mhurhangee/ep-ind-claims huggingface dataset:
A wireless ranging method comprising: identifying a first interference tolerance parameter for distance estimation at a first device; defining a first timeout condition based on the first interference tolerance parameter; for a first distance estimation session: initiating transmission and receipt of a plurality of packets to generate a plurality of time-of-flight values; in response to determining that the first timeout condition has expired, exiting the first distance estimation session without completing transmission and reception of the plurality of packets; and in response to completing the first distance estimation session: generating an effective time-of-flight value based on a combination of the plurality of the time-of-flight values; and identifying a distance between the first device and a second device based on the effective time-of-flight value. identifying a first interference tolerance parameter for distance estimation at a first device; defining a first timeout condition based on the first interference tolerance parameter; for a first distance estimation session: initiating transmission and receipt of a plurality of packets to generate a plurality of time-of-flight values; in response to determining that the first timeout condition has expired, exiting the first distance estimation session without completing transmission and reception of the plurality of packets; and in response to completing the first distance estimation session: generating an effective time-of-flight value based on a combination of the plurality of the time-of-flight values; and identifying a distance between the first device and a second device based on the effective time-of-flight value. initiating transmission and receipt of a plurality of packets to generate a plurality of time-of-flight values; in response to determining that the first timeout condition has expired, exiting the first distance estimation session without completing transmission and reception of the plurality of packets; and in response to completing the first distance estimation session: generating an effective time-of-flight value based on a combination of the plurality of the time-of-flight values; and identifying a distance between the first device and a second device based on the effective time-of-flight value. generating an effective time-of-flight value based on a combination of the plurality of the time-of-flight values; and identifying a distance between the first device and a second device based on the effective time-of-flight value.
A wireless communication method of signaling coordinated multipoint, CoMP, states with one transport block, TB, enabled and one TB disabled, comprising: transmitting a downlink control information, DCI, from a transmission point, TP, to a user equipment, UE, for the enabled TB and the disabled TB, wherein the DCI comprises a 8-value indicator to indicate: demodulation reference signal, DMRS, antenna ports; scrambling identity; number of layers; and CoMP states for the enabled TB in conjunction with a new data indicator, NDI, of the disabled TB; if an NDI of the enabled TB is untoggled or the value of the 8-value indicator for the enabled TB is equal to 0, 1, 2, or 3, the UE using the NDI of the disabled TB to select a CoMP state from a first CoMP state and a second CoMP state; and if the NDI of the enabled TB is toggled and the value of the 8-value indicator is 4, 5, 6, or 7, the UE interpreting that a single layer and a third CoMP state are configured for the enabled TB, and obtaining the information of whether the enabled TB is initial transmission or retransmission based on the NDI of the disabled TB. transmitting a downlink control information, DCI, from a transmission point, TP, to a user equipment, UE, for the enabled TB and the disabled TB, wherein the DCI comprises a 8-value indicator to indicate: demodulation reference signal, DMRS, antenna ports; scrambling identity; number of layers; and CoMP states for the enabled TB in conjunction with a new data indicator, NDI, of the disabled TB; if an NDI of the enabled TB is untoggled or the value of the 8-value indicator for the enabled TB is equal to 0, 1, 2, or 3, the UE using the NDI of the disabled TB to select a CoMP state from a first CoMP state and a second CoMP state; and if the NDI of the enabled TB is toggled and the value of the 8-value indicator is 4, 5, 6, or 7, the UE interpreting that a single layer and a third CoMP state are configured for the enabled TB, and obtaining the information of whether the enabled TB is initial transmission or retransmission based on the NDI of the disabled TB.
Method for controlling electric drives in machines including a control unit and an operator control device, characterized in that the operator control device is used to enter a predefined limit of a maximum acceptable power input during operation into the control unit, that at least one sensor records data on the current state of the machine, and that these data are used by the control unit in a calculation of the power input required during operation for a preselected mode of operation.
