mhurhangee/ep-ind-claims huggingface dataset:
Substrate integrated waveguide filter comprising: - a substrate integrated waveguide, formed from a substrate having a respective metallic coating (11, 13) at its two flat sides and also having metallic delimitation structures at its lateral edges, - within the substrate integrated waveguide a plurality of groups of vias between the metallic coatings (11, 13) of the two flat sides, characterized in that the metallic coating of one of the two flat sides is structured in such a way that it has a plurality of regions insulated from the coating surrounding them, wherein the individual insulated regions are assigned to the individual groups of vias in such a way that an individual insulated region is conductively connected to all the vias of the assigned group, and that a removable metallic cover for covering the structured metallic coating is present, wherein, depending on the use of the cover, the substrate integrated waveguide filter enables two functions: - a filter function having a bandpass filter characteristic in the case where the structured metallic coating is covered by the cover, - a transmission function if the cover does not cover the structured metallic coating, wherein the transmission function enables a transmissivity for signals over the entire stop band of the filter function. - a substrate integrated waveguide, formed from a substrate having a respective metallic coating (11, 13) at its two flat sides and also having metallic delimitation structures at its lateral edges, - within the substrate integrated waveguide a plurality of groups of vias between the metallic coatings (11, 13) of the two flat sides, - a filter function having a bandpass filter characteristic in the case where the structured metallic coating is covered by the cover, - a transmission function if the cover does not cover the structured metallic coating, wherein the transmission function enables a transmissivity for signals over the entire stop band of the filter function.
Control circuit for a primary side controlled switch mode power supply, said control circuit comprising: a control output which can be connected to the control input of a primary side switch of said switch mode power supply; a voltage measurement input which can be connected to a primary side auxiliary winding of a transformer for detecting an auxiliary voltage which is induced in response to a secondary side output voltage; an error amplifier for comparing the detected auxiliary voltage with a reference value (Vref2) and for amplifying the deviation between the detected auxiliary voltage and said reference value; wherein said control circuit further comprises a feedback branch for feeding back the output signal of the error amplifier to the voltage measurement input, and wherein the feedback branch comprises a feedback switch (M1, M2) and at least one feedback resistor (R12, R14) which is connected in series to said feedback switch, characterized in that said feedback switch is controlled to be conducting, when a demagnetization signal indicates that within the transformer no current is flowing, and is further controlled to be conducting, when the signal at said control output indicates that the primary side switch is switched on. a control output which can be connected to the control input of a primary side switch of said switch mode power supply; a voltage measurement input which can be connected to a primary side auxiliary winding of a transformer for detecting an auxiliary voltage which is induced in response to a secondary side output voltage; an error amplifier for comparing the detected auxiliary voltage with a reference value (Vref2) and for amplifying the deviation between the detected auxiliary voltage and said reference value; wherein said control circuit further comprises a feedback branch for feeding back the output signal of the error amplifier to the voltage measurement input, and wherein the feedback branch comprises a feedback switch (M1, M2) and at least one feedback resistor (R12, R14) which is connected in series to said feedback switch, characterized in that said feedback switch is controlled to be conducting, when a demagnetization signal indicates that within the transformer no current is flowing, and is further controlled to be conducting, when the signal at said control output indicates that the primary side switch is switched on.
A coated tool, comprising: a base member; and a coating layer located on the base member, wherein the coating layer comprises a cubic crystal that comprises one or more kinds of elements selected from Groups 4, 5 and 6 in the periodic table, Al, Si, B, Y and Mn, and one or more kinds of elements selected from C, N and O, the coating layer comprises an AlTiN layer comprising an AlTiN crystal as the cubic crystal, in a distribution of X-ray intensity indicated at α axis of a pole figure, the X-ray intensity regarding a plane of the cubic crystal, the coating layer comprises a first peak located in a range of 25° to 40°, and a second peak located in a range of 55° to 70°, and the coating layer further comprises a valley part between the first peak and the second peak, the valley part comprising the X-ray intensity smaller than the X-ray intensity at each of the first peak and the second peak. a base member; and a coating layer located on the base member, wherein the coating layer comprises a cubic crystal that comprises one or more kinds of elements selected from Groups 4, 5 and 6 in the periodic table, Al, Si, B, Y and Mn, and one or more kinds of elements selected from C, N and O, the coating layer comprises an AlTiN layer comprising an AlTiN crystal as the cubic crystal, in a distribution of X-ray intensity indicated at α axis of a pole figure, the X-ray intensity regarding a plane of the cubic crystal, the coating layer comprises a first peak located in a range of 25° to 40°, and a second peak located in a range of 55° to 70°, and a first peak located in a range of 25° to 40°, and a second peak located in a range of 55° to 70°, and the coating layer further comprises a valley part between the first peak and the second peak, the valley part comprising the X-ray intensity smaller than the X-ray intensity at each of the first peak and the second peak.
