Abstract: A system and method for generating a total health index and recommending an actionable intervention for managing a health risk of a patient is disclosed. The method includes receiving user-generated data, clinical data, and pharmacy data in association with a patient, determining a social health index score based on the user-generated data, determining a clinical risk index score based on the clinical data, determining a medication adherence index score based on the pharmacy data, determining, using a machine learning model on one or more of the social health index score, the clinical risk index score, and the medication adherence index score, a total health index score and an actionable intervention for managing a health risk in association with the patient based on the total health index score, and automatically initiating the actionable intervention.

Abstract: Various structures and methods are disclosed related to a computer system for delivering data for operational intelligence in support of optimizing health care delivery. Particular embodiments selectively extract various data sets for operational support from a large electronic medical record (“EMR”) system on schedules of varying frequency to efficiently refresh data during the operational day. Other embodiments enhance EMR extract data using other computerized data sources and/or computer analysis of the EMR data. Other embodiments provide efficient data delivery for operational intelligence to optimize integrated, team-based health care delivery as well virtual medicine and transitional care. These and other embodiments are further disclosed herein.

Abstract: Systems, methods, and computer program products related to scalable converged service computing systems for use in user-personalized areas within facilities to automate workflow management, and that may be implemented in on-premises physical appliances or public, private, managed or hybrid cloud infrastructure are disclosed. In one embodiment, a scalable computing system for facilities of large enterprises is disclosed, comprising a scalable number of room compute containers each associated with a physical area of a facility, where the room compute container includes capabilities to add sensors, devices and controllers, and mediate and orchestrate interactions between devices and sensors in the room with facility level applications and services to personalize the user experience. In another embodiment, the scalable computing system comprises a converged service computing system for integrating enterprise services with room controls, devices, sensors and monitors in a patient room in a health care facility.

Abstract: Methods and systems for device notarization and verification are provided. In one implementation, various integrity values are concatenated to generate a concatenated value that is used to generate a transaction data signature (TDS). In one implementation, the concatenated value is a concatenation of a device value, an application value, an application encryption (AE) module value, and an authentication generation (AG) module value. The TDS or notarization code is generated by applying the concatenated value to the AG module. In one implementation, subsequent use of the application on the device involves generation of a new TDS, which is compared against the notarization code to determine whether use of the application on the device is authorized. In one implementation, the AE module and the AG module are seeded with a seed value which includes a device value, an application value, a user specific value, and a pseudo random number.

Abstract: Systems, methods, and computer program products related to transaction application security are disclosed. In a particular embodiment, application nodes are randomly selected for requiring re-authentication of a user traversing nodes of the application. These and other embodiments are more fully disclosed herein.

Abstract: Systems, methods, and computer program products related to transaction application security are disclosed. In a particular embodiment, application nodes are randomly selected for requiring re-authentication of a user traversing nodes of the application. These and other embodiments are more fully disclosed herein.

Abstract: Methods and systems for device notarization and verification are provided. In one implementation, various integrity values are concatenated to generate a concatenated value that is used to generate a transaction data signature (TDS). In one implementation, the concatenated value is a concatenation of a device value, an application value, an application encryption (AE) module value, and an authentication generation (AG) module value. The TDS or notarization code is generated by applying the concatenated value to the AG module. In one implementation, subsequent use of the application on the device involves generation of a new TDS, which is compared against the notarization code to determine whether use of the application on the device is authorized. In one implementation, the AE module and the AG module are seeded with a seed value which includes a device value, an application value, a user specific value, and a pseudo random number.

Abstract: A method of determining hand features information using both two dimensional (2D) image data and three dimensional (3D) image data is described. In one implementation, a method includes: receiving a 2D image frame; receiving 3D image data corresponding to the 2D image frame; using the 3D image data corresponding to the 2D image frame, transforming the 2D image frame; and using the 3D image data corresponding to the 2D image frame, scaling the 2D image frame, where the transforming and scaling results in a normalized 2D image frame, where the normalized 2D image frame is a scaled and transformed version of the 2D image frame, and where the scaling and transforming is performed using a computer.

Abstract: A method of determining hand features information using both two dimensional (2D) image data and three dimensional (3D) image data is described. In one implementation, a method includes: receiving a 2D image frame; receiving 3D image data corresponding to the 2D image frame; using the 3D image data corresponding to the 2D image frame, transforming the 2D image frame; and using the 3D image data corresponding to the 2D image frame, scaling the 2D image frame, where the transforming and scaling results in a normalized 2D image frame, where the normalized 2D image frame is a scaled and transformed version of the 2D image frame, and where the scaling and transforming is performed using a computer.

Abstract: A portable wireless system for providing a user with access to a computer-based system includes a BARB Badge to interface with the user's body, responsive to a disruption in the interface and including a transceiver to communicate with an external source, a BARB Base to detect a presence of said BARB Badge in a vicinity of said BARB Base and relay secure communications between said BARB Badge and said computer-based system; and an administrator subsystem to regulate interfacing operations of said BARB Badge and said computer-based system based on predetermined administrative protocols. In this way, the overall security of the computer-based system is enhanced while the amount of operational burdens associated with accessing the computer-based system are reduced.

Abstract: A warehouse management system that maximizes throughput and reduces carrying costs by reducing the number of stops that a container makes in the process of fulfilling a customer order. This is accomplished by allocating inventory to orders using the following series of considerations. First, the system selects a pod in order to maximize throughput. If there are multiple locations within the pod that stock the same inventory item, then the method chooses one of those locations based upon the expiration date. Finally, if multiple of these locations have units that expire within the same expiration period, the location with the fewest units is chosen.

Abstract: A sharps disposal system (2) includes a fiberboard container (6) mounted to a wall (8) by a lockable cage (4). The container has an entrance opening (70) formed through the top (20), sized for the deposit of sharps into its interior. A baffle (60) extends within the interior from the back downwardly and forwardly and is sized and positioned to discourage manual access to the interior while directing sharps into the interior. The container also includes a lid (84) hinged to the top for movement between stable opened and closed positions to permit one hand operation when opened. For disposal the lid is secured to the top using a foam adhesive strip (104) to provide a secure, substantially leakproof seal. The container is coated on the inside surface with a hydrophobic material and has the seams and corners sealed to make the interior of the container substantially leakproof. A view port (50) can be provided to permit the user to determine when the container is full.