mhurhangee/ep-ind-claims huggingface dataset:
A sensor (100, 200), comprising: at least a first pair of sensing elements (302a-b) comprising first and second magnetic field sensing elements and a second pair of sensing elements (302c-d) comprising third and fourth magnetic field sensing elements for measuring field change in response to movement of a target, wherein each of the magnetic field sensing elements in the first and second pairs of sensing elements is located on the circumference of a planar circle, wherein each of the magnetic field sensing elements has its most sensitive direction to a magnetic field radial to the planar circle, wherein the first magnetic field sensing element is positioned to be diametrically opposite the second magnetic field sensing element, and wherein the third magnetic field sensing element is positioned to be diametrically opposite the fourth magnetic field sensing element, wherein the first and second magnetic field sensing elements are configured to measure positive field in the same direction and the third and fourth magnetic field sensing elements are configured to measure positive field in the same direction, wherein a plane of the planar circle is configured for positioning to be parallel to a tangent of the target which has teeth and valleys, wherein the sensor is configured to subtract a voltage generated by the second magnetic field sensing element from a voltage generated by the first magnetic field sensing element to provide a first voltage, and wherein the sensor is configured to subtract a voltage generated by the third magnetic field sensing element from a voltage generated by the fourth magnetic field sensing element to generate a second voltage, and wherein the sensor is configured to combine by either averaging or summing the first and second voltages to generate a third voltage, characterized in that a threshold is set on the third voltage based on a position of either a tooth or valley of the target to determine a position of the target during start up.
A compound that is seladelpar or a salt thereof for use in treating primary biliary cholangitis, where the compound is administered orally at a dose of 5 - 10 mg/day when the dose is calculated as seladelpar.
A vehicle radar system comprising a transmitter section, a receiver section and a control unit, where the transmitter section comprises a plurality of transmitter antenna devices (20a, 20b, 20c, 20d) and where the receiver section comprises a plurality of receiver antenna devices (21a, 21b, 21c, 21d), where furthermore the vehicle radar system is arranged to generate SFCW, Stepped Frequency Continuous Wave, ramps, each SFCW ramp comprising a sequence of SFCW constant frequency steps separated by a frequency step span (Δf s), where each SFCW frequency step in an SFCW ramp has a time duration equal to an OFDM, Orthogonal Frequency Division Multiplexing, symbol time duration (T o) of the vehicle radar system, characterized in that the radar system is arranged to generate OFDM symbols having the OFDM symbol time duration (T o) and an OFDM symbol bandwidth, where each OFDM symbol comprises a plurality of modulated subcarriers (31a, 31b, 31c, 31d) separated by a frequency span (Δf c), and to mix each OFDM symbol with a corresponding SFCW frequency step in an SFCW ramp such that a resulting stepped OFDM ramp waveform is obtained, where the subcarriers (31a, 31b, 31c, 31d) of each OFDM symbol are each allocated exclusively to, and transmitted by, a corresponding transmitting antenna device (20a, 20b, 20c, 20d), where the receiver section is arranged to mix down a received signal of every receiver antenna device (21a, 21b, 21c, 21d) with the SFCW ramp, where the receiver section is arranged to sample the mixed down received signal of each receiver antenna device (21a, 21b, 21c, 21d) at a sampling rate equal to the bandwidth of the OFDM symbol.
Heat exchange device comprising at least a first heat exchanger and a second heat exchanger that are connected to one another, the at least first heat exchanger and second heat exchanger both comprising a heat exchange surface area inside which a heat-transfer fluid is intended to circulate, each of the first heat exchanger and second heat exchanger comprising two primary fluid headers that are respectively disposed at two of the ends of the heat exchange surface area, said primary headers of the same heat exchanger (101, 102) being parallel to one another and extending in a plane parallel to that of the heat exchange surface area, each primary header comprising, at at least one of its ends, a connection orifice oriented along the same axis as said primary header, the at least first heat exchanger and second heat exchanger being disposed in the same plane such that at least one connection orifice of the first heat exchanger faces a connection orifice of the second heat exchanger, the exchange device further comprising at least one connector (201, 202) comprising a first connection portion intended to be inserted in a connection orifice of the first heat exchanger and a second connection portion intended to be inserted in the connection orifice disposed facing the second heat exchanger, characterized in that the primary headers comprise secondary connection orifices that are oriented perpendicularly with respect to the axis of said primary headers, in that the device comprises additional headers comprising: - at at least one of their ends, a connection orifice extending along the same axis as said additional headers, - secondary connection orifices oriented perpendicularly with respect to the axis of said additional headers. each primary header comprising, at at least one of its ends, a connection orifice oriented along the same axis as said primary header, the at least first heat exchanger and second heat exchanger being disposed in the same plane such that at least one connection orifice of the first heat exchanger faces a connection orifice of the second heat exchanger, the exchange device further comprising at least one connector (201, 202) comprising a first connection portion intended to be inserted in a connection orifice of the first heat exchanger and a second connection portion intended to be inserted in the connection orifice disposed facing the second heat exchanger, characterized in that the primary headers comprise secondary connection orifices that are oriented perpendicularly with respect to the axis of said primary headers, in that the device comprises additional headers comprising: - at at least one of their ends, a connection orifice extending along the same axis as said additional headers, - secondary connection orifices oriented perpendicularly with respect to the axis of said additional headers. - at at least one of their ends, a connection orifice extending along the same axis as said additional headers, - secondary connection orifices oriented perpendicularly with respect to the axis of said additional headers.
