mhurhangee/patent-ind-claim-en huggingface dataset:
A temperature compensation method of compensating an effect of temperature over a set of magnetic sensors (S1 - Sn) configured to sense a magnetic actuator which can move along a sensing path and to provide sensing signals indicative of a position and/or displacement of the magnetic actuator relative to the sensing path, the method comprising: selecting at least two magnetic sensors from the set of magnetic sensors (S1 - Sn) for use as temperature sensors (S1 - Sn), the at least two magnetic sensors being selected from a number of magnetic sensors in the set which are identified as not being substantially affected by the magnetic field created by the magnetic actuator ; estimating a distribution of temperature over at least a portion of the sensing path based on the sensing signals output by the selected at least two magnetic sensors; and compensating for the effect of temperature on the sensing signals output by one or more magnetic sensors of the set of magnetic sensors (S1 - Sn) using the estimated temperature distribution. selecting at least two magnetic sensors from the set of magnetic sensors (S1 - Sn) for use as temperature sensors (S1 - Sn), the at least two magnetic sensors being selected from a number of magnetic sensors in the set which are identified as not being substantially affected by the magnetic field created by the magnetic actuator ; estimating a distribution of temperature over at least a portion of the sensing path based on the sensing signals output by the selected at least two magnetic sensors; and compensating for the effect of temperature on the sensing signals output by one or more magnetic sensors of the set of magnetic sensors (S1 - Sn) using the estimated temperature distribution.
A steam heating tool comprising: a cover member that has a cover portion covering a mouth and a nose of a user; and a steam generator that is held on a surface of the cover portion on a side of the user, wherein a space interposed between the cover portion and a face of the user is formed at a time of use, and characterized in that the steam heating tool satisfies following formulae to . 300 ≤ VG ≤ 1,500 40 ≤ MV ≤ 150 5 ≤ VG / MV ≤ 25 In the formulae to , VG represents a cumulative steam generation amount [mg] released into the space for 10 minutes from a start of steam generation of the steam generator, and MV represents a volume [mL] of the space. a cover member that has a cover portion covering a mouth and a nose of a user; and a steam generator that is held on a surface of the cover portion on a side of the user, wherein a space interposed between the cover portion and a face of the user is formed at a time of use, and characterized in that the steam heating tool satisfies following formulae to . 300 ≤ VG ≤ 1,500 40 ≤ MV ≤ 150 5 ≤ VG / MV ≤ 25 In the formulae to , VG represents a cumulative steam generation amount [mg] released into the space for 10 minutes from a start of steam generation of the steam generator, and MV represents a volume [mL] of the space.
Implant for the treatment of glaucoma, consisting of a tube which can be introduced into Schlemm's canal , wherein the tube is of flexible design and has a longitudinal axis (Z), and wherein the tube has an interior space and a plurality of first recesses arranged at a distance from one another in the axial direction in the wall, to form a connection via the first recesses between the trabecular tissue , the interior of the tube and the episcleral venous system , the first recesses being distributed as a geometric pattern with respect to one another in the wall of the tube (25.4, 25.5), and the tube having a segment part which is circularly arc-shaped in the profile cross-section and oriented in the axial direction, characterized in that the first recesses , which are oriented in the circumferential direction with respect to the longitudinal axis (Z) from one side to the opposite side of the segment part , have an opening angle (W) which is in a range between 290° and 310°, and in that the segment part has a plurality of second recesses which are arranged in the axial direction of the tube (25.4, 25.5) at a distance from one another, and are connected to the interior of the tube analogously to the first recesses .
A pneumatic tire comprising a rubber composition, the rubber composition comprising 100 phr of at least one diene-based elastomer and 1 phr to 50 phr of turbostratic graphene, wherein the turbostratic graphene exhibits a peak in a range of from 1870 cm -1 to 1890 cm -1 in Raman spectroscopy and/or wherein the turbostratic graphene exhibits a peak in a range of from 2020 cm -1 to 2040 cm -1 in Raman spectroscopy.
