Abstract: The present technology relates to depots for the treatment of postoperative pain via sustained, controlled release of a therapeutic agent. In some embodiments, the depot may comprise a therapeutic region comprising an analgesic, and a control region comprising a bioresorbable polymer and a releasing agent mixed with the polymer. The releasing agent may be configured to dissolve when the depot is placed in vivo to form diffusion openings in the control region. The depot may be configured to be implanted at a treatment site in vivo and, while implanted, release the therapeutic agent at the treatment site for no less than 3 days.

Abstract: In various embodiments, an electronic device may include: a light receiver including light receiving circuitry, a light emitter including light emitting circuitry, a partition wall disposed between the light receiver and the light emitter configured to block light emitted by the light emitter from being directly incident on the light receiver, a film disposed above one surface of the light receiver, and a processor. The film may include a transmission region configured to transmit light of all wavelength bands and a selective blocking region configured to absorb light of a specific wavelength band. The processor may be configured to analyze light incident on the light receiver through the film.

Abstract: An electronic device and method are disclosed herein. The electronic device includes a display, a printed circuit board (PCB) disposed below the display and having a first surface facing the display, a biometric sensor disposed on the first surface of the PCB and configured to measure a biometric signal related to a heartbeat, a pressure sensor disposed below the display and configured to generate a pressure signal based on measuring a pressure applied to the display, a processor. The processor implements the method, including measuring, by the biometric sensor, the biometric signal, measuring, by the pressure sensor, the pressure applied to the display, calculating biometric information related to a heartbeat by interlinking the biometric signal and the pressure signal, and outputting the calculated biometric information to the display.

Abstract: An electronic device may include: a housing; a display configured to be viewed through a first portion of the housing; a photoplethysmogram sensor exposed through a second portion of the housing and configured to measure a biometric signal from a body part of a user while being in contact with the body part of the user; a fastening structure connected to the housing and configured to be attached to the body part of the user; a wireless communication circuit; a processor provided inside the housing and operatively connected to the display, the photoplethysmogram sensor, and the wireless communication circuit; and a memory operatively connected to the processor. The memory stores instructions, when executed, to allow the processor to: receive data from the photoplethysmogram sensor; determine a first parameter; determine a distance between the body part of the user and the fastening structure; and provide user guidance information on the display.

Abstract: Provided is an electronic device including a housing; a battery; a user interface; a photoplethysmogram (PPG) sensor including a light receiving module exposed through a portion of the housing, at least one light emitting diode (LED), and at least one photodiode; a processor operatively connected to the battery, the user interface, and the PPG sensor; and a memory. According to an embodiment, the memory stores instructions that, when executed, cause the processor to determine whether the PPG sensor is facing a surface of an external object having a reference color, determine whether to perform a test of the PPG sensor based on whether the PPG sensor is facing the surface, receive data from the PPG sensor by operating the PPG sensor in response to determining to perform the test, and perform calibration of the PPG sensor based on at least a portion of the received data. Other embodiments are possible.

Abstract: A catheter tip is disclosed comprising a tip electrode comprising a ledge feature, and a center cavity and a manifold assembly comprising a fluid lumen manifold and a stop tube. The stop tube can be coupled to the fluid lumen manifold and configured to abut the ledge feature such that a distal end of the fluid lumen manifold extends a pre-determined distance into the center cavity of the tip electrode. The fluid lumen manifold can comprise a plurality of sideholes which can be sized and configured to distribute an irrigant to the tip electrode. The catheter tip can comprise a flexible tip electrode.

Abstract: A catheter tip is disclosed comprising a tip electrode comprising a ledge feature, and a center cavity and a manifold assembly comprising a fluid lumen manifold and a stop tube. The stop tube can be coupled to the fluid lumen manifold and configured to abut the ledge feature such that a distal end of the fluid lumen manifold extends a pre-determined distance into the center cavity of the tip electrode. The fluid lumen manifold can comprise a plurality of sideholes which can be sized and configured to distribute an irrigant to the tip electrode. The catheter tip can comprise a flexible tip electrode.

Abstract: In various embodiments, an electronic device may include: a light receiver including light receiving circuitry, a light emitter including light emitting circuitry, a partition wall disposed between the light receiver and the light emitter configured to block light emitted by the light emitter from being directly incident on the light receiver, a film disposed above one surface of the light receiver, and a processor. The film may include a transmission region configured to transmit light of all wavelength bands and a selective blocking region configured to absorb light of a specific wavelength band. The processor may be configured to analyze light incident on the light receiver through the film.

Abstract: An electronic device and method are disclosed herein. The electronic device includes a display, a printed circuit board (PCB) disposed below the display and having a first surface facing the display, a biometric sensor disposed on the first surface of the PCB and configured to measure a biometric signal related to a heartbeat, a pressure sensor disposed below the display and configured to generate a pressure signal based on measuring a pressure applied to the display, a processor. The processor implements the method, including measuring, by the biometric sensor, the biometric signal, measuring, by the pressure sensor, the pressure applied to the display, calculating biometric information related to a heartbeat by interlinking the biometric signal and the pressure signal, and outputting the calculated biometric information to the display.

Abstract: Provided is an electronic device including a housing; a battery; a user interface; a photoplethysmogram (PPG) sensor including a light receiving module exposed through a portion of the housing, at least one light emitting diode (LED), and at least one photodiode; a processor operatively connected to the battery, the user interface, and the PPG sensor; and a memory. According to an embodiment, the memory stores instructions that, when executed, cause the processor to determine whether the PPG sensor is facing a surface of an external object having a reference color, determine whether to perform a test of the PPG sensor based on whether the PPG sensor is facing the surface, receive data from the PPG sensor by operating the PPG sensor in response to determining to perform the test, and perform calibration of the PPG sensor based on at least a portion of the received data. Other embodiments are possible.

