mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing a sidelink, SL, communication, the method comprising: determining or receiving a configuration, for a communication zone of a set of communication zones the configuration being indicative of at least one resource configuration or at least one signaling configuration for a communication of data; characterized by at a transmitter, TX, user equipment, UE, generating SL control information, SCI, that indicates the transmitter, TX, UE location based on the configuration of the communication zone of the set of communication zones; and communicating the SCI indicating the TX location; to a receiver, RX, UE; wherein a radio resource control, RRC, information element, IE, is configured in a sidelink vehicle-to-everything, V2X, SL-V2X-physical sidelink control channel, PSCCH, configuration IE that indicates a number of communication zones of the set of communication zones and an SCI field indicating a TX location for each communication zone of the set of communication zones; and wherein the TX location is indicated with a configurable area granularity. determining or receiving a configuration, for a communication zone of a set of communication zones the configuration being indicative of at least one resource configuration or at least one signaling configuration for a communication of data; characterized by at a transmitter, TX, user equipment, UE, generating SL control information, SCI, that indicates the transmitter, TX, UE location based on the configuration of the communication zone of the set of communication zones; and communicating the SCI indicating the TX location; to a receiver, RX, UE; wherein a radio resource control, RRC, information element, IE, is configured in a sidelink vehicle-to-everything, V2X, SL-V2X-physical sidelink control channel, PSCCH, configuration IE that indicates a number of communication zones of the set of communication zones and an SCI field indicating a TX location for each communication zone of the set of communication zones; and wherein the TX location is indicated with a configurable area granularity.
Handling device for handling a sealing device for sealing a receptacle, the sealing device comprising: - a base structured to be mounted to the receptacle, the base comprising a sleeve forming a discharge conduit ; - a valve including a valve housing arranged on the base , wherein when the base is mounted to the receptacle, the receptacle is located upstream of the valve and the discharge direction of the receptacle defines a downstream direction, opposite an upstream direction, wherein the valve further comprises a discharge pipe at least partially protruding in the sleeve of the base and being axially movable therein in the upstream and downstream direction between a storage position wherein the valve is closed and one more utility positions wherein the valve is closed or opened; wherein the handling device is configured to position the discharge pipe of the valve of the sealing device into a storage position, the handling device comprising: - a support to be arranged at the downstream side of the base and configured to support handling device; - a pushing device to be arranged at the upstream side of the base and configured to apply a first pushing force on the base and/or on the valve housing so to urge at least the base and the valve against the support and to apply a second pushing force on the discharge pipe of the valve to urge the discharge pipe to its storage position, wherein the pushing device is configured to apply the first pushingforce on the base independently from applying the second pushing force on the discharge pipe to displace the discharge pipe independently from the displacement of the base to the storage position. - a base structured to be mounted to the receptacle, the base comprising a sleeve forming a discharge conduit ; - a valve including a valve housing arranged on the base , wherein when the base is mounted to the receptacle, the receptacle is located upstream of the valve and the discharge direction of the receptacle defines a downstream direction, opposite an upstream direction, wherein the valve further comprises a discharge pipe at least partially protruding in the sleeve of the base and being axially movable therein in the upstream and downstream direction between a storage position wherein the valve is closed and one more utility positions wherein the valve is closed or opened; - a support to be arranged at the downstream side of the base and configured to support handling device; - a pushing device to be arranged at the upstream side of the base and configured to apply a first pushing force on the base and/or on the valve housing so to urge at least the base and the valve against the support and to apply a second pushing force on the discharge pipe of the valve to urge the discharge pipe to its storage position,
