mhurhangee/patent-ind-claim-en huggingface dataset:
A control method for an air conditioner comprising: acquiring (S12) a top view image for an indoor space by using an imaging device; comparing (S13) information about a previously-stored reference image for a reference height (H1) with information about the acquired top view image; calculating (S14) an actual height (H2) of a ceiling in which an indoor unit is mounted based on the compared information; determining (S16) whether an image is directed to a human body or an obstacle , with respect to at least one image included in the acquired top view image; calculating (S17) a position of the human body and a height of the human body; recognizing (S18) a type of the obstacle ; and performing control of the air conditioner to allow air flow to avoid the obstacle and be discharged toward the human body by controlling driving of an indoor fan or a discharge vane provided in the indoor unit , wherein the controlling driving of an indoor fan or a discharge vane is performed by the information including the calculated height (H2) of the ceiling, the calculated position and height of the human body, and the recognized type of the obstacle . acquiring (S12) a top view image for an indoor space by using an imaging device; comparing (S13) information about a previously-stored reference image for a reference height (H1) with information about the acquired top view image; calculating (S14) an actual height (H2) of a ceiling in which an indoor unit is mounted based on the compared information; determining (S16) whether an image is directed to a human body or an obstacle , with respect to at least one image included in the acquired top view image; calculating (S17) a position of the human body and a height of the human body; recognizing (S18) a type of the obstacle ; and performing control of the air conditioner to allow air flow to avoid the obstacle and be discharged toward the human body by controlling driving of an indoor fan or a discharge vane provided in the indoor unit , wherein the controlling driving of an indoor fan or a discharge vane is performed by the information including the calculated height (H2) of the ceiling, the calculated position and height of the human body, and the recognized type of the obstacle .
Process to manufacture edible aerated water-in-oil emulsion comprising: • from 0.5 to 50 wt. % of micronized fat powder comprising hardstock fat; • from 10 to 85 wt. % of liquid oil; • from 10 to 85 wt. % of water-phase; • from 2 to 100 vol. % of gas-phase; ∘ wherein the gas has an average solubility in water at 20 degrees Celsius and at 1 bar of pressure of at most 0.75 gram gas per kg water; and ∘ wherein the gas has an average solubility in sunflower oil at 20 degrees Celsius and at 1 bar of pressure of at most 0.75 gram gas per kg oil; wherein the liquid oil, the water-phase and the gas-phase are pre-emulsified; and the micronized fat powder is added during or after said emulsification, wherein the micronized fat powder is not subjected to temperatures at which the hardstock substantially melts; to provide the edible aerated water-in-oil emulsion; wherein neither hydrophobins nor sugar fatty esters are present. • from 0.5 to 50 wt. % of micronized fat powder comprising hardstock fat; • from 10 to 85 wt. % of liquid oil; • from 10 to 85 wt. % of water-phase; • from 2 to 100 vol. % of gas-phase; ∘ wherein the gas has an average solubility in water at 20 degrees Celsius and at 1 bar of pressure of at most 0.75 gram gas per kg water; and ∘ wherein the gas has an average solubility in sunflower oil at 20 degrees Celsius and at 1 bar of pressure of at most 0.75 gram gas per kg oil; wherein the liquid oil, the water-phase and the gas-phase are pre-emulsified; and the micronized fat powder is added during or after said emulsification, wherein the micronized fat powder is not subjected to temperatures at which the hardstock substantially melts; ∘ wherein the gas has an average solubility in water at 20 degrees Celsius and at 1 bar of pressure of at most 0.75 gram gas per kg water; and ∘ wherein the gas has an average solubility in sunflower oil at 20 degrees Celsius and at 1 bar of pressure of at most 0.75 gram gas per kg oil; to provide the edible aerated water-in-oil emulsion; wherein neither hydrophobins nor sugar fatty esters are present.
