mhurhangee/ep-ind-claims huggingface dataset:
A frontend for a radio-frequency test device, the frontend comprising: at least two frontend modules, each frontend module comprising: a first radio frequency interface adapted to connect the frontend module with a signal generator and/or a receiving device; a second radio frequency interface adapted to connect the frontend module with a device under test; a third radio frequency interface adapted to connect the frontend module with a first further frontend module; a fourth radio frequency interface adapted to connect the frontend module with a second further frontend module; and a signal distribution device adapted to selectively couple the first radio frequency interface, the second radio frequency interface, the third radio frequency interface and the fourth radio frequency interface; wherein the third radio frequency interface of a first frontend module is coupled with the fourth radio-frequency interface of a second frontend module. at least two frontend modules, each frontend module comprising: a first radio frequency interface adapted to connect the frontend module with a signal generator and/or a receiving device; a second radio frequency interface adapted to connect the frontend module with a device under test; a third radio frequency interface adapted to connect the frontend module with a first further frontend module; a fourth radio frequency interface adapted to connect the frontend module with a second further frontend module; and a signal distribution device adapted to selectively couple the first radio frequency interface, the second radio frequency interface, the third radio frequency interface and the fourth radio frequency interface; a first radio frequency interface adapted to connect the frontend module with a signal generator and/or a receiving device; a second radio frequency interface adapted to connect the frontend module with a device under test; a third radio frequency interface adapted to connect the frontend module with a first further frontend module; a fourth radio frequency interface adapted to connect the frontend module with a second further frontend module; and a signal distribution device adapted to selectively couple the first radio frequency interface, the second radio frequency interface, the third radio frequency interface and the fourth radio frequency interface; wherein the third radio frequency interface of a first frontend module is coupled with the fourth radio-frequency interface of a second frontend module.
An electrical device, comprising: a reconfigurable integrated circuit, comprising: paired top electrodes and bottom electrodes separated from each other by an active layer, wherein: the top electrodes are distributed in two or more rows (210, 212) parallel to a major planar surface of the active layer, each of the rows of top electrodes having different separation distances (222, 224) from the active layer along a dimension perpendicular to the major plane, the bottom electrodes are distributed in two or more rows (215, 217) parallel to the major plane of the active layer, each of the rows of bottom electrodes having different separation distances (228, 230) from the active layer along the dimension perpendicular to the major plane, and a resistivity state of portions of the active layer are independently changeable by a voltage applied to one or more of the paired top and bottom electrodes. the top electrodes are distributed in two or more rows (210, 212) parallel to a major planar surface of the active layer, each of the rows of top electrodes having different separation distances (222, 224) from the active layer along a dimension perpendicular to the major plane, the bottom electrodes are distributed in two or more rows (215, 217) parallel to the major plane of the active layer, each of the rows of bottom electrodes having different separation distances (228, 230) from the active layer along the dimension perpendicular to the major plane, and a resistivity state of portions of the active layer are independently changeable by a voltage applied to one or more of the paired top and bottom electrodes.
Configuration device for configuring a control system with at least one electronic processing unit and at least one associated I/O device, wherein at least a portion of a control program corresponding to a configuration is generated for controlling the control system and wherein the configuration device has at least one display device, wherein at least one I/O access point can be displayed in a model configuration field, at least one hardware functionality can be displayed in a function configuration field and at least one hardware interface can be displaced in an interface configuration field by means of a display device, wherein at least one I/O access point and at least one hardware functionality can be assigned to one another and/or wherein at least one hardware functionality and at least one hardware interface can be assigned to one another characterized in that the I/O access points in the model configuration field, the hardware functionality in the function configuration field and the hardware interface in the interface configuration field can be displayed by blocks with input and/or output ports (10a, 10b), wherein the I/O access points and/or the hardware functionalities and/or the hardware interfaces can be assigned to one another using signal lines, that multiple I/O access points in the model configuration field and/or multiple hardware functionalities in the function configuration field and/or multiple hardware interfaces in the interface configuration field can be combined into a higher-level unit, that all input and output ports (10a, 10b) of the I/O access points or of the hardware functionalities or of the hardware interfaces that are included in the higher-level unit are displayed separately by the higher-level unit in an expanded representation and/or all input and output ports (10a, 10b) of the I/O access points or of the hardware functionalities or of the hardware interfaces that are included in the higher-level unit are displayed by the higher-level unit in a reduced representation by at least one common input and at least one common output port (10c, 10d) and that the displayed contents (12a, 12b, 12c) of the model configuration field and/or the function configuration field and/or the interface configuration field can be moved relative to each other in such a manner that I/O access points and/or hardware functionalities and/or hardware interfaces assigned to one another or to be assigned to one another can be simultaneously displayed next to one another and thus can be assigned to one another and/or can be commonly configured, and that associations between elements of different configuration fields carried out by signal lines are also retained by the relative movement of contents of these fields in that the signal lines elastically follow the relative movement.
