mhurhangee/ep-ind-claims huggingface dataset:
An instrument system for treating a sinus of a subject, the instrument system comprising: an instrument including: a base configured to be gripped by an operator; an elongate probe including a probe proximal end coupled with the base and extending to a probe distal end, the probe including: an aspiration lumen terminating at an inlet port proximate the probe distal end; and a delivery lumen terminating at an outlet port proximate the probe distal end; a dilation balloon mounted on the probe proximate the probe distal end, wherein the dilation balloon is expandable into an expanded configuration to execute a dilation operation; and an integral lighting system including: a light source; a battery to power the light source; and a waveguide on the probe and having a light emitting end proximate the probe distal end, wherein the waveguide is configured to transmit light from the light source to the light emitting end. a base configured to be gripped by an operator; an elongate probe including a probe proximal end coupled with the base and extending to a probe distal end, the probe including: an aspiration lumen terminating at an inlet port proximate the probe distal end; and a delivery lumen terminating at an outlet port proximate the probe distal end; an aspiration lumen terminating at an inlet port proximate the probe distal end; and a delivery lumen terminating at an outlet port proximate the probe distal end; a dilation balloon mounted on the probe proximate the probe distal end, wherein the dilation balloon is expandable into an expanded configuration to execute a dilation operation; and an integral lighting system including: a light source; a battery to power the light source; and a waveguide on the probe and having a light emitting end proximate the probe distal end, wherein the waveguide is configured to transmit light from the light source to the light emitting end. a light source; a battery to power the light source; and a waveguide on the probe and having a light emitting end proximate the probe distal end, wherein the waveguide is configured to transmit light from the light source to the light emitting end.
A method comprising: receiving an image captured by a camera, the image including a first plurality of image data representing pixels in the image; determining an estimated ambient light level of the image based on the first plurality of image data, wherein the estimated ambient light level is determined by scaling pixel values from a sensor in the camera using a function that includes a camera specific parameter and exposure parameters used on the camera when the image was captured to obtain one or more absolute scene light levels, the exposure parameters including an aperture setting, an exposure time setting and a sensor sensitivity setting and wherein the camera specific parameter is derived from a camera calibration; computing an optical-optical transfer function, OOTF, based on the estimated ambient light level; transforming image data derived from the first plurality of image data by correcting the image data derived from the first plurality of image data using the OOTF, the transforming configured to preserve an apparent contrast of the image under the estimated ambient light level in a viewing environment when the image is displayed in the viewing environment. receiving an image captured by a camera, the image including a first plurality of image data representing pixels in the image; determining an estimated ambient light level of the image based on the first plurality of image data, wherein the estimated ambient light level is determined by scaling pixel values from a sensor in the camera using a function that includes a camera specific parameter and exposure parameters used on the camera when the image was captured to obtain one or more absolute scene light levels, the exposure parameters including an aperture setting, an exposure time setting and a sensor sensitivity setting and wherein the camera specific parameter is derived from a camera calibration; computing an optical-optical transfer function, OOTF, based on the estimated ambient light level; transforming image data derived from the first plurality of image data by correcting the image data derived from the first plurality of image data using the OOTF, the transforming configured to preserve an apparent contrast of the image under the estimated ambient light level in a viewing environment when the image is displayed in the viewing environment.
A method of a user equipment, UE, comprising: detecting, at the UE, that a calling identifier received as part of initiating a call, by the UE, matches a first emergency identifier, the first emergency identifier associated with information related to a Uniform Resource Name, URN; detecting, at the UE, that the UE is in a second network different from a first network, wherein the first emergency identifier is configured by the first network; and in response to the detecting that the UE is in the second network different from the first network, including, by the UE, a particular emergency service URN, in a Session Initiation Protocol, SIP, INVITE message to be transmitted by the UE, wherein the particular emergency service URN is urn:service:sos and wherein the transmission of the SIP INVITE message is an attempt to initiate an emergency session. detecting, at the UE, that a calling identifier received as part of initiating a call, by the UE, matches a first emergency identifier, the first emergency identifier associated with information related to a Uniform Resource Name, URN; detecting, at the UE, that the UE is in a second network different from a first network, wherein the first emergency identifier is configured by the first network; and in response to the detecting that the UE is in the second network different from the first network, including, by the UE, a particular emergency service URN, in a Session Initiation Protocol, SIP, INVITE message to be transmitted by the UE, wherein the particular emergency service URN is urn:service:sos and wherein the transmission of the SIP INVITE message is an attempt to initiate an emergency session.
