Abstract: An example system for tracking motion of an eye during an eye treatment includes an image capture device configured to capture a plurality of images of an eye. The system includes an ensemble tracker employing a first, second, and third tracker to process a plurality of images. Each tracker is configured to detect a respective feature in the plurality of images and provide, based on the respective feature, a respective set of data relating to motion of the eye. The first tracker detects a first feature including an anatomical structure in an iris region of the eye. The second tracker detects a second feature including a shape defined by a contrast between the iris region and a pupil region. A third tracker detects a third feature including a boundary between the iris region and the pupil region of the eye.

Abstract: An example system for tracking motion of an eye during an eye treatment includes an image capture device configured to capture a plurality of images of an eye. The system includes controller(s) including processor(s) that receive the plurality of images from the image capture device. The processor(s) implement a plurality of trackers. Each tracker is configured to detect a respective feature in the plurality of images and provide, based on the respective feature, a respective set of data relating to motion of the eye. The respective features detected by the plurality of trackers are orthogonal relative to each other and the respective sets of data provided by the plurality of trackers are independent of each other. The processor(s) coalesce the sets of data from the plurality of trackers and determine an indicator of the motion of the eye based on the coalesced sets of data.

Abstract: A system for treating an eye includes a laser light source providing photoactivating light. The system includes a scanning system to receive the photoactivating light as a laser beam and to move the laser beam over a cornea treated with a cross-linking agent. The system includes a controller that provides control signal(s) to programmatically control the laser light source and the scanning system. The control signal(s) cause the laser beam to visit region(s) of the cornea more than once according to a scan pattern and expose the region(s) to the photoactivating light. The photoactivating light causes the cross-linking agent in the exposed region(s) to react with oxygen to generate cross-linking activity in the exposed region(s). The scan pattern causes a predetermined period of time to pass between visits by the laser beam to the exposed region(s), the predetermined period of time allowing oxygen in the exposed region(s) to replenish.

Abstract: A system for treating an eye includes a laser light source providing photoactivating light. The system includes a scanning system to receive the photoactivating light as a laser beam and to move the laser beam over a cornea treated with a cross-linking agent. The system includes a controller that provides control signal(s) to programmatically control the laser light source and the scanning system. The control signal(s) cause the laser beam to visit region(s) of the cornea more than once according to a scan pattern and expose the region(s) to the photoactivating light. The photoactivating light causes the cross-linking agent in the exposed region(s) to react with oxygen to generate cross-linking activity in the exposed region(s). The scan pattern causes a predetermined period of time to pass between visits by the laser beam to the exposed region(s), the predetermined period of time allowing oxygen in the exposed region(s) to replenish.

Abstract: An example system for tracking motion of an eye during an eye treatment includes an image capture device configured to capture a plurality of images of an eye. The system includes controller(s) including processor(s) that receive the plurality of images from the image capture device. The processor(s) implement a plurality of trackers. Each tracker is configured to detect a respective feature in the plurality of images and provide, based on the respective feature, a respective set of data relating to motion of the eye. The respective features detected by the plurality of trackers are orthogonal relative to each other and the respective sets of data provided by the plurality of trackers are independent of each other. The processor(s) coalesce the sets of data from the plurality of trackers and determine an indicator of the motion of the eye based on the coalesced sets of data.

Abstract: Methods, systems, and devices for determining an adaptive health score are described. Methods may include receiving physiological information at a medical device and determining first and second patient health scores based in part on historical patient data and data associated with a larger population. The method may also include assigning complimentary first and second weighted values to the respective scores and, ultimately, determining an adaptive health score for the patient. In addition the method may update, or calculate a new adaptive health score, based on predetermined time intervals, or changes in the type or quantity of physiological data.

