International Business Machines Corporation

Allscripts Software, LLC

Globalfoundries Inc.

Lenovo (singapore) Pte. Ltd.

2bprecise Technologies, LLC

David Thomas Windell

Jeffrey John Smith

Timothy Andreas Meserth

Todd Michael Eischeid

David Frederick Champion

Scott David Bower

Mark Edward Molander

William R Duffy, Iii

Vincent Rocco Lanzolla

John Charles Hilburn

Marshall S Stanley

Alexander Tulenko

Patrick Gabor Nyeste

Pravin S Patel

Daniel Paul Kelaher

Vincent Charles Conzola

James Edward Hughes

Michael Sven Miller

Christopher Collier West

Phillip David Jones

Gerard Frances Muenkel

Joshua Brown

Robert M Piper

Timothy Schlude

Michael Kennedy Trivette

Eric Robert Wald

Kevin J Smith

Gerard Francis Muenkel

Roland Kamakau Alo

Jeremy Scott Bridges

Seth David Lewis

Daniel Ernest Hurlimann

Nikhil Rajeev Joshi

Assaf Halevy

Wallace G Tuten

Joel Diamond

Carin Lee Mann

Sreemanta Dash

Michael K Trivette

George F Dixon, Iii

Michael J Barton

Eyal Greenberg

Robert Wartenfeld

Shiri Ben Tal

Robert J Harlow

One or more preferred embodiments facilitate use of patient panomics indications to select treatments that will provide optimal results. One or more preferred embodiments relate to a practical ontology for the panomics domain that is utilized to support use of patient panomics indications. In accordance with one or more preferred implementations, a cancer panomics ontology facilitates replacement of traditional cancer stratification by organs (e.g. lung, breast, liver cancer) with cancer stratification by tumor biomarkers (e.g. HER2 mutations). In accordance with one or more preferred implementations, a panomic ontology is utilized to facilitate functionality of a precision medical system.

Panomics ontology

A computing system for wound tracking is disclosed herein. A server computing device receives a first image of a wound of a patient captured by a first camera. Subsequently, the server computing device receives a message generated by a computing device, the message indicating that a second camera of the computing device is to capture a second image of the wound. Responsive to receiving the message, the server computing device causes data to be transmitted to the computing device, the data based in part upon the first image. The data causes the computing device to present a semi-transparent overlay to a view of the wound on a display as perceived through a lens of the second camera, the semi-transparent overlay indicative of the first image. The computing device captures the second image via the second camera and causes the second image to be received by the server computing device.

Computing system for wound tracking

A server computing device has data stored thereon, where such data includes identities of multiple participants in a care plan of a patient, the care plan identifies multiple health attributes of the patient that are to be monitored by the multiple participants. The data also includes roles of the multiple participants in the care plan of the patient, the roles respectively identify which of the health attributes is to be monitored by which participant in the multiple participants. The server computing device is further programmed to, in response to receipt of a request from a client computing device operated by the patient, cause content to be presented in a graphical user interface on a display of the client computing device, the content comprises the identities of the multiple participants in the care plan of the patient and the roles of the multiple participants in the care plan of the patient.

Computing system configured for aggregating and displaying data

Technologies and techniques for processing a user interface (UI) associated with a multi-nodal workflow in a medical software application. A processor-based workflow logic module processes a medical software application to determine branches of the workflow, wherein each of the branches include one or more nodes configured to receive a data input and provide a corresponding data output for the medical software application during execution. Serialization is executed on at least some of the branches to determine dependencies among at least some of the nodes in the branches. Progress of the workflow is monitored during execution of the medical software application, and used to execute UI applications and/or provide feedback data associated with the monitored progress.

Apparatus, system and method for workflow processing in a medical computer system

A method for generating a visualization for tracking an environmental contaminant includes automatically generating a contaminant visualization map for a particular contaminant. The contaminant visualization map includes a plurality of markers each corresponding to a location associated with a medical case associated with exposure to the particular contaminant, and one or more markers each corresponding to a location of an identified contamination source for the particular contaminant. The method further includes receiving an indication to zoom out the contaminant visualization map, generating one or more heat maps corresponding to the medical cases associated with exposure to the particular contaminant, and updating the contaminant visualization map to be zoomed out, not display the plurality of markers each corresponding to a location associated with a medical case, and display the generated one or more heat maps.

Tracking environmental contaminants

A method for facilitating the validation of an action by a user utilizing a touch screen device having a processor executing software commands includes providing an initial screen via a GUI displaying certain data fields and functional icons of a particular application. On the touch screen an initial active area is designated in association with certain data fields and functional icons. An end user interacts with the touch screen device generating an input signal. The input signal is received from the touch screen active area by the processor requesting an action. Upon receipt of the input signal, a validation active area on the touch screen is visually displayed. The validation active area is monitored for a secondary input signal generated by an end user interacting with the validation active area. The initial active area is monitored for determining an input signal in association with the initial active area is present.

Method for ensuring use intentions of a touch screen device

The apparatus for workflow capture and display is provided with a plurality of modules configured to functionally execute the necessary steps of capturing task workflow information, storing the task workflow information captured by the capture module in a data storage device, retrieving a portion of the task workflow information from the data storage device in response to a first event, and presenting the task workflow information in response to a second event. These modules in the described embodiments include a capture module, a storage module, an assembly module, and a presentation module.

Apparatus and methods for workflow capture and display

A method includes receiving, from a user via an electronic device, input representing a password to be utilized for an account; automatically determining, utilizing a processor, a complexity value for the input password; automatically determining, based on the determined complexity value, security settings for the account; receiving, from a user via an electronic device, input representing an attempt to login to the account, the input representing an attempt to login to the account including an attempted password; automatically determining that the attempted password does not match the password to be utilized for the account; and determining a course of action to take in response to the determination that the attempted password does not match the password to be utilized for the account, the course of action being determined based at least in part on the automatically determined security settings for the account.

Systems and methods related to security credentials

One aspect of the present invention relates to a method for optimizing a user interface (UI) for an active application over a computing device. The method includes receiving the gaze information, including gaze location, of a user's gaze on the UI, determining a first section of a plurality of sections of the UI associated with the received gaze location, and muting other of the plurality of sections outside of the first section, such that the first section in the UI remains active.

Dynamically optimizing user interfaces

A programmable logic circuit assigns a value to an outlet of a power distribution unit (PDU) that comprises a power source at an input of the PDU and at least one light-emitting diode (LED) associated with the outlet. The programmable logic circuit sends the value to a program on a hardware device that comprises one or more power supplies. The programmable logic circuit receives information from the program. Subsequently, an illumination state of the LED is modified based on the information.

Determining suitability for disconnection from an electrical outlet based on status of power supplies of a hardware device

Growing community of inventors

Raleigh, NC, United States of America

David Thomas Windell