mhurhangee/patent-ind-claim-en huggingface dataset:
A single chip push-pull bridge-type magnetic field sensor, comprising: a substrate in an XY plane, wherein the XY plane is defined by coordinate axes, an X axis and a Y axis; at least one push arm consisting of one or more magnetoresistance sensing elements ; at least one pull arm consisting of one or more magnetoresistance sensing elements ; multiple push arm flux concentrators and pull arm flux concentrators disposed on the substrate and comprising arrays of elongate bars of soft ferromagnetic alloy, and the elongate bars of soft ferromagnetic alloy are spaced apart by clearance gaps , wherein an included angle between the push arm flux concentrators and the X-axis forward direction is positive while an included angle between the pull arm flux concentrators and the X-axis forward direction is negative, or an included angle between the push arm flux concentrators and an X-axis forward direction is negative while an included angle between the pull arm flux concentrators and the X-axis forward direction is positive; magnetization directions of magnetic pinning layers of the magnetoresistance sensing elements are identical; the magnetoresistance sensing elements are respectively located within clearance gaps, to detect a difference value of components of magnetic fields between the push arm flux concentrators and the pull arm flux concentrators in the direction of the X axis; and a microelectronic electrical connection and packaging method adapted to interconnect the magnetoresistance sensing elements into a push-pull bridge and form input and output connections. a substrate in an XY plane, wherein the XY plane is defined by coordinate axes, an X axis and a Y axis; at least one push arm consisting of one or more magnetoresistance sensing elements ; at least one pull arm consisting of one or more magnetoresistance sensing elements ; multiple push arm flux concentrators and pull arm flux concentrators disposed on the substrate and comprising arrays of elongate bars of soft ferromagnetic alloy, and the elongate bars of soft ferromagnetic alloy are spaced apart by clearance gaps , wherein an included angle between the push arm flux concentrators and the X-axis forward direction is positive while an included angle between the pull arm flux concentrators and the X-axis forward direction is negative, or an included angle between the push arm flux concentrators and an X-axis forward direction is negative while an included angle between the pull arm flux concentrators and the X-axis forward direction is positive; magnetization directions of magnetic pinning layers of the magnetoresistance sensing elements are identical; the magnetoresistance sensing elements are respectively located within clearance gaps, to detect a difference value of components of magnetic fields between the push arm flux concentrators and the pull arm flux concentrators in the direction of the X axis; and a microelectronic electrical connection and packaging method adapted to interconnect the magnetoresistance sensing elements into a push-pull bridge and form input and output connections.
An apparatus for supporting an arm of a human patient during a medical procedure, the apparatus comprising: a base comprising a medial portion that is configured to lie between the human patient and a table on which the human patient is supported, and a lateral portion that extends laterally from the medial portion ; an arm pad positioned on the lateral portion of the base , the arm pad extending longitudinally between first and second ends ; a first barrier for shielding scatter radiation during the medical procedure, the first barrier mounted to the base and positioned laterally intermediate the medial and lateral portions thereof, the first barrier extending upwardly from the base to above the arm pad ; and a second barrier for shielding scatter radiation during the medical procedure, the second barrier mounted to the lateral portion of the base and extending downwardly therefrom, wherein the arm pad comprises a radiopaque panel . a base comprising a medial portion that is configured to lie between the human patient and a table on which the human patient is supported, and a lateral portion that extends laterally from the medial portion ; an arm pad positioned on the lateral portion of the base , the arm pad extending longitudinally between first and second ends ; a first barrier for shielding scatter radiation during the medical procedure, the first barrier mounted to the base and positioned laterally intermediate the medial and lateral portions thereof, the first barrier extending upwardly from the base to above the arm pad ; and a second barrier for shielding scatter radiation during the medical procedure, the second barrier mounted to the lateral portion of the base and extending downwardly therefrom, wherein the arm pad comprises a radiopaque panel .
A unified semiconductor chip , comprising: a first semiconductor structure comprising a plurality of processors , wherein the plurality of processors comprises an application processor and a baseband processor , an array of embedded dynamic random-access memory, DRAM, cells, and a first bonding layer comprising a plurality of first bonding contacts ; a second semiconductor structure comprising an array of NAND memory cells and a second bonding layer comprising a plurality of second bonding contacts ; and a bonding interface between the first bonding layer and the second bonding layer , wherein the first bonding contacts are in contact with the second bonding contacts at the bonding interface , the plurality of processors and the array of embedded DRAM cells being stacked one over another. a first semiconductor structure comprising a plurality of processors , wherein the plurality of processors comprises an application processor and a baseband processor , an array of embedded dynamic random-access memory, DRAM, cells, and a first bonding layer comprising a plurality of first bonding contacts ; a second semiconductor structure comprising an array of NAND memory cells and a second bonding layer comprising a plurality of second bonding contacts ; and a bonding interface between the first bonding layer and the second bonding layer , wherein the first bonding contacts are in contact with the second bonding contacts at the bonding interface , the plurality of processors and the array of embedded DRAM cells being stacked one over another.
