mhurhangee/ep-ind-claims huggingface dataset:
Antenna for a read/write unit for RFID arrangements, wherein the antenna has a connection for connection to an external antenna connection of the read/write unit by means of an antenna line, wherein the antenna is equipped with a data memory (TAG, MCA) having type information and/or having property information, wherein the content of the data memory (TAG, MCA) can be read by the read/write unit, and wherein the antenna has a measuring device for determining at least one value of the field strength or power of a radio-frequency signal that is fed into the antenna by the read/write unit, wherein the antenna has means for transmitting the content of the data memory (TAG, MCA) and for informing the read/write unit about the at least one value being reached or exceeded by means of clocked shorting of the antenna line, wherein the antenna is configured for bit-by-bit transmission of the transmittable information by the clocked shorting.
A method for fabricating a thermally isolated microelectromechanical system (MEMS) structure, the method comprising: processing a first wafer of a first material with a glass wafer to form a first composite substrate including at least one sacrificial structure of the first material and glass; forming a MEMS device in a second material; forming at least one temperature sensing element on at least one of: the first composite substrate; and the MEMS device; and etching away the at least one sacrificial structure of the first material in the first composite substrate to form at least one thermally isolating glass flexure, wherein the MEMS device is thermally isolated on a thermal isolation stage by the at least one thermally isolating glass flexure, and wherein the at least one temperature sensing element is on a respective at least one of: the thermal isolation stage; and the MEMS device. processing a first wafer of a first material with a glass wafer to form a first composite substrate including at least one sacrificial structure of the first material and glass; forming a MEMS device in a second material; forming at least one temperature sensing element on at least one of: the first composite substrate; and the MEMS device; and etching away the at least one sacrificial structure of the first material in the first composite substrate to form at least one thermally isolating glass flexure, wherein the MEMS device is thermally isolated on a thermal isolation stage by the at least one thermally isolating glass flexure, and wherein the at least one temperature sensing element is on a respective at least one of: the thermal isolation stage; and the MEMS device.
An odor-inhibiting composition comprising: water-absorbing polymer particles; a first odor control agent comprising a chelation agent; and a second odor control agent, wherein the chelation agent is selected from a group consisting of: ethylenediaminetetraacetic acid (EDTA), nitrilotris(methylene)triphosphonic acid, sodium triphosphate pentabasic, N-carboxymethylated polyethyleneimine, and 1-hydroxyethane 1,1-diphosphonic acid, or salts thereof; and the second odor control agent is a membrane lysing compound selected from a group consisting of: 1,2-decanediol, cetrimonium chloride, cocamidopropyl betaine, poly(t-butylaminoethylmethacrylate), behentrimonium, and 1,2-pentanediol. water-absorbing polymer particles; a first odor control agent comprising a chelation agent; and a second odor control agent, wherein the chelation agent is selected from a group consisting of: ethylenediaminetetraacetic acid (EDTA), nitrilotris(methylene)triphosphonic acid, sodium triphosphate pentabasic, N-carboxymethylated polyethyleneimine, and 1-hydroxyethane 1,1-diphosphonic acid, or salts thereof; and the second odor control agent is a membrane lysing compound selected from a group consisting of: 1,2-decanediol, cetrimonium chloride, cocamidopropyl betaine, poly(t-butylaminoethylmethacrylate), behentrimonium, and 1,2-pentanediol.
An artificial satellite including a first thruster group comprising a plurality of thrusters and a second thruster group comprising a plurality of thrusters different from the plurality of thrusters in the first thruster group, wherein the first thruster group and the second thruster group simultaneously perform firings in a direction opposite to a travel direction of the artificial satellite when orbit transfer is performed, characterised in that: when a first operating number and a second operating number are different, a ratio between a first distance and a second distance becomes inverse to a ratio between the first operating number and the second operating number, the first operating number being a number of the thrusters in the first thruster group that are operated, the second operating number being a number of the thrusters in the second thruster group that are operated, the first distance being a distance in a first direction orthogonal to the travel direction and being a distance from a center of gravity of the satellite to the first thruster group, the second distance being a distance in a second direction opposite to the first direction and being a distance from the center of gravity of the satellite to the second thruster group.
