mhurhangee/patent-ind-claim-en huggingface dataset:
A horn antenna for a radar measuring device, in particular a radar filling level measuring device, with - an antenna horn , which emits at the front in a main emission direction A and comprises a rear feed , - a fastening assembly for attachment to a container , - and an at least partial filling of the antenna horn with a solid substance, wherein the antenna horn is formed from at least two parts, with a first rear part on the device side and a second front part on the container side, characterized in that the first part has a first filling and the second part a second filling , and wherein the second filling is configured in such a manner that, together with the second part , it seals a container towards the outside if it is disposed thereon. - an antenna horn , which emits at the front in a main emission direction A and comprises a rear feed , - a fastening assembly for attachment to a container , - and an at least partial filling of the antenna horn with a solid substance, wherein the antenna horn is formed from at least two parts, with a first rear part on the device side and a second front part on the container side, characterized in that the first part has a first filling and the second part a second filling , and wherein the second filling is configured in such a manner that, together with the second part , it seals a container towards the outside if it is disposed thereon.
Lubricating system for a bearing having: a lubricant supply system with a conveying device which is configured to introduce a first lubricant quantity into the bearing ; a lubricant disposal system with a conveying device which is configured to remove a second lubricant quantity from the bearing ; and a control device which is configured to activate the conveying device of the lubricant disposal system and the conveying device of the lubricant supply system in a manner which is dependent on one another, characterized in that the lubricant supply system comprises a measuring device which is configured to determine the volume or a mass of the first lubricant quantity . a lubricant supply system with a conveying device which is configured to introduce a first lubricant quantity into the bearing ; a lubricant disposal system with a conveying device which is configured to remove a second lubricant quantity from the bearing ; and a control device which is configured to activate the conveying device of the lubricant disposal system and the conveying device of the lubricant supply system in a manner which is dependent on one another, characterized in that the lubricant supply system comprises a measuring device which is configured to determine the volume or a mass of the first lubricant quantity .
A tomographic image forming apparatus which is adapted to divide light output from a light source inside the apparatus into measurement light and reference light, and which is adapted to generate a cross-sectional image of an imaging target based on light intensity of interference light obtained from reflected light obtained by emitting the measurement light to the imaging target and the reference light, comprising: first generation means for generating a second image by converting a first image in which line data generated based on the light intensity and having information in a direction of a first axis which serves as a depth direction of the imaging target is arranged in a direction of a second axis, into a frequency domain; first reduction means for removing or reducing an artifact by performing filtering on the second image; and second generation means for generating a third image by inversely converting the second image processed by the first reduction means, into a spatial domain. first generation means for generating a second image by converting a first image in which line data generated based on the light intensity and having information in a direction of a first axis which serves as a depth direction of the imaging target is arranged in a direction of a second axis, into a frequency domain; first reduction means for removing or reducing an artifact by performing filtering on the second image; and second generation means for generating a third image by inversely converting the second image processed by the first reduction means, into a spatial domain.
Separation device, particularly for separating oil aerosols from a fluid, such as an air stream, having a supply system and a take-off system connected thereto via pipework , which comprises a bypass line between a supply side and a discharge side for purified or contaminated fluid, characterised in that the supply system ensures, by means of an adjustment apparatus , that, apart from in the event of the supply system failing, no or substantially no contaminated fluid passes via the bypass line from the discharge side to the supply side of the take-off system , avoiding the supply system .
A distribution system for a process fluid for chemical and/or electrolytic surface treatment of a substrate, comprising: - a first distribution body , - a substitute body, - a framework , - a substrate holder , - an electrical sealing unit, and - a tank , wherein the first distribution body is configured to direct a flow of the process fluid and/or an electrical current to the substrate holder holding at least one substrate, wherein the first distribution body and the substitute body are arranged to insert the substrate holder between them, wherein the framework is configured to mount the first distribution body and the substitute body relative to each other, wherein the framework is further configured to form, together with the first distribution body and the substitute body, a casing surrounding the substrate holder holding the substrate, wherein the casing is insertable into the tank containing the process fluid as an independent unit, wherein the electrical sealing unit is configured to seal an interface between the framework and the first distribution body and an interface between the framework and the substitute body, such that the one or more sealing units provide an electrical isolation of the casing such that stray currents around the distribution body are avoided, characterized in that the substitute body is a second distribution body also configured to direct a flow of the process fluid to the substrate. - a first distribution body , - a substitute body, - a framework , - a substrate holder , - an electrical sealing unit, and - a tank , wherein the first distribution body is configured to direct a flow of the process fluid and/or an electrical current to the substrate holder holding at least one substrate, wherein the first distribution body and the substitute body are arranged to insert the substrate holder between them, wherein the framework is configured to mount the first distribution body and the substitute body relative to each other, wherein the framework is further configured to form, together with the first distribution body and the substitute body, a casing surrounding the substrate holder holding the substrate, wherein the casing is insertable into the tank containing the process fluid as an independent unit, wherein the electrical sealing unit is configured to seal an interface between the framework and the first distribution body and an interface between the framework and the substitute body, such that the one or more sealing units provide an electrical isolation of the casing such that stray currents around the distribution body are avoided, characterized in that the substitute body is a second distribution body also configured to direct a flow of the process fluid to the substrate.
