mhurhangee/ep-ind-claims huggingface dataset:
A method for checking documents of value (1, 10), with the steps: - determining at least one position of a first feature (3a, 4a, 5a, 6a, 7a) of a document of value (1, 10), which is at least one segment of a predetermined printed image, - determining at least one position of a second feature (3ba, 4b, 5b, 6b, 7b) of the document of value (1, 10), which is at least one segment of a predetermined printed image, wherein the first and the second feature are segments of the same predetermined printed image and wherein the distance between the first feature and the second feature in a direction amounts to at least half of the extent of the document of value (1, 10) in this direction, - ascertaining a difference by comparing the position of the first feature (3a, 4a, 5a, 6a, 7a) with the position of the second feature (3b, 4b, 5b, 6b, 7b), and/ or by comparing at least one position to be expected for the second feature (3b, 4b, 5b, 6b, 7b), which position is determined by extrapolating from the position of the first feature, with the position of the second feature (3b, 4b, 5b, 6b, 7b), - evaluating the difference by comparing the difference with set values, the set values being determined from standard data which are valid for the document of value (1, 10). - determining at least one position of a first feature (3a, 4a, 5a, 6a, 7a) of a document of value (1, 10), which is at least one segment of a predetermined printed image, - determining at least one position of a second feature (3ba, 4b, 5b, 6b, 7b) of the document of value (1, 10), which is at least one segment of a predetermined printed image, wherein the first and the second feature are segments of the same predetermined printed image and wherein the distance between the first feature and the second feature in a direction amounts to at least half of the extent of the document of value (1, 10) in this direction, - ascertaining a difference by comparing the position of the first feature (3a, 4a, 5a, 6a, 7a) with the position of the second feature (3b, 4b, 5b, 6b, 7b), and/ or by comparing at least one position to be expected for the second feature (3b, 4b, 5b, 6b, 7b), which position is determined by extrapolating from the position of the first feature, with the position of the second feature (3b, 4b, 5b, 6b, 7b), - evaluating the difference by comparing the difference with set values, the set values being determined from standard data which are valid for the document of value (1, 10).
A device for adapting a controller area network bus for optical communication, the device comprising: a CAN transceiver coupled to a CAN bus, configured to sense levels on the CAN bus and supply a first signal indicating the sensed levels, and configured to receive a second signal and drive a corresponding level on the CAN bus; an opto-electrical converter configured to convert an optical input to an electrical signal to supply the second signal; an electro-optical converter configured to convert a third electrical signal to an optical signal to supply an optical output; a direction detection module configured to determine whether a recessive level to dominant level transition on the first signal occurs before a recessive level to dominant level transition on the second signal by receiving the second signal from the opto-electrical converter and the first signal from the CAN transceiver and to produce a direction detection signal by latching the status of the second signal at transitions of the first signal corresponding to transitions of the CAN bus from a recessive level to a dominant level; and a transmit enable buffer coupled to the CAN transceiver and configured to receive the first signal and produce the third electrical signal by conditionally outputting the first signal based on the direction detection signal. a CAN transceiver coupled to a CAN bus, configured to sense levels on the CAN bus and supply a first signal indicating the sensed levels, and configured to receive a second signal and drive a corresponding level on the CAN bus; an opto-electrical converter configured to convert an optical input to an electrical signal to supply the second signal; an electro-optical converter configured to convert a third electrical signal to an optical signal to supply an optical output; a direction detection module configured to determine whether a recessive level to dominant level transition on the first signal occurs before a recessive level to dominant level transition on the second signal by receiving the second signal from the opto-electrical converter and the first signal from the CAN transceiver and to produce a direction detection signal by latching the status of the second signal at transitions of the first signal corresponding to transitions of the CAN bus from a recessive level to a dominant level; and a transmit enable buffer coupled to the CAN transceiver and configured to receive the first signal and produce the third electrical signal by conditionally outputting the first signal based on the direction detection signal.
