mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle air conditioning device, comprising: a refrigerant circuit including a compressor which compresses a refrigerant, an external heat exchanger which exchanges heat between the refrigerant and the outside air, and at least one internal heat exchanger which exchanges heat between the refrigerant and the air fed into a vehicle interior; and a plurality of electric automatic valves , provided in the refrigerant circuit, with which to change a refrigerant flow path in the refrigerant circuit in order to switch between operation modes of the vehicle air conditioning device, characterized in that the refrigerant circuit and the plurality of automatic valves are configured so that a refrigerant flow path for a heating mode can be formed when none of the plurality of automatic valves are supplied with power. a refrigerant circuit including a compressor which compresses a refrigerant, an external heat exchanger which exchanges heat between the refrigerant and the outside air, and at least one internal heat exchanger which exchanges heat between the refrigerant and the air fed into a vehicle interior; and a plurality of electric automatic valves , provided in the refrigerant circuit, with which to change a refrigerant flow path in the refrigerant circuit in order to switch between operation modes of the vehicle air conditioning device, characterized in that the refrigerant circuit and the plurality of automatic valves are configured so that a refrigerant flow path for a heating mode can be formed when none of the plurality of automatic valves are supplied with power.
A sweetener composition characterized by comprising rebaudioside O and rebaudioside N, characterized in that the rebaudioside O content (% by weight) is 110% to 900% of the rebaudioside N content (% by weight).
A synthesis gas production catalyst structure for use in producing a synthesis gas comprising carbon monoxide and hydrogen, the synthesis gas production catalyst structure comprising: supports each having a porous structure and including a zeolite-type compound; and at least one catalytic material present in the supports , wherein each of the supports has channels communicating with one another, each of the supports has a ratio (L/d ratio) of long side dimension L to thickness dimension d of 5.0 or more, and the catalytic material is present at least in the channel of each of the supports , the catalytic material has an average particle size larger than an average inner diameter of the channels , the channels have any one of a one-dimensional pore, a two-dimensional pore, and a three-dimensional pore of a framework structure of the zeolite-type compound, and have an enlarged pore portion different from the one-dimensional pore, the two-dimensional pore, and the three-dimensional pore, the catalytic material is present at least in the enlarged pore portion , and the catalytic material is in the form of a metal fine particle or a metal oxide fine particle. supports each having a porous structure and including a zeolite-type compound; and at least one catalytic material present in the supports , wherein each of the supports has channels communicating with one another, each of the supports has a ratio (L/d ratio) of long side dimension L to thickness dimension d of 5.0 or more, and the catalytic material is present at least in the channel of each of the supports , the catalytic material has an average particle size larger than an average inner diameter of the channels , the channels have any one of a one-dimensional pore, a two-dimensional pore, and a three-dimensional pore of a framework structure of the zeolite-type compound, and have an enlarged pore portion different from the one-dimensional pore, the two-dimensional pore, and the three-dimensional pore, the catalytic material is present at least in the enlarged pore portion , and the catalytic material is in the form of a metal fine particle or a metal oxide fine particle.
A method for using a microarray product, the method comprising: obtaining a microarray product ; performing a bioassay by a first customer using said microarray product ; obtaining by said first customer from a manufacturer of the microarray product a first decoding information data package for control measurements on the microarray product to determine if the assay was performed correctly but not for analytical data of analytes on the microarray product ; and obtaining, by a second customer, from a manufacturer of the microarray product a second decoding information data package for analytical data of analytes on the microarray product . obtaining a microarray product ; performing a bioassay by a first customer using said microarray product ; obtaining by said first customer from a manufacturer of the microarray product a first decoding information data package for control measurements on the microarray product to determine if the assay was performed correctly but not for analytical data of analytes on the microarray product ; and obtaining, by a second customer, from a manufacturer of the microarray product a second decoding information data package for analytical data of analytes on the microarray product .