An arc welding device that comprises: a welding power source for supplying power between a welding wire fed to a welding torch and a base metal with a groove ; a welding robot for moving and weaving the welding torch along the groove , that causes a tip end portion of the welding wire to progress into a recessed molten part formed on the base metal to weld the base metal ; and an arc sensor for detecting an amount of offset of a central position for welding from a position of the groove based on welding current, and characterised in that the arc welding device comprises: a transition control unit that temporarily makes a transition to a non-buried state where the tip end portion of the welding wire does not progress into the recessed molten part for a predetermined time period that allows the tip end portion of the welding wire to traverse the groove by weaving of the welding torch ; an acquisition unit that acquires, from the arc sensor , a detection result of the amount of the offset at least in the non-buried state; and a correction control unit that corrects a position of the welding torch relative to the groove based on the detection result by the arc sensor in the non-buried state. a welding power source for supplying power between a welding wire fed to a welding torch and a base metal with a groove ; a welding robot for moving and weaving the welding torch along the groove , that causes a tip end portion of the welding wire to progress into a recessed molten part formed on the base metal to weld the base metal ; and an arc sensor for detecting an amount of offset of a central position for welding from a position of the groove based on welding current, and characterised in that the arc welding device comprises: a transition control unit that temporarily makes a transition to a non-buried state where the tip end portion of the welding wire does not progress into the recessed molten part for a predetermined time period that allows the tip end portion of the welding wire to traverse the groove by weaving of the welding torch ; an acquisition unit that acquires, from the arc sensor , a detection result of the amount of the offset at least in the non-buried state; and a correction control unit that corrects a position of the welding torch relative to the groove based on the detection result by the arc sensor in the non-buried state. a transition control unit that temporarily makes a transition to a non-buried state where the tip end portion of the welding wire does not progress into the recessed molten part for a predetermined time period that allows the tip end portion of the welding wire to traverse the groove by weaving of the welding torch ; an acquisition unit that acquires, from the arc sensor , a detection result of the amount of the offset at least in the non-buried state; and a correction control unit that corrects a position of the welding torch relative to the groove based on the detection result by the arc sensor in the non-buried state.
System comprising a hairstyling tool and a remote entity which can be connected to said hairstyling tool by a wireless connection, the hairstyling tool being a comb or a hairbrush, and comprising: - a handle and a body , provided with teeth and/or hairs, - a battery for storing electricity , - at least one movement sensor or accelerometer , - at least one force sensor suitable for measuring a torsional or bending stress exerted between the handle held by a user and the body engaged with the hair of a user, - an electronic control unit , configured to capture and format signals provided by the movement sensor , and configured to format torsional or bending stress exerted provided by the force sensor , - at least one wireless communication means suitable for data transmission to the remote entity , whereby information on the movements executed by the hairstyling tool can be transmitted to the remote entity , characterized in that the entity is configured to state recommendations for hair care or products to be applied to the hair concerned, and to provide these recommendations to the user of the hairstyling tool as a short message, email or other to the user. - a handle and a body , provided with teeth and/or hairs, - a battery for storing electricity , - at least one movement sensor or accelerometer , - at least one force sensor suitable for measuring a torsional or bending stress exerted between the handle held by a user and the body engaged with the hair of a user, - an electronic control unit , configured to capture and format signals provided by the movement sensor , and configured to format torsional or bending stress exerted provided by the force sensor , - at least one wireless communication means suitable for data transmission to the remote entity , whereby information on the movements executed by the hairstyling tool can be transmitted to the remote entity , characterized in that the entity is configured to state recommendations for hair care or products to be applied to the hair concerned, and to provide these recommendations to the user of the hairstyling tool as a short message, email or other to the user.