A water/oil repellent composition comprising a copolymer containing structural units based on the following monomer (a), structural units based on the following monomer (b) and structural units based on the following monomer (c), and a liquid medium: Monomer (a): a compound represented by the following formula: (Z-Y) n X wherein Z is a C 1-6 perfluoroalkyl group or a group represented by the following formula, Y is a divalent organic group having no fluorine atom, or a single bond, n is 1 or 2, and X is, when n is 1, any one of groups represented by the following formulae to, or, when n is 2, any one of groups represented by the following formulae to: C s F 2s+1 CH 2 CF 2 -(CH 2 CF 2) t (CF 2 CF 2) u - wherein s is an integer of from 1 to 6, t is an integer of from 0 to 3, and u is an integer of from 1 to 3, -CR=CH 2, -C OCR=CH 2, -OC CR=CH 2, -OCH 2 -φ-CR=CH 2, -OCH=CH 2, wherein R is a hydrogen atom, a methyl group or a halogen atom, and φ is a phenylene group, -CH[-(CH 2) m CR=CH 2]-, -CH[-(CH 2) m C OCR=CH 2]-, -CH[-(CH 2) m OC CR=CH 2]-, -OC CH=CHC O-. wherein R is a hydrogen atom, a methyl group or a halogen atom, and m is an integer of from 0 to 4, Monomer (b): a (meth)acrylate having no polyfluoroalkyl group and having an alkyl group with at least 12 carbon atoms, Monomer (c): a monomer having a poly(oxypolyfluoroalkylene) chain wherein the proportion of the number of fluorine atoms to the total number of fluorine atoms and hydrogen atoms is at least 70%. Monomer (a): a compound represented by the following formula: (Z-Y) n X wherein Z is a C 1-6 perfluoroalkyl group or a group represented by the following formula, Y is a divalent organic group having no fluorine atom, or a single bond, n is 1 or 2, and X is, when n is 1, any one of groups represented by the following formulae to, or, when n is 2, any one of groups represented by the following formulae to: C s F 2s+1 CH 2 CF 2 -(CH 2 CF 2) t (CF 2 CF 2) u - wherein s is an integer of from 1 to 6, t is an integer of from 0 to 3, and u is an integer of from 1 to 3, -CR=CH 2, -C OCR=CH 2, -OC CR=CH 2, -OCH 2 -φ-CR=CH 2, -OCH=CH 2, wherein R is a hydrogen atom, a methyl group or a halogen atom, and φ is a phenylene group, -CH[-(CH 2) m CR=CH 2]-, -CH[-(CH 2) m C OCR=CH 2]-, -CH[-(CH 2) m OC CR=CH 2]-, -OC CH=CHC O-. wherein R is a hydrogen atom, a methyl group or a halogen atom, and m is an integer of from 0 to 4, Monomer (b): a (meth)acrylate having no polyfluoroalkyl group and having an alkyl group with at least 12 carbon atoms, Monomer (c): a monomer having a poly(oxypolyfluoroalkylene) chain wherein the proportion of the number of fluorine atoms to the total number of fluorine atoms and hydrogen atoms is at least 70%.
A tensioning device for a seatbelt, in particular in a motor vehicle, comprising a gas generator, a piston guided in a tube, which encloses a pressure space in the tube, which is impingeable with a pressure by the gas generator, whereby the piston is drivable to a tensioning movement, which is transferable to the seatbelt by a mass body abutting on an end surface of the piston, wherein the piston has a through-opening which is releasable upon an exceeding of a predetermined pressure, and a recess is provided in the end surface, through which recess, in the case of abutting mass body, a fluid connection is provided from the through-opening to the space located behind the piston in the direction of the tensioning movement, wherein the piston has a greater surface hardness in the region of the end surface with respect to the rest of the surface, and includes a first part which abuts on the inner wall of the tube, and includes a second part, on which the end surface is disposed, and the second part has a greater strength than the first part, and an inlay part closing the through-opening is disposed between the first and the second part (3, 4), characterised in that the inlay part is radially tensioned between the first and the second part (3, 4) by an annular-cylindrical extension.