A torque-adjustable wrench , comprising: a handle ; and a bit attached to the handle , the bit including a worm and further comprising: a body comprising a front end and a stationary jaw extending from the front end ; a movable jaw movably connected to the front end of the body so that a distance between the jaws is adjustable; and a pointer formed on a side of the movable jaw , characterized in that the handle is equipped with a torque-adjusting mechanism operable to adjust a maximum value of torque to be exerted on a workpiece; multiple color marks are formed on a side of the body , wherein each of the color marks is in a different color and corresponds to one of various sizes of a workpiece, wherein the distance between the jaws is set to be a value corresponding to the size of the workpiece when the pointer is aligned with one of the color marks ; wherein each color mark further corresponds to a colored region of a torque-indicating unit on the handle , each colored region carrying a number that represents a corresponding maximum value of torque. a handle ; and a bit attached to the handle , the bit including a worm and further comprising: a body comprising a front end and a stationary jaw extending from the front end ; a movable jaw movably connected to the front end of the body so that a distance between the jaws is adjustable; and a pointer formed on a side of the movable jaw , characterized in that the handle is equipped with a torque-adjusting mechanism operable to adjust a maximum value of torque to be exerted on a workpiece; multiple color marks are formed on a side of the body , wherein each of the color marks is in a different color and corresponds to one of various sizes of a workpiece, wherein the distance between the jaws is set to be a value corresponding to the size of the workpiece when the pointer is aligned with one of the color marks ; wherein each color mark further corresponds to a colored region of a torque-indicating unit on the handle , each colored region carrying a number that represents a corresponding maximum value of torque. a body comprising a front end and a stationary jaw extending from the front end ; a movable jaw movably connected to the front end of the body so that a distance between the jaws is adjustable; and a pointer formed on a side of the movable jaw , characterized in that the handle is equipped with a torque-adjusting mechanism operable to adjust a maximum value of torque to be exerted on a workpiece; multiple color marks are formed on a side of the body , wherein each of the color marks is in a different color and corresponds to one of various sizes of a workpiece, wherein the distance between the jaws is set to be a value corresponding to the size of the workpiece when the pointer is aligned with one of the color marks ; wherein each color mark further corresponds to a colored region of a torque-indicating unit on the handle , each colored region carrying a number that represents a corresponding maximum value of torque.
A method of manufacturing a glove, which glove comprises a top layer , which top layer is made of genuine or synthetic leather, an outer surface and an inner surface , which inner surface is configured to be in skin contact when the glove is worn in hand, characterized in that , said method comprises a step of covering the outer surface at least partly with nanometric-sized material having photocatalytic properties.
A composition comprising a combination of zinc pyrithione as a component (I) and as a component (II) a food-approved antimicrobial selected sodium sulfite, sodium bisulfite and lysozyme; wherein the ratio by weight of component (I) to component (II) ranges from 4:1 to 1:4 to provide a synergistic antimicrobial effect.
An information processing device comprising: a position-related information acquisition unit configured to acquire position-related information about a relative position or direction with respect to a vehicle ; and a display controller configured to display a combined image obtained by combining a defect image representing a position of a sensor (30 1 ..., 30 5 ) having a defect from among sensors (30 1 ..., 30 5 ) mounted on the vehicle with a vehicle image reflecting the vehicle in response to the position-related information, characterized in that the display controller switches bird's eye view display for displaying the combined image obtained by combining an image representing a relative position of the information processing device with respect to the vehicle and the defect image with the vehicle image overlooking the vehicle, virtual reality (VR) display for displaying the combined image obtained by combining the defect image with computer graphics (CG) of the vehicle viewed at the position of the information processing device , and augmented reality (AR) display for displaying the combined image obtained by combining the defect image with a captured image obtained by capturing an image of the vehicle using a camera at the position of the information processing device . a position-related information acquisition unit configured to acquire position-related information about a relative position or direction with respect to a vehicle ; and a display controller configured to display a combined image obtained by combining a defect image representing a position of a sensor (30 1 ..., 30 5 ) having a defect from among sensors (30 1 ..., 30 5 ) mounted on the vehicle with a vehicle image reflecting the vehicle in response to the position-related information, characterized in that the display controller switches bird's eye view display for displaying the combined image obtained by combining an image representing a relative position of the information processing device with respect to the vehicle and the defect image with the vehicle image overlooking the vehicle, virtual reality (VR) display for displaying the combined image obtained by combining the defect image with computer graphics (CG) of the vehicle viewed at the position of the information processing device , and augmented reality (AR) display for displaying the combined image obtained by combining the defect image with a captured image obtained by capturing an image of the vehicle using a camera at the position of the information processing device .
