mhurhangee/patent-ind-claim-en huggingface dataset:
Guanidinium-based ionic liquid compound of formula (I) [CAT+] [X - ] (I) wherein [CAT + ] represents 1,1,3,3-tetramethylguanidinium and [X - ] represents one or more species selected from compounds of formula (II): wherein - A represents an aryl group comprising from 6 to 12 carbon atoms; - R is selected from the group consisting of hydrogen, linear or branched, alkyl or alkenyl groups comprising from 1 to 30 carbon atoms, aryl groups comprising from 6 to 30 carbon atoms; - Y represents a linear or branched alkanediyl group comprising from 1 to 6 carbon atoms; and - n represents an integer from 1 to 20. wherein [CAT + ] represents 1,1,3,3-tetramethylguanidinium and [X - ] represents one or more species selected from compounds of formula (II): wherein - A represents an aryl group comprising from 6 to 12 carbon atoms; - R is selected from the group consisting of hydrogen, linear or branched, alkyl or alkenyl groups comprising from 1 to 30 carbon atoms, aryl groups comprising from 6 to 30 carbon atoms; - Y represents a linear or branched alkanediyl group comprising from 1 to 6 carbon atoms; and - n represents an integer from 1 to 20. - A represents an aryl group comprising from 6 to 12 carbon atoms; - R is selected from the group consisting of hydrogen, linear or branched, alkyl or alkenyl groups comprising from 1 to 30 carbon atoms, aryl groups comprising from 6 to 30 carbon atoms; - Y represents a linear or branched alkanediyl group comprising from 1 to 6 carbon atoms; and - n represents an integer from 1 to 20.
An apparatus for providing a patient specific 3D model of a body part, the apparatus comprising: - an input unit ; and - a processing unit ; wherein, the input unit is configured to provide at least one 2D X-ray image comprising 2D X-ray image data of a vascular structure of a patient's body part; wherein, the input unit is configured to provide a 3D model of the body part, the 3D model comprising a 3D modelled vascular structure, wherein at least one parameter commands an appearance of the 3D modelled vascular structure and wherein the 3D model is a generic model of the body part; wherein, the processing unit is configured to compare the 3D modelled vascular structure with the 2D X-ray image data of the vascular structure to determine the at least one parameter; wherein, the processing unit is configured to update the 3D model as a function of the determined at least one parameter; and wherein, the processing unit is configured to generate a medical report based on information determined from the 3D model. - an input unit ; and - a processing unit ;
Intrusion-preventing device for at least one frame of a building, characterized in that it comprises at least one fastening system, adapted to connect said intrusion-preventing device to at least one wall recess for housing said frame , and at least one central element , said central element being composed of: - at least one internal tubular element , equipped at an end with a second connecting element adapted to be strictly coupled with a second component of said fastening system, and equipped on an external surface with a plurality of holes adapted to connectingly receive at least one projection placed on the lower surface of a first end of at least one or more blocking elements ; - at least one external tubular element , equipped at an end with a first connecting element adapted to be strictly coupled with a first component of said fastening system, said at least one external tubular element being adapted to coaxially receive said internal tubular element so that it telescopically slides inside said external tubular element ; and - at least one fastening element , arranged at an end of said external tubular element , equipped on an external surface with a plurality of housings adapted to connectingly receive a second end of each of said blocking elements . - at least one internal tubular element , equipped at an end with a second connecting element adapted to be strictly coupled with a second component of said fastening system, and equipped on an external surface with a plurality of holes adapted to connectingly receive at least one projection placed on the lower surface of a first end of at least one or more blocking elements ; - at least one external tubular element , equipped at an end with a first connecting element adapted to be strictly coupled with a first component of said fastening system, said at least one external tubular element being adapted to coaxially receive said internal tubular element so that it telescopically slides inside said external tubular element ; and - at least one fastening element , arranged at an end of said external tubular element , equipped on an external surface with a plurality of housings adapted to connectingly receive a second end of each of said blocking elements .
