57236results about "Digital data authentication" patented technology

Rights management information is used at least in part in a matching, narrowcasting, classifying and / or selecting process. A matching and classification utility system comprising a kind of Commerce Utility System is used to perform the matching, narrowcasting, classifying and / or selecting. The matching and classification utility system may match, narrowcast, classify and / or select people and / or things, non-limiting examples of which include software objects. The Matching and Classification Utility system may use any pre-existing classification schemes, including at least some rights management information and / or other qualitative and / or parameter data indicating and / or defining classes, classification systems, class hierarchies, category schemes, class assignments, category assignments, and / or class membership. The Matching and Classification Utility may also use at least some rights management information together with any artificial intelligence, expert system, statistical, computational, manual, or any other means to define new classes, class hierarchies, classification systems, category schemes, and / or assign persons, things, and / or groups of persons and / or things to at least one class.

Documents and other items can be delivered electronically from sender to recipient with a level of trustedness approaching or exceeding that provided by a personal document courier. A trusted electronic go-between can validate, witness and / or archive transactions while, in some cases, actively participating in or directing the transaction. Printed or imaged documents can be marked using handwritten signature images, seal images, electronic fingerprinting, watermarking, and / or steganography. Electronic commercial transactions and transmissions take place in a reliable, "trusted" virtual distribution environment that provides significant efficiency and cost savings benefits to users in addition to providing an extremely high degree of confidence and trustedness. The systems and techniques have many uses including but not limited to secure document delivery, execution of legal documents, and electronic data interchange (EDI).

A method and device are provided for controlling access to data. Portions of the data are protected and rules concerning access rights to the data are determined. Access to the protected portions of the data is prevented, other than in a non-useable form; and users are provided access to the data only in accordance with the rules as enforced by a mechanism protected by tamper detection. A method is also provided for distributing data for subsequent controlled use of those data. The method includes protecting portions of the data; preventing access to the protected portions of the data other than in a non-useable form; determining rules concerning access rights to the data; protecting the rules; and providing a package including: the protected portions of the data and the protected rules. A user is provided controlled access to the distributed data only in accordance with the rules as enforced by a mechanism protected by tamper protection. A device is provided for controlling access to data having protected data portions and rules concerning access rights to the data. The device includes means for storing the rules; and means for accessing the protected data portions only in accordance with the rules, whereby user access to the protected data portions is permitted only if the rules indicate that the user is allowed to access the portions of the data.

The present invention provides systems and methods for authenticating access requests from user devices by presenting one of a plurality of graphical user interfaces selected depending on a perceived risk of fraud associated with the devices. User devices are identified with fingerprinting information, and their associated risks of fraud are determined from past experience with the device or with similar devices and from third party information. In preferred embodiments, different graphical user interfaces are presented based on both fraud risk and, in the case of a known user, usability. In preferred embodiments, this invention is implemented as a number of communicating modules that identify user devices, assess their risk of fraud, present selected user interfaces, and maintain databases of fraud experiences. This invention also includes systems providing these authentication services.

A method, and an apparatus performing the method, is provided by authenticating a mobile device communicably connectable to a wireless network by an authentication parameter from a secure transaction server (STS), as a mobile device authenticator; providing an STS correlation between a personal identification entry (PIE) and the mobile device authenticator; and inputting, by a user, the PIE and a provider action, to the mobile device authenticator to transmit a transformed secure user authenticable authorization request to the STS over the wireless network to authorize an action with a provider.

The interactive authentication system allows a consumer to interact with a base station, such as broadcast media (e.g., television and radio) or PC, to receive coupons, special sales offers, and other information with an electronic card. The electronic card can also be used to transmit a signal that can be received by the base station to perform a wide variety of tasks. These tasks can include launching an application, authenticating a user at a website, and completing a sales transaction at a website (e.g., by filling out a form automatically). The interaction between the base station and the electronic card is accomplished by using the conventional sound system in the base station so that a special reader hardware need not be installed to interact with the electronic card. The user is equipped with an electronic card that can receive and transmit data via sound waves. In the various embodiments, the sound waves can be audible or ultrasonic (which can be slightly audible to some groups of people).

A method and a system are presented in which federated domains interact within a federated environment. Domains within a federation can initiate federated single-sign-on operations for a user at other federated domains. A point-of-contact server within a domain relies upon a trust proxy within the domain to manage trust relationships between the domain and the federation. Trust proxies interpret assertions from other federated domains as necessary. Trust proxies may have a trust relationship with one or more trust brokers, and a trust proxy may rely upon a trust broker for assistance in interpreting assertions. When a user is provisioned at a particular federated domain, the federated domain can provision the user to other federated domains within the federated environment. A provision operation may include creating or deleting an account for a user, pushing updated user account information including attributes, and requesting updates on account information including attributes.