A composition for ligating at least two oligonucleotides to produce a ligated oligonucleotide and amplifying the ligated oligonucleotide in a single reaction mixture comprising: a. at least a first and second probe, each probe being specifically bound to a target protein or analyte, and being adjoined to at least one type of oligonucleotide; b. a small footprint ligase; c. a ligation buffer; d. a splint oligonucleotide, wherein said splint oligonucleotide consists of a 3' end of four to nine bases in length and a 5' end of four to nine bases in length; and e. standard real-time PCR components. a. at least a first and second probe, each probe being specifically bound to a target protein or analyte, and being adjoined to at least one type of oligonucleotide; b. a small footprint ligase; c. a ligation buffer; d. a splint oligonucleotide, wherein said splint oligonucleotide consists of a 3' end of four to nine bases in length and a 5' end of four to nine bases in length; and e. standard real-time PCR components.
Non-aqueous marking ink for non-absorbent surfaces with extended 'cap-off time', wherein the ink comprises 50 - 95 weight % organic solvent 0.05 - 10 weight % drying retardant 1 - 30 weight % pigment 0 - 20 weight % binder 0 - 10 weight % surfactant 0 - weight % additives (A1, A2, ...), wherein the pigment is a water-soluble or water-insoluble dye, wherein the drying retardant is a solid fatty acid and/or a mixture of solid fatty acids and wherein the solid fatty acid is palmitic acid and/or stearic acid.
A light-emitting device for an AC power operation, the device comprising: a) an LED chip having a plurality of light emitting cells connected in series, configured to be driven by an AC power source; b) a transparent member for covering the LED chip ; and c) a delay phosphor excited by light emitted from the light emitting cells to emit light in a visible light range, wherein the delay phosphor is dispersed within the transparent member and wherein light emitted from the delay phosphor combines with light emitted from the LED chip to increase the light emission time of the light emitting device, wherein the delay phosphor has a delay time equal to a time during which all the light emitting cells are turned off while driven by the AC power source, thereby preventing a flicker effect of the light emitting device driven by the AC power source, wherein d) the light emitting device further comprises another phosphor excited by light emitted from the LED chip to emit light in a visible light range, wherein the phosphors are selected such that the light emitting device emits light having a desired color. a) an LED chip having a plurality of light emitting cells connected in series, configured to be driven by an AC power source; b) a transparent member for covering the LED chip ; and c) a delay phosphor excited by light emitted from the light emitting cells to emit light in a visible light range, wherein the delay phosphor is dispersed within the transparent member and wherein light emitted from the delay phosphor combines with light emitted from the LED chip to increase the light emission time of the light emitting device, wherein the delay phosphor has a delay time equal to a time during which all the light emitting cells are turned off while driven by the AC power source, thereby preventing a flicker effect of the light emitting device driven by the AC power source, wherein d) the light emitting device further comprises another phosphor excited by light emitted from the LED chip to emit light in a visible light range, wherein the phosphors are selected such that the light emitting device emits light having a desired color.
A method for producing a grain-oriented electrical steel sheet comprising a series of steps of heating a steel slab having a component composition comprising C: 0.025 to 0.10 mass%, Si: 2.0 to 5.0 mass%, Mn: 0.02 to 0.30 mass%, sol. Al: 0.012 to 0.04 mass%, N: 0.004 to 0.020 mass%, one or two selected from S and Se: 0.002 to 0.040 mass% in total, optionally one or more selected from Cr: 0.01 to 0.50 mass%, Cu: 0.01 to 0.50 mass%, Ni: 0.01 to 0.50 mass%, Bi: 0.005 to 0.50 mass%, B: 0.0002 to 0.0025 mass%, Nb: 0.0010 to 0.0100 mass%, Sn: 0.010 to 0.400 mass%, Sb: 0.010 to 0.150 mass%, Mo: 0.010 to 0.200 mass%, P: 0.010 to 0.150 mass%, V: 0.0005 to 0.0100 mass% and Ti: 0.0005 to 0.0100 mass%, and the remainder being Fe and inevitable impurities to a temperature higher than 1280°C, hot rolling the slab to form a hot-rolled sheet, subjecting the hot-rolled sheet to a hot-band annealing and then a single cold rolling or two or more cold rollings having an intermediate annealing between each cold rolling to form a cold-rolled sheet having a final sheet thickness, subjecting the cold-rolled sheet to a primary recrystallization annealing combined with a decarburization annealing, applying an annealing separator onto a surface of the steel sheet, and subjecting the steel sheet to a finish annealing and a flattening annealing, characterized in that a rapid cooling is conducted at an average cooling rate of not less than 200°C/s from 800°C to 300°C in a cooling process from a maximum achieving temperature in at least one process of the hot-band annealing and the intermediate annealing. heating a