David C. Ferguson - Wake Forest NC, US Richard J. Schuman - Cary NC, US Karl E. Harper - Durham NC, US Patricia A. Glidewell - Cary NC, US Ralph J. Weaver - Cary NC, US
Assignee:
Hill-Rom Services, Inc. - Batesville IN
International Classification:
G06F 11/00
US Classification:
714 1, 600300, 600301, 607 59, 705 2
Abstract:
A healthcare communication system includes a first plurality of computer devices operable as a nurse call system. The first plurality of computer devices has core nurse call functionality. The system also includes a second plurality of computer devices communicatively coupled to the first plurality of computer devices. The first plurality of computer devices are interconnected logically and/or physically in a tiered architecture arrangement to provide fault isolation among the tiers so that faults occurring in computer devices of one tier don't affect the operability of computer devices in other tiers and so that faults occurring in any of the second plurality of computer devices don't affect the core nurse call functionality of the first plurality of computer devices.
Distributed Fault Tolerant Architecture For A Healthcare Communication System
David C. Ferguson - Wake Forest NC, US Richard J. Schuman - Cary NC, US Karl E. Harper - Durham NC, US Patricia A. Glidewell - Cary NC, US Ralph J. Weaver - Cary NC, US
Assignee:
Hill-Rom Services, Inc. - Batesville IN
International Classification:
G06F 11/00
US Classification:
714 1
Abstract:
A healthcare communication system includes a first plurality of computer devices, such as patient stations, staff stations, and a master station, that are operable as a nurse call system. The first plurality of computer devices may have core nurse call functionality residing on an embedded computing platform. At least one of the first plurality of computer devices may have a graphical display screen. A second plurality of computer devices may be operable to provide the first plurality of computer devices with additional functionality via software plug-ins that are transmitted to the first plurality of computer devices. The first plurality of computer devices may be interconnected logically and/or physically in a tiered architecture arrangement to provide fault isolation among the tiers so that faults occurring in computer devices of one tier don't affect the operability of computer devices in other tiers and so that faults occurring in any of the second plurality of computer devices don't affect the core nurse call functionality of the first plurality of computer devices.
Event Detection Based On Location Observations And Status Conditions Of Healthcare Resources
Charles J. Piccirillo - Apex NC, US Timothy D. Wildman - Metamora IN, US Carl William Riley - Milan IN, US Christopher Andrew Mathura - Cary NC, US Karl Eric Harper - Durham NC, US David E. Beuning - Holly Springs NC, US James Richard Jester - Wake Forest NC, US Katherine Vigneron - Blaine MN, US
Methods, systems and apparatus for initiating actions in a healthcare environment are disclosed. Illustrative embodiments receive identification data from tags assigned to healthcare resources via local positioning sensors. The illustrative embodiments also determine proximity of the healthcare resources based upon the identification data received via local positioning sensors. The embodiments also determine that an event has occurred in response to the proximity of the healthcare resources satisfying a relational condition of the event that relates the healthcare resources, and the healthcare resources satisfying a status condition of the event. The embodiments further initiate an action associated with the event in response to determining that the event has occurred.
Distributed Fault Tolerant Architecture For A Healthcare Communication System
Richard J. Schuman - Cary NC, US Karl E. Harper - Durham NC, US Patricia A. Glidewell - Cary NC, US Ralph J. Weaver - Cary NC, US
Assignee:
HILL-ROM SERVICES, INC. - Batesville IN
International Classification:
H04L 29/08
US Classification:
709204
Abstract:
A healthcare communication system includes a first plurality of computer devices operable as a nurse call system. The first plurality of computer devices has core nurse call functionality. The system also includes a second plurality of computer devices communicatively coupled to the first plurality of computer devices. The first plurality of computer devices are interconnected logically and/or physically in a tiered architecture arrangement to provide fault isolation among the tiers so that faults occurring in computer devices of one tier don't affect the operability of computer devices in other tiers and so that faults occurring in any of the second plurality of computer devices don't affect the core nurse call functionality of the first plurality of computer devices.
- Baden, CH Jeffrey Harding - Holly Springs NC, US Karl Eric Harper - Cary NC, US Aldo Dagnino - Cary NC, US
International Classification:
G06N 20/20 G06Q 50/04
Abstract:
Technologies for decentralized fleet analytics are disclosed. In at least one embodiment, a local cloud service at a plant site builds a first machine learning model of one or more first streams of data associated with the plant site. The local cloud service sends the first machine learning model to a cloud service connected to the plant site and other plant sites. The local cloud service receives a second machine learning model from the cloud service. The second machine learning model is trained as a function of the first machine learning model and one or more machine learning models built by the other plant sites. The local cloud service updates the first machine learning model based on the second machine learning model.
Cyber security for a communications network can be enhanced with benchmarking, logging, and monitoring message transfer latencies between nodes to detect any changes in equipment or configuration due to unauthorized surveillance. In addition, the transfer of the messages between nodes is provided with cyber attack mitigation measures to be able to maintain operations even if encryption is compromised.
Technologies For Dynamic Forecasting, Aggregation, And Validation
Technologies for dynamic forecasting, aggregation, and validation may include circuitry configured to collect data indicative of power flows at multiple locations in an electrical grid, to receive one or more parameters for generation of a customized forecast indicative of predicted power flows associated with one or more of the multiple locations over a defined time period, to select a subset of the collected data that satisfies the one or more parameters, to produce a model to predict power flows in the electrical grid associated with the one or more locations, to determine whether the model is validated by determining whether a predicted production of power minus predicted losses is within a predefined range of a predicted consumption of power at the one or more locations, and to produce the customized forecast of predicted power flows associated with the one or more locations for the defined time period.
System And Method For Securely Training And Using A Model
A system and method for securely training a model comprises including the algorithms of the model into a training module, and communicating the training module from a vendor computer system to a customer computer system. The training module is operated on the customer's computer system using the data from the customer, and a trained training module is achieved after operating the training module on the customer's computer system. The trained training module is used to initialize at least one additional module, which is communicated from the customer's computer system to the vendor's computer system, is used to score observations.