Multifunctional indicating and operating device for a motor vehicle with a display for indicating information, wherein at least one indicating instrument (11, 12) in which a parameter relating to the operation of the motor vehicle can be indicated in the form of a bar (15, 16) is displayed in the display and the length of the displayed bar depends on the parameter, characterized in that the thickness of the displayed bar (15, 16) also depends on the parameter.
A method for calibrating a diagnostic measuring device, wherein the measuring device generates a sequence of measured values that can be represented as n-dimensional vectors, with n assuming a value of at least 2, wherein the method is performed by a component of the measuring device that comprises a programming and serves for the calibrating of the measuring device, and in the method a search region is defined for a rest segment contained in this search region, and wherein the rest segment and a mean vector lying in this rest segment are established from measured values obtained in the search region, and wherein this mean vector is set as reference vector for calibrating the measuring device, characterised in that the reference vector for calibrating is established using a numerical method, which carries out at least the following four steps in the search region with a number of selected points in time: a) calculating the mean vector in a time segment delta around each selected point in time in the search region; b) calculating a mean deviation of all vectors from the mean vector in the time segment delta; c) identifying the rest segment as time segment delta with the smallest mean deviation of all vectors from the mean vector; d) identifying the reference vector as the mean vector in the time segment delta identified as rest segment. a) calculating the mean vector in a time segment delta around each selected point in time in the search region; b) calculating a mean deviation of all vectors from the mean vector in the time segment delta; c) identifying the rest segment as time segment delta with the smallest mean deviation of all vectors from the mean vector; d) identifying the reference vector as the mean vector in the time segment delta identified as rest segment.
A slat deployment mechanism including multiple slats and a system for determining whether the relative rate of deployment of all the slats extending from a leading edge of an aircraft wing, and/or from the leading edge of both wings, is the same as a predetermined relative rate of deployment, said system comprising a rotary actuator having a housing and an output shaft having first and second ends, said first end extending from said rotary actuator and being driven by a common input drive shaft via the rotary actuator, the system comprising a sensor associated with each rotary actuator to generate a signal indicative of the rate of rotation of its corresponding output shaft and to supply that signal to a controller, the controller being configured to analyse the signals supplied by the sensors and to generate an alarm signal if a relative rate of rotation of the output shafts differs from a predetermined relative rate of rotation, characterised by a drive pinion coupled to said second end of the output shaft, said drive pinion being drivingly coupled to each slat, and in that the sensor is received within a recess in the housing of the rotary actuator and surrounds said first end of the output shaft.
A compacting unit for a drafting system of a textile machine, for condensing a finished drawn fiber strand, the compacting unit comprising at least one fiber strand guide (3, 4), and the fiber strand guide (3, 4) comprising a guide surface (11a, 11b; 13a, 13b) for the fiber strand, in the longitudinal direction of which the fiber strand can run, and a support surface (15, 16) disposed on the guide surface (11a, 11b; 13a, 13b) being provided for supporting the compacting unit on a drafting system roller, the support surface (15, 16) of the fiber strand guide (3, 4) being made of a plastic, and the fiber strand guide (3, 4) comprises a wear edge on the support surface (15, 16) thereof along the guide surface (11a, 11b; 13a, 13b) characterized in that the support surface (15, 16) of the fiber strand guide (3, 4) is made of a plastic having sliding bearing properties and that the wear edge gradually drops off from the guide surface (11a, 11b; 13a, 13b) towards the support surface (15, 16). the compacting unit comprising at least one fiber strand guide (3, 4), and the fiber strand guide (3, 4) comprising a guide surface (11a, 11b; 13a, 13b) for the fiber strand, in the longitudinal direction of which the fiber strand can run, and a support surface (15, 16) disposed on the guide surface (11a, 11b; 13a, 13b) being provided for supporting the compacting unit on a drafting system roller, the support surface (15, 16) of the fiber strand guide (3, 4) being made of a plastic, and the fiber strand guide (3, 4) comprises a wear edge on the support surface (15, 16) thereof along the guide surface (11a, 11b; 13a, 13b) characterized in that the support surface (15, 16) of the fiber strand guide (3, 4) is made of a plastic having sliding bearing properties and that the wear edge gradually drops off from the guide surface (11a, 11b; 13a, 13b) towards the support surface (15, 16).