steel slab having a component composition comprising C: 0.025 to 0.10 mass%, Si: 2.0 to 5.0 mass%, Mn: 0.02 to 0.30 mass%, sol. Al: 0.012 to 0.04 mass%, N: 0.004 to 0.020 mass%, one or two selected from S and Se: 0.002 to 0.040 mass% in total, optionally one or more selected from Cr: 0.01 to 0.50 mass%, Cu: 0.01 to 0.50 mass%, Ni: 0.01 to 0.50 mass%, Bi: 0.005 to 0.50 mass%, B: 0.0002 to 0.0025 mass%, Nb: 0.0010 to 0.0100 mass%, Sn: 0.010 to 0.400 mass%, Sb: 0.010 to 0.150 mass%, Mo: 0.010 to 0.200 mass%, P: 0.010 to 0.150 mass%, V: 0.0005 to 0.0100 mass% and Ti: 0.0005 to 0.0100 mass%, and the remainder being Fe and inevitable impurities to a temperature higher than 1280°C, hot rolling the slab to form a hot-rolled sheet, subjecting the hot-rolled sheet to a hot-band annealing and then a single cold rolling or two or more cold rollings having an intermediate annealing between each cold rolling to form a cold-rolled sheet having a final sheet thickness, subjecting the cold-rolled sheet to a primary recrystallization annealing combined with a decarburization annealing, applying an annealing separator onto a surface of the steel sheet, and subjecting the steel sheet to a finish annealing and a flattening annealing, characterized in that a rapid cooling is conducted at an average cooling rate of not less than 200°C/s from 800°C to 300°C in a cooling process from a maximum achieving temperature in at least one process of the hot-band annealing and the intermediate annealing.
A method for wireless communications by a user equipment , UE, comprising: identifying resources in a narrowband region, the narrowband region spanning no more than a single resource block in a transmission time interval, TTI; and communicating with a base station using the identified resources, wherein multiple UEs are frequency division multiplexed in the narrowband region, such that multiple UEs share the identified resources in a given TTI. identifying resources in a narrowband region, the narrowband region spanning no more than a single resource block in a transmission time interval, TTI; and communicating with a base station using the identified resources, wherein multiple UEs are frequency division multiplexed in the narrowband region, such that multiple UEs share the identified resources in a given TTI.
A method for refining magnetic domains of a grain-oriented electrical steel sheet, comprising: a step of preparing a grain-oriented electrical steel sheet; and a step of forming a groove by irradiating a quasi-continuous laser beam of which a duty is from 98.0 to 99.9 % on a surface of the grain-oriented electrical steel sheet, wherein the duty is a ratio T b /T a of a time of irradiation with an output of 10 % or more of a maximum output Pmax : Tb to an output modulation cycle time: Ta in a time diagram for an output of a laser beam, wherein a ratio P/W of an average output P of a laser beam for a quasi-continuous laser beam width W is from 30 W/μm to 300 W/μm, wherein a depth D of the groove is formed from 3 % to 8 % of the thickness of the steel sheet. a step of preparing a grain-oriented electrical steel sheet; and a step of forming a groove by irradiating a quasi-continuous laser beam of which a duty is from 98.0 to 99.9 % on a surface of the grain-oriented electrical steel sheet, wherein the duty is a ratio T b /T a of a time of irradiation with an output of 10 % or more of a maximum output Pmax : Tb to an output modulation cycle time: Ta in a time diagram for an output of a laser beam, wherein a ratio P/W of an average output P of a laser beam for a quasi-continuous laser beam width W is from 30 W/μm to 300 W/μm, wherein a depth D of the groove is formed from 3 % to 8 % of the thickness of the steel sheet. Ta in a time diagram for an output of a laser beam, wherein a ratio P/W of an average output P of a laser beam for a quasi-continuous laser beam width W is from 30 W/μm to 300 W/μm, wherein a depth D of the groove is formed from 3 % to 8 % of the thickness of the steel sheet.
An amplitude demodulator comprising: a clock extractor configured to extract a clock signal from an input signal; a phase shifter configured to generate a sampling signal by shifting a phase of the clock signal by π/2; a sampler configured to sample the input signal with a timing controlled by the sampling signal; and a voltage-controlled locking oscillator coupled to the clock extractor , wherein the voltage-controlled locking oscillator is configured to generate a lock signal having the frequency of the clock signal for continuation of the sampling of the input signal when an amplitude of the input signal is zero throughout at least one cycle. a clock extractor configured to extract a clock signal from an input signal; a phase shifter configured to generate a sampling signal by shifting a phase of the clock signal by π/2; a sampler configured to sample the input signal with a timing controlled by the sampling signal; and a voltage-controlled locking oscillator coupled to the clock extractor , wherein the voltage-controlled locking oscillator is configured to generate a lock signal having the frequency of the clock signal for continuation of the sampling of the input signal when an amplitude of the input signal is zero throughout at least one cycle.