mhurhangee/ep-ind-claims huggingface dataset:
A method for data transmission, performed by user equipment, the method comprising: detecting a current timing advance TA in a target time unit to obtain a detection result, wherein the target time unit is a time unit preceding a first time unit corresponding to a first target resource, the first target resource is a random access resource unit associated with a second target resource and meeting a specified condition, and the second target resource is a resource unit in a resource set which is pre-allocated to the user equipment by a base station for reporting grant-free data; and sending a random access signal to the base station, in response to that the detection result indicates that the current TA has expired, wherein the random access signal is configured to indicate that the base station needs to reconfigure a new TA for the user equipment and to indicate that the base station does not reserve a third target resource for the user equipment any longer, or sending a random access signal and a target notification message to the base station, in response to that the detection result indicates that the current TA has expired, wherein the random access signal is configured to indicate that the base station needs to reconfigure the new TA for the user equipment, and the target notification message is configured to indicate that the base station does not reserve a third target resource for the user equipment any longer, wherein the third target resource comprises at least the second target resource. detecting a current timing advance TA in a target time unit to obtain a detection result, wherein the target time unit is a time unit preceding a first time unit corresponding to a first target resource, the first target resource is a random access resource unit associated with a second target resource and meeting a specified condition, and the second target resource is a resource unit in a resource set which is pre-allocated to the user equipment by a base station for reporting grant-free data; and sending a random access signal to the base station, in response to that the detection result indicates that the current TA has expired, wherein the random access signal is configured to indicate that the base station needs to reconfigure a new TA for the user equipment and to indicate that the base station does not reserve a third target resource for the user equipment any longer, or sending a random access signal and a target notification message to the base station, in response to that the detection result indicates that the current TA has expired, wherein the random access signal is configured to indicate that the base station needs to reconfigure the new TA for the user equipment, and the target notification message is configured to indicate that the base station does not reserve a third target resource for the user equipment any longer, wherein the third target resource comprises at least the second target resource.
Device for measuring displacements of a rotating object in relation to a base, comprising: a rotor; an intermediate part, wherein between the rotor and the intermediate part is arranged a radial bearing having a rotational axis, which radial bearing decouples the rotation of the rotor; measuring means (5, 6) for measuring displacements of the intermediate part, characterized in that the intermediate part is arranged via a coupling on a stator, wherein the coupling is configured to couple the intermediate part in a rotationally rigid manner to the stator and to allow displacements of the intermediate part in relation to the stator in all other five degrees of freedom, further characterized by measuring means (5, 6, 7, 8, 10) which are designed to measure displacements of the intermediate part in relation to the stator in these five degrees of freedom, wherein these measuring means (5, 6, 7, 8, 10) respectively comprise the components: material measure (5.1, 6.1, 7.1, 8.1, 10.1) and scanning head (5.2, 6.2, 7.2, 8.2, 10.2) for the contactless scanning of the material measure (5.1, 6.1, 7.1, 8.1, 10.1), and one of the components: material measure (5.1, 6.1, 7.1, 8.1, 10.1) and scanning head (5.2, 6.2, 7.2, 8.2, 10.2) is arranged on the intermediate part, and the other component on the stator. a rotor; an intermediate part, wherein between the rotor and the intermediate part is arranged a radial bearing having a rotational axis, which radial bearing decouples the rotation of the rotor; measuring means (5, 6) for measuring displacements of the intermediate part, characterized in that the intermediate part is arranged via a coupling on a stator, wherein the coupling is configured to couple the intermediate part in a rotationally rigid manner to the stator and to allow displacements of the intermediate part in relation to the stator in all other five degrees of freedom, further characterized by measuring means (5, 6, 7, 8, 10) which are designed to measure displacements of the intermediate part in relation to the stator in these five degrees of freedom, wherein these measuring means (5, 6, 7, 8, 10) respectively comprise the components: material measure (5.1, 6.1, 7.1, 8.1, 10.1) and scanning head (5.2, 6.2, 7.2, 8.2, 10.2) for the contactless scanning of the material measure (5.1, 6.1, 7.1, 8.1, 10.1), and one of the components: material measure (5.1, 6.1, 7.1, 8.1, 10.1) and scanning head (5.2, 6.2, 7.2, 8.2, 10.2) is arranged on the intermediate part, and the other component on the stator.