A lighting control method for controlling a plurality of lighting units arranged to provide illumination in an area, the method comprising receiving (S602) one or more images of the area; determining (S604) the position of at least one of said lighting units or a corresponding lighting footprint in said area; identifying (S606) at least one non-lighting object, other than a person, in a received image of the one or more images of the area, said non-lighting object associated with a pre-defined user activity; determining (S608) a relative position of said at least one non-lighting object to said at least one lighting unit or the corresponding lighting footprint; associating, (S610) based on the determined relative position, said at least one lighting unit with at least one predetermined light setting associated with said pre-defined user activity; and controlling (S612) said at least one lighting unit based on said at least one predetermined light setting.
A high-strength galvanized steel sheet having a tensile strength of 1180 MPa or more and comprising a chemical composition containing, by mass %, C: 0.15% or more and 0.25% or less, Si: 0.50% or more and 2.5% or less, Mn: 2.3% or more and 4.0% or less, P: 0.100% or less, S: 0.02% or less, Al: 0.01% or more and 2.5% or less, at least one element selected from Nb: 0.005% or more and 0.1% or less, Ti: 0.005% or more and 0.1% or less, V: 0.01% or more and 1.0% or less, and Mo: 0.005% or more and 2.0% or less, optionally at least one element selected from Cr: 0.01% or more and 2.0% or less, Ni: 0.01% or more and 2.0% or less, and Cu: 0.01% or more and 2.0% or less, optionally B: 0.0002% or more and 0.0050% or less, optionally at least one element selected from Ca: 0.001% or more and 0.005% or less and REM: 0.001% or more and 0.005% or less, and the balance being Fe and inevitable impurities; and a steel-sheet microstructure containing, in terms of area fraction, a tempered martensite phase: 30% or more and 73% or less, a ferrite phase: 25% or more and 68% or less, a retained austenite phase: 2% or more and 15% or less, and other phases: 10% or less including 0%, the other phases containing a martensite phase: 3% or less including 0% and a bainitic ferrite phase: less than 5% including 0%, the tempered martensite phase having an average grain size of 8 μm or less, the ferrite phase having an average grain size of 5 μm or less, and the retained austenite phase having a C content less than 0.7% by mass.
A stockhouse arrangement for a metallurgical furnace comprising: a set of storage bins for granular material; a material feeding device associated with said set of storage bins , the material feeding device being arranged above said set of storage bins and allowing to selectively fill each of the storage bins with granular material; a raw material feed system to convey raw granular material to the material feeding device ; a respective weighing hopper arranged downstream of each storage bin and comprising an outlet associated with a feeding gate ; a charge conveying system for collecting and conveying material selectively discharged from the weighing hoppers through their respective feeding gates; characterized in that said material feeding device is configured to screen raw granular material arriving from said raw material feed system such that only material with desired granulometry is forwarded to the respective bin(s). a set of storage bins for granular material; a material feeding device associated with said set of storage bins , the material feeding device being arranged above said set of storage bins and allowing to selectively fill each of the storage bins with granular material; a raw material feed system to convey raw granular material to the material feeding device ; a respective weighing hopper arranged downstream of each storage bin and comprising an outlet associated with a feeding gate ; a charge conveying system for collecting and conveying material selectively discharged from the weighing hoppers through their respective feeding gates; characterized in that said material feeding device is configured to screen raw granular material arriving from said raw material feed system such that only material with desired granulometry is forwarded to the respective bin(s).