A method in a serving base station , of a first multi-sector cell consisting of one macro sector and one pico sector in a mobile cellular network, for making a decision to handover a user equipment, within radio contact with different sectors of the first multi-sector cell, to a second cell of the mobile cellular network, the method comprising: obtaining a first measurement of an uplink signal received from the user equipment at the macro sector of the first multi-sector cell; obtaining a second measurement of an uplink signal received from the user equipment at the second cell; obtaining a third measurement of an uplink signal received from the user equipment at the pico sector of the first multi-sector cell, wherein the obtained first measurement and the obtained third measurement are path gains from the user equipment to antennas for the macro sector and the pico sector respectively; and making a decision to handover the user equipment from the first multi-sector cell to the second cell using the obtained first measurement, the obtained second measurement, and the obtained third measurement, wherein making the decision comprises computing an uplink geometry based on the obtained first measurement, the obtained second measurement, and the obtained third measurement; and comparing the computed uplink geometry with a predefined threshold, wherein the computed uplink geometry is a ratio of the obtained second measurement to a sum of the obtained first measurement and the obtained third measurement. obtaining a first measurement of an uplink signal received from the user equipment at the macro sector of the first multi-sector cell; obtaining a second measurement of an uplink signal received from the user equipment at the second cell; obtaining a third measurement of an uplink signal received from the user equipment at the pico sector of the first multi-sector cell, wherein the obtained first measurement and the obtained third measurement are path gains from the user equipment to antennas for the macro sector and the pico sector respectively; and making a decision to handover the user equipment from the first multi-sector cell to the second cell using the obtained first measurement, the obtained second measurement, and the obtained third measurement, wherein making the decision comprises computing an uplink geometry based on the obtained first measurement, the obtained second measurement, and the obtained third measurement; and comparing the computed uplink geometry with a predefined threshold, wherein the computed uplink geometry is a ratio of the obtained second measurement to a sum of the obtained first measurement and the obtained third measurement.
A sliding component comprising a substrate and an electrical component ; the substrate having a front surface and a rear surface and comprising an electrically-insulating substrate portion extending through a metallic substrate portion , and an electrical connector extending through the electrically-insulating portion between the front surface and the rear surface; wherein the electrical component being arranged at the front surface of the substrate and electrically connected to the connector , wherein the substrate comprises a groove which extends over a portion of the front surface and coincides with the electrically-insulating substrate portion , such that the electrically-insulating substrate portion extends between the groove and the rear surface of the substrate , the substrate is semi-cylindrical, and in which the groove is arranged to extend circumferentially around a portion of the substrate ; characterised in that , the angular position of the groove on the substrate is such that a first end of the groove is at least 8 degrees, or at least 10 degrees, or at least 15 degrees away from a first joint face of the sliding component and a second end of the groove is less than 80 degrees, or less than 70 degrees, or less than 60 degrees away from the first joint face . the substrate having a front surface and a rear surface and comprising an electrically-insulating substrate portion extending through a metallic substrate portion , and an electrical connector extending through the electrically-insulating portion between the front surface and the rear surface; wherein the electrical component being arranged at the front surface of the substrate and electrically connected to the connector , wherein the substrate comprises a groove which extends over a portion of the front surface and coincides with the electrically-insulating substrate portion , such that the electrically-insulating substrate portion extends between the groove and the rear surface of the substrate , the substrate is semi-cylindrical, and in which the groove is arranged to extend circumferentially around a portion of the substrate ; characterised in that , the angular position of the groove on the substrate is such that a first end of the groove is at least 8 degrees, or at least 10 degrees, or at least 15 degrees away from a first joint face of the sliding component and a second end of the groove is less than 80 degrees, or less than 70 degrees, or less than 60 degrees away from the first joint face .
System of controlled flaps for a vehicle, comprising two sets of flaps , each set of flaps being able to assume an open position (p1) and a closed position (p2), said system of controlled flaps further comprising an actuator configured to drive one of the sets of flaps into the open position (p1) before the other of the sets of flaps , characterized in that said system of controlled flaps further comprises: - a spring connecting the two sets of flaps , - an upper lever with a primary lost motion cam configured to be driven by a connecting rod , - a lower lever with a secondary lost motion cam configured to be driven by said actuator , and - said connecting rod connected to said actuator and connecting said upper lever and said lower lever . - a spring connecting the two sets of flaps , - an upper lever with a primary lost motion cam configured to be driven by a connecting rod , - a lower lever with a secondary lost motion cam configured to be driven by said actuator , and - said connecting rod connected to said actuator and connecting said upper lever and said lower lever .
