Abstract: Clinical activity network applications are described. Some embodiments provide an Operational Intelligence Platform (“OIP”) that is configured to generate a clinical activity network that uniformly represents actions and data updates occurring in a source healthcare system. Each clinical activity instance associates an action (or activity) with a context, a time, a user, and a patient or other subject. By analyzing collections of clinical activity instances, applications can identify patterns, processes, and relationships within the healthcare setting that would not necessarily be detectable when analyzing data from a single source, such as the source customer database.

Abstract: Techniques for dynamically extracting electronic health records are described. Some embodiments provide an Operational Intelligence Platform (“OIP”) that is configured to dynamically extract electronic health record data from a source customer database that represents health records in a hierarchical format, and store the extracted data in a clinical data engine that represents the health records in a manner that logically preserves the hierarchical format while providing a relational access model to the health records. The OIP may extract health-record data in substantially real-time by performing on-the-fly capture and processing of data updates to the source customer database. Such real-time extraction may be performed in cooperation with large scale, batch extraction of records from the source customer database.

Abstract: Clinical activity network applications are described. Some embodiments provide an Operational Intelligence Platform (“OIP”) that is configured to generate a clinical activity network that uniformly represents actions and data updates occurring in a source healthcare system. Each clinical activity instance associates an action (or activity) with a context, a time, a user, and a patient or other subject. By analyzing collections of clinical activity instances, applications can identify patterns, processes, and relationships within the healthcare setting that would not necessarily be detectable when analyzing data from a single source, such as the source customer database.

Abstract: A system and method of efficiently obtaining distance measurements of a target by scanning the target. An optical beam is provided by a light source and modulated by a frequency source. The modulated optical beam is transmitted to an acousto-optical deflector capable of changing the angle of the optical beam in a predetermined manner to produce an output for scanning the target. In operation, reflected or diffused light from the target may be received by a detector and transmitted to a controller configured to calculate the distance to the target as well as the measurement uncertainty in calculating the distance to the target.

Abstract: A system and method of efficiently obtaining distance measurements of a target by scanning the target. An optical beam is provided by a light source and modulated by a frequency source. The modulated optical beam is transmitted to an acousto-optical deflector capable of changing the angle of the optical beam in a predetermined manner to produce an output for scanning the target. In operation, reflected or diffused light from the target may be received by a detector and transmitted to a controller configured to calculate the distance to the target as well as the measurement uncertainty in calculating the distance to the target.

Abstract: A system and method of efficiently obtaining distance measurements of a target. A modulated optical beam may be used to determine the distance to the target. A first beam splitter may be used to split the optical beam and a second beam splitter may be used to recombine a reference beam with a return ranging beam. An optical mixing detector may be used in a receiver to efficiently detect distance measurement information.

Abstract: A system and method of efficiently obtaining distance measurements of a target. A modulated optical beam may be used to determine the distance to the target. A first beam splitter may be used to split the optical beam and a second beam splitter may be used to recombine a reference beam with a return ranging beam. An optical mixing detector may be used in a receiver to efficiently detect distance measurement information.