that includes a protected resource. The session management server receives a request to access the protected resource, which requires authentication credentials that have been generated for a first type of authentication context. In response to determining that authentication credentials for the user have been generated for a second type of authentication context, the session management server sends to an authentication proxy server a first message that contains the authentication credentials for the user and an indicator for the first type of authentication context. The session management server subsequently receives a second message that contains updated authentication credentials for the user that indicate that the updated authentication credentials have been generated for the first type of authentication context.

The invention discloses an identity authentication method, an identity authentication server and an identity authentication device. The method comprises the steps that the authentication server receives a biological characteristic authentication request sent by a client, returns challenges generated randomly to the client and receives a dynamic verification password sent by the client, wherein the dynamic verification password is generated by the client time when the challenges are received, the challenges, a biological characteristic of a user and a first seed key prestored in the client; the authentication server generates a dynamic password according to the time of the authentication server when the dynamic verification password is received, the challenges, the biological characteristic of the user and a second seed key; and the authentication server verifies whether the dynamic password is consistent with the dynamic verification password and returns an identity authentication result to the client according to a verification result. With the adoption of the identity authentication method, the identity authentication server and the identity authentication device, the safety of the dynamic password is ensured through the biological characteristic, and the authenticity and reliability of the identity authentication of the user are guaranteed.

A system, method and computer program product for providing authentication to a firewall using a lightweight directory access protocol (LDAP) directory server is disclosed. The firewall can be configured through a graphical user interface to implement an authentication scheme. The authentication scheme is based upon a determination of whether at least part of one or more LDAP entries satisfy an authorization filter.

A system, device, and method for controlling access in a multicast communication network uses a centralized host authentication scheme to prevent unauthorized hosts from joining a shared multicast distribution tree. Each authorized host is allocated a unique authentication key, which is used by the designated router to encode the PIM join message and by the rendezvous point router to authenticate the PIM join message. If the PIM join message is authentic, then each PIM router from the rendezvous point router to the designated router establishes appropriate multicast routes to route multicast packets to the host. If the PIM join message is not authentic, then multicast packets are prevented from reaching the host.

Disclosed are a method and a system for mutual inclusive authentication between a service provider, a terminal and a user identity module. The authentication system is configured in a structure that can interact with a public key infrastructure of the current network security environment and can be independently used in a specific network system. The inclusive authentication method is divided into public key authentication and symmetric key authentication. Mutual authentication can be made between a service provider, a terminal and a user identity module using any of the two authentication schemes. Then a user can access content on any terminal device using the content license based on the user's identity.

An identification and authentication scheme maintains control relationships among identities in order to allow a user to dynamically grant or deny permission for a technical support representative to access the user's data, while allowing the user to retain ultimate control over access to the data. Interactions entered by the representative can be distinguished from those entered by the user, while execution paths for representative-entered interactions are configured so that, to an application, the representative-entered transactions appear substantially identical to user-entered transactions. Technical support representatives are thereby able to duplicate users' problems to enable diagnosis and resolution of problems without requiring users to reveal their passwords or login credentials.

An encrypted communication system according to the present invention comprises an authentication server in which a user password and an encryption key of a server were registered, a client involved in utilization by a user, and a server providing a service. According to the encrypted communication system, shared credentials for the client and the server to conduct encrypted communication are generated separately by the authentication server and the client based on mutually shared information, a ticket is generated in which the credentials that were generated by the authentication server are encrypted with the encryption key by the authentication server, and the client encrypts information to be sent using the credentials generated by the client and attaches the ticket that was acquired from the authentication server to the encrypted information to send the encrypted information and the ticket to the server.

System for authenticating a user for logon to a content manager running on top of a database manager. A connect procedure connects the user to a database manager; and then a logon procedure logs on the user to the content manager selectively responsive to the user connecting to the database manager; the user being authenticated by a third party by way of a user exit or a trusted logon environment and privilege; or the user being authenticated by the content manager.

A system and method for authenticating an unauthenticated file level protocol using a sidecar authentication mechanism. A client transmits an authentication ticket, UID and list of network addresses to an authentication daemon of a storage system. The authentication daemon verifies the user identity and generates a file system credential that is stored in a cache indexed by an authentication tuple. Received data access operations from a client are compared to authentication tuples by UID and network address and the file system utilizes the stored credential for processing the data access operation.

Concepts and technologies are disclosed herein for scored factor-based authentication. A verification service can receive an authentication request from a requestor, wherein the authentication request identifies a transaction. The verification service can determine a risk associated with the transaction, an authentication score based upon the risk, a plurality of groups of authentication factors, each of which the authentication score. The verification service can provide factor group data identifying the plurality of groups of authentication factors to the requestor.

A distributed computing system can operate in the face of malicious failures on the part of some of its constituent devices, and provide a minimum of message delays between receiving a client request and providing a response, when each device within the system verifies the sender of any message it receives, and the propriety of the message. The sender can be verified through message authentication schemes or digital signature schemes. The propriety of a message can be verified by receiving a sufficiently large number of equivalent, properly authenticated messages. If the number of malicious devices is represented by the variable “M”, a sufficient number of equivalent, properly authenticated messages to verify that the message is true can be any number of messages greater than M. Furthermore, to verify that a leader device is not maliciously submitting different proposals to different devices using the same proposal number, a quorum of devices can be required to select a proposal, where a quorum is a sufficiently large number of devices such that any other quorum has, as a majority of its devices, non-malicious devices from the first quorum. Therefore, the distributed computing system can operate properly with M number of malicious failures and F number of total failures, and with a minimum of message delays, if the number of constituent devices in the distributed computing system is greater than 3F+2M. Additionally, if the distributed computing system can revert to a more traditional algorithm if too many devices fail or become malicious, it can use a message-delay-reducing algorithm while having as few as 2Q+F+2M+1 constituent devices, where Q is the number of devices that can fail and still allow the system to use a message-delay-reducing algorithm.