A method for operating a transmitter to negotiate sleep cycle setting of a mobile station, MS, in a wireless communication system, the method being executed by an apparatus of the transmitter, configured to support base station initiated DSx, and comprising: transmitting a DSx request message including sleep cycle setting information to a receiver; and receiving a DSx response message from the receiver, wherein the DSx is one of DSA, Dynamic Service Addition, DSC, Dynamic Service Change, and DSD, Dynamic Service Deletion, and wherein if the transmitter is a base station, BS, and the receiver is the MS, the sleep cycle setting information in the DSx request message includes at least one of an operation type for indicating switching sleep cycle setting, a sleep cycle ID, SCID, for identifying the sleep cycle setting information, a start frame number for indicating a start of a new sleep cycle setting, a new initial sleep cycle flag, NISCF, for indicating whether a new initial sleep cycle is present in the sleep cycle setting information, the new initial sleep cycle, an initial sleep cycle of a sleep cycle pattern, and a final sleep cycle of the sleep cycle pattern. transmitting a DSx request message including sleep cycle setting information to a receiver; and receiving a DSx response message from the receiver, wherein the DSx is one of DSA, Dynamic Service Addition, DSC, Dynamic Service Change, and DSD, Dynamic Service Deletion, and wherein if the transmitter is a base station, BS, and the receiver is the MS, the sleep cycle setting information in the DSx request message includes at least one of an operation type for indicating switching sleep cycle setting, a sleep cycle ID, SCID, for identifying the sleep cycle setting information, a start frame number for indicating a start of a new sleep cycle setting, a new initial sleep cycle flag, NISCF, for indicating whether a new initial sleep cycle is present in the sleep cycle setting information, the new initial sleep cycle, an initial sleep cycle of a sleep cycle pattern, and a final sleep cycle of the sleep cycle pattern.
A method for wireless communications at a base station, BS, comprising: applying a phase rotation adjustment to a signal, which is to be transmitted over a repeater to a user equipment, UE, the phase rotation adjustment involves a phase rotation of OFDM symbols in the signal transmission, which is applied to the symbols before they are transformed from the frequency domain to the time domain via an IFFT, wherein the phase rotation term for the l th symbol in the signal is defined as: e − j 2 πf 0 t start, l μ + N CP, l μ T c where t start, l μ = 0, l = 0 t start, l − 1 μ + N u μ + N CP, l − 1 μ T c where p is an antenna port, μ is a subcarrier frequency, N CP μ is the cyclic prefix, CP, length in samples for the l th symbol, N u μ is an OFDM symbol length in units of T c, T c is the sampling interval in the baseband frequency, f 0 is a first carrier frequency used by the BS for transmitting the signal to the repeater, and l is the symbol index; applying an additional phase rotation to the phase rotation adjusted signal prior to the IFFT to generate a phase rotated signal, wherein the additional phase rotation term for the l th symbol in the signal is defined as: e − j 2 πf n t start, l μ + N CP, l μ T c where f n is a frequency that will be used by the repeater for re-transmitting the signal to the UE, which is different to the first carrier frequency; and transmit the phase rotated signal to the repeater. where p is an antenna port, μ is a subcarrier frequency, N CP μ is the cyclic prefix, CP, length in samples for the l th symbol, N u μ is an OFDM symbol length in units of T c, T c is the sampling interval in the baseband frequency, f 0 is a first carrier frequency used by the BS for transmitting the signal to the repeater, and l is the symbol index; applying an additional phase rotation to the phase rotation adjusted signal prior to the IFFT to generate a phase rotated signal, wherein the additional phase rotation term for the l th symbol in the signal is defined as: e − j 2 πf n t start, l μ + N CP, l μ T c where f n is a frequency that will be used by the repeater for re-transmitting the signal to the UE, which is different to the first carrier frequency; and transmit the phase rotated signal to the repeater.
An immunological method for quantifying soluble LR11 in a sample derived from a mammal, comprising a step of treating the sample with at least one surfactant selected from a group consisting of a polyoxyalkylene alkyl ether, a polyoxyalkylene alkyl phenyl ether, an alkyl glycoside, an alkyl thioglycoside, an acyl-N-methylglucamine and a salt of cholic acid.
A device for manufacturing a composite component, wherein the device comprises a tool with a first section forming a first confinement surface and a second section forming a second confinement surface, wherein the first section and the second section are movable relative to each other into and out of a fastening configuration, wherein the device comprises a closing mechanism with a closing section forming a third confinement surface, wherein the closing mechanism is directly or indirectly connected to the tool, wherein, when the first and second sections (9, 11) are arranged in the fastening configuration, the first confinement surface and the second confinement surface face one another, and the first section, the second section and the closing mechanism are arranged such that a cavity is formed between the first section, the second section and the closing mechanism, characterised in that, the closing section is transferable from an open configuration into a closed configuration, wherein, when the closing section is in the open configuration, the volume of the cavity is larger than the volume of the cavity when the closing section is in the closed configuration, wherein, when the closing section is in the closed configuration, the third confinement surface extends along a plane, which is arranged perpendicular to each of the first and second confinement surfaces (29, 31), wherein, when the closing mechanism is heated from a first temperature to a second temperature, the closing section transfers from the open configuration into the closed configuration at a predefined temperature. wherein the device comprises a tool with a first section forming a first confinement surface and a second section forming a second confinement surface, wherein the first section and the second section are movable relative to each other into and out of a fastening configuration, wherein the device comprises a closing mechanism with a closing section forming a third confinement surface, wherein the closing mechanism is directly or indirectly connected to the tool, wherein, when the first and second sections (9, 11) are arranged in the fastening configuration, the first confinement surface and the second confinement surface face one another, and the first section, the second section and the closing mechanism are arranged such that a cavity is formed between the first section, the second section and the closing mechanism, characterised in that, the closing section is transferable from an open configuration into a closed configuration, wherein, when the closing section is in the open configuration, the volume of the cavity is larger than the volume of the cavity when the closing section is in the closed configuration, wherein, when the closing section is in the closed configuration, the third confinement surface extends along a plane, which is arranged perpendicular to each of the first and second confinement surfaces (29, 31), wherein, when the closing mechanism is heated from a first temperature to a second temperature, the closing section transfers from the open configuration into the closed configuration at a predefined temperature.