Agent for dyeing and/or lightening keratin fibers, in particular human hair, containing at least one acrylic acid derivative of formula: in which X stands for =N-R 1, Y stands for an arbitrarily functionalized alkyl radical, Z stands for an arbitrary color-imparting structural unit, R, R', R", R 1 independently stand for a hydrogen atom, an optionally substituted aryl group or an optionally substituted (C 1 -C 6) alkyl group or a hydroxyalkyl group or a polyhydroxyalkyl group or an optionally substituted (C 2 -C 6) alkylene group or a (C 1 -C 6) acyl radical, preferably for -H, -CH 3, -CH 2 CH 3, -(CH 2) 2 CH 2, -CH(CH 3) 2, -(CH 2) 3 CH 3, -CH(CH 3)CH 2 CH 3, -CH 2 CH(CH 3) 2, -C(CH 3) 3. X stands for =N-R 1, Y stands for an arbitrarily functionalized alkyl radical, Z stands for an arbitrary color-imparting structural unit, R, R', R", R 1 independently stand for a hydrogen atom, an optionally substituted aryl group or an optionally substituted (C 1 -C 6) alkyl group or a hydroxyalkyl group or a polyhydroxyalkyl group or an optionally substituted (C 2 -C 6) alkylene group or a (C 1 -C 6) acyl radical, preferably for -H, -CH 3, -CH 2 CH 3, -(CH 2) 2 CH 2, -CH(CH 3) 2, -(CH 2) 3 CH 3, -CH(CH 3)CH 2 CH 3, -CH 2 CH(CH 3) 2, -C(CH 3) 3.
A device for the physicochemical treatment of wastewater containing metal, non-metal and metalloid pollutant chemical species, characterised in that it comprises: - A residual liquid inlet manifold, - A rapid mixing chamber following the manifold, - Four turbulent flow circuits, departing from the mixing chamber, comprising pressure regulation valves at the inlet of each circuit, - Four compression openings, at the end of the turbulent flow circuits, compressing in diameter and flattening each circuit, becoming wider, such that a sheet of water less than 0.15 mm in thickness is generated, with a turn of between 40° and 44° for each circuit, - A plasma chamber, into which the four openings at the end of the turbulent flow circuits converge, is formed by a truncated cone with its side walls intended for laminar flows to pass over the same and with an impact cavity, at the bottom of the chamber, and above said impact cavity a physical impact region or point of the flow coming from the four compression openings is placed, said impact cavity and impact region or point being placed opposite the four compression openings, - An outlet circuit or manifold for channeling the outflowing water from the chamber. - A residual liquid inlet manifold, - A rapid mixing chamber following the manifold, - Four turbulent flow circuits, departing from the mixing chamber, comprising pressure regulation valves at the inlet of each circuit, - Four compression openings, at the end of the turbulent flow circuits, compressing in diameter and flattening each circuit, becoming wider, such that a sheet of water less than 0.15 mm in thickness is generated, with a turn of between 40° and 44° for each circuit, - A plasma chamber, into which the four openings at the end of the turbulent flow circuits converge, is formed by a truncated cone with its side walls intended for laminar flows to pass over the same and with an impact cavity, at the bottom of the chamber, and above said impact cavity a physical impact region or point of the flow coming from the four compression openings is placed, said impact cavity and impact region or point being placed opposite the four compression openings, - An outlet circuit or manifold for channeling the outflowing water from the chamber.