A heat-insulation material, comprising: a first substrate layer that includes a aerogel and first fibers; and at least one second substrate layer that is layered on the first substrate layer and that includes a aerogel and second fibers, wherein a volume density of the aerogel in the entire volume of the first substrate layer is larger than a volume density of the aerogel in the entire volume of at least one second substrate layer, an amount of the aerogel that is present on a surface (i) of the second substrate layer inside the second substrate layer, said surface (i) not being adjacent to the first substrate layer, is smaller than an amount of the aerogel that is present on a surface (ii) of the second substrate layer inside the second substrate layer, said surface (ii) being adjacent to the first substrate layer, the first fibers and the second fibers are of the same type, the first fibers have a bulk density of 0.04 g/cm 3 or less and the second fibers have a bulk density of 0.1 g/cm 3 or more. a first substrate layer that includes a aerogel and first fibers; and at least one second substrate layer that is layered on the first substrate layer and that includes a aerogel and second fibers, wherein a volume density of the aerogel in the entire volume of the first substrate layer is larger than a volume density of the aerogel in the entire volume of at least one second substrate layer, an amount of the aerogel that is present on a surface (i) of the second substrate layer inside the second substrate layer, said surface (i) not being adjacent to the first substrate layer, is smaller than an amount of the aerogel that is present on a surface (ii) of the second substrate layer inside the second substrate layer, said surface (ii) being adjacent to the first substrate layer, the first fibers and the second fibers are of the same type, the first fibers have a bulk density of 0.04 g/cm 3 or less and the second fibers have a bulk density of 0.1 g/cm 3 or more.
Element for a motor vehicle body part successively comprising a main body of plastic material, covered at least partially with a film comprising a heating track , the film being itself covered at least partially by a layer of glass , characterized in that the glass layer has a thickness between 100 μm and 800 μm, preferably less than 500 μm.
A method for calculating a motor constant for a PM motor , comprising: a drawing step of applying a DC voltage to the PM motor to draw a rotor of the PM motor to a predetermined position; a voltage applying step of applying an applied voltage including a DC component and a plurality of frequency components to the PM motor ; a motor current detecting step of detecting a motor current flowing in the PM motor depending on the applied voltage applied in the voltage applying step, and a motor constant calculating step of calculating the motor constant of the PM motor based on a frequency characteristic serving as a relationship between the applied voltage and the motor current, wherein the applied voltage applied to the PM motor in the voltage applying step includes a plural number of voltages, each of the voltages having a different DC voltage component and the plurality of frequency components. a drawing step of applying a DC voltage to the PM motor to draw a rotor of the PM motor to a predetermined position; a voltage applying step of applying an applied voltage including a DC component and a plurality of frequency components to the PM motor ; a motor current detecting step of detecting a motor current flowing in the PM motor depending on the applied voltage applied in the voltage applying step, and a motor constant calculating step of calculating the motor constant of the PM motor based on a frequency characteristic serving as a relationship between the applied voltage and the motor current, wherein the applied voltage applied to the PM motor in the voltage applying step includes a plural number of voltages, each of the voltages having a different DC voltage component and the plurality of frequency components.
Profiled bearing for a rail , comprising - a profiled base having a first side wall , a second side wall and a base connecting a first end of the first side wall to a first end of the second side wall , - a profiled clamping section , - wherein the base and the side walls form a receiving pocket for receiving the rail , - wherein the profiled clamping section is clamped in a functional position in a gap between the rail inserted in a bearing bed of the base and the second side wall , characterized in that - in the region of a second end of the first side wall remote from the base , a clamping finger extending in the direction of the second side wall is integrally formed, with which the rail can be pressed into the bearing bed , and that - the profiled clamping section has a base web with two clamping legs extending from one side of the base web , which can be pressed into the gap between the rail inserted in the bearing bed and the second side wall , - wherein the clamping legs of the profiled clamping section , in the functional position when pressed into the gap , extend in the direction of the bearing bed , wherein a first clamping leg rests at least partially against the rail and a portion of a second clamping leg is pressed into an undercut integrally formed on the second side wall . - a profiled base having a first side wall , a second side wall and a base connecting a first end of the first side wall to a first end of the second side wall , - a profiled clamping section , - wherein the base and the side walls form a receiving pocket for receiving the rail , - wherein the profiled clamping section is clamped in a functional position in a gap between the rail inserted in a bearing bed of the base and the second side wall , characterized in that - in the region of a second end of the first side wall remote from the base , a clamping finger extending in the direction of the second side wall is integrally formed, with which the rail can be pressed into the bearing bed , and that - the profiled clamping section has a base web with two clamping legs extending from one side of the base web , which can be pressed into the gap between the rail inserted in the bearing bed and the second side wall , - wherein the clamping legs of the profiled clamping section , in the functional position when pressed into the gap , extend in the direction of the bearing bed , wherein a first clamping leg rests at least partially against the rail and a portion of a second clamping leg is pressed into an undercut integrally formed on the second side wall .