A brushless motor, comprising a casing for containing a stator body and for a rotor with a driving shaft, an exit cap with an outlet for said driving shaft and a closure cap, which is opposite said exit cap and supports an electronic board for controlling the brushless motor and comprises an output for power cables, said closure cap having a recess for containing said electronic control board, which is defined so as to be recessed according to an axial direction to the outer surface of said cap, said closure cap having a seat that is shaped to accommodate a terminal strip preset for the wiring of the power cables of the brushless motor, characterized in that said seat is open axially upwards to allow direct access to the terminals of said terminal strip and radially for the lateral exit of the power cables.
A method performed in an entity (11, 12) for transmitting in a communications system, the method comprising: - assessing a channel to be available for transmission by establishing that a received signal strength of an ongoing transmission allows simultaneous transmission in view of a first clear channel assessment threshold, and characterized by further comprising: - establishing a first type of transmission of the ongoing transmission, and - determining, based on the established type of transmission and on a second clear channel assessment threshold, whether to transmit or to defer transmitting and to transmit simultaneously if the on-going transmission has a received signal strength such as to allow simultaneous transmission in view of the second clear channel assessment threshold. - assessing a channel to be available for transmission by establishing that a received signal strength of an ongoing transmission allows simultaneous transmission in view of a first clear channel assessment threshold, and - establishing a first type of transmission of the ongoing transmission, and - determining, based on the established type of transmission and on a second clear channel assessment threshold, whether to transmit or to defer transmitting and to transmit simultaneously if the on-going transmission has a received signal strength such as to allow simultaneous transmission in view of the second clear channel assessment threshold.
A positive electrode plate comprising a positive electrode current collector and a positive active material layer disposed on at least one surface of the positive electrode current collector, wherein the positive active material layer comprises a first positive active material represented by Chemical Formula and a second positive active material represented by Chemical Formula, Li 1+x Ni a Me b M 1-a-b O 2-y A y Chemical Formula, in Chemical Formula, -0.1≤x≤0.2, 0<a<l, 0<b<l, 0<a +b<1, O^sy <0.2; Me and M are each independently one or more of Co, Mn, Fe, Cr, Ti, Zn, V, Al, Zr, and Ce; Me is different with M; and A is one or more of S, N, F, Cl, Br, and 1; Li 1+z Mn c Z 2-c O 4-d B d Chemical Formula in Chemical Formula, -0.1≤z≤0.2, 0<c^~2, 0≤d<1; Z is one or more of Ni, Fe, Cr, Ti, Zn, V, Al, Mg, Zr, and Ce; and B is one or more of S, N, F, Cl, Br, and I; and wherein the positive electrode plate satisfies Formula, 0.04 ⩽ R ⋅ P / C ⩽ 10 in Formula, R is the resistance of the positive electrode plate, measured according to the description, and the unit of R is Ω; P is the packing density of the positive electrode plate, and the unit of P is g/cm 3; C is the single-side areal density of the positive electrode plate, the unit of C is g/1540.25 mm 2; the first positive active material has an average particle diameter Dv50 of 4 μm to 18 μm and has an average particle diameter Dv90 of 10 μm to 24 μm; the second positive active material has an average particle diameter Dv50 of 8 μm to 20 μm and has an average particle diameter Dv90 of 14 μm to 35 μm. in Chemical Formula, -0.1≤x≤0.2, 0<a<l, 0<b<l, 0<a +b<1, O^sy <0.2; Me and M are each independently one or more of Co, Mn, Fe, Cr, Ti, Zn, V, Al, Zr, and Ce; Me is different with M; and A is one or more of S, N, F, Cl, Br, and 1; Li 1+z Mn c Z 2-c O 4-d B d Chemical Formula in Chemical Formula, -0.1≤z≤0.2, 0<c^~2, 0≤d<1; Z is one or more of Ni, Fe, Cr, Ti, Zn, V, Al, Mg, Zr, and Ce; and B is one or more of S, N, F, Cl, Br, and I; and wherein the positive electrode plate satisfies Formula, 0.04 ⩽ R ⋅ P / C ⩽ 10 in Formula, R is the resistance of the positive electrode plate, measured according to the description, and the unit of R is Ω; P is the packing density of the positive electrode plate, and the unit of P is g/cm 3; C is the single-side areal density of the positive electrode plate, the unit of C is g/1540.25 mm 2; the first positive active material has an average particle diameter Dv50 of 4 μm to 18 μm and has an average particle diameter Dv90 of 10 μm to 24 μm; the second positive active material has an average particle diameter Dv50 of 8 μm to 20 μm and has an average particle diameter Dv90 of 14 μm to 35 μm.