A device for treatment of an organ or tissue of a living being, said device comprising: - at least one treatment transducer for emission of high intensity focused ultrasound HIFU waves, being focused on a focal point within or on the surface of said organ or tissue; and - means for rotating said treatment transducer in such a way that said focal point is not moved characterized in that the device further comprises synchronization means for synchronizing the rotation of the treatment transducer with the emission of ultrasound HIFU waves from said treatment transducer such that the treatment transducer is rotated during emission of an HIFU waves pulse or a series of HIFU waves pulses. - at least one treatment transducer for emission of high intensity focused ultrasound HIFU waves, being focused on a focal point within or on the surface of said organ or tissue; and - means for rotating said treatment transducer in such a way that said focal point is not moved
A method of fabricating a light emitting device, the method comprising: forming a sacrificial layer on the substrate, wherein the sacrificial layer is suitable to be dissolved by the energy of a laser in a laser lift-off step and forming a growth layer on the sacrificial layer ; wherein the method further comprises: forming a patterned portion of a top surface of the growth layer after forming the growth layer; forming a light emitting structure comprising a first conductive type semiconductor layer , an active layer , and a second conductive type semiconductor layer on the growth layer ; irradiating a laser onto the sacrificial layer passing through the substrate , thereby to dissolve the sacrificial layer for lifting-off the substrate and removing the substrate and first portions of the sacrificial layer , whereby there remain second portions of the sacrificial layer on the growth layer ; and removing the second portions of the sacrificial layer and the growth layer using an etching process, characterized in that the growth layer 120 is of Al 2 O 3 having a polycrystalline or monocrystalline structure. forming a sacrificial layer on the substrate, wherein the sacrificial layer is suitable to be dissolved by the energy of a laser in a laser lift-off step and forming a growth layer on the sacrificial layer ; wherein the method further comprises: forming a patterned portion of a top surface of the growth layer after forming the growth layer; forming a light emitting structure comprising a first conductive type semiconductor layer , an active layer , and a second conductive type semiconductor layer on the growth layer ; irradiating a laser onto the sacrificial layer passing through the substrate , thereby to dissolve the sacrificial layer for lifting-off the substrate and removing the substrate and first portions of the sacrificial layer , whereby there remain second portions of the sacrificial layer on the growth layer ; and removing the second portions of the sacrificial layer and the growth layer using an etching process, characterized in that the growth layer 120 is of Al 2 O 3 having a polycrystalline or monocrystalline structure.
An impregnation process for impregnating a fibrous substrate, wherein said fibrous substrate is made of long fibres having an aspect ratio of of at least 1000 and said process comprises a step of impregnating said fibrous substrate with a liquid monomer syrup comprising: a) a at least a polymer (P), b) at least monomer (A) that is liquid in the temperature range between 15°C and 100°C at 1013mbar, c) at least one initiator or initiating system for starting the polymerization of the monomer (A), said liquid monomer syrup has a dynamic viscosity of a value in the range from 10 mPa*s to 10000 mPa*s, preferably from 50 mPa*s to 5000 mPa*s and advantageously from 100 mPa*s to 1000 mPa*s measured at 25°C, characterized that the fibrous substrate comprises an functionality having an IR absorption peak at a wave number between 1600cm-1 and 1680cm-1, and said liquid monomer syrup comprises an activator. a) a at least a polymer (P), b) at least monomer (A) that is liquid in the temperature range between 15°C and 100°C at 1013mbar, c) at least one initiator or initiating system for starting the polymerization of the monomer (A),
A compact photonic radio frequency receiver system for space and airborne applications, the system comprising: a laser source configured to generate laser light; radio frequency, RF, and local oscillator, LO, input ports configured to receive RF and LO signals, respectively; one or more centimeter scale or smaller waveguide phase modulators coupled to the laser source and configured to receive the RF and LO signals and to modulate the laser light with the RF and LO signals in a first and a second path and to generate phase-modulated laser lights including an RF-modulated light signal and an LO-modulated light signal; and a first and a second centimeter scale or smaller filters coupled to the centimeter scale or smaller waveguide phase modulators , the first centimeter scale or smaller filter configured to separate a desired spectral band in the phase-modulated laser light of the first path and the second centimeter scale or smaller filter configured to pass a first portion of the LO-modulated light signal for heterodyne purposes and to reflect a second portion of the LO modulated signal to facilitate wavelength locking of the laser light of the second path ; an optical combiner configured to combine output laser lights of the first and second centimeter scale or smaller filters to generate a combined RF-modulated and LO-modulated light signal; and a processing means coupled to the combiner and configured to perform a heterodyne process by mixing the combined RF-modulated and LO-modulated light signal to recover a radio frequency output of a desired downlink frequency component. a laser source configured to generate laser light; radio frequency, RF, and local oscillator, LO, input ports configured to receive RF and LO signals, respectively; one or more centimeter scale or smaller waveguide phase modulators coupled to the laser source and configured to receive the RF and LO signals and to modulate the laser light with the RF and LO signals in a first and a second path and to generate phase-modulated laser lights including an RF-modulated light signal and an LO-modulated light signal; and a first and a second centimeter scale or smaller filters coupled to the centimeter scale or smaller waveguide phase modulators , the first centimeter scale or smaller filter configured to separate a desired spectral band in the phase-modulated laser light of the first path and the second centimeter scale or smaller filter configured to pass a first portion of the LO-modulated light signal for heterodyne purposes and to reflect a second portion of the LO modulated signal to facilitate wavelength locking of the laser light of the second path ; an optical combiner configured to combine output laser lights of the first and second centimeter scale or smaller filters to generate a combined RF-modulated and LO-modulated light signal; and a processing means coupled to the combiner and configured to perform a heterodyne process by mixing the combined RF-modulated and LO-modulated light signal to recover a radio frequency output of a desired downlink frequency component.