Sensor device configured for sensing physiological information of a subject, said device comprising: - a communication unit configured for receiving, from an external source, context information, wherein the external source is a device that is external to the sensor device, the context information indicating spectral information indicating an ambient light spectrum, said spectral information allowing the sensor device to determine a modulation mode and/or settings of an interference reduction algorithm, - one or more light emitters configured for emitting modulated light onto the tissue of the subject, and - a light detector configured for detecting light which is transmitted through the tissue or/and which is reflected from the tissue, further comprising: i) a light modulator configured for modulating light in accordance with the modulation mode determined from the received context information, and a light demodulator configured for demodulating the detected light in accordance with the modulation mode used by the light modulator for modulating light and/or ii) a processing unit configured for performing an interference reduction algorithm for reducing ambient light interference with settings indicated by or determined from the received context information. - a communication unit configured for receiving, from an external source, context information, wherein the external source is a device that is external to the sensor device, the context information indicating spectral information indicating an ambient light spectrum, said spectral information allowing the sensor device to determine a modulation mode and/or settings of an interference reduction algorithm, - one or more light emitters configured for emitting modulated light onto the tissue of the subject, and - a light detector configured for detecting light which is transmitted through the tissue or/and which is reflected from the tissue, i) a light modulator configured for modulating light in accordance with the modulation mode determined from the received context information, and a light demodulator configured for demodulating the detected light in accordance with the modulation mode used by the light modulator for modulating light and/or ii) a processing unit configured for performing an interference reduction algorithm for reducing ambient light interference with settings indicated by or determined from the received context information.
Corrugated pipe made of plastics material which defines a duct in its interior, a wall of the corrugated pipe , when viewed in an axial direction in a main direction of extension of the duct , comprising a series of peaks and troughs , one peak and one trough adjacent thereto being connected by a flank , the corrugated pipe comprising a plurality of markings on its outer face which each contain a digitally readable code, and the flanks being substantially free of such markings , characterised in that the markings are applied using a laser-based labelling process, and in that each marking extends over at least one peak and at least one trough in the axial direction of the corrugated pipe and at least in portions in the circumferential direction of the corrugated pipe . a wall of the corrugated pipe , when viewed in an axial direction in a main direction of extension of the duct , comprising a series of peaks and troughs , one peak and one trough adjacent thereto being connected by a flank , the corrugated pipe comprising a plurality of markings on its outer face which each contain a digitally readable code, and the flanks being substantially free of such markings , characterised in that the markings are applied using a laser-based labelling process, and in that each marking extends over at least one peak and at least one trough in the axial direction of the corrugated pipe and at least in portions in the circumferential direction of the corrugated pipe .
An oncostatin M receptor (OSMR) binding antibody for use in a method of treating an autoimmune disorder, inflammatory disorder, or disorder associated with extracellular matrix deposition or remodeling, wherein the disorder is pruritic inflammation, wherein said OSMR-binding antibody cross-competes with an anti-OSMR binding antibody selected from the group consisting of: a) an antibody comprising a light chain comprising the amino acid sequence set forth in SEQ ID:24 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:6; b) an antibody comprising a light chain comprising the amino acid sequence set forth in SEQ ID:25 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:7; and c) an antibody comprising a light chain comprising the amino acid sequence set forth in SEQ ID:26 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:8, wherein said antibody binds OSMR and inhibits OSM and IL-31 binding, thereby reducing OSM- and IL-31-mediated signaling in cells expressing OSMR. a) an antibody comprising a light chain comprising the amino acid sequence set forth in SEQ ID:24 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:6; b) an antibody comprising a light chain comprising the amino acid sequence set forth in SEQ ID:25 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:7; and c) an antibody comprising a light chain comprising the amino acid sequence set forth in SEQ ID:26 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:8,
A composition comprising a chelate-based ternary complex, wherein the chelate-based ternary complex comprises a hydrogen peroxide component, a plant compatible growth promoter component which comprises a urea component , and a divalent zinc cation component.