A preform for a carbon-carbon composite, the preform comprising: a plurality of fibrous layers stacked and needled-punched together to form the preform in the shape of an annulus, the annulus comprising: an inner radial section that defines an inner preform diameter; and an outer radial section that defines an outer preform diameter; wherein each fibrous layer of the plurality of fibrous layers comprises a respective plurality of fabric segments, the respective plurality of fabric segments comprising at least one of carbon fibers or carbon-precursor fibers, wherein at least one fibrous layer of the plurality of fibrous layers comprises: a first fabric segment forming at least a portion the inner radial section, the first fabric segment defining a first segment bisector and a first fiber orientation angle; and a second fabric segment forming at least a portion the outer radial section, the second fabric segment defining a second segment bisector and a second fiber orientation angle, wherein the first and second segment bisectors are radially aligned within the at least one fibrous layer, and wherein the first fiber orientation angle is different than the second fiber orientation angle. a plurality of fibrous layers stacked and needled-punched together to form the preform in the shape of an annulus, the annulus comprising: an inner radial section that defines an inner preform diameter; and an outer radial section that defines an outer preform diameter; an inner radial section that defines an inner preform diameter; and an outer radial section that defines an outer preform diameter; wherein each fibrous layer of the plurality of fibrous layers comprises a respective plurality of fabric segments, the respective plurality of fabric segments comprising at least one of carbon fibers or carbon-precursor fibers, wherein at least one fibrous layer of the plurality of fibrous layers comprises: a first fabric segment forming at least a portion the inner radial section, the first fabric segment defining a first segment bisector and a first fiber orientation angle; and a second fabric segment forming at least a portion the outer radial section, the second fabric segment defining a second segment bisector and a second fiber orientation angle, wherein the first and second segment bisectors are radially aligned within the at least one fibrous layer, and wherein the first fiber orientation angle is different than the second fiber orientation angle. a first fabric segment forming at least a portion the inner radial section, the first fabric segment defining a first segment bisector and a first fiber orientation angle; and a second fabric segment forming at least a portion the outer radial section, the second fabric segment defining a second segment bisector and a second fiber orientation angle, wherein the first and second segment bisectors are radially aligned within the at least one fibrous layer, and wherein the first fiber orientation angle is different than the second fiber orientation angle.
A thermal printer printing an image on a paper sheet by a thermal head, characterized by: an image data extension processing unit generating extended image data having a plurality of extended pixels in which the number of pixels in a feed direction of a paper sheet is extended for image data of the image; a printing data correction processing unit correcting a density of at least one extended pixel of the plurality of extended pixels based on a change in a density of the plurality of extended pixels in the extended image data in the feed direction of the paper sheet or a change in a density of a plurality of pixels in the image data before being extended in the feed direction of the paper sheet; a printing unit printing the image on the paper sheet by the thermal head based on the extended image data in which the density of the at least one extended pixel is corrected; and an image data analyzing unit analyzing the change in the density of the plurality of pixels in the image data before being extended in the feed direction of the paper sheet, wherein the image data extension processing unit extends the number of pixels in the image data in the feed direction of the paper sheet to the number of extended pixels determined based on an analysis result of the image data analyzing unit, thereby generating the extended image data. an image data extension processing unit generating extended image data having a plurality of extended pixels in which the number of pixels in a feed direction of a paper sheet is extended for image data of the image; a printing data correction processing unit correcting a density of at least one extended pixel of the plurality of extended pixels based on a change in a density of the plurality of extended pixels in the extended image data in the feed direction of the paper sheet or a change in a density of a plurality of pixels in the image data before being extended in the feed direction of the paper sheet; a printing unit printing the image on the paper sheet by the thermal head based on the extended image data in which the density of the at least one extended pixel is corrected; and an image data analyzing unit analyzing the change in the density of the plurality of pixels in the image data before being extended in the feed direction of the paper sheet, wherein the image data extension processing unit extends the number of pixels in the image data in the feed direction of the paper sheet to the number of extended pixels determined based on an analysis result of the image data analyzing unit, thereby generating the extended image data.
Data processor (10; 10') operable to detect a communication to or from a mobile node via a first radio-coverage cell (Cell Z) at a first time (t 1), to detect a communication to or from the mobile node via a second radio-coverage cell (Cell A) at a second time (t 2), characterized in that said data processor (10; 10') is further operable to determine that the difference between the second time (t 2) and the first time (t 1) is less than a predetermined value (T max), and if so to identify the location of the first radio-coverage cell (Cell Z) based on knowledge of the location of the second radio-coverage cell (Cell A).