A kyphoplasty cannula kit comprising: a kyphoplasty cannula which comprises a shaft extending between opposite first and second end surfaces , the shaft comprising an inner surface defining a lumen , the shaft comprising a first opening that extends through the first end surface and a second opening that extends through the second end surface; and a scoop extending from the second end surface , the scoop comprising an arcuate surface that is continuous with the inner surface , a first wing and a second wing , the arcuate surface being positioned between the first and second wings , wherein the wings are deflectable relative to the arcuate surface and the first wing has an inner surface that is continuous with arcuate surface and the second wing has an inner surface that is continuous with arcuate surface ; and a balloon catheter comprising a balloon configured to be positioned within the scoop , wherein, as the balloon moves from an uninflated orientation to an inflated orientation, wings deflect relative to arcuate surface of scoop , and as the balloon moves from the inflated orientation to the uninflated orientation, wings return to their original shape. a kyphoplasty cannula which comprises a shaft extending between opposite first and second end surfaces , the shaft comprising an inner surface defining a lumen , the shaft comprising a first opening that extends through the first end surface and a second opening that extends through the second end surface; and a scoop extending from the second end surface , the scoop comprising an arcuate surface that is continuous with the inner surface , a first wing and a second wing , the arcuate surface being positioned between the first and second wings , wherein the wings are deflectable relative to the arcuate surface and the first wing has an inner surface that is continuous with arcuate surface and the second wing has an inner surface that is continuous with arcuate surface ; and a shaft extending between opposite first and second end surfaces , the shaft comprising an inner surface defining a lumen , the shaft comprising a first opening that extends through the first end surface and a second opening that extends through the second end surface; and a scoop extending from the second end surface , the scoop comprising an arcuate surface that is continuous with the inner surface , a first wing and a second wing , the arcuate surface being positioned between the first and second wings , wherein the wings are deflectable relative to the arcuate surface and the first wing has an inner surface that is continuous with arcuate surface and the second wing has an inner surface that is continuous with arcuate surface ; and a balloon catheter comprising a balloon configured to be positioned within the scoop , wherein, as the balloon moves from an uninflated orientation to an inflated orientation, wings deflect relative to arcuate surface of scoop , and as the balloon moves from the inflated orientation to the uninflated orientation, wings return to their original shape.
A decorative panel for a motor vehicle, comprising a main body made of transparent or translucent plastic, a decorative film on a decorated face of the main body , the decorative panel having at least one fixing area of a first piece on the decorative panel , said fixing area comprises a through-hole, the decorated face and/or the opposite face having local extra thicknesses at said fixing area , the decorative panel being intended to be attached to the motor vehicle on at least one of the following second parts: front face, fender, door, roof, tailgate, rear bumper, the decorative panel comprising at least a first piece attached to the decorative panel with a fastening mean , the decorative panel being characterised in that it comprises a protective layer on a face opposite to the decorated face and in that the local extra thicknesses prevent contact between the main body and the fastening mean and/or the first part .
A polymerizable composition for an optical lens, comprising: (A) a bifunctional amine having two secondary amino groups; (B) a bifunctional thiol having two mercapto groups; and (C) a bifunctional isocyanate having two isocyanato groups, wherein the ratio ((a+b)/c) of the total molar number (a+b) of the molar number a of amino groups in the amine (A) and the molar number b of mercapto groups in the thiol (B) with respect to the molar number c of isocyanato groups in the isocyanate (C) is in the range of 0.85 to 1.15, and the ratio (a/c) of the molar number a of amino groups in the amine (A) with respect to the molar number c of isocyanato groups in the isocyanate (C) is in the range of 0.10 to 0.60. (A) a bifunctional amine having two secondary amino groups; (B) a bifunctional thiol having two mercapto groups; and (C) a bifunctional isocyanate having two isocyanato groups,
A door for a refrigerator, the door comprising a door frame enclosed at a periphery, and a first side plate and a second side plate located on two opposed sides of the door frame , the door frame , the first side plate and the second side plate forming a receiving space for receiving a foaming material, wherein the door frame is provided with at least one material overflow preventing assembly which comprises an air discharge hole disposed on the door frame , characterized in that the at least one material overflow preventing assembly further comprises a receiving cavity communicated with the air discharge hole , a hollow protrusion formed on the door frame and forming the receiving cavity , a cap disposed at an outer circumference of the protrusion and covering the receiving cavity , and a material discharging passage communicated with the receiving cavity , the air discharge hole is communicated with the external, a cap disposed at an outer circumference of the protrusion and covering the receiving cavity , and the material discharging passage is communicated with the receiving space and is defined between the protrusion and the cap ; the air discharge hole extends along an extension axis , a plane perpendicular to the extension axis is defined as a first plane, a projection area of the receiving cavity on the first plane is greater than a projection area of the air discharge hole on the first plane, and the projection area of the receiving cavity on the first plane is greater than the projection area of the material discharging passage on the first plane. the door frame is provided with at least one material overflow preventing assembly which comprises an air discharge hole disposed on the door frame , characterized in that the at least one material overflow preventing assembly further comprises a receiving cavity communicated with the air discharge hole , a hollow protrusion formed on the door frame and forming the receiving cavity , a cap disposed at an outer circumference of the protrusion and covering the receiving cavity , and a material discharging passage communicated with the receiving cavity , the air discharge hole is communicated with the external, a cap disposed at an outer circumference of the protrusion and covering the receiving cavity , and the material discharging passage is communicated with the receiving space and is defined between the protrusion and the cap ; the air discharge hole extends along an extension axis , a plane perpendicular to the extension axis is defined as a first plane, a projection area of the receiving cavity on the first plane is greater than a projection area of the air discharge hole on the first plane, and the projection area of the receiving cavity on the first plane is greater than the projection area of the material discharging passage on the first plane.