Heating unit with a radiator of the hydraulic, electric or mixed type and an electric fan convector, wherein said convector is equipped with an inlet opening for inletting cold air and an outlet opening for outletting hot air, and wherein said outlet opening for outletting hot air includes an orientable diffusor, characterised in that said diffusor has a deviation surface for deviating the airflow having a curved shape and is mounted in a rotary manner about a rotation axis arranged at an upper edge of said outlet opening for outletting hot air, between a first operative position, in which the hot air flow is deviated by said diffusor in a substantially horizontal direction, and a second operative position, in which the hot air flow is deviated by said diffusor in a substantially vertical direction upwards.
Tank (10, 100) for liquid, suitable for withstanding overpressures caused by a projectile impact and positioned in a structure, said tank comprising an overpressure management device, said device comprising a layer of polyethylene-based hyperelastic foam, characterized in that the thickness of the hyperelastic foam layer is between 5 and 15 mm and the polyethylene-based hyperelastic foam is a closed-cell foam.
A method for cleaning needles for injecting fluids into meat products, said needles comprising an inner longitudinal passage, a plurality of outlet ports in communication with said inner passage in its lower portion and an inlet opening in communication with the inner passage in its upper portion, characterized in that it comprises the step of inserting one or more of said needles into holes provided in a support base such that said outlet ports of each needle remain inside an airtight container fastened to said support base and said inlet opening of each needle remaining inside an upper chamber, and the subsequent steps of: a) feeding a pressurized cleaning solution into said container, said cleaning solution thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle; b) feeding a pressurized gas into said container, said gas thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle; c) feeding a washing liquid into said container, said washing liquid thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle; and d) again feeding pressurized gas into said container, said gas thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle. a) feeding a pressurized cleaning solution into said container, said cleaning solution thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle; b) feeding a pressurized gas into said container, said gas thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle; c) feeding a washing liquid into said container, said washing liquid thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle; and d) again feeding pressurized gas into said container, said gas thereby entering through the outlet ports, passing through the inside of the inner passage and exiting through said upper inlet opening of each needle.
A moving robot comprising: a body defining an exterior; a travelling unit configured to move the body against a travelling surface of a travelling area; a storage configured to store a grid map corresponding to a travelling area and cost information of grids included in the grid map; and a controller configured to generate a movement route based on the cost information, control the travelling unit to move the body according to the generated movement route, characterized in that the controller is further configured to increase a stay cost of a grid corresponding to a route that has passed during the movement of the body and control the storage to store the increased stay cost. a body defining an exterior; a travelling unit configured to move the body against a travelling surface of a travelling area; a storage configured to store a grid map corresponding to a travelling area and cost information of grids included in the grid map; and a controller configured to generate a movement route based on the cost information, control the travelling unit to move the body according to the generated movement route, characterized in that the controller is further configured to increase a stay cost of a grid corresponding to a route that has passed during the movement of the body and control the storage to store the increased stay cost.
A modified Family 5 cellulase comprising a substitution of an amino acid at position 363 with a non-native alanine, said position determined from alignment of the modified Family 5 cellulase amino acid sequence with amino acids 71 to 397 of SEQ ID NO:1, wherein the modified Family 5 cellulase contains no more than 20 other amino acids substitutions relative to a corresponding wild-type Family 5 cellulase, and wherein the modified Family 5 cellulase is derived from a species of Trichoderma which does not naturally possess an alanine at position 363.
