Abstract: The present approach relates to systems and methods for facilitating an interrupt or change in automated tasks in progress, and using a control token (e.g., flag) to modify the progress of the automated task. In contrast to current automated tasks that may not be modified once the request for the automated task has been sent, the presently disclosed techniques allow for controlling and/or changing an automated task by using the control token and an associated status in conjunction with logical checkpoints defined for a thread at which the thread can be paused and the status changed.

Abstract: A computing system includes an anonymizer server. The anonymizer server is communicatively coupled to a data repository configured to store a personal identification information (PII) data. The anonymizer server is configured to perform operations including receiving a repository configuration request comprising an anonymized data schema, and creating an anonymized data repository clone based on the anonymized data schema. The anonymizer server is also configured to perform operations including anonymizing the PII data to create an anonymized data by applying a one-way data masking, a one-way data morphing, or a combination thereof, and storing the anonymized data in the anonymized data repository clone.

Abstract: A computing system includes an anonymizer server. The anonymizer server is communicatively coupled to a data repository configured to store a personal identification information (PII) data. The anonymizer server is configured to perform operations including receiving an anonymized data request, and creating an anonymized data repository based on the anonymized data request. The anonymizer server is also configured to perform operations including anonymizing the PII data to create an anonymized data by applying a cluster-based process, and storing the anonymized data in the anonymized data repository.

Abstract: A computing system includes an anonymizer server. The anonymizer server is communicatively coupled to a data repository configured to store a personal identification information (PII) data. The anonymizer server is configured to perform operations including receiving a repository configuration request comprising an anonymized data schema, and creating an anonymized data repository clone based on the anonymized data schema. The anonymizer server is also configured to perform operations including anonymizing the PII data to create an anonymized data by applying a one-way data masking, a one-way data morphing, or a combination thereof, and storing the anonymized data in the anonymized data repository clone.

Abstract: A computing system includes an anonymizer server. The anonymizer server is communicatively coupled to a data repository configured to store a personal identification information (PII) data. The anonymizer server is configured to perform operations including receiving an anonymized data request, and creating an anonymized data repository based on the anonymized data request. The anonymizer server is also configured to perform operations including anonymizing the PII data to create an anonymized data by applying a cluster-based process, and storing the anonymized data in the anonymized data repository.

Abstract: The present approach relates to systems and methods for facilitating an interrupt or change in automated tasks in progress, and using a control token (e.g., flag) to modify the progress of the automated task. In contrast to current automated tasks that may not be modified once the request for the automated task has been sent, the presently disclosed techniques allow for controlling and/or changing an automated task by using the control token and an associated status in conjunction with logical checkpoints defined for a thread at which the thread can be paused and the status changed.

Abstract: The present disclosure relates generally to analyzing and comparing computer scripts, and more specifically, to determining semantic similarities between syntactically different scripts. An example computing system includes a memory configured to store a database, wherein the database is configured to store script canonical form (SCF) representations of scripts, and wherein each SCF representation is a topologically-sorted, labeled, directed graph that includes tables and datasets as nodes, actions as edges, and predicates as labels. The system includes a processor configured to execute instructions stored in the memory to cause the computing system to perform actions including: generating a first SCF representation of a first script, and storing the first SCF representation of the first script in the database.

Abstract: A computing system includes an anonymizer server. The anonymizer server is communicatively coupled to a data repository configured to store a personal identification information (PII) data. The anonymizer server is configured to perform operations including receiving a repository configuration request comprising an anonymized data schema, and creating an anonymized data repository clone based on the anonymized data schema. The anonymizer server is also configured to perform operations including anonymizing the PII data to create an anonymized data by applying a one-way data masking, a one-way data morphing, or a combination thereof, and storing the anonymized data in the anonymized data repository clone.

Abstract: The present approach relates to systems and methods for facilitating an interrupt or change in automated tasks in progress, and using a control token (e.g., flag) to modify the progress of the automated task. In contrast to current automated tasks that may not be modified once the request for the automated task has been sent, the presently disclosed techniques allow for controlling and/or changing an automated task by using the control token and an associated status in conjunction with logical checkpoints defined for a thread at which the thread can be paused and the status changed.

Abstract: Techniques for routing requests on a network are described. In accordance with certain aspects, a temporal window is incremented or moved over time to facilitate dynamic routing decisions. The temporal window may be used to project or estimate incoming request traffic based on a suitable probabilistic distribution model, such as a Poisson or Gaussian probability distribution, applied to the window so as to estimate or predict traffic at different times as the window is incremented. Estimated execution times for incoming requests may also be computed so that arrival and completion times of each request or traffic event can be modeled. Processor-implemented routines may be employed to solve the sub-problems defined by the temporal window incoming traffic estimation and the estimated execution times efficiently, allowing the parent or overall routing decision problem to be solved efficiently using dynamic processes, including in real-time contexts.

Abstract: The present disclosure relates generally to analyzing and comparing computer scripts, and more specifically, to determining semantic similarities between syntactically different scripts. An example computing system includes a memory configured to store a database, wherein the database is configured to store script canonical form (SCF) representations of scripts, and wherein each SCF representation is a topologically-sorted, labeled, directed graph that includes tables and datasets as nodes, actions as edges, and predicates as labels. The system includes a processor configured to execute instructions stored in the memory to cause the computing system to perform actions including: generating a first SCF representation of a first script, and storing the first SCF representation of the first script in the database.

Abstract: The present approach relates to systems and methods for facilitating an interrupt or change in automated tasks in progress, and using a control token (e.g., flag) to modify the progress of the automated task. In contrast to current automated tasks that may not be modified once the request for the automated task has been sent, the presently disclosed techniques allow for controlling and/or changing an automated task by using the control token and an associated status in conjunction with logical checkpoints defined for a thread at which the thread can be paused and the status changed.

Abstract: The present disclosure relates generally to analyzing and comparing computer scripts, and more specifically, to determining semantic similarities between syntactically different scripts. An example computing system includes a memory configured to store a database, wherein the database is configured to store script canonical form (SCF) representations of scripts, and wherein each SCF representation is a topologically-sorted, labeled, directed graph that includes tables and datasets as nodes, actions as edges, and predicates as labels. The system includes a processor configured to execute instructions stored in the memory to cause the computing system to perform actions including: generating a first SCF representation of a first script, and storing the first SCF representation of the first script in the database.

Abstract: A computing system includes an anonymizer server. The anonymizer server is communicatively coupled to a data repository configured to store a personal identification information (PII) data. The anonymizer server is configured to perform operations including receiving a repository configuration request comprising an anonymized data schema, and creating an anonymized data repository clone based on the anonymized data schema. The anonymizer server is also configured to perform operations including anonymizing the PII data to create an anonymized data by applying a one-way data masking, a one-way data morphing, or a combination thereof, and storing the anonymized data in the anonymized data repository clone.

Abstract: The present disclosure relates generally to analyzing and comparing computer scripts, and more specifically, to determining semantic similarities between syntactically different scripts. An example computing system includes a memory configured to store a database, wherein the database is configured to store script canonical form (SCF) representations of scripts, and wherein each SCF representation is a topologically-sorted, labeled, directed graph that includes tables and datasets as nodes, actions as edges, and predicates as labels. The system includes a processor configured to execute instructions stored in the memory to cause the computing system to perform actions including: generating a first SCF representation of a first script, and storing the first SCF representation of the first script in the database.