A traction axle, in particular for work machines, comprising a differential arranged centrally on said axle and two semi-axles ( 23,24) for connecting the differential with wheel groups ( 25,26), characterized in that it comprises, installed on said two semi-axles ( 23,24), inverter groups ( 29,30) of a rotation motion in output from the differential, said inverter ( 29,30) groups being driven by a steering column and/or as a function of a requested steering angle.
Vehicle seat, in particular motor vehicle seat, having a rear base, a backrest which can be pivoted with respect to the rear base about a backrest rotation axis, at least one seat rail pair for longitudinal adjustment of the vehicle seat, a locking device for locking the at least one seat rail pair, wherein at least one lockable fitting is provided in order to articulate the backrest to the rear base, and the backrest can be pivoted into an easy-entry position which can be assumed for easier accessibility of a rear seat row, characterized in that the vehicle seat has a substantially annular drive element, which is rotatably supported about the backrest rotation axis relative to the backrest and on which a detent is arranged, wherein the detent, when the backrest is pivoted into the easy-entry position, can be held by a carrier which is arranged on the backrest and can thereby also be carried so as to follow the movement of the backrest, and in that an actuation lever is provided and by means of the actuation lever the detent can be acted on in such a manner that, when the backrest is pivoted, the detent cannot be held by the carrier and the backrest can be pivoted beyond the easy-entry position.
A tire tracking system for tracking travel mileage experienced by a vehicle tire, the system comprising: a vehicle supported by at least one vehicle tire; a tire-affixed identification transponder operative to generate time stamped tire-specific identification data; a vehicle-based system operative to generate a synchronous stream of incremental vehicle travel distance estimations; a timestamp synchronization and distance traveled estimator operative to estimate a synchronous, preferably continuous stream of tire additional travel distance estimations based on the stream of incremental vehicle travel distance estimations and the time stamped tire-specific identification data; a mobile network for uploading the tire additional travel distance estimations and the tire-specific identification data to a remote server; wherein the remote server operatively aggregates a total tire travel distance from the uploaded tire additional travel distance estimations in a form accessible by the tire-specific identification data. a vehicle supported by at least one vehicle tire; a tire-affixed identification transponder operative to generate time stamped tire-specific identification data; a vehicle-based system operative to generate a synchronous stream of incremental vehicle travel distance estimations; a timestamp synchronization and distance traveled estimator operative to estimate a synchronous, preferably continuous stream of tire additional travel distance estimations based on the stream of incremental vehicle travel distance estimations and the time stamped tire-specific identification data; a mobile network for uploading the tire additional travel distance estimations and the tire-specific identification data to a remote server; wherein the remote server operatively aggregates a total tire travel distance from the uploaded tire additional travel distance estimations in a form accessible by the tire-specific identification data.
A method of wireless communication, comprising: decoding a broadcast channel of a current radio frame to obtain system information associated with a wireless network, wherein the system information comprises at least a bandwidth, BW, indicator; characterized by: comparing the system information of the current radio frame with system information obtained from a previous radio frame; and rejecting the system information of the current radio frame when the BW indicator of the current radio frame does not match a BW indicator of the previous radio frame. decoding a broadcast channel of a current radio frame to obtain system information associated with a wireless network, wherein the system information comprises at least a bandwidth, BW, indicator; characterized by: comparing the system information of the current radio frame with system information obtained from a previous radio frame; and rejecting the system information of the current radio frame when the BW indicator of the current radio frame does not match a BW indicator of the previous radio frame. comparing the system information of the current radio frame with system information obtained from a previous radio frame; and rejecting the system information of the current radio frame when the BW indicator of the current radio frame does not match a BW indicator of the previous radio frame.
A computer implemented method for determining low dynamic range image data from high dynamic range image data, the method comprising: receiving or accessing the high dynamic range image data; and determining the low dynamic range image data based on the high dynamic range image data, characterised in that the low dynamic range image data is determined by optimising a degree to which the low dynamic range image data satisfies a local contrast constraint and a global consistency constraint, the local contrast constraint is based on a local contrast in a perception space, and the global consistency constraint is based on an ordering relationship between points in the high dynamic range image data, wherein the points are ordered by image value. receiving or accessing the high dynamic range image data; and determining the low dynamic range image data based on the high dynamic range image data, characterised in that the low dynamic range image data is determined by optimising a degree to which the low dynamic range image data satisfies a local contrast constraint and a global consistency constraint, the local contrast constraint is based on a local contrast in a perception space, and the global consistency constraint is based on an ordering relationship between points in the high dynamic range image data, wherein the points are ordered by image value. the low dynamic range image data is determined by optimising a degree to which the low dynamic range image data satisfies a local contrast constraint and a global consistency constraint, the local contrast constraint is based on a local contrast in a perception space, and the global consistency constraint is based on an ordering relationship between points in the high dynamic range image data, wherein the points are ordered by image value.
