Abstract: A computer system is described that is configured to generate an entry in a centralized event log for each voice call into a contact center of an organization. The event log system is configured to receive call data associated with action performed during the call and retrieve context data associated with the call from across a plurality of disparate systems used by the contact center to service the call. The event log system is configured to include both the call data and the context data in the call entry, and to correlate the call entry with previous call entries for a same entity identified for the call. The call entry may also include entity profile data as metadata. The pertinent data for the call will be stored in a single, centralized location accessible by any of the front-end systems for use in determining how to handle the call.

Abstract: A method and apparatus for classifying a spatial environment as open or enclosed are provided. In the method and apparatus, one or more microphones detect ambient sound in a spatial environment and output an audio signal representative of the ambient sound. A processor determines a spatial environment impulse response (SEIR) for the audio signal and extracts one or more features of the SEIR. The processor classifies the spatial environment as open or enclosed based on the one or more features of the SEIR.

Abstract: The present invention relates to visualizing vascular structures. In order to provide further improved digital subtraction angiography, a device (10) for visualizing vascular structures is provided that comprises a data provision unit (12), a data processing module (14), and an output unit (16). The data provision unit is configured to provide a first sequence of non-contrast X-ray images of a region of interest of a patient for use as raw X-ray mask images. The data provision unit is also configured to provide a second sequence of contrast X-ray images of the region of interest of a patient for use as raw X-ray live-images. The processing unit is configured to perform a first spatial subtraction for the first sequence of non-contrast X-ray images resulting in a first sequence of spatial-subtracted mask images. The processing unit is also configured to perform a second spatial subtraction for the second sequence of contrast X-ray images resulting in a second sequence of spatial-subtracted X-ray live-images.

Abstract: A provider computing system includes a service recommendation database configured to retrievably store recommendation information, a network interface configured to communicate data over a network, and a processing circuit that includes a processor and memory. The memory is structured to store instructions that are executable by the processor and cause the processing circuit to receive a first set of recommendation information derived from a first set of voice data received by a local voice assistant and store the first set of recommendation information in the services recommendation database. The processing circuit is further caused to receive a request to generate a recommendation from a user voice assistant, derived from a second set of voice data received by the user voice assistant. The processing circuit is also caused to access the first set of recommendation information in response to the request and transmit the recommendation to the user voice assistant.

Abstract: A transmitter circuit for use in a source synchronous type interface includes a flip-flop having a data input configured to receive serial data, a clock input configured to receive a source clock and a data output coupled to a data line. A first multiplexer has a first input configured to receive the source clock, a second input configured to receive a phase shifted clock (shifted by ninety degrees from the source clock), and a clock output coupled to a clock line. A control circuit operates to control selection by the first multiplexer of the source clock as a transmit clock sent over the clock line for a delay on clock at destination implementation. Alternatively, the control circuit causes selection by the first multiplexer of the phase shifted clock as the transmit clock sent over the clock line if the system is configured for a delay on clock at source implementation.

Abstract: A method and device are provided for determining an optimized scale factor to be applied to an excitation signal or a filter during a process for frequency band extension of an audio frequency signal. The band extension process includes decoding or extracting, in a first frequency band, an excitation signal and parameters of the first frequency band including coefficients of a linear prediction filter, generating an excitation signal extending over at least one second frequency band, filtering using a linear prediction filter for the second frequency band. The determination method includes determining an additional linear prediction filter, of a lower order than that of the linear prediction filter of the first frequency band, the coefficients of the additional filter being obtained from the parameters decoded or extracted from the first frequency and calculating the optimized scale factor as a function of at least the coefficients of the additional filter.

Abstract: An apparatus is provided for determining particle characteristics, in which a flow path is generated containing particles to be analyzed. A light detection system detecting light received from a measurement zone which has been scattered by the particles. A time duration for which a particle remains in the measurement zone is measured to determine an effective aerodynamic particle diameter and a peak detected received light intensity is measured to determine an effective optical particle diameter. A further particle parameter is also obtained relating to the shape and/or density of the particle. This approach enables more information than only a particle size to be obtained using a single-stage optical analysis system. The additional information may be used to characterize the particles more accurately.

Abstract: The present invention relates to a method for providing three-dimensional ultrasound images of a volume (50) and an ultrasound imaging system (10). In particular, the current invention applies to live three-dimensional imaging. To maintain a steady frame rate of the displayed images even if a user changes a region of interest and, therewith, the size of the volume (50) to be scanned, it is contemplated to adjust a density of the scanning lines within the volume (50) as a function of a size of the volume while maintaining a total number of scanning lines across the volume (50).

Abstract: A fluoroscopic surgical system employing a FORS sensor (40), a navigation controller (70), a fluoroscopic imager (30) and a mechanical connector (50) adjoined to the fluoroscopic imager (30). In operation, mechanical connector (50) is utilized to detachably attach FORS senor to fluoroscopic imager (30), whereby navigation controller (70) processes a shape reconstruction of FORS sensor (40) relative to a reference point fixed or movable within an operating space (20) for controlling a tracking of fluoroscopic imager (30) within the operating space (20). The system may further employ a surgical instrument (60) whereby, concurrently or subsequently to a fluoroscopic imaging of a patient anatomy, FORS sensor (40) is thereafter detached from fluoroscopic imager (30) and detachably attached to surgical instrument (60), or FORS sensor (40) is concurrently detachably attached to fluoroscopic imager (30) and surgical instrument (60).