Apparatus designed to transmit and receive electromagnetic waves (EM waves) for the purpose of determining and monitoring a level of a medium in a vessel by means of the transit times of the EM waves, said apparatus comprising - a first waveguide with - a first coupling element (P1) to which a corresponding electrical high-frequency signal (HF) can be applied for the purpose of coupling and decoupling the EM waves, wherein a first front face of the first waveguide is closed and a second front face of the first waveguide is open, such that the EM waves that decouple via the first coupling element (P1) are emitted via the second front face and the EM waves that are received via the second front face of the first waveguide are coupled in at the first coupling element (P1), - at least a second waveguide with - a second coupling element (P2) to which a corresponding electrical high-frequency signal (HF) can be applied for the purpose of coupling and decoupling the EM waves, wherein a first and second front face of the second waveguide are open, and wherein the first front face of the second waveguide is adjacent to the second front face of the first waveguide such that the EM waves emitted by the first waveguide are transmitted by the second waveguide and the EM waves transmitted by the second waveguide are received by the first waveguide , - a horn antenna designed to emit and focus EM waves, wherein an entry opening of the horn antenna enters into the second front face of the second waveguide , such that the EM waves transmitted by the second waveguide are emitted by the horn antenna and that the EM waves received by the horn antenna are focused into the second waveguide , wherein the first waveguide is designed in such a way that the EM waves can be generated in a first electromagnetic wave mode in the first waveguide , characterized in that the second waveguide is designed to generate the EM waves in a higher wave mode than the first wave mode. - a first waveguide with - a first coupling element (P1) to which a corresponding electrical high-frequency signal (HF) can be applied for the purpose of coupling and decoupling the EM waves, - at least a second waveguide with - a second coupling element (P2) to which a corresponding electrical high-frequency signal (HF) can be applied for the purpose of coupling and decoupling the EM waves, - a horn antenna designed to emit and focus EM waves, wherein an entry opening of the horn antenna enters into the second front face of the second waveguide , such that the EM waves transmitted by the second waveguide are emitted by the horn antenna and that the EM waves received by the horn antenna are focused into the second waveguide ,
A LED driver, comprising: a driver unit configured to deliver a current to a LED arrangement; a resistor arrangement configured to sense the current delivered and provide a feedback signal to the driver unit, wherein the feedback signal comprises a voltage across the resistor arrangement; and a fault detection unit , characterized in that the resistor arrangement comprises: a first current sensing branch comprising at least two series resistors (R1, R2) and a first sensing node (X); and a second current sensing branch, in parallel with the first current sensing branch, comprising at least two series resistors (R3, R4) and a second sensing node (Y), wherein the first sensing node (X) is a connection between two of the at least two series resistors (R1, R2) of the first current sensing branch and the second sensing node (Y) is a connection between two of the at least two series resistors (R3, R4) of the second current sensing branch, wherein the fault detection unit 15 is configured to process the voltages at the first and second sensing nodes to determine a component failure. a driver unit configured to deliver a current to a LED arrangement; a resistor arrangement configured to sense the current delivered and provide a feedback signal to the driver unit, wherein the feedback signal comprises a voltage across the resistor arrangement; and a fault detection unit , characterized in that the resistor arrangement comprises: a first current sensing branch comprising at least two series resistors (R1, R2) and a first sensing node (X); and a second current sensing branch, in parallel with the first current sensing branch, comprising at least two series resistors (R3, R4) and a second sensing node (Y), wherein the first sensing node (X) is a connection between two of the at least two series resistors (R1, R2) of the first current sensing branch and the second sensing node (Y) is a connection between two of the at least two series resistors (R3, R4) of the second current sensing branch, wherein the fault detection unit 15 is configured to process the voltages at the first and second sensing nodes to determine a component failure. a first current sensing branch comprising at least two series resistors (R1, R2) and a first sensing node (X); and a second current sensing branch, in parallel with the first current sensing branch, comprising at least two series resistors (R3, R4) and a second sensing node (Y), wherein the first sensing node (X) is a connection between two of the at least two series resistors (R1, R2) of the first current sensing branch and the second sensing node (Y) is a connection between two of the at least two series resistors (R3, R4) of the second current sensing branch, wherein the fault detection unit 15 is configured to process the voltages at the first and second sensing nodes to determine a component failure.