A conductive material dispersed liquid, comprising a conductive material, a dispersant, and a dispersion medium, wherein the conductive material includes bundle-type carbon nanotubes having a bulk density in a range of 10 to 50 kg/m 3 and a conductivity satisfying the condition of the following Equation 1, − X ≤ 10 ⁢ log ρ ≤ − 0.6 ⁢ X (in Equation 1 above, X is a bulk density of the carbon nanotubes, and ρ is a powder resistivity (Ohm.cm) of the carbon nanotubes under a pressure of 10 to 65 MPa) wherein the dispersant is a nitrile-based rubber.
A composition comprising: a. a glycerol alkyl ether of the general formula (Ia) or (Ib): R-O-CH 2 -CHOH-CH 2 OH (Ia) or H-O-CH 2 -CH -CH 2 OH (Ib) wherein, in general formula (Ia) or (Ib), R is a C 3 -C 18 alkyl or alkenyl group, in which the alkyl or alkenyl group is branched or unbranched, unsubstituted or substituted by one or more hydroxyl, one or more C 1 -C 4 alkoxy groups, or both one or more hydroxyl and one or more C 1 -C 4 alkoxy groups, and the C 3 -C 18 alkyl group, whether branched or unbranched, unsubstituted or substituted, is optionally interrupted by up to four oxygen atoms, or R is a C 6 -C 10 aromatic hydrocarbon, unsubstituted or substituted by one or more hydroxyl, one or more C 1 -C 4 alkoxy groups, or both one or more hydroxyl and one or more C 1 -C 4 alkoxy groups, and b. one or more compound selected from naringenin and eriodyctiol. a. a glycerol alkyl ether of the general formula (Ia) or (Ib): R-O-CH 2 -CHOH-CH 2 OH (Ia) or H-O-CH 2 -CH -CH 2 OH (Ib) wherein, in general formula (Ia) or (Ib), R is a C 3 -C 18 alkyl or alkenyl group, in which the alkyl or alkenyl group is branched or unbranched, unsubstituted or substituted by one or more hydroxyl, one or more C 1 -C 4 alkoxy groups, or both one or more hydroxyl and one or more C 1 -C 4 alkoxy groups, and the C 3 -C 18 alkyl group, whether branched or unbranched, unsubstituted or substituted, is optionally interrupted by up to four oxygen atoms, or R is a C 6 -C 10 aromatic hydrocarbon, unsubstituted or substituted by one or more hydroxyl, one or more C 1 -C 4 alkoxy groups, or both one or more hydroxyl and one or more C 1 -C 4 alkoxy groups, and b. one or more compound selected from naringenin and eriodyctiol.
A method for registering input images to reference objects to generate output parameters, the method comprising: obtaining an input image and a reference object, wherein the reference object comprises a reference image or a template corresponding to a model of content in the reference image; performing a registration of the input image by estimating transformation parameters of a geometric transform that maps pixels from the input image to the reference object; warping the reference object or the input image according to the estimated transformation parameters and measuring a misalignment error between the input image and the reference object using a function approximation technique trained based on comparing an estimated error to an error metric; iteratively updating the transformation parameters to minimize the misalignment error; and generating a set of output parameters from the updated transformation parameters, comprising a set of one or more camera parameters or a set of geometric transformation parameters. obtaining an input image and a reference object, wherein the reference object comprises a reference image or a template corresponding to a model of content in the reference image; performing a registration of the input image by estimating transformation parameters of a geometric transform that maps pixels from the input image to the reference object; warping the reference object or the input image according to the estimated transformation parameters and measuring a misalignment error between the input image and the reference object using a function approximation technique trained based on comparing an estimated error to an error metric; iteratively updating the transformation parameters to minimize the misalignment error; and generating a set of output parameters from the updated transformation parameters, comprising a set of one or more camera parameters or a set of geometric transformation parameters.