A condensed water treatment device configured to be used with an internal combustion engine, the internal combustion engine comprising: an EGR device which has an EGR passage leading a part of exhaust gas as EGR gas to an intake system, an EGR valve for adjusting the flow rate of EGR gas to be led to the intake system and an EGR cooler cooling the EGR gas; a filter which captures PM included in the exhaust gas; an EGR quantity calculating device which is configured to calculate an EGR quantity, which is an inflow quantity of the EGR gas to the intake system, based on an operating state; and a filter regeneration controlling device which is configured to execute a filter regeneration control in which the PM captured by the filter is removed, wherein the condensed water treatment device comprises: a condensed water tank which is configured to store condensed water generated in the EGR cooler; and an EGR quantity increasing device which is configured to, within a specific time period from a moment when execution of the filter regeneration control is started to a moment after a predetermined time has elapsed following the end of the execution, control the EGR valve to increase the EGR quantity so as to be larger than a normative gas quantity, which is the EGR quantity calculated by the EGR quantity calculating device, in a case where a storage water quantity of the condensed water stored in the condensed water tank is smaller than a normative water quantity. a condensed water tank which is configured to store condensed water generated in the EGR cooler; and an EGR quantity increasing device which is configured to, within a specific time period from a moment when execution of the filter regeneration control is started to a moment after a predetermined time has elapsed following the end of the execution, control the EGR valve to increase the EGR quantity so as to be larger than a normative gas quantity, which is the EGR quantity calculated by the EGR quantity calculating device, in a case where a storage water quantity of the condensed water stored in the condensed water tank is smaller than a normative water quantity.
A computer-implemented method for synchronizing clocks in power grid devices, the method being performed by a clock-leader unit, the method comprising: receiving an indication of a new clock signal for a plurality of clock-follower units to follow, for use in synchronizing clocks of the plurality of clock-follower units; sending an instruction to the plurality of clock-follower units to calibrate based on the new clock signal; obtaining a confirmation that the plurality of clock-follower units has completed calibration; and in response to obtaining the confirmation, sending an instruction to the plurality of clock-follower units to follow the new clock signal. receiving an indication of a new clock signal for a plurality of clock-follower units to follow, for use in synchronizing clocks of the plurality of clock-follower units; sending an instruction to the plurality of clock-follower units to calibrate based on the new clock signal; obtaining a confirmation that the plurality of clock-follower units has completed calibration; and in response to obtaining the confirmation, sending an instruction to the plurality of clock-follower units to follow the new clock signal.
An electrosurgical generator, comprising: an RF output stage configured to generate at least one electrosurgical waveform including a plurality of cycles, each cycle including one positive half-cycle and one negative half-cycle; at least one sensor coupled to the RF output stage, the at least one sensor configured to measure a voltage and a current of the at least one electrosurgical waveform and to detect a peak voltage of each of the positive half-cycle and the negative half-cycle; and a controller coupled to the at least one sensor, the controller configured to compare the peak voltage of the positive half-cycle and the peak voltage of the negative half-cycle to determine generation of electrical discharges, the controller further configured to adjust the current of the at least one electrosurgical waveform to regulate the generation of the electrical discharges based on a comparison of the peak voltage of the positive half-cycle and the peak voltage of the negative half-cycle. an RF output stage configured to generate at least one electrosurgical waveform including a plurality of cycles, each cycle including one positive half-cycle and one negative half-cycle; at least one sensor coupled to the RF output stage, the at least one sensor configured to measure a voltage and a current of the at least one electrosurgical waveform and to detect a peak voltage of each of the positive half-cycle and the negative half-cycle; and a controller coupled to the at least one sensor, the controller configured to compare the peak voltage of the positive half-cycle and the peak voltage of the negative half-cycle to determine generation of electrical discharges, the controller further configured to adjust the current of the at least one electrosurgical waveform to regulate the generation of the electrical discharges based on a comparison of the peak voltage of the positive half-cycle and the peak voltage of the negative half-cycle. at least one sensor coupled to the RF output stage, the at least one sensor configured to measure a voltage and a current of the at least one electrosurgical waveform and to detect a peak voltage of each of the positive half-cycle and the negative half-cycle; and a controller coupled to the at least one sensor, the controller configured to compare the peak voltage of the positive half-cycle and the peak voltage of the negative half-cycle to determine generation of electrical discharges, the controller further configured to adjust the current of the at least one electrosurgical waveform to regulate the generation of the electrical discharges based on a comparison of the peak voltage of the positive half-cycle and the peak voltage of the negative half-cycle.
