mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, configured to perform a method for determining a physical uplink control channel, PUCCH, resource for hybrid automatic repeat request, HARQ, acknowledgment, ACK, data transmission, the method comprising: ordering downlink control information, DCI, fields according to an ascending order of serving cells for a given monitoring occasion, MO, having a given MO index first and then ascending order of MO indices; identifying a plurality of valid DCIs per MO per serving cell; and determining the PUCCH resource from a physical downlink control channel, PDCCH, in a MO having the largest MO index on the serving cell with a largest cell index; transmitting the HARQ ACK data according to the determined PUCCH resource. ordering downlink control information, DCI, fields according to an ascending order of serving cells for a given monitoring occasion, MO, having a given MO index first and then ascending order of MO indices; identifying a plurality of valid DCIs per MO per serving cell; and determining the PUCCH resource from a physical downlink control channel, PDCCH, in a MO having the largest MO index on the serving cell with a largest cell index; transmitting the HARQ ACK data according to the determined PUCCH resource.
A centrifugal compressor comprising: an impeller that is mounted on a rotor shaft, and compresses fluid flowing in from an intake, and then discharges the compressed fluid from a discharge port; an inlet casing that houses the impeller; a scroll section which is disposed on an outer peripheral side with respect to the inlet casing, and into which the compressed fluid discharged from the discharge port flows; a plurality of partition plates provided on an upstream side in a fluid circulation direction with respect to the intake, and each having a predetermined length in a direction of an axial line of the rotor shaft, and a silencer having a silencer casing for housing the plurality of partition plates, wherein the plurality of partition plates are radially disposed about the axial line, characterized in that the plurality of partition plates each are of a rolled steel material having a plate thickness of 4 mm or more and 9 mm or less, the partition plates having plastic deformation ductility; and the plate thickness being a thickness which does not cause the inlet casing to scatter outside. an impeller that is mounted on a rotor shaft, and compresses fluid flowing in from an intake, and then discharges the compressed fluid from a discharge port; an inlet casing that houses the impeller; a scroll section which is disposed on an outer peripheral side with respect to the inlet casing, and into which the compressed fluid discharged from the discharge port flows; a plurality of partition plates provided on an upstream side in a fluid circulation direction with respect to the intake, and each having a predetermined length in a direction of an axial line of the rotor shaft, and a silencer having a silencer casing for housing the plurality of partition plates, wherein the plurality of partition plates are radially disposed about the axial line, characterized in that the plurality of partition plates each are of a rolled steel material having a plate thickness of 4 mm or more and 9 mm or less, the partition plates having plastic deformation ductility; and the plate thickness being a thickness which does not cause the inlet casing to scatter outside.
A substrate support system for a conveyor printer, comprising: a support unit comprising: a plurality of vacuum apertures arranged for fluidic communication with a source of negative pressure, wherein the plurality of vacuum apertures comprises a plurality of slots in an upper surface of the support unit; and a plurality of air bearings arranged in an array and arranged for fluidic communication with a source of positive pressure, wherein each air bearing comprises porous media, wherein the porous media comprises carbon, and wherein each air bearing comprises an upper surface of the porous media arranged above the upper surface of the support unit; and a conveyor belt arranged over the upper surface of the support unit for supporting a substrate to be printed on, the conveyor belt comprising a plurality of belt apertures; wherein the vacuum apertures are arranged to convey a negative pressure through the belt apertures for retaining the substrate on the conveyor belt; and wherein the plurality of air bearings is arranged to convey a positive pressure to support the conveyor belt. a support unit comprising: a plurality of vacuum apertures arranged for fluidic communication with a source of negative pressure, wherein the plurality of vacuum apertures comprises a plurality of slots in an upper surface of the support unit; and a plurality of air bearings arranged in an array and arranged for fluidic communication with a source of positive pressure, wherein each air bearing comprises porous media, wherein the porous media comprises carbon, and wherein each air bearing comprises an upper surface of the porous media arranged above the upper surface of the support unit; and a conveyor belt arranged over the upper surface of the support unit for supporting a substrate to be printed on, the conveyor belt comprising a plurality of belt apertures; wherein the vacuum apertures are arranged to convey a negative pressure through the belt apertures for retaining the substrate on the conveyor belt; and wherein the plurality of air bearings is arranged to convey a positive pressure to support the conveyor belt.