A vane cell pump, comprising: 1.1 a rotor which can be rotated about a rotational axis (R), and one or more vanes which can (each) be moved back and forth in a respective vane receptacle of the rotor ; 1.2 a cam structure which surrounds the rotor and, when the rotor is rotationally moved, guides the vane(s) such that delivery cells which periodically increase and decrease in size are formed; 1.3 an end plate axially facing the rotor and comprising a pressure passage for discharging pressure fluid and a supply passage for supplying a sub-vane region with pressure fluid; 1.4 a flow channelling device (20; 20, 30; 20, 30, 40) on an end face of the end plate facing axially away from the rotor ; 1.5 a first outlet region for discharging a first partial flow (S1) of the pressure fluid flowing through the pressure passage ; 1.6 a second outlet region for discharging a second partial flow (S2) of the pressure fluid flowing through the pressure passage ; 1.7 a first flow path (P1) along which the first partial flow (S1) flows through the first outlet region ; 1.8 a second flow path (P2) which connects the pressure passage to the supply passage , diverges from the first flow path (P1) and is delineated by the flow channelling device (20; 20, 30; 20, 30, 40); 1.9 and a third flow path (P3) which connects the supply passage to the second outlet region and is delineated by the flow channelling device (20; 20, 30; 20, 30, 40), characterised in that 1.10 the first outlet region overlaps with a downstream outlet opening of the pressure passage as viewed axially. 1.1 a rotor which can be rotated about a rotational axis (R), and one or more vanes which can (each) be moved back and forth in a respective vane receptacle of the rotor ; 1.2 a cam structure which surrounds the rotor and, when the rotor is rotationally moved, guides the vane(s) such that delivery cells which periodically increase and decrease in size are formed; 1.3 an end plate axially facing the rotor and comprising a pressure passage for discharging pressure fluid and a supply passage for supplying a sub-vane region with pressure fluid; 1.4 a flow channelling device (20; 20, 30; 20, 30, 40) on an end face of the end plate facing axially away from the rotor ; 1.5 a first outlet region for discharging a first partial flow (S1) of the pressure fluid flowing through the pressure passage ; 1.6 a second outlet region for discharging a second partial flow (S2) of the pressure fluid flowing through the pressure passage ; 1.7 a first flow path (P1) along which the first partial flow (S1) flows through the first outlet region ; 1.8 a second flow path (P2) which connects the pressure passage to the supply passage , diverges from the first flow path (P1) and is delineated by the flow channelling device (20; 20, 30; 20, 30, 40); 1.9 and a third flow path (P3) which connects the supply passage to the second outlet region and is delineated by the flow channelling device (20; 20, 30; 20, 30, 40), characterised in that 1.10 the first outlet region overlaps with a downstream outlet opening of the pressure passage as viewed axially.
Method for generating an apparatus-specific apparatus certificate (18, 18a - 18c) for an apparatus (1, 1a - 1c), comprising: coupling (S1) a security device to the apparatus (1, 1a - 1c), wherein a one-time useable private signing key is stored in the security device; generating apparatus-specific identification information (21a - 21c) in the security device ; storing (S2) the apparatus-specific identification information (21a - 21c) in the security device ; accessing (S3) the private signing key in the security device ; generating (S4) the apparatus-specific apparatus certificate (18, 18a - 18c) depending on the stored identification information (21a - 21c) in the security device , wherein the apparatus-specific apparatus certificate (18, 18a - 18c) is signed using the private signing key ; and preventing (S5) a further access to the private signing key . coupling (S1) a security device to the apparatus (1, 1a - 1c), wherein a one-time useable private signing key is stored in the security device; generating apparatus-specific identification information (21a - 21c) in the security device ; storing (S2) the apparatus-specific identification information (21a - 21c) in the security device ; accessing (S3) the private signing key in the security device ; generating (S4) the apparatus-specific apparatus certificate (18, 18a - 18c) depending on the stored identification information (21a - 21c) in the security device , wherein the apparatus-specific apparatus certificate (18, 18a - 18c) is signed using the private signing key ; and preventing (S5) a further access to the private signing key .
Domestic appliance comprising a fragrance-source holder and comprising a fragrancing unit for receiving a fragrance-source holder , wherein the fragrance-source holder is designed to be removed from the fragrancing unit and inserted into the fragrancing unit, wherein the fragrance-source holder comprises at least one receptacle for at least one fragrance source, wherein the receptacle is horizontally oriented, wherein the fragrance-source holder comprises at least one collecting element , wherein the collecting element is arranged vertically (Z) below the receptacle which is provided for collecting the liquid fragrance in the event of a liquid fragrance escaping from the fragrance source, wherein the fragrance-source holder comprises at least one stand element which is designed to provide a secure stand for the fragrance-source holder removed from the fragrancing unit, in which stand the receptacle is horizontally oriented, characterised in that the domestic appliance is designed as an extractor hood and the fragrancing unit has a fan for generating an air flow, wherein the fragrancing unit is electrically supplied by the domestic appliance. wherein the fragrance-source holder is designed to be removed from the fragrancing unit and inserted into the fragrancing unit, wherein the fragrance-source holder comprises at least one receptacle for at least one fragrance source, wherein the receptacle is horizontally oriented, wherein the fragrance-source holder comprises at least one collecting element , wherein the collecting element is arranged vertically (Z) below the receptacle which is provided for collecting the liquid fragrance in the event of a liquid fragrance escaping from the fragrance source, wherein the fragrance-source holder comprises at least one stand element which is designed to provide a secure stand for the fragrance-source holder removed from the fragrancing unit, in which stand the receptacle is horizontally oriented, characterised in that the domestic appliance is designed as an extractor hood and the fragrancing unit has a fan for generating an air flow, wherein the fragrancing unit is electrically supplied by the domestic appliance.