A method for locating a mobile detection device utilizing inverse multilateration in which the location of the mobile detection device is determined based on pulses received at the mobile detection device from a fixed transmitting object, the method comprising: receiving signal pulses from the fixed transmitting object at the mobile detection device; determining slant ranges between the fixed transmitting object and the mobile detection device wherein the slant ranges are determined by using time of arrival data; determining a position vector ( P sensor) of the fixed transmitting object using the slant range, the position vector ( P sensor) specifying the position of the fixed transmitting object; and determining the location ( P plane) of the mobile detection device relative to the position of the fixed transmitting object. receiving signal pulses from the fixed transmitting object at the mobile detection device; determining slant ranges between the fixed transmitting object and the mobile detection device wherein the slant ranges are determined by using time of arrival data; determining a position vector ( P sensor) of the fixed transmitting object using the slant range, the position vector ( P sensor) specifying the position of the fixed transmitting object; and determining the location ( P plane) of the mobile detection device relative to the position of the fixed transmitting object.
A method for transmitting a signal by a transmitter in a wireless communication system, the method comprising: generating, by a packet data convergence control, PDCP, entity of the transmitter, a PDCP protocol data unit, PDU; sending, from the PDCP entity, the PDCP PDU to a medium access control, MAC, entity of the transmitter; generating, by the MAC entity, a MAC PDU based on a MAC service data unit, SDU, corresponding to the PDCP PDU, the MAC PDU including at least one MAC sub-PDU; and transmitting the MAC PDU, wherein each MAC sub-PDU includes a sub-header including a logical channel identifier, LCID, field, wherein each sub-header does not include any E field, wherein the E field indicates whether another sub-header or MAC SDU follows. generating, by a packet data convergence control, PDCP, entity of the transmitter, a PDCP protocol data unit, PDU; sending, from the PDCP entity, the PDCP PDU to a medium access control, MAC, entity of the transmitter; generating, by the MAC entity, a MAC PDU based on a MAC service data unit, SDU, corresponding to the PDCP PDU, the MAC PDU including at least one MAC sub-PDU; and transmitting the MAC PDU, wherein each MAC sub-PDU includes a sub-header including a logical channel identifier, LCID, field, wherein each sub-header does not include any E field, wherein the E field indicates whether another sub-header or MAC SDU follows.
A saddle-type vehicle comprising: a vehicle body frame including a main frame extending obliquely rearward and downward from a head pipe, a down frame extending downward from the head pipe and supporting an engine, and a seat frame extending rearward from the main frame and supporting a riding seat, wherein a front wheel is supported by a front portion of the vehicle body frame via a front fork, and a rear wheel is supported by a rear portion of the vehicle body frame via a swing arm; and a vehicle height adjustment device provided below the seat frame to elastically support the seat frame and configured to adjust a height of the seat frame, wherein the vehicle height adjustment device includes an actuator unit and a cushion unit, and wherein the actuator unit is disposed between the cushion unit and the engine, characterised in that the actuator unit is supported by a left frame and a right frame of the vehicle body frame on both sides of an axial direction. a vehicle body frame including a main frame extending obliquely rearward and downward from a head pipe, a down frame extending downward from the head pipe and supporting an engine, and a seat frame extending rearward from the main frame and supporting a riding seat, wherein a front wheel is supported by a front portion of the vehicle body frame via a front fork, and a rear wheel is supported by a rear portion of the vehicle body frame via a swing arm; and a vehicle height adjustment device provided below the seat frame to elastically support the seat frame and configured to adjust a height of the seat frame, wherein the vehicle height adjustment device includes an actuator unit and a cushion unit, and wherein the actuator unit is disposed between the cushion unit and the engine, characterised in that the actuator unit is supported by a left frame and a right frame of the vehicle body frame on both sides of an axial direction.