A robotically controlled medical device, comprising: an end-effector configured to perform a medical procedure, preferably comprising a cardiac catheter; an actuator (18, 22, 60) for moving said end-effector; a controller for mechanically actuating said end-effector by energizing said actuator (18, 22, 60) to apply an oscillation vector on an actuation axis to said end-effector; a positional feedback system for periodically measuring a location of said end-effector, thereby creating a plurality of location data points measured as a function of time; and a processor programmed to process said plurality of location data points according to a Fourier transform algorithm such that a transfer function relating a position of said end-effector to a movement vector for said actuation axis is generated. an end-effector configured to perform a medical procedure, preferably comprising a cardiac catheter; an actuator (18, 22, 60) for moving said end-effector; a controller for mechanically actuating said end-effector by energizing said actuator (18, 22, 60) to apply an oscillation vector on an actuation axis to said end-effector; a positional feedback system for periodically measuring a location of said end-effector, thereby creating a plurality of location data points measured as a function of time; and a processor programmed to process said plurality of location data points according to a Fourier transform algorithm such that a transfer function relating a position of said end-effector to a movement vector for said actuation axis is generated.
A method of providing wafer access in a probe system, the method comprising: docking a first wafer cassette with the probe system, wherein the first wafer cassette includes a plurality of first slots, wherein the plurality of first slots is configured to contain a plurality of wafers, wherein at least one of the plurality of first slots contains a wafer, and further wherein, subsequent to the docking the first wafer cassette, the first wafer cassette is in physical contact with the probe system; removing a selected wafer from the first wafer cassette with the probe system; performing a process operation on the selected wafer with the probe system, wherein the performing includes testing an operation of at least a portion of the selected wafer; undocking the first wafer cassette from the probe system during the performing, wherein, subsequent to the undocking, the first wafer cassette is not in physical contact with the probe system; docking a second wafer cassette with the probe system; inventorying the second wafer cassette with the probe system subsequent to the docking the second wafer cassette; and placing the selected wafer in the second wafer cassette subsequent to the performing, the undocking the first wafer cassette, the docking the second wafer cassette, and the inventorying. docking a first wafer cassette with the probe system, wherein the first wafer cassette includes a plurality of first slots, wherein the plurality of first slots is configured to contain a plurality of wafers, wherein at least one of the plurality of first slots contains a wafer, and further wherein, subsequent to the docking the first wafer cassette, the first wafer cassette is in physical contact with the probe system; removing a selected wafer from the first wafer cassette with the probe system; performing a process operation on the selected wafer with the probe system, wherein the performing includes testing an operation of at least a portion of the selected wafer; undocking the first wafer cassette from the probe system during the performing, wherein, subsequent to the undocking, the first wafer cassette is not in physical contact with the probe system; docking a second wafer cassette with the probe system; inventorying the second wafer cassette with the probe system subsequent to the docking the second wafer cassette; and placing the selected wafer in the second wafer cassette subsequent to the performing, the undocking the first wafer cassette, the docking the second wafer cassette, and the inventorying.
Method for producing fiber composite components, comprising the following method steps: - positioning a plurality of winding pins (5, 5.1 to 5.4), at least one of the winding pins (5, 5.1 to 5.4) having a contact surface (7, 7.1 to 7.3), - laying at least one fiber around the winding pins (5, 5.1 to 5.4) so that they connect two or more winding pins (5, 5.1 to 5.4) together, - curing the resin and characterized by - reworking the at least one contact surface (7, 7.1 to 7.3) to compensate for position and/or alignment deviations after curing. - positioning a plurality of winding pins (5, 5.1 to 5.4), at least one of the winding pins (5, 5.1 to 5.4) having a contact surface (7, 7.1 to 7.3), - laying at least one fiber around the winding pins (5, 5.1 to 5.4) so that they connect two or more winding pins (5, 5.1 to 5.4) together, - curing the resin and characterized by - reworking the at least one contact surface (7, 7.1 to 7.3) to compensate for position and/or alignment deviations after curing.