A coating thickness measuring instrument comprising: a. an electromagnetic probe for measuring the thickness of a coating applied to a surface and producing an output relating to the measured thickness; b. a memory (4,5) for storing calibration data; c. a processor arranged to process the output produced by the probe, together with calibration data stored by the memory, to produce a calibrated coating thickness measurement; and characterised in that d. at least two sets of calibration data are stored in the memory, each set appropriate to and associated with a different known surface profile value thus enabling the instrument to produce an accurate measurement of the thickness of a coating applied to a surface having the associated known surface profile value; and in that e. the instrument comprises input means arranged so to enable a user to select the set of calibration data to be used by the processor according to the surface profile value of the surface on which a measurement is to be made. a. an electromagnetic probe for measuring the thickness of a coating applied to a surface and producing an output relating to the measured thickness; b. a memory (4,5) for storing calibration data; c. a processor arranged to process the output produced by the probe, together with calibration data stored by the memory, to produce a calibrated coating thickness measurement; and characterised in that d. at least two sets of calibration data are stored in the memory, each set appropriate to and associated with a different known surface profile value thus enabling the instrument to produce an accurate measurement of the thickness of a coating applied to a surface having the associated known surface profile value; and in that e. the instrument comprises input means arranged so to enable a user to select the set of calibration data to be used by the processor according to the surface profile value of the surface on which a measurement is to be made.
A fiber-reinforced resin member comprising a plurality of fiber-reinforced resin layers (17, 18) laminated one on another in which each of the fiber-reinforced resin layers (17, 18) comprise a synthetic resin reinforced by continuous fibers (19, 20) arranged inside the synthetic resin, the fiber-reinforced resin layers (17, 18) comprising a corner part in an axially right-angled cross section, which is orthogonal with respect to an axial direction thereof, wherein the continuous fibers comprise axial fibers aligned in the axial direction and axially right-angled fibers aligned at right angles to the axial direction, and the plurality of fiber-reinforced resin layers include a first layer defining an outer side of the corner part and a second layer defining an inner side of the corner part, wherein the number of layers formed by the axially right-angled fibers in the first layer is larger than the number of layers formed by the axially right-angled fibers in the second layer. the continuous fibers comprise axial fibers aligned in the axial direction and axially right-angled fibers aligned at right angles to the axial direction, and the plurality of fiber-reinforced resin layers include a first layer defining an outer side of the corner part and a second layer defining an inner side of the corner part, wherein the number of layers formed by the axially right-angled fibers in the first layer is larger than the number of layers formed by the axially right-angled fibers in the second layer.
A medical device having a longitudinal axis, comprising: a handle, including: a body having a proximal end and a distal end; an actuator moveably coupled to the body; and at least one handle control member coupled to the actuator; a catheter, including: a shaft having a proximal end and a distal end, wherein the proximal end of the shaft and the distal end of the body are configured for releasable coupling; a steering section located along the shaft; and at least one catheter control member coupled to the steering section, wherein the catheter control member is configured to move relative to the shaft to move the steering section relative to the longitudinal axis; wherein the actuator is configured to move relative to the body to move the handle control member; and the medical device further comprises a securing member configured to move relative to at least one of the handle and the catheter to releasably couple the handle control member to the catheter control member. a handle, including: a body having a proximal end and a distal end; an actuator moveably coupled to the body; and at least one handle control member coupled to the actuator; a body having a proximal end and a distal end; an actuator moveably coupled to the body; and at least one handle control member coupled to the actuator; a catheter, including: a shaft having a proximal end and a distal end, wherein the proximal end of the shaft and the distal end of the body are configured for releasable coupling; a steering section located along the shaft; and at least one catheter control member coupled to the steering section, wherein the catheter control member is configured to move relative to the shaft to move the steering section relative to the longitudinal axis; wherein the actuator is configured to move relative to the body to move the handle control member; and the medical device further comprises a securing member configured to move relative to at least one of the handle and the catheter to releasably couple the handle control member to the catheter control member. a shaft having a proximal end and a distal end, wherein the proximal end of the shaft and the distal end of the body are configured for releasable coupling; a steering section located along the shaft; and at least one catheter control member coupled to the steering section, wherein the catheter control member is configured to move relative to the shaft to move the steering section relative to the longitudinal axis; wherein the actuator is configured to move relative to the body to move the handle control member; and the medical device further comprises a securing member configured to move relative to at least one of the handle and the catheter to releasably couple the handle control member to the catheter control member.
