Database entries can be protected by indexing the entries using a plurality of indexes, each associated with a level of access rights. A level of access rights can be determined from a search query, and an index can be selected based on the determined level of access rights. A search key can be generated based on the received query, and the selected index can be searched using the search query. Database entries mapped to the values of the selected index returned in response to the search can be outputted. Each index is associated with a different granularity defining the number and/or ambiguity of search results returned in response to searching an index.

Systems and methods are disclosed for generation of a representative data structure. A computing device can receive data including various data items. The computing device can generate logical rows that include the data items. The computing device can convert the logical rows into nodes and store the nodes into logical rows of a first logical table. The computing device can generate logical rows for a second logical table including row identifiers and a link to one of the logical rows from the first logical table.

A database security system protects a data table at both the column level and the individual data record level. Access to data records within the data table is governed by categories assigned to data records, by user roles assigned to users, and by a set of security access tables. A first access table maps data record identifiers to data record categories, data record protection schemes, and corresponding scheme keys. A second access table maps user roles to data record categories. A third access table maps column identifiers to column protection schemes and corresponding scheme keys. A fourth access table maps user roles to column identifiers. If a user requests access to a data record, the security access tables are queried using the data record identifier, the associated column identifier, and the user roles associated with the user to determine if the user can access the requested data record.

An information integration system may include a set of integration services embodied on one or more server machines in a computing environment. The set of integration services may include connectors communicatively connected to disparate information systems. The connectors may be configured for integrating data stored in the disparate information systems utilizing a common model employed by the set of integration services. The common model may overlay, augment, integrate, or otherwise utilize a content management interoperability services data model and may include common property definitions and a common security model. The common security model may include permissions particularly defined for use by the set of integration services. These common property definitions and permissions may be uniquely defined and utilized by the information integration system.

Methods and systems disclosed herein relate generally to temporally prioritizing queries of queue-task partitions based on distributions of flags assigned to bits corresponding to access rights.

A security program installed or in communication with a computer is provided. The security program is configured to intercept disk (I/O) operations that read/write from/to disk. This allows the security program to confirm and control access to data based on security rules. Further, the security program can categorize data based on security rules and then format and store data on disk in a format that prevents access by application(s) of the computer. The security program is further configured to re-format data to be accessible by the application in a format accessible by the application(s) when a request to access the data complies with security rules.

A digital asset is represented and verified as a set of related digital asset or other content objects. Related metadata is stored on an immutable distributed ledger separately from the content objects themselves. For example, a transaction object includes metadata such as identifiers for two or more content objects, fingerprints for the content objects. The content objects may be stored in a local or cloud object repository. Validation of a later identified content object may include determining a fingerprint for the later identified content object, mapping that fingerprint to an address within the immutable distributed ledger to retrieve metadata previously mapped, and comparing the two fingerprints. Visual validation may be provided when the first and second fingerprints match, such as by displaying a positive icon adjacent the later identified object.

Systems and methods are disclosed for cross-platform token exchange. One method comprises receiving a primary token exchange request from an upstream entity, generating an ancillary detokenization request based on the primary token exchange request, and transmitting the ancillary detokenization request to an input token vault. An ancillary detokenization response comprising sensitive data may then be received from the input token vault, and one or more ancillary tokenization requests may be generated based on the ancillary detokenization response and the primary token exchange request. The one or more ancillary tokenization requests may be transmitted to one or more output token vaults. Subsequently, one or more ancillary tokenization responses may be received from the one or more output token vaults, each ancillary tokenization response comprising an output token. A primary token exchange response may be generated based on the one or more ancillary tokenization responses and transmitted to the upstream entity.

A method according to one embodiment includes monitoring, by an access control device, for changes to a first access control database stored on the access control device, wherein the first access control database is associated with a first security ecosystem having a first set of security protocols; automatically updating a mediation database stored on the access control device to identify a change to the first access control database in response to a determination that the change occurred; and automatically updating a second access control database stored on the access control device based on the change identified in the mediation database and in response to the automatic update of the mediation database, wherein the second access control database is associated with a second security ecosystem different from the first security ecosystem and having a second set of security protocols different from the first set.

Techniques are disclosed to provide correctness-preserving security for graph databases. In various embodiments, security context data associated with a user with respect to a graph database is stored. A query associated with the user with respect to the graph database is received. A path is allowed to be traversed in connection with responding to the query based at least in part on a grant of a traversal right, reflected in the security context data, to traverse one or more of a node and a relationship included in the path.