An image processing method for dilating an object in a binary image represented by run-length code, the image processing method comprising: obtaining a target dilation amount (Dt) representing how much the object is to be dilated; determining a first dilation amount which has a smaller value as a density of runs in the binary image increases, wherein a run is a series of consecutive pixels with the same value; comparing the target dilation amount and the first dilation amount; and performing (S105-S110) an dilation processing based on a result of the comparison, wherein if the target dilation amount is larger than the first dilation amount, a first dilation processing (S105, S106) of dilating the object by the first dilation amount and a second dilation processing (S107, S108) of dilating the object after the first dilation processing by a second dilation amount are performed as the dilation processing, the second dilation amount being a difference between the target dilation amount and the first dilation amount, and if the target dilation amount is equal to or smaller than the first dilation amount, the dilation processing (S109, S110) of directly dilating the object by the target dilation amount is performed. obtaining a target dilation amount (Dt) representing how much the object is to be dilated; determining a first dilation amount which has a smaller value as a density of runs in the binary image increases, wherein a run is a series of consecutive pixels with the same value; comparing the target dilation amount and the first dilation amount; and performing (S105-S110) an dilation processing based on a result of the comparison, wherein if the target dilation amount is larger than the first dilation amount, a first dilation processing (S105, S106) of dilating the object by the first dilation amount and a second dilation processing (S107, S108) of dilating the object after the first dilation processing by a second dilation amount are performed as the dilation processing, the second dilation amount being a difference between the target dilation amount and the first dilation amount, and if the target dilation amount is equal to or smaller than the first dilation amount, the dilation processing (S109, S110) of directly dilating the object by the target dilation amount is performed.
Quick coupling for fastening of a working tool to a machine, comprising a frame equipped with ordinary fastening appliances for fastening to the machine and a pressure cylinder arranged to drive a first and a second locking device (5, 6) in opposite directions and engage with respective first and second fastening shafts on the tool, where at least one of said locking devices comprises a cradle with an internal approximate U-shape that is arranged to contain the fastening shaft, and which is mounted to rotate eccentrically with respect to the centre axis of the fastening shaft under the influence of the pressure cylinder, characterised in that the quick coupling is equipped with a locking- and securing device to prevent that the cradle rotates out of its engagement with the fastening shaft, where the locking- and securing device comprises a pin that is arranged to be inserted into a recess on the cradle.
A radio wave propagation characteristic estimation apparatus comprising: an estimation technique determining means that determines in advance, for each of groups classified in accordance with measurement conditions that include all or a combination of some of the frequency of radio waves, an above-ground level of a transmission antenna, and the distance between a transmission point and a reception point, one of a ray tracing method, an Okumura-Hata method, and a plane-earth propagation model method, as an optimum radio wave propagation characteristic estimation technique, based on calculated values of estimation accuracy that are calculated by comparing estimated values that are calculated in accordance with the ray tracing method, the Okumura-Hata method, and the plane-earth propagation model method with an actual measured value of the radio waves; and a radio wave propagation characteristic estimating means that discriminates a group corresponding to measurement conditions that are input along with an input command for a simulation at a desired location and that include all or a combination of some of the frequency of the radio waves, an above-ground level of a transmission antenna, and the distance between a transmission point and a reception point, sets an optimum radio wave propagation characteristic estimation technique corresponding to the discriminated group that is determined by the estimation technique determining means, and estimates radio wave propagation characteristics in accordance with the set radio wave propagation characteristic estimation technique. an estimation technique determining means that determines in advance, for each of groups classified in accordance with measurement conditions that include all or a combination of some of the frequency of radio waves, an above-ground level of a transmission antenna, and the distance between a transmission point and a reception point, one of a ray tracing method, an Okumura-Hata method, and a plane-earth propagation model method, as an optimum radio wave propagation characteristic estimation technique, based on calculated values of estimation accuracy that are calculated by comparing estimated values that are calculated in accordance with the ray tracing method, the Okumura-Hata method, and the plane-earth propagation model method with an actual measured value of the radio waves; and a radio wave propagation characteristic estimating means that discriminates a group corresponding to measurement conditions that are input along with an input command for a simulation at a desired location and that include all or a combination of some of the frequency of the radio waves, an above-ground level of a transmission antenna, and the distance between a transmission point and a reception point, sets an optimum radio wave propagation characteristic estimation technique corresponding to the discriminated group that is determined by the estimation technique determining means, and estimates radio wave propagation characteristics in accordance with the set radio wave propagation characteristic estimation technique.