Assembly group of a machine for processing sheet or web-shaped printing material, comprising a functional polymer -known as a smart polymer - for changing a characteristic of a component of the assembly group, wherein the component has multiple zones in which the functional polymer is located, the zones being individually controllable and ring segments axially aligned with one another and the functional polymer being a magnetically active polymer, an electrically active polymer, or a dielectric elastomer, or wherein the assembly group comprises a roller with a roller core , annular actuators - known as ring actuators - disposed thereon and a rubber cover disposed thereon and every ring actuator comprises an inner electrode , an outer electrode , and a dielectric elastomer disposed radially between the two electrodes or every ring actuator comprises two outer electrodes and a dielectric elastomer disposed axially between the two electrodes .
An electrode comprising: a current collector ; an electrode material mixture; a plate-shaped metal body having a through-hole formed therethrough; a resin provided inside the through-hole ; and an electrode tab , the current collector being a foamed metal, the current collector having pores filled with the electrode material mixture, the electrode material mixture comprising an electrode active material capable of occluding and releasing lithium ions, the electrode tab being an extending portion extending from the plate-shaped metal body , wherein the current collector has an inner region in which the through-hole of the metal plate-shaped body is located in top view. a current collector ; an electrode material mixture; a plate-shaped metal body having a through-hole formed therethrough; a resin provided inside the through-hole ; and an electrode tab , the current collector being a foamed metal, the current collector having pores filled with the electrode material mixture, the electrode material mixture comprising an electrode active material capable of occluding and releasing lithium ions, the electrode tab being an extending portion extending from the plate-shaped metal body , wherein the current collector has an inner region in which the through-hole of the metal plate-shaped body is located in top view.
An ink cartridge chip , detachably mounted on an ink cartridge and comprising a circuit board , wherein the circuit board is provided with at least three connecting terminals in contact connection with apparatus-side terminals of a recording device body, the at least three connecting terminals comprise at least one first connecting terminal connected with a storage element provided on the circuit board , at least one second connecting terminal applied with a high drive voltage and at least one installation detecting connecting terminal for detecting the ink cartridge mounting condition by the recording device, characterized in that , the ink cartridge chip further comprises: at least one detecting terminal provided on the circuit board , arranged between the at least one second connecting terminal and the at least one installation detecting connecting terminal , is configured to detect whether short circuit occurs between the at least one detecting terminal and the at least one installation detecting connecting terminal or the at least one second connecting terminal , wherein the at least one detecting terminal is not in physical contact connection with the apparatus-side terminals of the recording device body.
A device comprising: a light source ; means for modulating the light source over a range of pump modulation frequencies to provide a modulated pump light source; means for irradiating a target specimen with light from the pump light source; means for generating a probe light speckle pattern from the target specimen; means for detecting changes in at least one of position or intensity of one or more speckle lobes of the speckle pattern; and means for correlating the changes in at least one of position or intensity with frequency of the pump modulation over the range of pump modulation frequencies. a light source ; means for modulating the light source over a range of pump modulation frequencies to provide a modulated pump light source; means for irradiating a target specimen with light from the pump light source; means for generating a probe light speckle pattern from the target specimen; means for detecting changes in at least one of position or intensity of one or more speckle lobes of the speckle pattern; and means for correlating the changes in at least one of position or intensity with frequency of the pump modulation over the range of pump modulation frequencies.