Abstract:
A method and an apparatus are presented for providing federated functionality within a data processing system. An incoming first request is received at point-of-contact functionality. In response to a determination that information derived from the received request requires processing by federated user lifecycle management functionality, the derived information is sent from the point-of-contact functionality to the federated user lifecycle management functionality.
Abstract:
A method, system, and computer usable program product for dynamic access to radio networks are provided in the illustrative embodiments. A new radio network having a characteristic more suitable than a corresponding characteristic of a present radio network is detected. A request for access to the new radio network is sent, the request including a token, which includes structured information about a user, a device, a home network, or a billing service. Access to the new radio network is received. Switching is performed from the present radio network to the new radio network for wireless communication. The request for access to a radio network is received such that the requestor is not known to a provider of the radio network. The requestor is verified using a billing service provider or a home network provider identified in a token in the request. Upon verification, access is granted to the radio network.
Abstract:
A method, system, or computer program product is presented for cross-domain, single-sign-on, authentication functionality. The methodology uses an introductory authentication token to introduce an already authenticated user from one domain to a new domain. This token is passed from one domain to the other domain using HTTP-redirection. This token is protected by encryption with a cryptographic key shared only between the two domain in a secure manner such that an external user cannot generate a counterfeit introductory token. An introductory token is further protected by enabling it with a limited lifetime so that an unauthorized user would not be able to use or reuse the introductory token within the token s lifetime. After a user has been introduced to a new security domain, then all of the user's resource requests are authorized by the new domain.
Abstract:
Policy controls for Web service resource objects in a hierarchical resource space are loosely coupled so that policy changes are applied and enforced across the objects. This technique ensures that different policies are not applied unintentionally to the same resource (for example, one at the Web services entry level, and the other at the resource level). By synchronizing the object in the manner described, neither the entity that deploys the applicat ion nor the security administrator need to be aware of the differences between the various types of requests that occur within a Web services environment. In a representative embodiment, resource objects are linked within a hierarchical resource space to provide synchronized policy control, where the policy is an audit policy, a quality-of-service (QoS) policy, a service level agreement (SLA) policy, a governance policy, a compliance policy, a patch management/vulnerability management policy, a user management policy, or a rights management policy.
Abstract:
A mobile device identifier (such as an MSISDN) that typically accompanies a mobile device request is replaced with an "enriched" identifier that exposes the mobile device user's home operator but obfuscates the mobile device's (and, thus, the device user's) identity. In one embodiment, the identifier comprises a first part, and a second part. The first part comprises a data string that identifies (either directly or through a database lookup) the mobile device user's home operator. The second part, however, is an opaque data string, such as a one-time-use unique identifier (UID) or a value that is otherwise derived as a function of the MSISDN (or the like). The opaque data string encodes the mobile device's identity in a manner that preferably can be recovered only by the user's home operator. The present invention describes a method and apparatus for use in a home network to manage the generation, storage and use of the unique identifiers.
Abstract:
A mobile device identifier (such as an MSISDN) that typically accompanies a mobile device request is replaced with an "enriched" identifier that exposes the mobile device user's home operator but obfuscates the mobile device's (and, thus, the device user's) identity. In one embodiment, the identifier comprises a first part, and a second part. The first part comprises a data string that identifies (either directly or through a database lookup) the mobile device user's home operator. The second part, however, is an opaque data string, such as a one-time-use unique identifier (UID) or a value that is otherwise derived as a function of the MSISDN (or the like). The opaque data string encodes the mobile device's identity in a manner that preferably can be recovered only by the user's home operator (or an entity authorized thereby). When the mobile device user roams into a foreign network, that network receives the enriched identifier in lieu of an MSISDN. The foreign network uses the first part to identify the mobile device user's home network, e.g., to determine whether to permit the requested access (or to provide some other value-added service). The foreign network, however, cannot decode the second part; thus, the mobile device's identity (as well as the identity of the mobile device user) remains obscured. This ensures that the user's privacy is maintained, while preventing third parties from building a profile of the device based on the requests that include the MSISDN or similar identifier.
Abstract:
A mobile device identifier (such as an MSISDN) that typically accompanies a mobile device request is replaced with an "enriched" identifier that expo ses the mobile device user's home operator but obfuscates the mobile device' s (and, thus, the device user's) identity. In one embodiment, the identifier comprises a first part, and a second part. The first part comprises a data string that identifies (either directly or through a database lookup) the mo bile device user's home operator. The second part, however, is an opaque dat a string, such as a one-time-use unique identifier (UID) or a value that is otherwise derived as a function of the MSISDN (or the like). The opaque data string encodes the mobile device's identity in a manner that preferably can be recovered only by the user's home operator (or an entity authorized ther eby). When the mobile device user roams into a foreign network, that network receives the enriched identifier in lieu of an MSISDN. The foreign network uses the first part to identify the mobile device user's home network, e.g., to determine whether to permit the requested access (or to provide some oth er value-added service). The foreign network, however, cannot decode the sec ond part; thus, the mobile device's identity (as well as the identity of the mobile device user) remains obscured. This ensures that the user's privacy is maintained, while preventing third parties from building a profile of the device based on the requests that include the MSISDN or similar identifier.
Abstract:
A method, system, or computer program product is presented for cross-domain, single-sign-on, authentication functionality. A user may contract with one o r more authentication service providers ANSPs. E-commerce service providers ECSPs, such as online banks or online merchants, also maintain a relationshi p with an ANSP such that the ECSP can trust the authenticated identity of a us er that is vouched-for by the ANSP on behalf of the user. The user can visit an y e-commerce service provider in a federated environment without having to establish an a priori relationship with that particular ECSP. As long as the ECSP's domain has a relationship with at least one of the user's authentication service providers, then the user will be able to have a singl e- sign-on experience at that ECSP.
Abstract:
A proxy is integrated within an F-SSO environment and interacts with an external identity provider (IdP) instance discovery service. The proxy proxies IdP instance requests to the discovery service and receives responses that include the IdP instance assignments. The proxy maintains a cache of the instance assignment(s). As new instance requests are received, the cached assignment data is used to provide appropriate responses in lieu of proxying these requests to the discovery service, thereby reducing the time needed to identify the required IdP instance. The proxy dynamically maintains and manages its cache by subscribing to updates from the discovery service. The updates identify IdP instance changes (such as servers being taken offline for maintenance, new services being added, etc.) occurring within the set of geographically-distributed instances that comprise the IdP service. The updates are provided via a publication-subscription model such that the proxy receives change notifications proactively.