An apparatus for presenting images on an electronic display assembly of a mirrored display comprising: the electronic display assembly having a viewing area and comprising a backlight; a cover glass 204 having a surface area, wherein said cover glass is positioned in front of, and substantially parallel with, the electronic display assembly such that the surface area substantially covers the viewing area; a reflective layer positioned on and substantially coextensive with said cover glass, wherein said reflective layer is partially silvered where the reflective layer is located above the viewing area and substantially fully silvered on the remaining surface thereof; a sensor configured to detect a presence of a person in front of said mirrored display; and a processor electrically connected with said sensor and said electronic display assembly, characterised in that said processor is configured to: operate said electronic display assembly in a first mode, comprising driving the backlight at a first, non-zero power level and displaying at least one of the images on the electronic display assembly; and upon receipt of data from the sensor indicating detection of the presence of the person, subsequently operate the electronic display assembly in a second mode, comprising driving the backlight at a second, non-zero power level which is greater than the first, non-zero power level. the electronic display assembly having a viewing area and comprising a backlight; a cover glass 204 having a surface area, wherein said cover glass is positioned in front of, and substantially parallel with, the electronic display assembly such that the surface area substantially covers the viewing area; a reflective layer positioned on and substantially coextensive with said cover glass, wherein said reflective layer is partially silvered where the reflective layer is located above the viewing area and substantially fully silvered on the remaining surface thereof; a sensor configured to detect a presence of a person in front of said mirrored display; and a processor electrically connected with said sensor and said electronic display assembly, characterised in that said processor is configured to: operate said electronic display assembly in a first mode, comprising driving the backlight at a first, non-zero power level and displaying at least one of the images on the electronic display assembly; and upon receipt of data from the sensor indicating detection of the presence of the person, subsequently operate the electronic display assembly in a second mode, comprising driving the backlight at a second, non-zero power level which is greater than the first, non-zero power level. operate said electronic display assembly in a first mode, comprising driving the backlight at a first, non-zero power level and displaying at least one of the images on the electronic display assembly; and upon receipt of data from the sensor indicating detection of the presence of the person, subsequently operate the electronic display assembly in a second mode, comprising driving the backlight at a second, non-zero power level which is greater than the first, non-zero power level.
Brush seal for a turbine, in particular an aircraft gas turbine, comprising a sealing element (20; 120) and a sealing surface (14; 114) which interacts with the sealing element (20; 120), the sealing element (20; 120) and the sealing surface (14; 114) being arranged concentrically around a machine axis of the turbine and being rotatable relative to one another about the machine axis, the sealing element (20; 120) and the sealing surface (14; 114) being designed such that an intermediate space is formed between them in a first operating state, and such that a sealing contact is produced between the sealing element (20; 120) and the sealing surface (14; 114) in a second operating state, characterized in that the sealing contact between the sealing element (20; 120) and the sealing surface (14; 114) in the second operating state, in which the sealing element (20; 120) and the sealing surface (14; 114) are subjectto an operating temperature of the turbine of several hundred degrees Celsius, is produced by means of thermal expansion on the sealing surface and/or on the sealing element.
A method of determining a modulation and coding scheme, MCS, to be applied to data in a wireless communication system, the method performed by a user equipment comprising: reporting, to a base station, channel state information comprising a first measurement value related to a channel state between the user equipment and the base station, receiving, from the base station, at least one downlink reference signal, calculating a second measurement value related to the channel state using the received at least one downlink reference signal, transmitting, to the base station, a first scheduling request to request a change in a designated MCS for downlink data based on the second measurement value being a preset threshold value or less compared to the first measurement value, and receiving, from the base station, the downlink data to which a changed MCS has been applied, wherein the first scheduling request is differentiated from a second scheduling request which is transmitted in the on-off state of energy using the PUCCH format 1 for the scheduling request of uplink data, and wherein the first scheduling request consists of a bitmap used for indicating at least one of i) a beam-related uplink control information multiplexing request to feedback beam state information in an uplink data channel, ii) a reference signal request for beam refinement, and iii) a request to change in the designated MCS for the downlink data. reporting, to a base station, channel state information comprising a first measurement value related to a channel state between the user equipment and the base station, receiving, from the base station, at least one downlink reference signal, calculating a second measurement value related to the channel state using the received at least one downlink reference signal, transmitting, to the base station, a first scheduling request to request a change in a designated MCS for downlink data based on the second measurement value being a preset threshold value or less compared to the first measurement value, and receiving, from the base station, the downlink data to which a changed MCS has been applied, wherein the first scheduling request is differentiated from a second scheduling request which is transmitted in the on-off state of energy using the PUCCH format 1 for the scheduling request of uplink data, and wherein the first scheduling request consists of a bitmap used for indicating at least one of i) a beam-related uplink control information multiplexing request to feedback beam state information in an uplink data channel, ii) a reference signal request for beam refinement, and iii) a request to change in the designated MCS for the downlink data.