Abstract: A wireless communication system serves a geographically-diverse data service. Network circuitry transfers geographic-diversity data for Fifth Generation (5G) networks to user circuitry that indicates Distributed Unit (DU) geographic data and Common Unit (CU) geographic data. The user circuitry selects two or more of the 5G networks that use geographically-diverse DUs and geographically-diverse CUs based on the geographic-diversity data for the 5G networks. The user circuitry exchanges service data for the data service with service circuitry over the selected ones of the 5G networks. The service circuitry exchanges the service data with the user circuitry over the selected ones of the 5G networks.

Abstract: A wireless communication system serves a geographically-diverse data service. Network circuitry transfers geographic-diversity data for Fifth Generation (5G) networks to user circuitry that indicates Distributed Unit (DU) geographic data and Common Unit (CU) geographic data. The user circuitry selects two or more of the 5G networks that use geographically-diverse DUs and geographically-diverse CUs based on the geographic-diversity data for the 5G networks. The user circuitry exchanges service data for the data service with service circuitry over the selected ones of the 5G networks. The service circuitry exchanges the service data with the user circuitry over the selected ones of the 5G networks.

Abstract: An electronic device may include: a housing; a display configured to be viewed through a first portion of the housing; a photoplethysmogram sensor exposed through a second portion of the housing and configured to measure a biometric signal from a body part of a user while being in contact with the body part of the user; a fastening structure connected to the housing and configured to be attached to the body part of the user; a wireless communication circuit; a processor provided inside the housing and operatively connected to the display, the photoplethysmogram sensor, and the wireless communication circuit; and a memory operatively connected to the processor. The memory stores instructions, when executed, to allow the processor to: receive data from the photoplethysmogram sensor; determine a first parameter; determine a distance between the body part of the user and the fastening structure; and provide user guidance information on the display.

Abstract: A wireless communication system serves a user apparatus with a user data service. Fifth Generation New Radio (5GNR) transceivers attach to Fifth Generation (5G) networks. A network controller transfers geographic-diversity data for the 5G networks to a user controller. The user controller selects multiple 5G networks for the user data service based on the geographic-diversity data for the attached 5G networks. The user controller exchanges service data for the user data service between the user apparatus and the selected 5G networks. The service controller exchanges the service data between the selected 5G networks and a service apparatus.

Abstract: Disclosed is a piezoelectric voice recognition sensor, which includes a flexible thin film, a piezoelectric material layer laminated on the flexible thin film, and an electrode laminated on the piezoelectric material layer, wherein the electrode includes a plurality of frequency separation channels arranged in a row, and the plurality of frequency separation channels have different lengths from each other. The piezoelectric voice recognition sensor separates a voice, recognized using a plurality of frequency separation channels having a trapezoidal shape, through the plurality of channels depending on frequencies, and simultaneously converts the separated voice signals from mechanical vibration signals into electric signals by means of the flexible piezoelectric element so that the converted electric signals are recognized.

Abstract: A catheter tip is disclosed comprising a tip electrode comprising a ledge feature, and a center cavity and a manifold assembly comprising a fluid lumen manifold and a stop tube. The stop tube can be coupled to the fluid lumen manifold and configured to abut the ledge feature such that a distal end of the fluid lumen manifold extends a pre-determined distance into the center cavity of the tip electrode. The fluid lumen manifold can comprise a plurality of sideholes which can be sized and configured to distribute an irrigant to the tip electrode. The catheter tip can comprise a flexible tip electrode.

Abstract: A catheter tip is disclosed comprising a tip electrode comprising a ledge feature, and a center cavity and a manifold assembly comprising a fluid lumen manifold and a stop tube. The stop tube can be coupled to the fluid lumen manifold and configured to abut the ledge feature such that a distal end of the fluid lumen manifold extends a pre-determined distance into the center cavity of the tip electrode. The fluid lumen manifold can comprise a plurality of sideholes which can be sized and configured to distribute an irrigant to the tip electrode. The catheter tip can comprise a flexible tip electrode.

Abstract: Disclosed is a piezoelectric voice recognition sensor, which includes a flexible thin film, a piezoelectric material layer laminated on the flexible thin film, and an electrode laminated on the piezoelectric material layer, wherein the electrode includes a plurality of frequency separation channels arranged in a row, and the plurality of frequency separation channels have different lengths from each other. The piezoelectric voice recognition sensor separates a voice, recognized using a plurality of frequency separation channels having a trapezoidal shape, through the plurality of channels depending on frequencies, and simultaneously converts the separated voice signals from mechanical vibration signals into electric signals by means of the flexible piezoelectric element so that the converted electric signals are recognized.

Abstract: In a packet communication system, a PCRF processes communication policy data to generate a communication policy instruction and a user notice. The PCRF transfers the communication policy instruction for delivery to a packet gateway system. The PCRF transfers the user notice for delivery to an ANDSF. The ANDSF processes the user notice to generate and transfer a data file for delivery to a user communication device that displays the user notice based on the data file. The packet gateway system processes the communication policy instruction to filter packets exchanged with the user communication device.

Abstract: A signaling error management system handles a syntax error in a signaling message received by a wireless communication network from a wireless communication device. The signaling error management system comprises a processing system and a communication transceiver. The processing system is configured to process text of the signaling message to detect the syntax error, correlate the syntax error to an error code, and correlate the error code to a uniform resource identifier (URI). The communication transceiver is configured to transfer the error code and the URI for delivery to the wireless communication device, wherein the wireless communication device uses the URI to retrieve correction data for the syntax error.