Abstract: A system for treating an eye includes a laser light source providing photoactivating light. The system includes a scanning system to receive the photoactivating light as a laser beam and to move the laser beam over a cornea treated with a cross-linking agent. The system includes a controller that provides control signal(s) to programmatically control the laser light source and the scanning system. The control signal(s) cause the laser beam to visit region(s) of the cornea more than once according to a scan pattern and expose the region(s) to the photoactivating light. The photoactivating light causes the cross-linking agent in the exposed region(s) to react with oxygen to generate cross-linking activity in the exposed region(s). The scan pattern causes a predetermined period of time to pass between visits by the laser beam to the exposed region(s), the predetermined period of time allowing oxygen in the exposed region(s) to replenish.

Abstract: Methods, systems, and devices for video conferencing between a patient and a clinician are described. The method may include receiving a video image of a video conference between the patient and the clinician. The method may also receive an indication of medical information associated with the patient to be displayed during the video conference. The method may further include configuring a viewing window of a video conference device to display the video image and the medical information during the video conference. The configuration of the viewing window may be based on a characteristic of the medical information to be displayed.

Abstract: Methods, systems, and devices that support proximity based data acquisition and display are described. Methods may include determining a proximity between a patient identification tag and a user device to display patient-specific physiological data to authorized clinicians. The method may also include determining a proximity between an identification tag of a central monitoring station (CMS) and a user device to display physiological data associated with one or more patients to authorized users of the CMS. In addition the method may grant, or revoke, access to patient physiological data based clinician-specific credentials.

Abstract: Methods, systems, and devices for initiating a video conference between a patient and a clinician are described. The method may include receiving an indication of an availability of the patient to participate in the video conference with the clinician, where the indication is based on detecting a proximity of the patient to a video conference device. The method may also determine an availability of the clinician to participate in the video conference with the patient. The method may further include initiating the video conference between the patient and the clinician, via the video conference device, based on the received indication of the availability of the patient and the determined availability of the clinician.

Abstract: Methods, systems, and devices for determining an adaptive health score are described. Methods may include receiving physiological information at a medical device and determining first and second patient health scores based in part on historical patient data and data associated with a larger population. The method may also include assigning complimentary first and second weighted values to the respective scores and, ultimately, determining an adaptive health score for the patient. In addition the method may update, or calculate a new adaptive health score, based on predetermined time intervals, or changes in the type or quantity of physiological data.

Abstract: Methods and systems for extracting formation properties from formation logging data is disclosed. A method includes obtaining a deconvolution filter; and processing the formation logging data using the deconvolution filter to produce estimates of the formation properties. The estimates of the formation properties may be further processed with a diffusion filter, which may be an anisotropic diffusion filter. A system for extracting formation properties from formation logging data includes a central processing unit and a memory, wherein the memory stores a program having instructions for performing a method that includes designing a deconvolution filter; and processing the formation logging data using the deconvolution filter to produce estimates of the formation properties.

Abstract: Methods and systems for extracting formation properties from formation logging data is disclosed. A method includes obtaining a deconvolution filter; and processing the formation logging data using the deconvolution filter to produce estimates of the formation properties. The estimates of the formation properties may be further processed with a diffusion filter, which may be an anisotropic diffusion filter. A system for extracting formation properties from formation logging data includes a central processing unit and a memory, wherein the memory stores a program having instructions for performing a method that includes designing a deconvolution filter; and processing the formation logging data using the deconvolution filter to produce estimates of the formation properties.

Abstract: A computer system management module includes a common object module. The management module further includes an object resource manager, an edge resource manager coupled, and a transaction manager coupled to the common object module. The management module further includes an alarm manager coupled to the object resource manager.

Abstract: A system and method for generating a minimum-cost airline flight plan from a point of origin through a set of fix points to a destination point. A set of navigation airways from the point of origin to the destination point, including predefined fix points and vectors for high altitude flight, and a set of predetermined flight planning altitudes is stored in a database. Operational data for the flight and weather data for the flight is also stored in the database, as well as station data, station approach and departure procedures, predefined flight restricted areas, and flight performance data. The predefined fix points are transformed from the Cartesian plane onto a new coordinate system based on the great circle route between the origin and the destination. Each transformed fix point is assigned an ordinal value, and an acyclic network is constructed based on the ordinal values and within a feasible search region which excludes any flight restricted areas.