A method of handling data provided from a source node to a collecting node in a data network , the method comprising the following steps performed by the source node : generating a sequence of values , wherein the sequence is unrevealed in the data network by the source node in a time interval, wherein the sequence of values is generated by iteratively applying a cryptographic hash function, H, to a generator , R(N), according to R k − 1 = H R k for k = N , ... , 1 ; triggering an authentication of the sequence in the data network by providing an authenticator of the sequence, wherein an end result, R , of the generation is the hash value of the sequence for the authentication, wherein the authentication associates the sequence with the source node , and wherein the authenticator includes a hash value computed based on both a hash value of the sequence and a key of the source node ; computing one or more signatures for one or more data sets to be sent in the time interval using one or more values of the sequence , wherein each signature is a function of both one of the values of the sequence and one of the data sets; sending , from the source node to the collecting node , the one or more data sets in the time interval; and providing one or more of the signatures . generating a sequence of values , wherein the sequence is unrevealed in the data network by the source node in a time interval, wherein the sequence of values is generated by iteratively applying a cryptographic hash function, H, to a generator , R(N), according to R k − 1 = H R k for k = N , ... , 1 ; triggering an authentication of the sequence in the data network by providing an authenticator of the sequence, wherein an end result, R , of the generation is the hash value of the sequence for the authentication, wherein the authentication associates the sequence with the source node , and wherein the authenticator includes a hash value computed based on both a hash value of the sequence and a key of the source node ; computing one or more signatures for one or more data sets to be sent in the time interval using one or more values of the sequence , wherein each signature is a function of both one of the values of the sequence and one of the data sets; sending , from the source node to the collecting node , the one or more data sets in the time interval; and providing one or more of the signatures .
A position encoder readhead for reading a series of position features on a scale to determine the relative position between itself and the scale, in which the readhead is configured to read position features on a scale via a snapshot capture process that is automatically adaptable so as to change at least one of i) the readhead's feature capture duration and ii) the duration that electromagnetic radiation ("EMR") is emitted by at least one electromagnetic radiation ("EMR") source during the snapshot capture process, dependent on the actual measured relative speed between the scale and readhead based on readings obtained by the readhead.
A method for performing a ranging operation by a central wireless device communicating with a plurality of peripheral wireless devices, the method comprising: by the central wireless device , during a selected ranging time slot of a first ranging frame comprising a plurality of non-overlapping, indexed time slots: broadcasting a first ranging measurement message to the plurality of peripheral wireless devices (202-1 - 202-N); listening for ranging measurement responses from the plurality of peripheral wireless devices (202-1 - 202-N) during sequential non-overlapping segments of the selected ranging time slot; and responsive to receiving one or more ranging measurement responses from at least one of the plurality of peripheral wireless devices (202-1 - 202-N): broadcasting a second ranging measurement message to the plurality of peripheral wireless devices (202-1 - 202-N); and broadcasting to the plurality of peripheral wireless devices (202-1 - 202-N) a ranging data message that includes: measurement data obtained by the central wireless device based at least in part on the received one or more ranging measurement responses, and an indication of a ranging time slot selected for ranging in a subsequent ranging frame. broadcasting a first ranging measurement message to the plurality of peripheral wireless devices (202-1 - 202-N); listening for ranging measurement responses from the plurality of peripheral wireless devices (202-1 - 202-N) during sequential non-overlapping segments of the selected ranging time slot; and responsive to receiving one or more ranging measurement responses from at least one of the plurality of peripheral wireless devices (202-1 - 202-N): broadcasting a second ranging measurement message to the plurality of peripheral wireless devices (202-1 - 202-N); and broadcasting to the plurality of peripheral wireless devices (202-1 - 202-N) a ranging data message that includes: measurement data obtained by the central wireless device based at least in part on the received one or more ranging measurement responses, and an indication of a ranging time slot selected for ranging in a subsequent ranging frame. broadcasting a second ranging measurement message to the plurality of peripheral wireless devices (202-1 - 202-N); and broadcasting to the plurality of peripheral wireless devices (202-1 - 202-N) a ranging data message that includes: measurement data obtained by the central wireless device based at least in part on the received one or more ranging measurement responses, and an indication of a ranging time slot selected for ranging in a subsequent ranging frame. measurement data obtained by the central wireless device based at least in part on the received one or more ranging measurement responses, and an indication of a ranging time slot selected for ranging in a subsequent ranging frame.