A non-volatile memory device comprising: a memory cell array including a plurality of cell strings (NS11 - NS1m), each cell string extending in a vertical direction above a substrate and each cell string including a plurality of memory cells respectively connected to a plurality of word lines (WL1 - WLn) and a string select transistor connected to a string select line; a page buffer circuit including a plurality of page buffers (PB1 - PBm) connected to the memory cell array, each page buffer (PB1 - PBm) including a forcing latch configured to store forcing information and each page buffer (PB1 - PBm) is connected to a selected cell string through a bit line (BL1 - BLm); and a control logic circuit characterised in that the control logic circuit is configured to, during a program operation on a selected word line, control at least two of a first voltage applied to the string select line in a first interval before a bit line forcing operation for transferring the forcing information to the selected cell string through the bit line (BL1 - BLm), a second voltage applied to the string select line in a second interval in which the bit line forcing operation is performed, and a third voltage applied to the string select line in a third interval after the bit line forcing operation is performed, to be different from each other. a memory cell array including a plurality of cell strings (NS11 - NS1m), each cell string extending in a vertical direction above a substrate and each cell string including a plurality of memory cells respectively connected to a plurality of word lines (WL1 - WLn) and a string select transistor connected to a string select line; a page buffer circuit including a plurality of page buffers (PB1 - PBm) connected to the memory cell array, each page buffer (PB1 - PBm) including a forcing latch configured to store forcing information and each page buffer (PB1 - PBm) is connected to a selected cell string through a bit line (BL1 - BLm); and a control logic circuit characterised in that the control logic circuit is configured to, during a program operation on a selected word line, control at least two of a first voltage applied to the string select line in a first interval before a bit line forcing operation for transferring the forcing information to the selected cell string through the bit line (BL1 - BLm), a second voltage applied to the string select line in a second interval in which the bit line forcing operation is performed, and a third voltage applied to the string select line in a third interval after the bit line forcing operation is performed, to be different from each other.
A wearable headheld scanner comprising: a camera configured for producing image data of a product; a display configured for providing displays including product related data; a programmed processor configured for processing image data to look up and retrieve product data from a store server for the product and control the display of retrieved product data to a wearer of the wearable headheld scanner characterized in that the wearable headheld scanner further comprises a projector configured to project a virtual peripheral (420, 430) on a checkstand surface. a camera configured for producing image data of a product; a display configured for providing displays including product related data; a programmed processor configured for processing image data to look up and retrieve product data from a store server for the product and control the display of retrieved product data to a wearer of the wearable headheld scanner characterized in that the wearable headheld scanner further comprises a projector configured to project a virtual peripheral (420, 430) on a checkstand surface.
A method for performing wireless communication by a first device, the method comprising: receiving, from a network, a plurality of downlink control informations, DCIs, including scheduling information for sidelink, SL, resources; transmitting, to a second device, a plurality of physical sidelink shared channels, PSSCHs, based on the SL resources; obtaining HARQ feedback information for the plurality of PSSCHs based on a reception through a physical sidelink feedback channel, PSFCH; and transmitting, to the network, the HARQ feedback information for the plurality of PSSCHs, wherein each of the plurality of DCIs includes information for a corresponding physical uplink control channel, PUCCH, resource, wherein the HARQ feedback information for the plurality of PSSCHs is transmitted on a PUCCH resource indicated by a last DCI among the plurality of DCIs, based on the plurality of DCIs indicating PUCCH resources in a same slot, and wherein the PUCCH resources are indicated based on a PSFCH slot. receiving, from a network, a plurality of downlink control informations, DCIs, including scheduling information for sidelink, SL, resources; transmitting, to a second device, a plurality of physical sidelink shared channels, PSSCHs, based on the SL resources; obtaining HARQ feedback information for the plurality of PSSCHs based on a reception through a physical sidelink feedback channel, PSFCH; and transmitting, to the network, the HARQ feedback information for the plurality of PSSCHs, wherein each of the plurality of DCIs includes information for a corresponding physical uplink control channel, PUCCH, resource, wherein the HARQ feedback information for the plurality of PSSCHs is transmitted on a PUCCH resource indicated by a last DCI among the plurality of DCIs, based on the plurality of DCIs indicating PUCCH resources in a same slot, and wherein the PUCCH resources are indicated based on a PSFCH slot.