mhurhangee/patent-ind-claim-en huggingface dataset:
A plunger assembly for a vehicle brake system , the plunger assembly operable as a pressure source to control brake fluid pressure supplied to one or more wheel brakes , the plunger assembly comprising: a housing defining a cylinder having a first port; a reversible motor supported by the housing and having a rotor ; a linear actuator driven by the motor , including a ball screw mechanism having a screw and a nut , one of the screw and the nut defining a rotatable component connected to the motor rotor , and the other one of the screw and the nut defining a translatable component; an anti-rotation member coupled to the translatable component to allow translation and resist rotation of the translatable component within the housing ; a plunger head mounted in the cylinder and driven by the translatable component in first and second opposite directions, the plunger head cooperating with the cylinder to define a first chamber containing brake fluid received from a fluid reservoir, wherein the first chamber is hydraulically connected to the wheel brakes via the first port, and wherein in at least one operating mode fluid pressure in the first chamber is increased when the plunger head is moved in the first direction and is decreased when the plunger head is moved in the second direction; characterized in that an elastomeric tubular torque coupler is provided for supporting the anti-rotation member relative to the housing for limited rotational movement. a housing defining a cylinder having a first port; a reversible motor supported by the housing and having a rotor ; a linear actuator driven by the motor , including a ball screw mechanism having a screw and a nut , one of the screw and the nut defining a rotatable component connected to the motor rotor , and the other one of the screw and the nut defining a translatable component; an anti-rotation member coupled to the translatable component to allow translation and resist rotation of the translatable component within the housing ; a plunger head mounted in the cylinder and driven by the translatable component in first and second opposite directions, the plunger head cooperating with the cylinder to define a first chamber containing brake fluid received from a fluid reservoir, wherein the first chamber is hydraulically connected to the wheel brakes via the first port, and wherein in at least one operating mode fluid pressure in the first chamber is increased when the plunger head is moved in the first direction and is decreased when the plunger head is moved in the second direction; characterized in that an elastomeric tubular torque coupler is provided for supporting the anti-rotation member relative to the housing for limited rotational movement.
A method for self-diagnosing a mobile device comprising at least one or more actuators , one or more sensors and a display , the method comprising: feeding a pre-defined control signal to a first actuator of the mobile device ; measuring , in response to the feeding, a first electric signal using a first sensor of the one or more sensors ; comparing the first electric signal to one or more reference signals associated with the first actuator and the pre-defined control signal; and indicating, in response to the first electric signal failing to match the one or more reference signals according to one or more pre-defined criteria, a negative diagnosis to a user of the mobile device using one or more of the display of the mobile device and the one or more actuators of the mobile device . feeding a pre-defined control signal to a first actuator of the mobile device ; measuring , in response to the feeding, a first electric signal using a first sensor of the one or more sensors ; comparing the first electric signal to one or more reference signals associated with the first actuator and the pre-defined control signal; and indicating, in response to the first electric signal failing to match the one or more reference signals according to one or more pre-defined criteria, a negative diagnosis to a user of the mobile device using one or more of the display of the mobile device and the one or more actuators of the mobile device .
A method for mapping control channel resources, comprising: determining (S401) by a base station, according to a system configuration and an actual transmission condition, a number of enhanced control channel elements E-CCEs multiplexed in one resource block pair, wherein the E-CCEs are borne over resource elements REs for transmission in the resource block pair, and the E-CCEs constitute an enhanced physical downlink control channel E-PDCCH; wherein the system configuration includes: at least one of the subframe type, a number of OFDM symbols occupied by a PDCCH, a Cell-specific Reference Signal, CRS, configuration, and a Channel State Information - Reference Signal, CSI-RS configuration; wherein the actual transmission condition includes: at least one of a Demodulation Reference Signal, DMRS, configuration and a number of data transmission layers; wherein the determining, according to a system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair, is based on a mapping between values of influencing factors and the value of the number of E-CCEs, the mapping being preset and known to both the base station and a user equipment and sending (S402) the E-PDCCH to the user equipment; wherein the determining, according to the system configuration and the actual transmission condition, the number of E-CCEs multiplexed in one resource block pair comprises: determining, according to a subframe type of a subframe for locating the E-PDCCH, the number of the E-CCEs multiplexed in one resource block pair. determining (S401) by a base station, according to a system configuration and an actual transmission condition, a number of enhanced control channel elements E-CCEs multiplexed in one resource block pair, wherein the E-CCEs are borne over resource elements REs for transmission in the resource block pair, and the E-CCEs constitute an enhanced physical downlink control channel E-PDCCH; wherein the system configuration includes: at least one of the subframe type, a number of OFDM symbols occupied by a PDCCH, a Cell-specific Reference Signal, CRS, configuration, and a Channel State Information - Reference Signal, CSI-RS configuration; wherein the actual transmission condition includes: at least one of a Demodulation Reference Signal, DMRS, configuration and a number of data transmission layers; wherein the determining, according to a system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair, is based on a mapping between values of influencing factors and the value of the number of E-CCEs, the mapping being preset and known to both the base station and a user equipment and sending (S402) the E-PDCCH to the user equipment; wherein the determining, according to the system configuration and the actual transmission condition, the number of E-CCEs multiplexed in one resource block pair comprises: determining, according to a subframe type of a subframe for locating the E-PDCCH, the number of the E-CCEs multiplexed in one resource block pair.