Method of activating an exposed layer of a structure comprising: - a provision of a structure comprising an exposed layer, - a deposition, on the exposed layer, of a layer with the basis of a material of formula Si a Y b X c, called layer Si a Y b X c, with X chosen from among fluorine F and chlorine Cl, and Y chosen from among oxygen O and nitrogen N, a, b and c being non-zero positive integers, - a treatment of the layer Si a Y b X c by an activation plasma with the basis of at least one from among oxygen and nitrogen, and wherein: - the parameters of the deposition of the layer Si a Y b X c are chosen so as to obtain a sufficiently low material density, such that the layer Si a Y b X c is at least partially consumed by the activation plasma. - a provision of a structure comprising an exposed layer, - a deposition, on the exposed layer, of a layer with the basis of a material of formula Si a Y b X c, called layer Si a Y b X c, with X chosen from among fluorine F and chlorine Cl, and Y chosen from among oxygen O and nitrogen N, a, b and c being non-zero positive integers, - a treatment of the layer Si a Y b X c by an activation plasma with the basis of at least one from among oxygen and nitrogen, - the parameters of the deposition of the layer Si a Y b X c are chosen so as to obtain a sufficiently low material density, such that the layer Si a Y b X c is at least partially consumed by the activation plasma.
An excavation apparatus, comprising: a) a support structure mountable to a truck bed, the support structure defining a longitudinal direction extending front-to-back of the truck bed, and a lateral direction extending side-to-side of the truck bed; and b) a rotary spindle pivotably supported by the support structure at a first pivot joint defining a generally horizontal first pivot axis, the spindle extending lengthwise along a spindle axis and rotatable thereabout for driving a cutting head; the spindle pivotable about the horizontal first pivot axis between a stowed position wherein the spindle axis is generally horizontal, and a deployed position wherein the spindle axis is generally vertical; wherein the support structure comprises a first adjustment device coupling the spindle to the support structure for adjusting the position of the spindle in the longitudinal direction when deployed, and a second adjustment device coupling the spindle to the support structure for adjusting the position of the spindle in the lateral direction when deployed; wherein the first adjustment device comprises a horizontal slide mountable to the truck bed; wherein the second adjustment device comprises a second pivot joint defining a second pivot axis generally parallel to the spindle axis, the spindle pivotable relative to the truck bed about the second pivot axis; wherein the support structure comprises a carriage coupled to the slide; and wherein the second pivot axis is positioned longitudinally rearwardly of the carriage when the spindle is in the deployed position. a) a support structure mountable to a truck bed, the support structure defining a longitudinal direction extending front-to-back of the truck bed, and a lateral direction extending side-to-side of the truck bed; and b) a rotary spindle pivotably supported by the support structure at a first pivot joint defining a generally horizontal first pivot axis, the spindle extending lengthwise along a spindle axis and rotatable thereabout for driving a cutting head; the spindle pivotable about the horizontal first pivot axis between a stowed position wherein the spindle axis is generally horizontal, and a deployed position wherein the spindle axis is generally vertical;
A sweeper, comprising: a main control module, and a detection module, a 5G communication module, a movement module and a cleaning module each connected to the main control module; wherein the main control module sends indoor data detected by the detection module to a server through the 5G communication module, and controls at least one of the movement module and the cleaning module according to a first instruction returned from the server, the sweeper further comprising an artificial intelligence module; wherein the artificial intelligence module is connected to the main control module, and is configured to detect at least one type of information of user body information, user voice information or indoor environment information through a 5G network, and analyze the at least one type of information to obtain an analysis result; and the main control module is configured to control at least one of the movement module or the cleaning module according to the analysis result; characterized in that the main control module is further configured to receive, through the 5G communication module, a third instruction sent by the server, connect to a network deployed by a user to the sweeper according to the third instruction, and return a connection result to the server through the 5G communication module, wherein the third instruction is based on a networking request of a terminal device. wherein the main control module sends indoor data detected by the detection module to a server through the 5G communication module, and controls at least one of the movement module and the cleaning module according to a first instruction returned from the server, the sweeper further comprising an artificial intelligence module; wherein the artificial intelligence module is connected to the main control module, and is configured to detect at least one type of information of user body information, user voice information or indoor environment information through a 5G network, and analyze the at least one type of information to obtain an analysis result; and the main control module is configured to control at least one of the movement module or the cleaning module according to the analysis result; characterized in that the main control module is further configured to receive, through the 5G communication module, a third instruction sent by the server, connect to a network deployed by a user to the sweeper according to the third instruction, and return a connection result to the server through the 5G communication module, wherein the third instruction is based on a networking request of a terminal device.