A method for manufacturing a mounting body comprising: a mounting step of mounting an electronic component onto a wiring board via an anisotropic conductive film containing a binder having an epoxy resin as a primary constituent and conductive particles having a compressive hardness K of 4.9 GPa (500 kgf / mm 2 ) or more when compressively deformed by 10%, wherein a relation between a thickness A of the binder and an average particle diameter B is 0.6 ≦ B / A ≦ 1.5 and an elastic modulus of the binder after curing is 50 MPa or more at 100°C; wherein in the case of a problem occurring in mounting of the mounting step, a remounting step of mechanically peeling to detach the electronic component and the wiring board and reusing the wiring board to perform the mounting step is performed, and wherein in the remounting step, the mounting step is performed in a state in which a residue of the anisotropic conductive film remains on the wiring board. a mounting step of mounting an electronic component onto a wiring board via an anisotropic conductive film containing a binder having an epoxy resin as a primary constituent and conductive particles having a compressive hardness K of 4.9 GPa (500 kgf / mm 2 ) or more when compressively deformed by 10%, wherein a relation between a thickness A of the binder and an average particle diameter B is 0.6 ≦ B / A ≦ 1.5 and an elastic modulus of the binder after curing is 50 MPa or more at 100°C; wherein in the case of a problem occurring in mounting of the mounting step, a remounting step of mechanically peeling to detach the electronic component and the wiring board and reusing the wiring board to perform the mounting step is performed, and wherein in the remounting step, the mounting step is performed in a state in which a residue of the anisotropic conductive film remains on the wiring board.
A rolling mill comprising: a roll configured to be shifted in an axial direction; a bearing housing configured to be shifted in a roll-axis direction along with the roll, and configured to receive a load from the roll; first cylinders configured to apply bending force vertically to the bearing housing to cause the roll to perform bending, and a member that is disposed between one of the first cylinders and the bearing housing and configured to receive a bending force from the first cylinder, characterized in that the rolling mill comprises a second cylinder configured to apply a pressing force in a rolling direction to the bearing housing, another one of the first cylinders and the second cylinder are disposed axially on one of an entry side and an exit side in the rolling direction, and the one first cylinder and the member are disposed on the other of the entry and exit sides in the rolling direction. a roll configured to be shifted in an axial direction; a bearing housing configured to be shifted in a roll-axis direction along with the roll, and configured to receive a load from the roll; first cylinders configured to apply bending force vertically to the bearing housing to cause the roll to perform bending, and a member that is disposed between one of the first cylinders and the bearing housing and configured to receive a bending force from the first cylinder, characterized in that the rolling mill comprises a second cylinder configured to apply a pressing force in a rolling direction to the bearing housing, another one of the first cylinders and the second cylinder are disposed axially on one of an entry side and an exit side in the rolling direction, and the one first cylinder and the member are disposed on the other of the entry and exit sides in the rolling direction.
A method for measuring a speed of a fluid, comprising the steps of: - emitting a measurement ultrasound signal (Se); - acquiring and digitizing a measurement portion of a measurement ultrasound signal (Sr, Sr1, Sr2) received after the measurement ultrasound signal (Se) has traversed a path of defined length (L), to obtain measurement samples; - estimating, on the basis of the measurement samples, an amplitude of the measurement portion; - accessing reference samples of a prefilled reference table stored in a memory, the reference samples forming a reference curve which constitutes an interpolation of the measurement samples; - producing adjusted measurement samples by multiplying the measurement samples by a ratio between an amplitude of the reference curve and the amplitude of the measurement portion; - determining, for each adjusted measurement sample, a unit time shift between the adjusted measurement sample and the reference curve; - estimating, for each adjusted measurement sample, an instant of zero crossing of the measurement portion on the basis of the unit time shift and of the reference samples; - estimating, on the basis of an average of the instants of zero crossing, a measurement of path time of the measurement ultrasound signal to traverse the path of defined length; - estimating the speed of the fluid on the basis of the path time measurement. - emitting a measurement ultrasound signal (Se); - acquiring and digitizing a measurement portion of a measurement ultrasound signal (Sr, Sr1, Sr2) received after the measurement ultrasound signal (Se) has traversed a path of defined length (L), to obtain measurement samples; - estimating, on the basis of the measurement samples, an amplitude of the measurement portion; - accessing reference samples of a prefilled reference table stored in a memory, the reference samples forming a reference curve which constitutes an interpolation of the measurement samples; - producing adjusted measurement samples by multiplying the measurement samples by a ratio between an amplitude of the reference curve and the amplitude of the measurement portion; - determining, for each adjusted measurement sample, a unit time shift between the adjusted measurement sample and the reference curve; - estimating, for each adjusted measurement sample, an instant of zero crossing of the measurement portion on the basis of the unit time shift and of the reference samples; - estimating, on the basis of an average of the instants of zero crossing, a measurement of path time of the measurement ultrasound signal to traverse the path of defined length; - estimating the speed of the fluid on the basis of the path time measurement.