An apparatus configured for tracking movement of a head of a user, comprising: a spatial orientation sensor (310; 520) with a fixed position and a fixed orientation relative to the head of a user and configured for: generating, during a calibration procedure, first outputs during a first rotation of the head of the user about a first axis, each of the first outputs being indicative of a respective orientation of the spatial orientation sensor in 3D space; and generating, during the calibration procedure, second outputs during a second rotation of the head of the user about a second axis that is orthogonal to the first axis, each of the second outputs being indicative of a respective orientation of the spatial orientation sensor in 3D space; and a computing device comprising a processor and a memory communicatively coupled with the processor, wherein the processor is configured for: determining an orientation relationship between the head and the spatial orientation sensor based on the first and second outputs. a spatial orientation sensor (310; 520) with a fixed position and a fixed orientation relative to the head of a user and configured for: generating, during a calibration procedure, first outputs during a first rotation of the head of the user about a first axis, each of the first outputs being indicative of a respective orientation of the spatial orientation sensor in 3D space; and generating, during the calibration procedure, second outputs during a second rotation of the head of the user about a second axis that is orthogonal to the first axis, each of the second outputs being indicative of a respective orientation of the spatial orientation sensor in 3D space; and generating, during a calibration procedure, first outputs during a first rotation of the head of the user about a first axis, each of the first outputs being indicative of a respective orientation of the spatial orientation sensor in 3D space; and generating, during the calibration procedure, second outputs during a second rotation of the head of the user about a second axis that is orthogonal to the first axis, each of the second outputs being indicative of a respective orientation of the spatial orientation sensor in 3D space; and a computing device comprising a processor and a memory communicatively coupled with the processor, wherein the processor is configured for: determining an orientation relationship between the head and the spatial orientation sensor based on the first and second outputs.
A vascular closure system, comprising: a suture carrying portion insertable through a vessel puncture of a vessel and carrying first and second suture ends (44, 46) of at least a first suture member; an anchor; a plurality of needles extendable through a wall of the vessel adjacent to the vessel puncture, the plurality of needles being configured to connect to the first and second suture ends (44, 46), such that withdrawal of the plurality of needles draws the first and second suture ends (44, 46) through the vessel wall; an internal sealing member attached to the first suture member, the internal sealing member and the first suture member being configured to advance through the vessel puncture and into the vessel; wherein applying a withdrawal force to the first and second suture ends (44, 46) draws the internal sealing member against an internal surface of the vessel wall to at least partially seal closed the vessel puncture; characterized in that the plurality of needles are configured to connect to the first and second suture ends (44, 46) at a position distal to the anchor. a suture carrying portion insertable through a vessel puncture of a vessel and carrying first and second suture ends (44, 46) of at least a first suture member; an anchor; a plurality of needles extendable through a wall of the vessel adjacent to the vessel puncture, the plurality of needles being configured to connect to the first and second suture ends (44, 46), such that withdrawal of the plurality of needles draws the first and second suture ends (44, 46) through the vessel wall; an internal sealing member attached to the first suture member, the internal sealing member and the first suture member being configured to advance through the vessel puncture and into the vessel; wherein applying a withdrawal force to the first and second suture ends (44, 46) draws the internal sealing member against an internal surface of the vessel wall to at least partially seal closed the vessel puncture; characterized in that the plurality of needles are configured to connect to the first and second suture ends (44, 46) at a position distal to the anchor.
System, comprising: a geographical real-time location tracking system comprising a plurality of receivers surrounding an area under observation, wherein the plurality of receivers is configured to receive locating signals continuously emitted by position tags; a first and a second tracked movable boundary-defining inanimate object (130-1; 130-2) positioned within the area under observation and comprising a respective position tag attached thereto, wherein respective current geographical locations of the first and the second movable boundary-defining inanimate object (130-1; 130-2) define a movable boundary; an interface to the geographical real-time location tracking system, wherein the interface is configured to receive location information indicative of a geographical location of a tracked object comprising a position tag attached thereto and of the geographical locations of the first and the second movable boundary-defining inanimate object (130-1; 130-2); and a processor configured to determine, based on a comparison of the location information of the tracked object with current location information of the first and the second movable boundary-defining inanimate object (130-1; 130-2) indicative of the movable boundary, whether at least a part of the object has crossed the boundary. a geographical real-time location tracking system comprising a plurality of receivers surrounding an area under observation, wherein the plurality of receivers is configured to receive locating signals continuously emitted by position tags; a first and a second tracked movable boundary-defining inanimate object (130-1; 130-2) positioned within the area under observation and comprising a respective position tag attached thereto, wherein respective current geographical locations of the first and the second movable boundary-defining inanimate object (130-1; 130-2) define a movable boundary; an interface to the geographical real-time location tracking system, wherein the interface is configured to receive location information indicative of a geographical location of a tracked object comprising a position tag attached thereto and of the geographical locations of the first and the second movable boundary-defining inanimate object (130-1; 130-2); and a processor configured to determine, based on a comparison of the location information of the tracked object with current location information of the first and the second movable boundary-defining inanimate object (130-1; 130-2) indicative of the movable boundary, whether at least a part of the object has crossed the boundary.