A capacitive interface device comprising a detection surface with: - one or more first capacitive electrodes extending at least in a first direction, - second capacitive electrodes arranged facing the first capacitive electrode or electrodes and extending in a second direction different from the first direction, - third capacitive electrodes arranged in a matrix between the second capacitive electrode and facing the first capacitive electrode or electrodes, and - linking tracks (24, 34) arranged in the detection surface so as to electrically connect a plurality of adjacent third capacitive electrodes; - a first electrically conductive layer with the first capacitive electrode or electrodes, and - a second electrically conductive layer with the second capacitive electrodes characterized in that it comprises: - a third electrically conductive layer, arranged between the first electrically conductive layer and the second electrically conductive layer, with the third capacitive electrodes and the linking tracks (24, 34). - one or more first capacitive electrodes extending at least in a first direction, - second capacitive electrodes arranged facing the first capacitive electrode or electrodes and extending in a second direction different from the first direction, - third capacitive electrodes arranged in a matrix between the second capacitive electrode and facing the first capacitive electrode or electrodes, and - linking tracks (24, 34) arranged in the detection surface so as to electrically connect a plurality of adjacent third capacitive electrodes; - a first electrically conductive layer with the first capacitive electrode or electrodes, and - a second electrically conductive layer with the second capacitive electrodes - a third electrically conductive layer, arranged between the first electrically conductive layer and the second electrically conductive layer, with the third capacitive electrodes and the linking tracks (24, 34).
Method for manufacturing a cladding component, in particular an exterior cladding component, for mounting onto the chassis of a motor vehicle, comprised of a main body which, in a first method step, is manufactured in a mold cavity in a foam injection molding process, and of a coating of at least partial surfaces of the main body, wherein the coating is applied to the main body, following the foam injection molding process, in the mold cavity in which the main body itself was produced, wherein the coating is a hard component with a hardness of at least 68 Shore D, wherein a female and a male are used to delimit the, apart from that, same mold cavity before the coating is applied, wherein, during the process, the mold cavity is altered in at least one dimension at least once, characterized in that, after the injection molding of the main body, instead of the first female, a second female is placed onto the male, almost to the main body, with no gap to the male, in order to enlarge the mold cavity. wherein the coating is a hard component with a hardness of at least 68 Shore D, wherein a female and a male are used to delimit the, apart from that, same mold cavity before the coating is applied, wherein, during the process, the mold cavity is altered in at least one dimension at least once, characterized in that, after the injection molding of the main body, instead of the first female, a second female is placed onto the male, almost to the main body, with no gap to the male, in order to enlarge the mold cavity.
Method for synthesizing 1,1-diamino-2,2-dinitroethylene (FOX-7) or a salt thereof, characterized in that an isourea derivative cation, which consists of a C(NH 2) (NH 2 +) radical and a nucleofugal leaving group bonded to the carbon atom of said C(NH 2) (NH 2 +) radical, is reacted with a dinitromethane anion, wherein the nucleofugal leaving group is selected from a group consisting of an O-alkyl, triazolyl, halide, carboyl halide, nonaflate, trifluoromethanesulphate, sulphonate, tosyl, mesyl, diazonium, oxonium, quaternary ammonium compound, ester, acid anhydride, nitrate, phosphate, organic ester, ammonium, phenol, alcohol and a carboxylic radical.
A journal supported hinge comprising a first leaf part and a second leaf part, which first leaf part comprises a first roll provided with a pivot journal, and which second leaf part comprises a second roll, into which the end of the pivot journal is to be placed, which first and second leaf parts (1, 2) further have openings (5, 5A, 8, 9), of which a portion of the openings of the first leaf part is provided with adjustment screws for lateral adjustment, wherein the journal supported hinge further comprises a base plate having a bottom plate and an edge projection, the edge projection and the bottom plate being same part, which bottom plate has openings (18,20), and on the side of one opening is a projection facing away from the first roll, the base plate being placed in connection with the first leaf part, the projection being bent to the side of the edge projection, which edge projection has an edge opening, which first leaf part has a second edge projection, which is to be placed in the edge opening of the base plate such that the projection is partially in one of the openings in the first leaf part, and there is a neck between said opening, into which the projection is to be placed, and the second edge projection, and the adjustment screws are against the bottom part, and the end of the projection partially in the opening in the first leaf part is to be placed against the side of the opening, the edge projection of the base plate, the second edge projection of the first leaf part and the projection being arranged to keep the base plate and the first leaf part together.