A system, apparatus, method, and machine readable medium are described for performing advanced authentication techniques and associated applications. For example, one embodiment of a method comprises: receiving a policy identifying a set of acceptable authentication capabilities; determining a set of client authentication capabilities; and filtering the set of acceptable authentication capabilities based on the determined set of client authentication capabilities to arrive at a filtered set of one or more authentication capabilities for authenticating a user of the client.

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.).

Computer display privacy and security for computer systems. In one aspect, the invention provides a computer-controlled system for regulating the interaction between a computer and a user of the computer based on the environment of the computer and the user. For example, the computer-controlled system provided by the invention comprises an input-output device including an image sensor configured to collect facial recognition data proximate to the computer. The system also includes a user security parameter database encoding security parameters associated with the user; the database is also configured to communicate with the security processor. The security processor is configured to receive the facial recognition data and the security parameters associated with the user, and is further configured to at least partially control the operation of the data input device and the data output device in response to the facial recognition data and the security parameters associated with the user.

A system and method authenticates users via any two or three of 1) Something the user knows; 2) Something the user has; and 3) A physical characteristic of the user.

Apparatus and methods perform transactions in a secure environment between an individual and another party, such as a merchant, in various embodiments. The individual possesses a mobile electronic device, such as a smartphone, that can encrypt data according to a public key infrastructure. The individual authenticates the individual's identity to the device, thereby unlocking credentials that may be used in a secure transaction. The individual causes the device to communicate the credentials, in a secure fashion, to an electronic system of a relying party, in order to obtain the relying party's authorization to enter the transaction. The relying party system determines whether to grant the authorization, and communicates the grant and the outcome of the transaction to the device using encryption according to the public key infrastructure.

The administration of protection of data on a client mobile computing device by a server computer system such as within an enterprise network or on a separate mobile computing device is described. Security tools are described that provide different security policies to be enforced based on a location associated with a network environment in which a mobile device is operating. Methods for detecting the location of the mobile device are described. Additionally, the security tools may also provide for enforcing different policies based on security features. Examples of security features include the type of connection, wired or wireless, over which data is being transferred, the operation of anti-virus software, or the type of network adapter card. The different security policies provide enforcement mechanisms that may be tailored based upon the detected location and / or active security features associated with the mobile device. Examples of enforcement mechanisms are adaptive port blocking, file hiding and file encryption.

A runtime adaptable search processor is disclosed. The search processor provides high speed content search capability to meet the performance need of network line rates growing to 1 Gbps, 10 Gbps and higher. he search processor provides a unique combination of NFA and DFA based search engines that can process incoming data in parallel to perform the search against the specific rules programmed in the search engines. The processor architecture also provides capabilities to transport and process Internet Protocol (IP) packets from Layer 2 through transport protocol layer and may also provide packet inspection through Layer 7. Further, a runtime adaptable processor is coupled to the protocol processing hardware and may be dynamically adapted to perform hardware tasks as per the needs of the network traffic being sent or received and / or the policies programmed or services or applications being supported. A set of engines may perform pass-through packet classification, policy processing and / or security processing enabling packet streaming through the architecture at nearly the full line rate. A high performance content search and rules processing security processor is disclosed which may be used for application layer and network layer security. scheduler schedules packets to packet processors for processing. An internal memory or local session database cache stores a session information database for a certain number of active sessions. The session information that is not in the internal memory is stored and retrieved to / from an additional memory. An application running on an initiator or target can in certain instantiations register a region of memory, which is made available to its peer(s) for access directly without substantial host intervention through RDMA data transfer. A security system is also disclosed that enables a new way of implementing security capabilities inside enterprise networks in a distributed manner using a protocol processing hardware with appropriate security features.

A mobile information gateway comprises: a wearable human interface module having an image delivery and display mechanism for presenting information with a wide field of view and in three dimensions, a computing and communication module coupled for communication with the human interface module; and a backend service server coupled for communication with the computing and communication module, the backend service server for processing data for home healthcare. The present invention also includes a method for using the mobile information gateway for home healthcare comprises; capturing information with a wearable human interface module; processing the captured information to determine an identity of a user of the wearable human interface module; authenticating the identity of user; retrieving information using the captured information and the authenticated identity; and presenting the retrieved information using the wearable human interface module.

Techniques for fraud monitoring and detection using application fingerprinting. As used herein, an “application fingerprint” is a signature that uniquely identifies data submitted to a software application. In an embodiment, a plurality of historical application fingerprints are stored for data previously submitted to a software application. Each historical application fingerprint is associated with one or more contexts in which its corresponding data was submitted. When new (i.e., additional) data is subsequently submitted to the application, a new application fingerprint is generated based on the new data, and the new application fingerprint is associated with one or more contexts in which the new data was submitted. The new application fingerprint is then compared with one or more historical application fingerprints that share the same, or substantially similar, context(s). Based on this comparison, a risk score is generated indicating a likelihood that the new data was submitted for a fraudulent / malicious purpose.

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.