A method of inspecting a gas turbine engine , the method comprising providing one or more capsule cameras comprising: a sensor configured to generate data, the sensor comprising a camera configured to generate images; a housing having an exterior surface , the sensor being housed by the housing ; one or more foam members coupled to the exterior surface of the housing , the one or more foam members being resilient; and inserting one or more of the capsule cameras into a gas turbine engine so that the one or more capsule cameras are secured between at least two surfaces of the gas turbine engine . a sensor configured to generate data, the sensor comprising a camera configured to generate images; a housing having an exterior surface , the sensor being housed by the housing ; one or more foam members coupled to the exterior surface of the housing , the one or more foam members being resilient; and
A method of selecting codebook, the method being performed in a network node and comprising: - determining whether to use single-user multiple-input-multiple output, SU-MIMO, or multi-user multiple-input-multiple output, MU-MIMO, in a cell (C 1 ) controlled by the network node , and - selecting , based on the determining, a first codebook or a second codebook for use in communication with a communication device within the cell (C 1 ), wherein the first codebook is adapted for SU-MIMO communication and the second codebook is adapted for MU-MIMO communication, wherein the first codebook is adapted for SU-MIMO communication by comprising precoder matrices minimizing sidelobes outside the cell (C 1 ), and wherein the second codebook is adapted for MU-MIMO communication by comprising precoder matrices minimizing sidelobes within the cell (C 1 ). - determining whether to use single-user multiple-input-multiple output, SU-MIMO, or multi-user multiple-input-multiple output, MU-MIMO, in a cell (C 1 ) controlled by the network node , and - selecting , based on the determining, a first codebook or a second codebook for use in communication with a communication device within the cell (C 1 ), wherein the first codebook is adapted for SU-MIMO communication and the second codebook is adapted for MU-MIMO communication, wherein the first codebook is adapted for SU-MIMO communication by comprising precoder matrices minimizing sidelobes outside the cell (C 1 ), and wherein the second codebook is adapted for MU-MIMO communication by comprising precoder matrices minimizing sidelobes within the cell (C 1 ).
Continuously variable transmission with a transmission stage , which has a driving shaft which rotates about a first rotation axis and a driven shaft which rotates about a second rotation axis, wherein a driving cam disk is coupled to the driving shaft and a driven cam disk is coupled to the driven shaft , and wherein the driving cam disk and the driven cam disk are coupled to one another in terms of movement via at least one force-transmitting means , wherein the driving cam disk and the driven cam disk each have a spiral-shaped outer contour , wherein the outer contour of the driving cam disk is arranged in a first plane, which is oriented perpendicular to the first rotation axis, wherein the outer contour of the driven cam disk is arranged in a second plane, which is oriented perpendicular to the second rotation axis, and wherein the at least one transmission stage is implemented twofold, wherein the cam disks of a first implementation of the transmission stage are, during operation, pivotable in a phase-offset manner in relation to the cam disks of a second implementation of the transmission stage , wherein a changeover device is formed, by means of which a rotational movement of the driving shaft can be converted into a phase-offset pivoting movement of mutually corresponding cam disks of the first and second implementations of the transmission stage , and wherein a reconverter is provided which is configured to combine the phase-offset pivoting movement of the mutually corresponding cam disks of the first and second implementations of the transmission stage into a rotational movement of the driven shaft .
A heat dissipating sheet having a configuration in which a layer of a silicone composition containing aluminum oxide is laminated on both faces of a glass cloth as a reinforcing layer, and the silicone composition is contained in the glass cloth, characterized in that an average sphericity of the aluminum oxide is 0.85 or more, maximum peaks are present in a region of 15 to 50 μm, a region of 1 to 7 μm, and a region of 0.1 to 0.8 μm in a frequency particle-size distribution of the aluminum oxide, an average particle size of the aluminum oxide is in the range of 7 to 50 μm, a content of the aluminum oxide in the silicone composition is in the range of 62 to 78% by volume, and a content of a silicone resin in the silicone composition is in the range of 22 to 38% by volume, the glass cloth is a woven article made of a glass fiber bundle obtained by bundling a plurality of glass filaments, and a ratio of impregnation of the glass fiber bundle with the silicone composition is 20% or more. an average sphericity of the aluminum oxide is 0.85 or more, maximum peaks are present in a region of 15 to 50 μm, a region of 1 to 7 μm, and a region of 0.1 to 0.8 μm in a frequency particle-size distribution of the aluminum oxide, an average particle size of the aluminum oxide is in the range of 7 to 50 μm, a content of the aluminum oxide in the silicone composition is in the range of 62 to 78% by volume, and a content of a silicone resin in the silicone composition is in the range of 22 to 38% by volume, the glass cloth is a woven article made of a glass fiber bundle obtained by bundling a plurality of glass filaments, and a ratio of impregnation of the glass fiber bundle with the silicone composition is 20% or more.
Use of phase segregated block-copolymers based on repeating structural elements represented by formula I wherein PHA represents at least one block based on one or more α-hydroxy acids, PDAS represents a central block based on a dialkylsiloxane, the PDAS block has a weight average molecular weight in the range of from 2000 to 20000, the blocks PHA have a weight average molecular weight in the range of from 1000 to 20 000, the phase segregated block copolymer has a weight average molecular weight of from 20 000 to 200 000, wherein the weight average molecular weight is measured as indicated in the specification and wherein R is a divalent organic radical for the coating of substrates. wherein PHA represents at least one block based on one or more α-hydroxy acids, PDAS represents a central block based on a dialkylsiloxane, the PDAS block has a weight average molecular weight in the range of from 2000 to 20000, the blocks PHA have a weight average molecular weight in the range of from 1000 to 20 000, the phase segregated block copolymer has a weight average molecular weight of from 20 000 to 200 000, wherein the weight average molecular weight is measured as indicated in the specification and wherein R is a divalent organic radical for the coating of substrates.