A transmission device comprising: an image encoding unit configured to perform hierarchical encoding on image data of each picture that constitutes moving image data and generate a base stream having encoded image data of pictures in lower hierarchies and an enhanced stream having encoded image data of pictures in a higher hierarchy, which is a higher hierarchy than a highest hierarchy that any picture of the base stream can have, wherein the hierarchies of the pictures included in the base stream and the hierarchy of the pictures included in the enhanced stream are within previously allocated respective ranges, which are independent from each other; and a transmission unit configured to transmit a container in a predetermined format that includes the base stream and the enhanced stream which are generated by the image encoding unit. an image encoding unit configured to perform hierarchical encoding on image data of each picture that constitutes moving image data and generate a base stream having encoded image data of pictures in lower hierarchies and an enhanced stream having encoded image data of pictures in a higher hierarchy, which is a higher hierarchy than a highest hierarchy that any picture of the base stream can have, wherein the hierarchies of the pictures included in the base stream and the hierarchy of the pictures included in the enhanced stream are within previously allocated respective ranges, which are independent from each other; and a transmission unit configured to transmit a container in a predetermined format that includes the base stream and the enhanced stream which are generated by the image encoding unit.
A method of packaging and sterilizing a medical device, comprising: providing a pre-filled medical device ; providing a pouch using a heat-sealable film, the film including a gas permeable section attached to a separate gas-impermeable section to form a gas impermeable chamber and a gas-permeable header ; the pouch having a front panel and a back panel, the front panel and the back panel each having a top edge , a bottom edge , two side edges , at least one of the front panel or the back panel has a portion containing the gas permeable header ; placing the medical device in the gas-impermeable section of the film; sealing the top edge , bottom edge , and two side edges of the front panel to the respective top edge , bottom edge , and two side edges of the back panel creating a completely enclosed pouch; interior seals are used around the medical device, leaving an opening toward the gas-permeable header ; sterilizing the medical device with a first sterilizing agent provided through the gas-permeable header to the gas impermeable chamber , the first sterilizing agent being free of ethylene oxide; sealing opening to form a gas impermeable chamber around medical device within the pouch ; removing the gas permeable header resulting in a medical device packaged within the gas impermeable chamber such that the medical device is fully enclosed in the pouch consisting only of sealed gas-impermeable film; and sterilizing the gas impermeable chamber with a second sterilizing agent. providing a pouch using a heat-sealable film, the film including a gas permeable section attached to a separate gas-impermeable section to form a gas impermeable chamber and a gas-permeable header ; the pouch having a front panel and a back panel, the front panel and the back panel each having a top edge , a bottom edge , two side edges , at least one of the front panel or the back panel has a portion containing the gas permeable header ; placing the medical device in the gas-impermeable section of the film; sealing the top edge , bottom edge , and two side edges of the front panel to the respective top edge , bottom edge , and two side edges of the back panel creating a completely enclosed pouch; interior seals are used around the medical device, leaving an opening toward the gas-permeable header ; sterilizing the medical device with a first sterilizing agent provided through the gas-permeable header to the gas impermeable chamber , the first sterilizing agent being free of ethylene oxide; sealing opening to form a gas impermeable chamber around medical device within the pouch ; removing the gas permeable header resulting in a medical device packaged within the gas impermeable chamber such that the medical device is fully enclosed in the pouch consisting only of sealed gas-impermeable film; and sterilizing the gas impermeable chamber with a second sterilizing agent.
An electrically conductive resin composition comprising: a first copolymer, which contains a rubber component having an average particle diameter of 1 μm to 5 μm, at 10 wt% to 35 wt%; a second copolymer, which contains a rubber component having an average particle diameter of 1 μm to 3 μm, at 20 wt% to 40 wt%; a third copolymer, which contains a rubber component having an average particle diameter of 5 μm to 7 μm, at 20 wt% to 40 wt%; a conductive filler at 0.1 wt% to 10 wt%; and an additive at 0 wt% to 10 wt%, wherein said first, second and third copolymer is styrene-butadiene copolymer. a first copolymer, which contains a rubber component having an average particle diameter of 1 μm to 5 μm, at 10 wt% to 35 wt%; a second copolymer, which contains a rubber component having an average particle diameter of 1 μm to 3 μm, at 20 wt% to 40 wt%; a third copolymer, which contains a rubber component having an average particle diameter of 5 μm to 7 μm, at 20 wt% to 40 wt%; a conductive filler at 0.1 wt% to 10 wt%; and an additive at 0 wt% to 10 wt%, wherein said first, second and third copolymer is styrene-butadiene copolymer.