A system for treating edema, comprising: a catheter system configured for placement within a vein of a patient, the catheter system having selectively deployable proximal and distal restrictions disposed within an indwelling portion of the catheter system, a blood inflow suction port disposed between the proximal and distal restrictions and in fluid communication with a suction lumen of the catheter system that is effective to remove fluid from venous circulation, a discharge port disposed distally of the distal restrictor and in fluid communication with a discharge lumen of the catheter system and configured to return fluid to venous circulation; a pump configured to create a pressure differential to withdraw fluid from the suction port and through the suction lumen to withdraw a fluid within a vein from venous circulation and to return the fluid to venous circulation through the discharge lumen and the discharge port ; a plurality of pressure sensors disposed within the catheter system, the pressure sensors being configured to determine venous pressure upstream of the proximal restriction , between the proximal and distal restriction , and downstream of the distal restriction ; and a control module configured to control operation of the system . a catheter system configured for placement within a vein of a patient, the catheter system having selectively deployable proximal and distal restrictions disposed within an indwelling portion of the catheter system, a blood inflow suction port disposed between the proximal and distal restrictions and in fluid communication with a suction lumen of the catheter system that is effective to remove fluid from venous circulation, a discharge port disposed distally of the distal restrictor and in fluid communication with a discharge lumen of the catheter system and configured to return fluid to venous circulation; a pump configured to create a pressure differential to withdraw fluid from the suction port and through the suction lumen to withdraw a fluid within a vein from venous circulation and to return the fluid to venous circulation through the discharge lumen and the discharge port ; a plurality of pressure sensors disposed within the catheter system, the pressure sensors being configured to determine venous pressure upstream of the proximal restriction , between the proximal and distal restriction , and downstream of the distal restriction ; and a control module configured to control operation of the system .
A transfer device for a living organism for placing an object (Cg) in a living organism, the transfer device comprising a plurality of movable units , each movable unit comprising one or more needles extending in a first direction, each needle having a cylindrical shape capable of storing the object (Cg) therein, each movable unit being configured to be movable in the first direction; and a control part that controls the operation of the plurality of movable units , wherein the control part is configured to move the movable units toward the living organism to allow the needles to penetrate the living organism, and the control part is configured to start movement of the movable unit toward the living organism at a timing different from a start of the movement of another adjacent movable unit among the plurality of movable units toward the living organism, characterized in that the control part is configured to control the movable units so that after the penetration of all of the needles of the plurality of movable units into the living organism is completed, the object (Cg) accommodated in the needles is released from the needles . a plurality of movable units , each movable unit comprising one or more needles extending in a first direction, each needle having a cylindrical shape capable of storing the object (Cg) therein, each movable unit being configured to be movable in the first direction; and a control part that controls the operation of the plurality of movable units , wherein the control part is configured to move the movable units toward the living organism to allow the needles to penetrate the living organism, and the control part is configured to start movement of the movable unit toward the living organism at a timing different from a start of the movement of another adjacent movable unit among the plurality of movable units toward the living organism, characterized in that the control part is configured to control the movable units so that after the penetration of all of the needles of the plurality of movable units into the living organism is completed, the object (Cg) accommodated in the needles is released from the needles .
Electrical equipment comprising a cover , a circuit board , and a heatsink arranged to dissipate heat produced by the circuit board outwards from the electrical equipment , the heatsink comprising at least one free fin and two fastener fins , the free fin(s) being positioned between the fastener fins, the cover having an opening that extends over the entire length of the cover , the opening being defined between two lateral ends of the cover, the cover comprising two longitudinal splines that extend from an inside surface of the cover and each of which runs along an edge of a respective one of the lateral ends , the cover being arranged in such a manner that, when the electrical equipment is assembled, the cover surrounds the electrical equipment and the two lateral ends of the cover are snap-fastened to the two fastener fins , the longitudinal splines being resiliently engaged with the fastener fins, the free fin(s) extend(s) outwards from the electrical equipment without being covered by the cover .