A security architecture has been developed in which a single sign-on is provided. Session credentials are used to maintain continuity of a persistent session across multiple accesses to one or more information resources, and in some embodiments, across credential level changes. Session credentials are secured, e.g., as a cryptographically secured session token, such that they may be inspected by a wide variety of entities or applications to verify an authenticated trust level, yet may not be prepared or altered except by a trusted authentication service. Some embodiments of the present invention associate 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 in some embodiments, with environmental parameters. For example, in one configuration, a login service obtains login credentials for an entity commensurate with the trust level requirement(s) of an information resource (or information resources) to be accessed and with environment parameters that affect the sufficiency of a given credential type. Once login credentials have been obtained for an entity and have been authenticated to a given trust level, session credentials are issued and access is granted to information resources for which the trust level is sufficient. Advantageously, by using the session credentials access is granted without the need for further login credentials and authentication. In some configurations, session credentials evidencing an insufficient trust level may be remedied by a session continuity preserving upgrade of login credential.

A method, and an apparatus performing the method, is provided by authenticating a mobile device communicably connectable to a wireless network by an authentication parameter from a secure transaction server (STS), as a mobile device authenticator; providing an STS correlation between a personal identification entry (PIE) and the mobile device authenticator; and inputting, by a user, the PIE and a provider action, to the mobile device authenticator to transmit a transformed secure user authenticable authorization request to the STS over the wireless network to authorize an action with a provider.

The protection of data on a client mobile computing device by a server computer system such as within an enterprise network or on a separate mobile computing device is described. Security tools are described that provide different security policies to be enforced based on a location associated with a network environment in which a mobile device is operating. Methods for detecting the location of the mobile device are described. Additionally, the security tools may also provide for enforcing different policies based on security features. Examples of security features include the type of connection, wired or wireless, over which data is being transferred, the operation of anti-virus software, or the type of network adapter card. The different security policies provide enforcement mechanisms that may be tailored based upon the detected location and / or active security features associated with the mobile device. Examples of enforcement mechanisms are adaptive port blocking, file hiding and file encryption.

Dynamic device management is provided based on a change in context. The management can be for one or more of icons, application, operating system(s), preferences, display characteristics, and the like. Detection and / or monitoring of one or more of presence information, environmental information, user information, recent activity information, inbound / outbound communication information, external stimuli information, geopositional information, temporal information, calendar information, user information, biometric information, and security information can be used as inputs to determining a change in this context.

In a network user authentication system, a network user is identified for authentication purposes using the unique identifier for a dedicated physical communication line associated with the building in which the network user is located or a digital certificate which is associated with a secure component or communication line physically attached to a building. An authentication server initially verifies the identification of the dedicated communication line to be associated with a network service subscriber or issues a unique digital certificate to be associated with the dedicated communication line for authentication purposes. The digital certificate may be stored in a building gateway or in an edge site module which is connected to the secure components of a plurality of buildings and stores unique digital certificates for each building.

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.

The present disclosure is directed to methods and systems of providing a user-selectable list of disparately hosted applications. A device intermediary to a client and one or more servers may receive a user request to access a list of applications published to the user. The device may communicate to the client the list of published applications available to the user, the list comprising graphical icons corresponding to disparately hosted applications, at least one graphical icon corresponding to a third-party hosted application of the disparately hosted applications, the third party hosted application served by a remote third-party server. The device may receive a selection from the user of the at least one graphical icon. The device may communicate, from the remote third party server to the client of the user, execution of the third party hosted application responsive to the selection by the user.

Systems and methods consistent with the present invention enable explicit and multilateral trust across a community of federated servers via a network. A trusted third party establishes a framework of policies and procedures governing a federation. Organizations joining the federation submit to an audit process of internal policies and procedures to ensure compliance with the policies and procedures of the federation. Upon successful completion of an audit, an organization may receive a digital certificate containing the digital public key of the organization and indicating approval of the trusted third party. The organization may then use the associated digital private key for signing security assertions associated with a request for resources from another federation service provider. The service provider may trust the assertion from the organization based on trust placed in trusted third party by the service provider and the trust placed in the organization by the trusted third party.

Methods, apparatus, and systems for securing application interactions are disclosed. Application interactions may be secured by, at a user authentication device, capturing a signal emitted by an access device encoded with an authentication initiating message including an application identifier, decoding the signal and obtaining the authentication initiating message, retrieving the application identifier, presenting a human interpretable representation of the application identity to the user, obtaining user approval to generate a response message available to a verification server, generating a dynamic security value using a cryptographic algorithm that is cryptographically linked to the application identity, and generating a response message including the generated dynamic security value; making the response message available to a verification server; and, at the verification server, receiving the response message, verifying the response message including verifying the validity of the dynamic security value, and communicating the result of the verification of the response message to the application.

The system and method for controlling cloud and virtualized data centers described herein may include a computing environment having a model-driven, service-oriented architecture for creating collaborative threads to manage workloads, and further to creating cloud images having embedded management agents and identity services for validating the cloud images prior to deployment into the cloud and virtualized data centers and controlling, monitoring, and auditing activity associated with the cloud images following deployment into the cloud and virtualized data centers.