Method for pulling a single crystal according to the FZ method, in which a polycrystal is melted by means of an electromagnetic melting device and subsequently recrystallized, wherein in a first phase (P 1) a lower end of the polycrystal is melted by means of the melting device, wherein, in a second phase (P 2), a single-crystalline seedling is attached to the lower end of the polycrystal and melted starting from an upper end of the seedling wherein, in a third phase (P 3), a thin-neck portion is formed between a lower portion of the seedling and the polycrystal, the diameter (d D) of which is smaller than that (d I) of the seedling, and wherein in a fourth phase (P 4) between the thin neck portion and the polycrystal a conical portion of the single crystal is formed, characterized in that, before reaching the fourth phase (P 4), a switching position (h') of the polycrystal at which a speed at which the polycrystal is moved relative to the melting device is to be reduced in terms of amount, is determined, wherein to determine the switching position (h') a) a distance (d) of a point (Ps) characteristic of the polycrystal, which is located at the lower end of a conical section of the polycrystal, is measured relative to a fixed reference point (P B), and wherein the switching position (h') is determined from the distance (d), or b) an intermediate position (h) of the polycrystal is determined, at which a point (Ps) characteristic of the polycrystal, which is located at the lower end of a conical section of the polycrystal, reaches or exceeds a predetermined distance (d) from a fixed reference point (P B) during a movement of the polycrystal, and wherein the switching position (h') is determined from the intermediate position (h), and wherein in the fourth phase (P 4), the speed with which the polycrystal is moved relative to the melting device is reduced in terms of amount when the switching position (h') is reached. a) a distance (d) of a point (Ps) characteristic of the polycrystal, which is located at the lower end of a conical section of the polycrystal, is measured relative to a fixed reference point (P B), and wherein the switching position (h') is determined from the distance (d), or b) an intermediate position (h) of the polycrystal is determined, at which a point (Ps) characteristic of the polycrystal, which is located at the lower end of a conical section of the polycrystal, reaches or exceeds a predetermined distance (d) from a fixed reference point (P B) during a movement of the polycrystal, and wherein the switching position (h') is determined from the intermediate position (h), and
A drive device for an electric vehicle comprising: a parking lock mechanism that mechanically locks a rotation of a rotating shaft of drive wheels of a vehicle; a parking lock operating means for instructing an operation of the parking lock mechanism; an electric motor that is connected to the rotating shaft of the drive wheels so that a drive power of the electric motor is transmitted to the rotating shaft; a balancing torque estimating means that applies rotational torque by the electric motor to the shaft in the opposite direction of the direction of torsional torque applied by the wheels to the rotating shaft, while locking via the parking lock mechanism is done, and that estimates a balancing torque that balances out the torsional torque based on a state of a rotational phase of the electric motor when the rotational torque is applied by the electric motor; and a torque applying means for applying a torque by the electric motor to the shaft when the locking via the parking lock mechanism is released, the torque being calculated based on the balancing torque estimated by the balancing torque estimating means. a parking lock mechanism that mechanically locks a rotation of a rotating shaft of drive wheels of a vehicle; a parking lock operating means for instructing an operation of the parking lock mechanism; an electric motor that is connected to the rotating shaft of the drive wheels so that a drive power of the electric motor is transmitted to the rotating shaft; a balancing torque estimating means that applies rotational torque by the electric motor to the shaft in the opposite direction of the direction of torsional torque applied by the wheels to the rotating shaft, while locking via the parking lock mechanism is done, and that estimates a balancing torque that balances out the torsional torque based on a state of a rotational phase of the electric motor when the rotational torque is applied by the electric motor; and a torque applying means for applying a torque by the electric motor to the shaft when the locking via the parking lock mechanism is released, the torque being calculated based on the balancing torque estimated by the balancing torque estimating means.
A method for managing roaming information in a communications system, the method comprising receiving (303, 401), in a first network apparatus from a data collection function, data related to a network transaction; filtering (303, 402) the received data to obtain roaming data; regarding the obtained roaming data, identifying (303, 403) a peer network operator in the corresponding network transaction; forwarding (304, 405) the obtained roaming data to a respective second network apparatus (105, 108) managed by the identified peer network operator, wherein the first network apparatus is managed by a network operator different from the identified peer network operator; wherein the method comprises using roaming data content awareness to route the roaming data to the network operators involved in a roaming scenario; and wherein the peer network operator relates to a home network or to a visited network.