A method of operating a robot , the robot comprising: an end effector ; and an arm to which the end effector is provided, the end effector comprising: a plurality of blade members for holding substrates (W), each of the blade members being configured to hold each of the substrates, and the blade members being configured such that each interval between the blade members can be changed; a blade support unit configured to support the blade members , the blade support unit being configured to be driven integrally with the blade members by the robot; and blade drive means configured to change the interval between the blade members by moving at least one of the blade members relative to another blade member, wherein the blade members respectively have substrate holding parts configured to be brought into contact with the substrates, and wherein the substrate holding parts of the blade members are configured to be substantially flush with one another when the interval between the blade members is shortened by the blade drive means the method comprising the step of: carrying two or more substrates (W) at a time by using two or more blade members of the end effector ; and the method being characterised by comprising the step of carrying one substrate (W) by using the end effector in a state that the interval between the blade members is shortened by the blade drive unit. an end effector ; and an arm to which the end effector is provided, a plurality of blade members for holding substrates (W), each of the blade members being configured to hold each of the substrates, and the blade members being configured such that each interval between the blade members can be changed; a blade support unit configured to support the blade members , the blade support unit being configured to be driven integrally with the blade members by the robot; and blade drive means configured to change the interval between the blade members by moving at least one of the blade members relative to another blade member, wherein the blade members respectively have substrate holding parts configured to be brought into contact with the substrates, and wherein the substrate holding parts of the blade members are configured to be substantially flush with one another when the interval between the blade members is shortened by the blade drive means carrying two or more substrates (W) at a time by using two or more blade members of the end effector ; and the method being characterised by comprising the step of carrying one substrate (W) by using the end effector in a state that the interval between the blade members is shortened by the blade drive unit.
A shirt comprising a collar , wherein the shirt further comprises: a collar stand attached to a shirt body , wherein the collar stand is formed from a self fabric, wherein said collar stand comprises an inner piece and an outer piece , and wherein the inner piece and the outer piece are each formed from the self-fabric fused with a fusible substrate, and wherein the inner piece has substantially the same shape and size as the outer piece, characterized in that the collar stand has stretch and recovery in at least two non-opposing directions thereof, and wherein said collar stand is attached to a substantially rigid portion of said collar , and in that the fusible substrate provides and controls stretch and recovery in two directions, and in that the fusible substrate has greater stretch in one of said two directions. a collar stand attached to a shirt body , wherein the collar stand is formed from a self fabric, wherein said collar stand comprises an inner piece and an outer piece , and wherein the inner piece and the outer piece are each formed from the self-fabric fused with a fusible substrate, and wherein the inner piece has substantially the same shape and size as the outer piece, characterized in that the collar stand has stretch and recovery in at least two non-opposing directions thereof, and wherein said collar stand is attached to a substantially rigid portion of said collar , and in that the fusible substrate provides and controls stretch and recovery in two directions, and in that the fusible substrate has greater stretch in one of said two directions.