Abstract: An apparatus comprises receiver (101) receiving a light intensity image, confidence map, and image property map. A filter unit (103) is arranged to filter the image property map in response to the light intensity image and the confidence map. Specifically, for a first position, the filter unit (103) determines a combined neighborhood image property value in response to a weighted combination of neighborhood image property values in a neighborhood around the first position, the weight for a first neighborhood image property value at a second position being dependent on a confidence value for the first neighborhood image property value and a difference between light intensity values for the first position and for the second position; and determines a first filtered image property value for the first position as a combination of a first image property value at the first position in the image property map and the combined neighbor image property value.

Abstract: Devices, systems, and methods of intravascular procedure training are provided. In some instances, the method includes outputting, from a computing device to a display device in communication with the computing device, a first visual representation of a blood vessel; determining, using the computing device, a first course of action based on the first visual representation of the blood vessel; receiving, at an input device in communication with the computing device, a user input associated with a second course of action; comparing, using the computing device, the first and second courses of action; and outputting, from the computing device to the display, a comparison of the first and second courses of action. Associated devices and systems are also provided.

Abstract: A method and device are provided for determining an optimized scale factor to be applied to an excitation signal or a filter during a process for frequency band extension of an audio frequency signal. The band extension process includes decoding or extracting, in a first frequency band, an excitation signal and parameters of the first frequency band including coefficients of a linear prediction filter, generating an excitation signal extending over at least one second frequency band, filtering using a linear prediction filter for the second frequency band. The determination method includes determining an additional linear prediction filter, of a lower order than that of the linear prediction filter of the first frequency band, the coefficients of the additional filter being obtained from the parameters decoded or extracted from the first frequency and calculating the optimized scale factor as a function of at least the coefficients of the additional filter.

Abstract: The present application relates to a hand-held garment steamer (1) comprising a steam generating chamber (5) having a surface (9) and a heater (10) to heat the surface (9) such that water fed onto the surface (9) is converted into steam. The hand-held garment steamer (1) further comprises a scale collection chamber (14) having an opening (25). The surface (9) and opening (25) are positioned relative to each other and configured so that when the garment steamer (1) is in a first orientation (A) in which the surface (9) extends downwardly away from the opening (25), water fed onto the surface (9) flows away from the opening (25) to be evaporated from the surface (9). When the garment steamer (1) is in a second orientation (B) in which the surface (9) extends downwardly towards the opening (25), scale dislodged from the surface (9) falls into the scale collection chamber (14) through the opening (25).

Abstract: In various embodiments, an image monitoring device (100) may acquire (200) video data that captures a medical room. Image processing may be performed on the acquired image data to perform the following tasks: identifying (202) at least one medical apparatus (402) in the medical room; identifying (204) a medical personnel in the medical room; detecting (206) that the medical personnel has occluded a line of sight between the image monitoring device and the at least one medical apparatus; and determining (206) an amount of time that the medical personnel occludes the line of sight. In various embodiments, the amount of time may be compared to one or more thresholds set forth by the first medical protocol. An alert may be triggered (208) in response to a determination that the amount of time fails to satisfy a first threshold of the one or more thresholds.

Abstract: A magnetic resonance (MR) system (10) for guidance of a shaft or needle (16) to a target (14) of a subject (12) is provided. The system includes a user interface (76). The user interface (76) includes a frame (78) positioned on a surface of the subject (12). The frame (78) includes an opening (82) over an entry point of a planned trajectory for the shaft or needle (16). The planned trajectory extends from the entry point to the target (14). The user interface (76) further includes one or more visual indicators (80) arranged on the frame (78) around the opening (82). The one or more visual indicators (80) at least one of: 1) visually indicate deviation of the shaft or needle (16) from the planned trajectory; and 2) visually indicate a current position of a real-time slice of real-time MR images.

Abstract: Methods, apparatuses, and computer program products are disclosed for securely delivering digital content to a user. An example method includes receiving a request for digital content for presentation by a first user device associated with a first user profile and receiving contextual device data of the first user device. The example method further include comparing the contextual device data of the first user device and a secure context dataset to determine a device delivery context of the first user device. In instances in which the contextual device data of the first user device fails to satisfy one or more security thresholds defined by the secure context dataset, the method determines an unsecure delivery context and generates secured digital content. The example method further includes causing presentation of the secured digital content via a second user device associated with the first user profile.

Abstract: An ultrasound imaging system (100) including a disinfection system is disclosed. The disinfection system may include one or more ultraviolet light sources (115). The UV light sources may be included in a display (105). The disinfection system may be configured to operate when the display is parallel to a control panel (120) of the ultrasound imaging system. The disinfection system may provide indications of the disinfection status of the ultrasound imaging system.

Abstract: The invention relates to a combined imaging detector for detection of gamma and x-ray quanta comprising an x-ray detector (31) for generating x-ray detection signals in response to detected x-ray quanta and a gamma detector (32) for generating gamma detection signals in response to detected gamma quanta. The x-ray detector (31) and the gamma detector (32) are arranged in a stacked configuration along a radiation-receiving direction (33). The gamma detector (32) comprises a gamma collimator plate (320) comprising a plurality of pinholes (321), and a gamma conversion layer (322, 324) for converting detected gamma quanta into gamma detection signals.