A liquid ejection device, comprising: a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged two-dimensionally in an XY direction; an actuator provided in each of the nozzles; a liquid supply unit configured to communicate with the nozzles; and a drive control unit, characterized in that the drive control unit is configured to, when one nozzle among the plurality of nozzles is given attention, give drive signals to actuators of nozzles adjacent the one nozzle in an X direction, in a -X direction, in a Y direction, and in a -Y direction to drive the actuators at a timing shifted by half of a drive period from a timing of an actuator of the one nozzle given attention. a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged two-dimensionally in an XY direction; an actuator provided in each of the nozzles; a liquid supply unit configured to communicate with the nozzles; and a drive control unit, characterized in that the drive control unit is configured to, when one nozzle among the plurality of nozzles is given attention, give drive signals to actuators of nozzles adjacent the one nozzle in an X direction, in a -X direction, in a Y direction, and in a -Y direction to drive the actuators at a timing shifted by half of a drive period from a timing of an actuator of the one nozzle given attention.
A preform for a turbine engine blade, the preform being obtained by three-dimensional weaving and comprising: a first longitudinal segment suitable for forming at least a portion of a blade root; a second longitudinal segment extending the first longitudinal segment upwards, and suitable for forming at least a portion of a stilt portion; a third longitudinal segment extending the second longitudinal segment upwards, and suitable for forming an airfoil portion; a first transverse segment extending transversely from the junction between the second and third longitudinal segments (32, 33), and suitable for forming a first platform; and a first oblique segment extending from the junction between the first and second longitudinal segments (31, 32) to the first transverse segment, and suitable for forming a retaining leg for the first platform. a first longitudinal segment suitable for forming at least a portion of a blade root; a second longitudinal segment extending the first longitudinal segment upwards, and suitable for forming at least a portion of a stilt portion; a third longitudinal segment extending the second longitudinal segment upwards, and suitable for forming an airfoil portion; a first transverse segment extending transversely from the junction between the second and third longitudinal segments (32, 33), and suitable for forming a first platform; and a first oblique segment extending from the junction between the first and second longitudinal segments (31, 32) to the first transverse segment, and suitable for forming a retaining leg for the first platform.
Method for reducing self-induced flame oscillations, wherein, into a first mass flow of fluid comprising air and flowing through a jet nozzle (2, 3) from a fluid inlet opening to a fluid outlet opening, there is injected a second mass flow of fluid comprising a fuel at at least one axial position on the jet nozzle (2, 3) downstream of the fluid inlet opening, characterised in that, from the fuel line from which the first mass flow of fluid flows into the jet nozzle (2, 3), a third mass flow of fluid is additionally injected into the first mass flow of fluid at a plurality of positions disposed mutually offset in the axial direction around the circumference of the jet nozzle (2, 3).
A device for translating between a first communication network and a second communication network, wherein the first communication network is a deterministic communication network and the second communication network is a mobile communication network, wherein the device comprises: an application function configured to: translate between Quality-of-Service, QoS, parameters of the first communication network and QoS parameters of the second communication network; generate a QoS profile comprising the QoS parameters of the first communication network translated by the application function into QoS parameters of the second communication network; and provide the QoS profile to the second communication network, wherein the application function is configured to provide an interface to the first communication network, in particular to a configuration entity of the first communication network, for receiving the QoS parameters of the first communication network, and provide an interface to the second communication network, in particular to a policy control function, PCF, of the second communication network or via a network exposure function, NEF, (403, 1301) to the PCF of the second communication network to provide the QoS profile to the second communication network, wherein the application function (1611, 402) is further configured to receive a modified QoS profile from the PCF if the second communication network rejects the QoS profile, and transmit the translated QoS parameters corresponding to the modified QoS profile to the first communication network. translate between Quality-of-Service, QoS, parameters of the first communication network and QoS parameters of the second communication network; generate a QoS profile comprising the QoS parameters of the first communication network translated by the application function into QoS parameters of the second communication network; and provide the QoS profile to the second communication network, wherein the application function is configured to provide an interface to the first communication network, in particular to a configuration entity of the first communication network, for receiving the QoS parameters of the first communication network, and provide an interface to the second communication network, in particular to a policy control function, PCF, of the second communication network or via a network exposure function, NEF, (403, 1301) to the PCF of the second communication network to provide the QoS profile to the second communication network, wherein the application function (1611, 402) is further configured to receive a modified QoS profile from the PCF if the second communication network rejects the QoS profile, and transmit the translated QoS parameters corresponding to the modified QoS profile to the first communication network.