A liquid applied, air and water barrier coating composition comprising: (i) a crosslinked polysiloxane dispersion of: a reaction product of (a) a siloxane polymer having at least two -OH groups per molecule, or polymer mixture having at least two -OH groups per molecule, having a viscosity of between 5000 to 500,000 mPa.s at 21°C measured using a recording Brookfield viscosimeter with Spindle 3 at 2 rpm according to ASTM D4287 and (b) at least one self-catalyzing crosslinker reactive with (a), and additionally comprising (c) a surfactant and (d) water; (ii) a combination of rheology modifiers in an amount of from 0.25 to 5 wt. % of the composition, comprising or consisting of one or more hydrophobically modified alkali swellable emulsions in an amount of 0.05 - 0.36 wt. % of the composition and one or more other rheology modifiers; and at least one of the following ingredients: (iii) one or more fillers selected from the group of colloidal silica, fumed silica, precipitated silica, diatomaceous earths, ground quartz, kaolin, calcined kaolin, wollastonite, hydroxyapatite, calcium carbonate, hydrated alumina, magnesium hydroxide, carbon black, titanium dioxide, aluminium oxide, vermiculite, zinc oxide, mica, talcum, iron oxide, barium sulphate and slaked lime or a mixture thereof; and/or (iv) one or more stabilizers. (i) a crosslinked polysiloxane dispersion of: a reaction product of (a) a siloxane polymer having at least two -OH groups per molecule, or polymer mixture having at least two -OH groups per molecule, having a viscosity of between 5000 to 500,000 mPa.s at 21°C measured using a recording Brookfield viscosimeter with Spindle 3 at 2 rpm according to ASTM D4287 and (b) at least one self-catalyzing crosslinker reactive with (a), and additionally comprising (c) a surfactant and (d) water; (ii) a combination of rheology modifiers in an amount of from 0.25 to 5 wt. % of the composition, comprising or consisting of one or more hydrophobically modified alkali swellable emulsions in an amount of 0.05 - 0.36 wt. % of the composition and one or more other rheology modifiers; and at least one of the following ingredients: (iii) one or more fillers selected from the group of colloidal silica, fumed silica, precipitated silica, diatomaceous earths, ground quartz, kaolin, calcined kaolin, wollastonite, hydroxyapatite, calcium carbonate, hydrated alumina, magnesium hydroxide, carbon black, titanium dioxide, aluminium oxide, vermiculite, zinc oxide, mica, talcum, iron oxide, barium sulphate and slaked lime or a mixture thereof; and/or (iv) one or more stabilizers.
A silencer panel for an inlet duct of a gas turbine engine, the silencer panel comprising: an acoustic absorbing material ; and an enclosure surrounding the acoustic absorbing material , the enclosure including: an upper end cap ; a lower end cap positioned opposite the upper end cap ; a nose portion positioned between the upper end cap and the lower end cap ; a side end cap positioned between the upper end cap and the lower end cap, the side end cap positioned opposite the nose portion; and two plastic, perforated side walls positioned in opposite sides of the acoustic absorbing material , between the upper end cap and the lower end cap , the at least two plastic, perforated side walls axially aligned with a flow direction of a working fluid flowing over the enclosure . an acoustic absorbing material ; and an enclosure surrounding the acoustic absorbing material , the enclosure including: an upper end cap ; a lower end cap positioned opposite the upper end cap ; a nose portion positioned between the upper end cap and the lower end cap ; a side end cap positioned between the upper end cap and the lower end cap, the side end cap positioned opposite the nose portion; and two plastic, perforated side walls positioned in opposite sides of the acoustic absorbing material , between the upper end cap and the lower end cap , the at least two plastic, perforated side walls axially aligned with a flow direction of a working fluid flowing over the enclosure . an upper end cap ; a lower end cap positioned opposite the upper end cap ; a nose portion positioned between the upper end cap and the lower end cap ; a side end cap positioned between the upper end cap and the lower end cap, the side end cap positioned opposite the nose portion; and two plastic, perforated side walls positioned in opposite sides of the acoustic absorbing material , between the upper end cap and the lower end cap , the at least two plastic, perforated side walls axially aligned with a flow direction of a working fluid flowing over the enclosure .