Apparatus for generating electrical energy from hydrogen and oxygen, comprising an internal combustion engine, especially a gas turbine, a waste heat steam generator connected to the exhaust gas duct of the internal combustion engine, where the waste heat steam generator has only one pressure stage, a steam turbine, a generator connected to the steam turbine, and a conduit, characterized in that an H2-O2 reactor is also provided, which can be fed with steam from the waste heat steam generator, water, oxygen and hydrogen, such that, in the H 2 -O 2 reactor, with supply of steam, a reaction of oxygen and hydrogen to give steam is achievable, in which the water introduced evaporates, wherein additional steam is generatable, wherein the resulting greatly superheated steam can be fed to the steam turbine, and the generator connected to the steam turbine can provide an electrical power, wherein, for control of the reaction in the H 2 -O 2 reactor and for adjustment of the steam exit temperature from the H 2 -O 2 reactor, high-pressure feed water from the waste heat steam generator can be sprayed into the H2-O2 reactor via the conduit.
A process for manufacturing an acidified protein product comprising the steps of: a1) providing a casein containing raw material, b) subjecting the raw material to an acidification step, wherein a protein crosslinking enzyme selected from transglutaminase, laccase, tyrosinase, peroxidase, sulfhydryl oxidase, glucose oxidase or a combination with each other, an acidifier selected from mesophilic starters or thermophilic starters, and a calcium solution are added to the raw material to form a gel having pH in the range of 4.4-5.0, c) cutting the formed gel into mass formed of grains and/or cubes and subjecting the mass to a scalding step, wherein the temperature of the mass is raised up to a range from about 45°C to about 90°C under stirring to form a scalded mass, d) separating the water portion from the scalded mass to provide an acidified protein product in the form of grains, e) optionally pressing the grains into a block, f) optionally seasoning and/or packing the grains or the block, wherein the protein crosslinking enzyme treatment and the acidification are carried out simultaneously. a1) providing a casein containing raw material, b) subjecting the raw material to an acidification step, wherein a protein crosslinking enzyme selected from transglutaminase, laccase, tyrosinase, peroxidase, sulfhydryl oxidase, glucose oxidase or a combination with each other, an acidifier selected from mesophilic starters or thermophilic starters, and a calcium solution are added to the raw material to form a gel having pH in the range of 4.4-5.0, c) cutting the formed gel into mass formed of grains and/or cubes and subjecting the mass to a scalding step, wherein the temperature of the mass is raised up to a range from about 45°C to about 90°C under stirring to form a scalded mass, d) separating the water portion from the scalded mass to provide an acidified protein product in the form of grains, e) optionally pressing the grains into a block, f) optionally seasoning and/or packing the grains or the block,
A hearing prosthesis comprising an electric circuit with a hearing loss processor configured to process an audio signal and compensate a hearing I1oss of a user of the hearing prosthesis and output a hearing loss compensated audio signal based on the audio signal, an output transducer configured to convert the hearing loss compensated audio signal into an auditory output signal that can be received by the human auditory system and resulting in the user hearing sound, and a near-field magnetic induction communication unit configured for wireless communication, and a magnetic field antenna operatively connected with the near-field magnetic induction communication unit, wherein the magnetic field antenna comprises a coil, and wherein at least a part of the magnetic field antenna is embedded in a multi-layer printed circuit board, characterized in that the magnetic field antenna comprises a ferrite core, and the coil includes conductive traces formed in a conductive layer of the multi-layer printed circuit board. an output transducer configured to convert the hearing loss compensated audio signal into an auditory output signal that can be received by the human auditory system and resulting in the user hearing sound, and a near-field magnetic induction communication unit configured for wireless communication, and a magnetic field antenna operatively connected with the near-field magnetic induction communication unit, wherein the magnetic field antenna comprises a coil, and wherein at least a part of the magnetic field antenna is embedded in a multi-layer printed circuit board, characterized in that the magnetic field antenna comprises a ferrite core, and the coil includes conductive traces formed in a conductive layer of the multi-layer printed circuit board.