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.
A method for the production of itaconic acid comprising providing a host cell with a gene coding for the enzyme cis -aconitic acid decarboxylase, wherein said host cell is selected from citrate producing micro-organisms or wherein the host cell is selected from lovastatin producing micro-organisms, wherein the cis -aconitic acid decarboxylase enzyme is having the amino acid sequence of Fig. 2B or a protein which has an identity of at least 70% with said amino acid sequence.
Wall component of a drawer, in particular a drawer frame, wherein the wall component comprises a frame body with a base part, which provides a cavity for receiving a drawer guiding system, and a casing element for surrounding the base part, wherein the casing element at least partly surrounds the base part at the side and at the top, wherein in an overlapping section of the frame body a material layer of the casing element overlaps a material layer of the base part, characterised in that on the frame body at least two support parts (3, 4) are attached which project upwards like columns, wherein the support parts (3, 4) are fixed at their lower end to the base part, wherein the support parts (3, 4) penetrate the casing element and the wall component comprises a rail element which connects the upper ends of the at least two support parts (3, 4) to one another.
A system for conveying mailpieces along a feed path, comprising: a first conveyance operative to convey mailpieces along the feed path, the first conveyance including a singulating belt and drive belt, the singulating and drive belts defining a throat for singulating a mailpiece from a stack of mailpieces; a second conveyance for accepting mailpieces from the first conveyance and conveying the singulated mailpiece downstream of the first conveyance; a series of sensors extending from the first to the second conveyance, and operative to issue a gap signal indicative of the location of a gap between sequential mailpieces along the feed path; and a means (26; RA; M1), responsive to the gap signal, for developing a variable opposing force between the singulating and drive belts (40, 42) such that mailpieces are singulated along the feed path. a first conveyance operative to convey mailpieces along the feed path, the first conveyance including a singulating belt and drive belt, the singulating and drive belts defining a throat for singulating a mailpiece from a stack of mailpieces; a second conveyance for accepting mailpieces from the first conveyance and conveying the singulated mailpiece downstream of the first conveyance; a series of sensors extending from the first to the second conveyance, and operative to issue a gap signal indicative of the location of a gap between sequential mailpieces along the feed path; and a means (26; RA; M1), responsive to the gap signal, for developing a variable opposing force between the singulating and drive belts (40, 42) such that mailpieces are singulated along the feed path.
Discharge module for high voltage cables of X-ray tubes comprising three circuits: • A first control and measurement circuit of a I Rx current, comprising two shunts, two first diodes, high voltage supply sources (F.A.) and a X-ray tube, wherein the I Rx current passes through the two shunts, through the diodes, through the high voltage supply sources and through the X-ray tube itself; • A second circuit, which is a circuit for shorting of the charge formed by the X-ray tube and high voltage capacities, being formed by the high voltage capacities, resistances RD and switches; • Two discharge circuits formed each one by one of the high voltage supply sources (F.A.), by a series of voltage division resistances (Rs) of the switches, which are each one in parallel with one of the switches, and one of the resistances RD and the two first diodes and through said two discharge circuits a leakage current I LK circulates. wherein the control and measurement circuit and discharge circuits are independent in such a manner that the leakage current I LK only circulates only through the discharge circuits and not through the two shunts. • A first control and measurement circuit of a I Rx current, comprising two shunts, two first diodes, high voltage supply sources (F.A.) and a X-ray tube, wherein the I Rx current passes through the two shunts, through the diodes, through the high voltage supply sources and through the X-ray tube itself; • A second circuit, which is a circuit for shorting of the charge formed by the X-ray tube and high voltage capacities, being formed by the high voltage capacities, resistances RD and switches; • Two discharge circuits formed each one by one of the high voltage supply sources (F.A.), by a series of voltage division resistances (Rs) of the switches, which are each one in parallel with one of the switches, and one of the resistances RD and the two first diodes and through said two discharge circuits a leakage current I LK circulates.