Apparatus for monitoring fine particle concentration in an exhaust system of a combustion engine, comprising a. a housing including part 1 extending into the exhaust system of a combustion engine; b. means for attaching and sealing the apparatus to the exhaust system from a single opening in a wall of the exhaust system; c. a particle measurement sensor placed inside the housing; d. a gas inlet in the housing for providing a measurement flow into the particle measurement sensor; e. means for charging at least a fraction of the particles entering the particle measurement sensor; f. means for detecting at least a fraction of the current carried by charged particles; g. a gas outlet in the housing for feeding the measurement flow away from the particle measurement sensor; h. an electrical connector in the means for attaching the apparatus to the exhaust system for providing power to the sensor; and i. an electrical connector in the means for attaching the apparatus to the exhaust system for transmitting the electrical signal created by the sensor. a. a housing including part 1 extending into the exhaust system of a combustion engine; b. means for attaching and sealing the apparatus to the exhaust system from a single opening in a wall of the exhaust system; c. a particle measurement sensor placed inside the housing; d. a gas inlet in the housing for providing a measurement flow into the particle measurement sensor; e. means for charging at least a fraction of the particles entering the particle measurement sensor; f. means for detecting at least a fraction of the current carried by charged particles; g. a gas outlet in the housing for feeding the measurement flow away from the particle measurement sensor; h. an electrical connector in the means for attaching the apparatus to the exhaust system for providing power to the sensor; and i. an electrical connector in the means for attaching the apparatus to the exhaust system for transmitting the electrical signal created by the sensor.
A method (600, 600') for operating a terminal device (104, 10n, 900, 1100), comprising: receiving (602, 602') a time advance, TA, command from a network device (110, 800, 1000); determining (604, 604') a TA granularity; and determining (606, 606') a TA value based at least partly on the TA command and the TA granularity, wherein different numerologies are configured for at least two carriers and at least two bandwidth parts, BWPs, wherein the at least two carriers and the at least two BWPs serve the terminal device and the terminal device supports multiple numerologies, wherein each BWP is associated with a numerology and the numerology comprises subcarrier spacing, SCS, and wherein the TA granularity of a Timing Advance Group, TAG, is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two BWPs. receiving (602, 602') a time advance, TA, command from a network device (110, 800, 1000); determining (604, 604') a TA granularity; and determining (606, 606') a TA value based at least partly on the TA command and the TA granularity, wherein different numerologies are configured for at least two carriers and at least two bandwidth parts, BWPs, wherein the at least two carriers and the at least two BWPs serve the terminal device and the terminal device supports multiple numerologies, wherein each BWP is associated with a numerology and the numerology comprises subcarrier spacing, SCS, and wherein the TA granularity of a Timing Advance Group, TAG, is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two BWPs.
A method of molding comprising a transfer step comprising the steps of: a) a transformation step of bringing a curable composition to be molded into contact with a transfer member on which a transfer shape is formed and transforming the curable composition to be molded to the transfer shape; b) a curing step of curing at least a transformed portion of the curable composition to be molded; and c) a separation step of separating the curable composition to be molded and the transfer member from each other, wherein the method comprises repeating the transfer step comprising the steps a) to c) multiple times, the curable composition including a compound having a polymerizable functional group and a polymerization initiator, wherein the curable composition includes (a) silica fine particles, (b) a (meth)acrylate having two or more ethylenically unsaturated groups and having no cyclic structure, (c) a (meth)acrylate having an ethylenically unsaturated group and having an alicyclic structure, and (d) a polymerization initiator, and the silica fine particles (a) are surface-treated with a silane compound (e) represented by general formula below and a silane compound (f) represented by general formula below: wherein in general formula, R1 represents a hydrogen atom or a methyl group; R2 represents a C1 to C3 alkyl group or a phenyl group; R3 represents a hydrogen atom or a C1 to C10 hydrocarbon group; q is an integer from 1 to 6; and r is an integer from 0 to 2; wherein in general formula, R4 represents a C1 to C3 alkyl group or a phenyl group; R5 represents a hydrogen atom or a C1 to C10 hydrocarbon group; s is an integer from 0 to 6; and t is an integer from 0 to 2. a) a transformation step of bringing a curable composition to be molded into contact with a transfer member on which a transfer shape is formed and transforming the curable composition to be molded to the transfer shape; b) a curing step of curing at least a transformed portion of the curable composition to be molded; and c) a separation step of separating the curable composition to be molded and the transfer member from each other,
A User Equipment, UE, comprising: a controller configured to stop a first timer configured on a per Single Network Slice Selection Assistance information, S-NSSAI, and Public Land Mobile Network, PLMN, basis, in a case of receipt of a Protocol Data Unit, PDU, SESSION MODIFICATION COMMAND message for a PDU session, the PDU SESSION MODIFICATION COMMAND message including identification information indicating the PDU session, in a case that the UE provided a first S-NSSAI during an establishment procedure of the PDU session, and in a case that the first timer is running for the first S-NSSAI and a PLMN, wherein the S-NSSAI is a unique information for each PLMN.