A fabric device comprising a fabric ) and an electronic module , said fabric ) including a fabric body ) configured to contact or to be worn on an object, said fabric body having a first surface configured to contact the object, and a second surface opposite to said first surface , said fabric body being internally formed with a passage unit , said passage unit having a plurality of passages ; and said electronic module disposed in said fabric body and including a plurality of electronic components , in the form of strips, extending into said passage unit ; characterized in that the plurality of passages intersect and communicate with each other so as to cooperate to form a plurality of shapes, the shapes being one of a plurality of 8s, squares, triangles, hexagons or circles such that the electronic components in the form of strips can be arranged in different ways in the passage unit to conform to different requirements. said fabric ) including a fabric body ) configured to contact or to be worn on an object, said fabric body having a first surface configured to contact the object, and a second surface opposite to said first surface , said fabric body being internally formed with a passage unit , said passage unit having a plurality of passages ; and said electronic module disposed in said fabric body and including a plurality of electronic components , in the form of strips, extending into said passage unit ; characterized in that the plurality of passages intersect and communicate with each other so as to cooperate to form a plurality of shapes, the shapes being one of a plurality of 8s, squares, triangles, hexagons or circles such that the electronic components in the form of strips can be arranged in different ways in the passage unit to conform to different requirements.
A method for sequencing a nucleic acid using a contact reaction protocol, the contact reaction protocol comprising the following steps: a) providing a first batch of solid supports having nucleic acid molecules immobilized thereon, b) contacting the nucleic acid molecules immobilized on the solid supports with one or more reaction solutions to generate a signal representing one or more nucleotides that bind to the nucleic acid molecules on the solid supports, wherein each of the one or more reaction solutions is placed in a separate reaction container, wherein, after removing the contact between the solid supports and the reaction solutions, contacting the solid supports with one or more washing solutions to remove the reaction solutions remaining on the solid supports, c) detecting the signal on the solid supports, and f) repeating the steps b) to c), wherein the solid support is not installed inside a flow cell to allow interaction with a solution of multiple reagents, wherein the first batch of solid supports consists of one or more solid supports. a) providing a first batch of solid supports having nucleic acid molecules immobilized thereon, b) contacting the nucleic acid molecules immobilized on the solid supports with one or more reaction solutions to generate a signal representing one or more nucleotides that bind to the nucleic acid molecules on the solid supports, wherein each of the one or more reaction solutions is placed in a separate reaction container, wherein, after removing the contact between the solid supports and the reaction solutions, contacting the solid supports with one or more washing solutions to remove the reaction solutions remaining on the solid supports, c) detecting the signal on the solid supports, and f) repeating the steps b) to c), wherein the solid support is not installed inside a flow cell to allow interaction with a solution of multiple reagents, wherein the first batch of solid supports consists of one or more solid supports.
Pedal for motor vehicles comprising a lever , an actuator element and coupling means for coupling the lever and the actuator element , the actuator element transmitting an actuation force (F) applied on the lever to an actuator, said lever comprising an axis of rotation and an opening going through the lever , the actuator element comprising engagement means , and the coupling means comprising a shaft arranged such that it goes through the opening of the lever , said shaft being coupled to the engagement means of the actuator element , the shaft allowing pivotally coupling the actuator element and the lever , and elastic pressure means arranged inside the opening of the lever , the coupling means comprising a transmission element (40; 60) fixed in the opening of the lever , the transmission element (40; 60) comprising the elastic pressure means , characterized in that the elastic pressure means assure permanent and rigid transmission of the actuation force (F) between the lever and the actuator element , the transmission element (40; 60) comprising a main body, the elastic pressure means comprising at least one flexible element projecting from the main body of the transmission element (40; 60) and being compressed when the pedal is mounted, the flexible element being a flexible flange, the transmission element (40; 60) of the coupling means comprising positioning means fixed to the opening of the lever , the positioning means allowing orienting the elastic pressure means to apply pressure in a certain direction (D).
A nanofiber structure formed of polyhydroxyalkanoic acid manufacturable by an electrospray deposition method, wherein the polyhydroxyalkanoic acid includes polyhydroxybutylate as a main component, wherein the nanofiber structure is degraded by microorganisms in soil in a natural environment, and wherein the nanofiber structure has a porosity of 50% or more.