A method of making a cold-set plug for a ceramic honeycomb body, said method comprising: preparing an aqueous composition comprising a refractory filler, an inorganic binder, and an organic binder, wherein the organic binder is present in the composition in an amount ranging from 1.0% to 5.0% by weight of the refractory filler in the composition; and forming a cold-set plug from the composition; wherein the composition is not fired before or after the cold-set plug is formed; wherein the inorganic binder is a colloidal silica; wherein the refractory filler comprises particles; wherein the particles of the refractory filler are particles of cordierite; and wherein 100% of the particles of the refractory filler, measured by a laser diffraction technique using a particle size analyzer, have a d 50 ranging from 10 μm to 40 μm, a d 10 of greater than 2 μm, and a d 90 of less than 110 μm, wherein d 50 is the median particle diameter, d 10 is the particle diameter at which 10% of the particles are finer in diameter, and d 90 is the particle diameter for which 90% of the particles are finer in diameter. preparing an aqueous composition comprising a refractory filler, an inorganic binder, and an organic binder, wherein the organic binder is present in the composition in an amount ranging from 1.0% to 5.0% by weight of the refractory filler in the composition; and forming a cold-set plug from the composition; wherein the composition is not fired before or after the cold-set plug is formed; wherein the inorganic binder is a colloidal silica; wherein the refractory filler comprises particles; wherein the particles of the refractory filler are particles of cordierite; and wherein 100% of the particles of the refractory filler, measured by a laser diffraction technique using a particle size analyzer, have a d 50 ranging from 10 μm to 40 μm, a d 10 of greater than 2 μm, and a d 90 of less than 110 μm, wherein d 50 is the median particle diameter, d 10 is the particle diameter at which 10% of the particles are finer in diameter, and d 90 is the particle diameter for which 90% of the particles are finer in diameter.
Multi-layered orthopaedic shoe insole blank with an upper cushioning body made of foamed EVA sheet material, which is deformed in such a way that it forms a 3-dimensionally shaped footbed, wherein a flexible layer is glued in at least a partial region onto that side of the foamed EVA sheet material which faces away from the foot, which is impermeable to PU foam plastic at least in partial regions, wherein a support body of PU foam plastic, which is moulded three-dimensionally in the RIM process, is foamed onto the flexible layer on the side facing away from the EVA sheet material.
A headrest support structure comprising: a headrest support having a hollow cylindrical shape, into which a headrest stay is insertable; and a bracket having a hollow cylindrical shape that is configured to be fixed to a seat back frame, and into which the headrest support is insertable, wherein the headrest support is pivotally supported with respect to the bracket, around a contact portion between a tip end of a protrusion provided on the seat front side of the headrest support and an inner peripheral surface of the bracket; the protrusion is formed such that a protrusion amount thereof toward an outer peripheral side of the headrest support increases in response to insertion of the headrest stay; characterized by a protruding bead, which is opposed to the protrusion, is formed on the seat rear side of the headrest support. a headrest support having a hollow cylindrical shape, into which a headrest stay is insertable; and a bracket having a hollow cylindrical shape that is configured to be fixed to a seat back frame, and into which the headrest support is insertable, wherein the headrest support is pivotally supported with respect to the bracket, around a contact portion between a tip end of a protrusion provided on the seat front side of the headrest support and an inner peripheral surface of the bracket; the protrusion is formed such that a protrusion amount thereof toward an outer peripheral side of the headrest support increases in response to insertion of the headrest stay;
A method of providing jam warning messages in relation to jams affecting navigable segments of a network of navigable segments, the method comprising: obtaining a jam tail flow speed for an identified jam; comparing the obtained jam tail flow speed to a current speed of travel of a vehicle or a historical speed of travel along an applicable navigable segment; and generating a jam warning message using the results of the comparison when a current or historical speed of travel along the applicable navigable segment exceeds the jam tail flow speed by more than a predetermined amount. obtaining a jam tail flow speed for an identified jam; comparing the obtained jam tail flow speed to a current speed of travel of a vehicle or a historical speed of travel along an applicable navigable segment; and generating a jam warning message using the results of the comparison when a current or historical speed of travel along the applicable navigable segment exceeds the jam tail flow speed by more than a predetermined amount.
System for active control of radial play in a turbomachine, the system comprising: - an annular row of rotor vanes; - an outer casing around the row of rotor vanes; - a radial play between the rotor vanes and the outer casing; and - an oil circuit suitable for recovering the calories from turbomachine equipment and comprising an expansion module configured in order to deform the outer casing by means of the calories recovered from the oil, characterized in that the expansion module is arranged inside the outer casing so as to adapt the radial play. - an annular row of rotor vanes; - an outer casing around the row of rotor vanes; - a radial play between the rotor vanes and the outer casing; and - an oil circuit suitable for recovering the calories from turbomachine equipment and comprising an expansion module configured in order to deform the outer casing by means of the calories recovered from the oil,