A one-sided electrode for a secondary battery, comprising: a current collector; an electrode mixture layer applied on one surface of the current collector; and an electrode distortion-preventing layer formed on the other side of the current collector on which no electrode mixture is applied, wherein the current collector and the electrode distortion-preventing layer are integrally formed as a clad metal; wherein a tensile strength of the electrode distortion-preventing layer is 80% to 120% of a tensile strength of the electrode mixture layer; and wherein the electrode distortion-preventing layer is made of a metal that is different from a material of the current collector, and the thickness of the electrode mixture layer is between 40 μm and 300 μm, a current collector; an electrode mixture layer applied on one surface of the current collector; and an electrode distortion-preventing layer formed on the other side of the current collector on which no electrode mixture is applied, wherein the current collector and the electrode distortion-preventing layer are integrally formed as a clad metal; wherein a tensile strength of the electrode distortion-preventing layer is 80% to 120% of a tensile strength of the electrode mixture layer; and wherein the electrode distortion-preventing layer is made of a metal that is different from a material of the current collector, and the thickness of the electrode mixture layer is between 40 μm and 300 μm,
A road noise control system comprising a noise and vibration sensing system, at least one loudspeaker (111, 114, 202), and a road noise control module (107, 204) for creating cancelling signals for cancelling noise from a plurality of noise and vibration sources, the road noise control module (107, 204) connected to the noise and vibration sensing system and to the at least one loudspeaker (111, 114, 202), characterized in that the noise and vibration sensing system comprise: an acceleration sensor arrangement comprising at least two acceleration sensors (301-304, 401, 501-504) and configured to generate at least two sense signals (306-309, 402-404, 506-509) representative of the acceleration that acts on the acceleration sensor arrangement, wherein the sense signals (306-309, 402-404, 506-509) have dynamic ranges which are the ratios between maximum amplitudes of the sense signals (306-309, 402-404, 506-509) and noise created by the acceleration sensor arrangement; and a summer module (305, 405, 505) configured to sum up the at least two sense signals (306-309, 402-404, 506-509) to provide a sum signal (310, 406, 510), wherein the sum signal (310, 406, 510) includes noise created by the acceleration sensor arrangement, wherein the sum signal (310, 406, 510) has a dynamic range which is the ratio between a maximum amplitude of the sum signal (310, 406, 510) and the noise included in the sum signal (310, 406, 510), the dynamic range of the sum signal (310, 406, 510) being greater than the arithmetic mean of the dynamic ranges of the sense signals (306-309, 402-404, 506-509), and wherein the acceleration sensors (301-304, 401, 501-504) have identical directions of maximum sensitivity. an acceleration sensor arrangement comprising at least two acceleration sensors (301-304, 401, 501-504) and configured to generate at least two sense signals (306-309, 402-404, 506-509) representative of the acceleration that acts on the acceleration sensor arrangement, wherein the sense signals (306-309, 402-404, 506-509) have dynamic ranges which are the ratios between maximum amplitudes of the sense signals (306-309, 402-404, 506-509) and noise created by the acceleration sensor arrangement; and a summer module (305, 405, 505) configured to sum up the at least two sense signals (306-309, 402-404, 506-509) to provide a sum signal (310, 406, 510), wherein the sum signal (310, 406, 510) includes noise created by the acceleration sensor arrangement, wherein the sum signal (310, 406, 510) has a dynamic range which is the ratio between a maximum amplitude of the sum signal (310, 406, 510) and the noise included in the sum signal (310, 406, 510), the dynamic range of the sum signal (310, 406, 510) being greater than the arithmetic mean of the dynamic ranges of the sense signals (306-309, 402-404, 506-509), and wherein the acceleration sensors (301-304, 401, 501-504) have identical directions of maximum sensitivity.