A composition comprising a refrigerant, wherein the refrigerant comprises (a) PFC-14 as perfluorocarbon (PFC), (b) HFO-1132a as an unsaturated compound, and (c) HFC-23, HFC-32, and HFC-125 as HFC, wherein PFC-14 is contained in an amount of 1-15 mass% based on the total amount of the refrigerant. (a) PFC-14 as perfluorocarbon (PFC), (b) HFO-1132a as an unsaturated compound, and (c) HFC-23, HFC-32, and HFC-125 as HFC,
A system comprising an electric component housing of a battery module and electric components, wherein, the electric components are accommodated in the electric component housing , and the electric component housing comprising: a housing body forming an appearance of the electric component housing ; and a metal support structure embedded inside the housing body , wherein the housing body includes a bottom portion and a wall portion , wherein the bottom portion is a portion that forms a bottom surface of the housing body and the wall portion is a portion that forms walls along a peripheral edge of the bottom portion , wherein the electric components are fixedly installed at a predetermined position on the bottom portion , and wherein the electric components are chosen among a main relay , a current sensor , a precharge relay , a register . the electric components are accommodated in the electric component housing , and the electric component housing comprising: a housing body forming an appearance of the electric component housing ; and a metal support structure embedded inside the housing body , wherein the housing body includes a bottom portion and a wall portion , wherein the bottom portion is a portion that forms a bottom surface of the housing body and the wall portion is a portion that forms walls along a peripheral edge of the bottom portion , wherein the electric components are fixedly installed at a predetermined position on the bottom portion , and wherein the electric components are chosen among a main relay , a current sensor , a precharge relay , a register . a housing body forming an appearance of the electric component housing ; and a metal support structure embedded inside the housing body , wherein the housing body includes a bottom portion and a wall portion , wherein the bottom portion is a portion that forms a bottom surface of the housing body and the wall portion is a portion that forms walls along a peripheral edge of the bottom portion , wherein the electric components are fixedly installed at a predetermined position on the bottom portion , and wherein the electric components are chosen among a main relay , a current sensor , a precharge relay , a register .
An aqueous personal care rinse off composition, comprising: a dermatologically acceptable aqueous vehicle; a dermatologically acceptable cleaning surfactant; and a suds enhancing structurant; wherein the suds enhancing structurant comprises a crosslinked cellulose ether containing 0.1 to 1.0 wt%, based on weight of the crosslinked cellulose ether, of polyether groups. a dermatologically acceptable aqueous vehicle; a dermatologically acceptable cleaning surfactant; and a suds enhancing structurant; wherein the suds enhancing structurant comprises a crosslinked cellulose ether containing 0.1 to 1.0 wt%, based on weight of the crosslinked cellulose ether, of polyether groups.
Brake assembly (14; 140; 240; 340) of a vehicle comprising - an electropneumatic braking device (26'; 26"), which has an electronic brake control and an electropneumatic directional valve device (28'; 28") and wherein a pneumatic input is connected to an output of a primary vessel air line (HBL) of the vehicle , - a shuttle valve which is connected to a first input at a pneumatic output of the electropneumatic braking device (26'; 26''), and - at least one brake cylinder which acts on a braking mechanism , characterised in that - the at least one brake cylinder is a passive brake cylinder and - in that a second input of the shuttle valve is connected to a pneumatic output (47; 73) of an emergency release device (48'; 48") and the output of the shuttle valve is connected to a pressure chamber of the at least one brake cylinder . - an electropneumatic braking device (26'; 26"), which has an electronic brake control and an electropneumatic directional valve device (28'; 28") and wherein a pneumatic input is connected to an output of a primary vessel air line (HBL) of the vehicle , - a shuttle valve which is connected to a first input at a pneumatic output of the electropneumatic braking device (26'; 26''), and - at least one brake cylinder which acts on a braking mechanism , - the at least one brake cylinder is a passive brake cylinder and - in that a second input of the shuttle valve is connected to a pneumatic output (47; 73) of an emergency release device (48'; 48") and the output of the shuttle valve is connected to a pressure chamber of the at least one brake cylinder .