Abstract:
Systems and methods are provided for automatically translating one or more electronic spreadsheets into scripts. One or more electronic spreadsheets containing data arrays and formula arrays may be accessed. The electronic spreadsheet(s) may implement various logic using the data arrays and the formula arrays. The range(s) of the formula arrays may be determined. The range(s) of the data arrays may be determined based on the range(s) of the formula arrays. Conversion ranges may be determined based on the range(s) of formula arrays and the range(s) of data arrays. One or more dependencies between the conversion ranges may be determined and used to generate source code modeling the logic implemented by the electronic spreadsheet(s).
Abstract:
Systems and methods are provided for automatically translating one or more electronic spreadsheets into scripts. One or more electronic spreadsheets containing data arrays and formula arrays may be accessed. The electronic spreadsheet(s) may implement various logic using the data arrays and the formula arrays. The range(s) of the formula arrays may be determined. The range(s) of the data arrays may be determined based on the range(s) of the formula arrays. Conversion ranges may be determined based on the range(s) of formula arrays and the range(s) of data arrays. One or more dependencies between the conversion ranges may be determined and used to generate source code modeling the logic implemented by the electronic spreadsheet(s).
Abstract:
Systems and methods are provided for automatically translating one or more electronic spreadsheets into scripts. One or more electronic spreadsheets containing data arrays and formula arrays may be accessed. The electronic spreadsheet(s) may implement various logic using the data arrays and the formula arrays. The range(s) of the formula arrays may be determined. The range(s) of the data arrays may be determined based on the range(s) of the formula arrays. Conversion ranges may be determined based on the range(s) of formula arrays and the range(s) of data arrays. One or more dependencies between the conversion ranges may be determined and used to generate source code modeling the logic implemented by the electronic spreadsheet(s).
Abstract:
Systems and methods are provided that allow for generating and applying an improved predictive data model that aggregates two or more models performed sequentially, for the purposes of improving the prediction of overall profitability of individuals or households in a population. The models may be generated by the processing of customer profitability data and third-party population data together. One of the two aggregated models may be an inherently probabilistic, binary model tasked with determining whether an individual is a high-loss individual and using that result to improve the predictive capability of the system.
Abstract:
A system comprising a computer-readable storage medium storing at least one program and a method for identifying care management program members to target for therapeutic intervention are presented. In example embodiments, the method includes identifying a set of candidate member data records from a plurality of member data records, and using data models to determine a risk score, a benefit score, and a participation score associated with each candidate member data record. The benefit score provides a measure of a propensity of the corresponding member to benefit from the therapeutic intervention program, and the participation score provides a measure of a propensity of the corresponding member to participate in the therapeutic intervention program. The method further includes identifying target members for the therapeutic intervention program from the set of candidate member data records based on respective benefit scores and participation scores.
Abstract:
Computer-implemented systems and methods are disclosed for distance and congestion-aware resource deployment. In some embodiments, a method is provided to estimate a vehicle deployment region. The method includes constructing a graph data structure using at least in part a single invocation of a form of Dijkstra's algorithm. The method additionally includes partitioning an angular space centered on a vehicle location into a plurality of angular space regions, the vehicle location corresponding to a current or potential location of the vehicle. The method also includes selecting, for at least three of the plurality of the partitioned angular space regions, a geographical location within the angular space region, wherein each selected geographical location in an angular space region is a geographical location furthest from the vehicle location, and wherein each selected geographical location was determined, using the graph data structure, to be reachable from the vehicle location within a specified maximum cost. The method further includes forming a polygon representing a vehicle deployment region from the selected geographical locations.
Abstract:
Systems and methods are provided for automatically translating one or more electronic spreadsheets into scripts. One or more electronic spreadsheets containing data arrays and formula arrays may be accessed. The electronic spreadsheet(s) may implement various logic using the data arrays and the formula arrays. The range(s) of the formula arrays may be determined. The range(s) of the data arrays may be determined based on the range(s) of the formula arrays. Conversion ranges may be determined based on the range(s) of formula arrays and the range(s) of data arrays. One or more dependencies between the conversion ranges may be determined and used to generate source code modeling the logic implemented by the electronic spreadsheet(s).
Abstract:
Systems and methods are provided for automatically translating one or more electronic spreadsheets into scripts. One or more electronic spreadsheets containing data arrays and formula arrays may be accessed. The electronic spreadsheet(s) may implement various logic using the data arrays and the formula arrays. The range(s) of the formula arrays may be determined. The range(s) of the data arrays may be determined based on the range(s) of the formula arrays. Conversion ranges may be determined based on the range(s) of formula arrays and the range(s) of data arrays. One or more dependencies between the conversion ranges may be determined and used to generate source code modeling the logic implemented by the electronic spreadsheet(s).
Abstract:
Systems and methods are provided that allow for generating and applying an improved predictive data model that aggregates two or more models performed sequentially, for the purposes of improving the prediction of overall profitability of individuals or households in a population. The models may be generated by the processing of customer profitability data and third-party population data together. One of the two aggregated models may be an inherently probabilistic, binary model tasked with determining whether an individual is a high-loss individual and using that result to improve the predictive capability of the system.
Abstract:
Computer-implemented systems and methods are disclosed for distance and congestion-aware resource deployment. In some embodiments, a method is provided to estimate a vehicle deployment region. The method includes constructing a graph data structure using at least in part a single invocation of a form of Dijkstra's algorithm. The method additionally includes partitioning an angular space centered on a vehicle location into a plurality of angular space regions, the vehicle location corresponding to a current or potential location of the vehicle. The method also includes selecting, for at least three of the plurality of the partitioned angular space regions, a geographical location within the angular space region, wherein each selected geographical location in an angular space region is a geographical location furthest from the vehicle location, and wherein each selected geographical location was determined, using the graph data structure, to be reachable from the vehicle location within a specified maximum cost. The method further includes forming a polygon representing a vehicle deployment region from the selected geographical locations.