A process for the preparation of pimavanserin comprising: (i) providing an acid addition salt solution of pimavanserin in an organic solvent; (ii) washing the solution provided in step (i) with an alcohol/water/acid mixture; (iii) dissolving the acid addition salt of pimavanserin in an aqueous solvent to form an aqueous solution; (iv) washing the aqueous solution obtained in step (iii) with an organic solvent; (v) adding a base to the washed aqueous solution to form pimavanserin. (i) providing an acid addition salt solution of pimavanserin in an organic solvent; (ii) washing the solution provided in step (i) with an alcohol/water/acid mixture; (iii) dissolving the acid addition salt of pimavanserin in an aqueous solvent to form an aqueous solution; (iv) washing the aqueous solution obtained in step (iii) with an organic solvent; (v) adding a base to the washed aqueous solution to form pimavanserin.
A device for engagement with a bone of a patient, the device comprising: a body portion for penetration of and fixation to bone tissue, the body portion having a distal end and a proximal end; and a deformable element portion, the deformable element portion being a separate tip component that extends from the distal end of the body portion, characterised in that the entire deformable element portion is a solid deformable element portion formed from an elastomeric material, such that, in use, upon adjacent bone tissue to the deformable element portion being urged against the deformable element portion, the deformable element portion deforms at least laterally in relation to the direction from which the adjacent bone tissue is urged against the deformable element portion; and wherein deformation of the deformable element portion causes an increased contact area between the deformable element portion and the adjacent bone tissue and a reduction in stress in the adjacent bone tissue and opposes migration of the body portion into the adjacent bone tissue. a body portion for penetration of and fixation to bone tissue, the body portion having a distal end and a proximal end; and a deformable element portion, the deformable element portion being a separate tip component that extends from the distal end of the body portion, characterised in that the entire deformable element portion is a solid deformable element portion formed from an elastomeric material, such that, in use, upon adjacent bone tissue to the deformable element portion being urged against the deformable element portion, the deformable element portion deforms at least laterally in relation to the direction from which the adjacent bone tissue is urged against the deformable element portion; and wherein deformation of the deformable element portion causes an increased contact area between the deformable element portion and the adjacent bone tissue and a reduction in stress in the adjacent bone tissue and opposes migration of the body portion into the adjacent bone tissue.
Blade for a wind turbine comprising at least a longitudinal component (16, 17, 18, 19) which comprises at least two longitudinal stretches (1, 2, 3, 4, 5): • a first longitudinal stretch comprising a first plurality of fibers, wherein the first plurality of fibers is arranged at a first angle with respect to a longitudinal direction of the blade or to a longitudinal direction of the longitudinal component (16, 17, 18, 19), and • a second longitudinal stretch closer to a tip of the blade than the first longitudinal stretch which comprises at least a second plurality of fibers, wherein the second plurality of fibers is arranged at a second angle with respect to the longitudinal direction of the blade or to the longitudinal direction of the longitudinal component (16, 17, 18, 19), wherein the first angle with respect to the longitudinal direction of the blade or to the longitudinal direction of the longitudinal component (16, 17, 18, 19) of the first plurality of fibers of the first longitudinal stretch is greater than the second angle with respect to the longitudinal direction of the blade or to the longitudinal direction of the longitudinal component (16, 17, 18, 19) of the second plurality of fibers of the second longitudinal stretch characterized in that the first longitudinal stretch and the second longitudinal stretch comprise fibers at different orientations depending on the location of the first stretch and the second stretch along the blade. • a first longitudinal stretch comprising a first plurality of fibers, wherein the first plurality of fibers is arranged at a first angle with respect to a longitudinal direction of the blade or to a longitudinal direction of the longitudinal component (16, 17, 18, 19), and • a second longitudinal stretch closer to a tip of the blade than the first longitudinal stretch which comprises at least a second plurality of fibers, wherein the second plurality of fibers is arranged at a second angle with respect to the longitudinal direction of the blade or to the longitudinal direction of the longitudinal component (16, 17, 18, 19),