A method for gamut mapping source colors into target colors from a source color gamut towards a target color gamut, comprising: adaptively changing a source hue of at least one source specific color towards a target hue of a corresponding target specific color based on a difference α between a hue of this source specific color and a hue of this target specific color to determine a mapped specific color; performing color gamut mapping for the source colors of the source color gamut towards the target color gamut based on the mapped specific colors, wherein the specific colors are at least one selected from a group of primary colors, secondary colors, a group of primary colors and secondary colors, wherein said changing of hue is represented by a hue rotation angle θ = α ∗ cos γ − β 2 in a hue-chroma plane having an origin O defined by a zero chroma value in this plane, where, if said at least one source specific color and corresponding target specific color are represented respectively by (P s ) and (P t ) in said hue-chroma plane, α = P t OP s ^ , β = OP t P s ^ , and γ = OP s P t ^ . adaptively changing a source hue of at least one source specific color towards a target hue of a corresponding target specific color based on a difference α between a hue of this source specific color and a hue of this target specific color to determine a mapped specific color; performing color gamut mapping for the source colors of the source color gamut towards the target color gamut based on the mapped specific colors, wherein the specific colors are at least one selected from a group of primary colors, secondary colors, a group of primary colors and secondary colors, wherein said changing of hue is represented by a hue rotation angle θ = α ∗ cos γ − β 2 in a hue-chroma plane having an origin O defined by a zero chroma value in this plane, where, if said at least one source specific color and corresponding target specific color are represented respectively by (P s ) and (P t ) in said hue-chroma plane, α = P t OP s ^ , β = OP t P s ^ , and γ = OP s P t ^ .
Method for determining oscillations occurring in a measurement signal, having the following steps of: - receiving a measurement signal (10; u, u_s, y), - determining the extreme values of the received measurement signal , characterized by - determining closed loops of the measurement signal (10; u, u_s, y), wherein the rainflow counting method is used to determine the closed loops of the measurement signal (10; u, u_s, y) and the closed loops correspond to the oscillations occurring in the measurement signal, by a) identifying a closed loop in the measurement signal (10; u, u_s, y), wherein the closed loop is formed by a first half-loop and a second half-loop which corresponds to the first half-loop and has an identical oscillation width and an opposite direction, wherein the first half-loop begins at a starting maximum and ends at a minimum which is opposite the temporally closest maximum which has a greater value than the starting maximum , b) storing the identified closed loop, c) removing the identified closed loop from the measurement signal , and d) repeating steps a) to c) until all closed loops have been determined. - receiving a measurement signal (10; u, u_s, y), - determining the extreme values of the received measurement signal , characterized by - determining closed loops of the measurement signal (10; u, u_s, y), wherein the rainflow counting method is used to determine the closed loops of the measurement signal (10; u, u_s, y) and the closed loops correspond to the oscillations occurring in the measurement signal, by a) identifying a closed loop in the measurement signal (10; u, u_s, y), wherein the closed loop is formed by a first half-loop and a second half-loop which corresponds to the first half-loop and has an identical oscillation width and an opposite direction, wherein the first half-loop begins at a starting maximum and ends at a minimum which is opposite the temporally closest maximum which has a greater value than the starting maximum , b) storing the identified closed loop, c) removing the identified closed loop from the measurement signal , and d) repeating steps a) to c) until all closed loops have been determined. a) identifying a closed loop in the measurement signal (10; u, u_s, y), wherein the closed loop is formed by a first half-loop and a second half-loop which corresponds to the first half-loop and has an identical oscillation width and an opposite direction, wherein the first half-loop begins at a starting maximum and ends at a minimum which is opposite the temporally closest maximum which has a greater value than the starting maximum , b) storing the identified closed loop, c) removing the identified closed loop from the measurement signal , and d) repeating steps a) to c) until all closed loops have been determined.
Method for direction finding of at least one stationary and/or moving transmitter (T), comprising the following steps: a) measuring the signals emitted by each of the at least one transmitter (T) at at least two different measurement points (P 1 , P 2 , P 3 ), b) determining the location of the measurements points (P 1 , P 2 , P 3 ) at the time of the measurement, and c) determining the bearings from the measurement points (P 1 , P 2 , P 3 ) to each of the at least one transmitter (T), characterized by d) creating a graphical representation of the bearings , e) transferring the graphical representation of the bearings to a pre-trained artificial neural network , and f) estimating the locations (L T ; L T1 , L T2 ) of the at least one transmitter (T) by the artificial neural network based on the graphical representation of the bearings . a) measuring the signals emitted by each of the at least one transmitter (T) at at least two different measurement points (P 1 , P 2 , P 3 ), b) determining the location of the measurements points (P 1 , P 2 , P 3 ) at the time of the measurement, and c) determining the bearings from the measurement points (P 1 , P 2 , P 3 ) to each of the at least one transmitter (T), d) creating a graphical representation of the bearings , e) transferring the graphical representation of the bearings to a pre-trained artificial neural network , and f) estimating the locations (L T ; L T1 , L T2 ) of the at least one transmitter (T) by the artificial neural network based on the graphical representation of the bearings .