A compound described by the Formula I: wherein: R 1 is a C 7 -C 17 alkyl group; R 2 is -NH 2; and salts thererof, said salts having an anion X - preferably selected from the group consisting of acetate, benzoate, besylate, bromide, chloride, chlortheophyllinate, citrate, ethandisulfonate, fumarate, gluconate, hippurate, iodide, fluoride, lactate, laurylsulfate, malate, laeate, mesylate, methysulfate, napsylate, nitrate, octadecanoate, oxalate, pamoate, phosphate, polygalacturonate, succinate, sulfate, tartrate, and tosylate; n is from 1 to 3; and R 3 is a linear or branched, saturated or unsaturated aliphatic group having from 1 to 6 carbon atoms. R 1 is a C 7 -C 17 alkyl group; R 2 is -NH 2; and salts thererof, said salts having an anion X - preferably selected from the group consisting of acetate, benzoate, besylate, bromide, chloride, chlortheophyllinate, citrate, ethandisulfonate, fumarate, gluconate, hippurate, iodide, fluoride, lactate, laurylsulfate, malate, laeate, mesylate, methysulfate, napsylate, nitrate, octadecanoate, oxalate, pamoate, phosphate, polygalacturonate, succinate, sulfate, tartrate, and tosylate; n is from 1 to 3; and R 3 is a linear or branched, saturated or unsaturated aliphatic group having from 1 to 6 carbon atoms.
An in-line method for producing workpieces or assemblies, in which the workpieces or assemblies pass through several successive workstations by means of a conveyor device, with a hardening step, in which at least one region of the workpiece or assembly is hardened by the application of at least one laser hardening trace by means of a laser device, in particular a laser with programmable focusing optics or a line laser, wherein the hardening step is carried out in one of the workstations, wherein the in-line method is characterized by a compensation step in which for compensating the warping caused by or to be expected to be caused by the laser hardening, the application of at least one further laser hardening trace is performed at a different location of the workpiece or the assembly, wherein the hardening step and the compensation step are carried out in the same workstation.
1. A method comprising injection moulding a plastics layer on a plurality of sides of each tooth of a plurality of teeth for mounting to a circumferential support of a stator or rotor of an electric motor or generator, with a first gap formed in the injection moulded plastics layer on a first side of each tooth, and placing a first insulation element in the first gap formed in the injection moulded plastics layer, wherein the injection moulded plastics layer and the first insulation element are arranged to electrically insulate each respective tooth from coil windings arranged to be wound around each respective tooth; mounting each respective tooth on the circumferential support by engaging second engagement means of each respective tooth with respective first engagement means distributed about the circumferential support for allowing each respective tooth to be mounted to the circumferential support in a radial direction.
Use of a synthetic resin fixing system based on cyclic carbonate resins for fixing anchoring means in holes or crevices, characterised in that the synthetic resin fixing system comprises as cyclic carbonate resin at least one having an average functionality of 1.5 or more than 1.5 cyclic carbonate groups per molecule.
A process for the production of a C5 aldehyde mixture comprising n-pentanal, 3-methyl-butanal and 2-methyl-butanal wherein i. the ratio of n-pentanal to 2-methyl-butanal is from 3:1 to 100:1 and ii. the ratio of 3-methyl-butanal to 2-methyl-butanal is at least 0.3:1, the process comprising: hydroformylating, at a temperature of in the range of 50 to 180°C, a total pressure of not more than 10000kPa, a partial pressure of carbon monoxide of above 200kPa but below 5000kPa and a partial pressure of hydrogen in the range from 100 to 7000kPa, a C4 feed containing one or more normal butenes and isobutylene in a single liquid phase in the presence of a catalyst comprising a rhodium complex in conjunction with an organophosphorus ligand and under conditions that convert normal butenes and convert at least 15% of the isobutylene to produce a mixture of isomers of valeraldehyde, wherein the C4 feed contains from 15 wt% to 50 wt% isobutylene, or, if the organophosporus ligand comprises an organophosphite, from 2 wt% to 50 wt% isobutylene. i. the ratio of n-pentanal to 2-methyl-butanal is from 3:1 to 100:1 and ii. the ratio of 3-methyl-butanal to 2-methyl-butanal is at least 0.3:1, the process comprising: hydroformylating, at a temperature of in the range of 50 to 180°C, a total pressure of not more than 10000kPa, a partial pressure of carbon monoxide of above 200kPa but below 5000kPa and a partial pressure of hydrogen in the range from 100 to 7000kPa, a C4 feed containing one or more normal butenes and isobutylene in a single liquid phase in the presence of a catalyst comprising a rhodium complex in conjunction with an organophosphorus ligand and under conditions that convert normal butenes and convert at least 15% of the isobutylene to produce a mixture of isomers of valeraldehyde, wherein the C4 feed contains from 15 wt% to 50 wt% isobutylene, or, if the organophosporus ligand comprises an organophosphite, from 2 wt% to 50 wt% isobutylene.