A system for ophthalmic surgery, comprising: a laser source configured to deliver a laser beam comprising a plurality of laser pulses having a wavelength between about 320 nanometres and about 430 nanometres and a pulse duration between about 1 picosecond and about 100 nanoseconds; an optical system operatively coupled to the laser source and configured to focus and direct the laser beam in a pattern into one or more intraocular targets within an eye of a patient, such that interaction between the one or more targets and the laser pulses is characterized by linear absorption enhanced photodecomposition without formation of a plasma or associated cavitation event; an integrated imaging subsystem that captures in a confocal arrangement back-reflected light from one or more targets within the eye of the patient or fluorescence light from the eye of the patient induced by the laser source ; and a controller configured to determine the locations and shapes of ocular structures to determine pattern placement. a laser source configured to deliver a laser beam comprising a plurality of laser pulses having a wavelength between about 320 nanometres and about 430 nanometres and a pulse duration between about 1 picosecond and about 100 nanoseconds; an optical system operatively coupled to the laser source and configured to focus and direct the laser beam in a pattern into one or more intraocular targets within an eye of a patient, such that interaction between the one or more targets and the laser pulses is characterized by linear absorption enhanced photodecomposition without formation of a plasma or associated cavitation event; an integrated imaging subsystem that captures in a confocal arrangement back-reflected light from one or more targets within the eye of the patient or fluorescence light from the eye of the patient induced by the laser source ; and a controller configured to determine the locations and shapes of ocular structures to determine pattern placement.
A sterile hydrogel composition comprising a crosslinked polymer, wherein the crosslinked polymer is an oxidation product of a thiol-modified hyaluronan, the thiol-modified hyaluronan has a degree of modification with thiol groups of more than about 80 μmol per gram polymer, preferably more than about 105 μmol per gram polymer, more preferably more than about 120 μmol per gram polymer, and the thiol-modified hyaluronan has a degree of modification with thiol groups of less than about 280 μmol per gram polymer, preferably less than about 240 μmol per gram polymer, more preferably less than 200 μmol per gram polymer characterized in that the composition has a residual thiol content of less than 20% in respect to the degree of modification of the thiol-modified hyaluronan, and the thiol-modified hyaluronan has a molecular weight of at least about 400 kDa and is comprised in the composition with a concentration of from at least about 11 mg/mL to at most about 20 mg/mL. wherein the crosslinked polymer is an oxidation product of a thiol-modified hyaluronan, the thiol-modified hyaluronan has a degree of modification with thiol groups of more than about 80 μmol per gram polymer, preferably more than about 105 μmol per gram polymer, more preferably more than about 120 μmol per gram polymer, and the thiol-modified hyaluronan has a degree of modification with thiol groups of less than about 280 μmol per gram polymer, preferably less than about 240 μmol per gram polymer, more preferably less than 200 μmol per gram polymer characterized in that the composition has a residual thiol content of less than 20% in respect to the degree of modification of the thiol-modified hyaluronan, and the thiol-modified hyaluronan has a molecular weight of at least about 400 kDa and is comprised in the composition with a concentration of from at least about 11 mg/mL to at most about 20 mg/mL.
An object-detection system suitable for use in an automated vehicle, said system comprising: a transceiver suitable to install on a host-vehicle , said transceiver used to receive an indicated-location of an object proximate to the host-vehicle ; an object-detector suitable to install on the host-vehicle , said object-detector used to detect a relative-location of the object relative to the host-vehicle ; and a controller in communication with the transceiver and the object-detector , wherein the controller determines a confirmed-location of the object relative to the host-vehicle based on the indicated-location and the relative-location , wherein the controller maintains the confirmed-location for an occlusion-time when a field-of-view between the object-detector and the object is occluded after the confirmed-location is established. a transceiver suitable to install on a host-vehicle , said transceiver used to receive an indicated-location of an object proximate to the host-vehicle ; an object-detector suitable to install on the host-vehicle , said object-detector used to detect a relative-location of the object relative to the host-vehicle ; and a controller in communication with the transceiver and the object-detector , wherein the controller determines a confirmed-location of the object relative to the host-vehicle based on the indicated-location and the relative-location , wherein the controller maintains the confirmed-location for an occlusion-time when a field-of-view between the object-detector and the object is occluded after the confirmed-location is established.