mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical protection system for wind turbines with blades rotating with respect to the hub of a nacelle, wherein the electrical protection system allows transferring to the ground static electricity accumulated at the blades and current from a lightning when a lightning strikes onto the blades or at the rotor, wherein the electrical protection system comprises: - a first discharging unit configured for being in contact to some metallic part of the blade and continuously discharging to the ground, through the metallic structure of the hub, the static electricity accumulated at the blades, and - a second discharging unit configured for discharging to the ground the lightning current when there is a lightning strike event onto at least one of the blades or at the rotor, wherein the second discharging unit comprises a first spark gap (C1) with a first gap breakdown voltage (V0) and a second spark gap (C2) with a second gap breakdown voltage (V5), characterized in that the electrical protection system is in electrical contact with at least a first grounding point (GP1) of the wind generator to which the static electricity accumulated onto the blades is transferred, wherein this first grounding point (GP1) is any metallic point from the hub, and wherein the electrical protection system is in electrical contact with at least a second grounding point (GP2), which is any metallic point of the nacelle, to which the lightning current is to be transferred only during a lightning strike event. - a first discharging unit configured for being in contact to some metallic part of the blade and continuously discharging to the ground, through the metallic structure of the hub, the static electricity accumulated at the blades, and - a second discharging unit configured for discharging to the ground the lightning current when there is a lightning strike event onto at least one of the blades or at the rotor, wherein the second discharging unit comprises a first spark gap (C1) with a first gap breakdown voltage (V0) and a second spark gap (C2) with a second gap breakdown voltage (V5), characterized in that the electrical protection system is in electrical contact with at least a first grounding point (GP1) of the wind generator to which the static electricity accumulated onto the blades is transferred, wherein this first grounding point (GP1) is any metallic point from the hub, and
An automatic beverage cooler, which is comprising: - a housing with a peripheral wall forming a tank with a top access opening, the tank being at least partially filled with a cooling liquid; - a support platform assembly for supporting a plurality of beverage containers , the support platform assembly being displaceable into and out of the tank; - a displacement mechanism coupled to the support platform assembly, capable of displacing it into and out of the tank; - a cooling circuit for the cooling liquid; - temperature detectors for measuring the temperature of the beverage inside at least one container when the latter is immersed in the cooling liquid in the tank, and - a control station that is configured to control the displacement mechanism and the cooling circuit, with a user's interface for input of a desired beverage-cooling temperature; wherein the control station is configured to receive information about the temperature of the beverage in the container , sent by the temperature detectors, and to actuate the displacement mechanism to displace the support platform assembly out of the tank when the beverage temperature reaches the value of the desired cooling temperature. - a housing with a peripheral wall forming a tank with a top access opening, the tank being at least partially filled with a cooling liquid; - a support platform assembly for supporting a plurality of beverage containers , the support platform assembly being displaceable into and out of the tank; - a displacement mechanism coupled to the support platform assembly, capable of displacing it into and out of the tank; - a cooling circuit for the cooling liquid; - temperature detectors for measuring the temperature of the beverage inside at least one container when the latter is immersed in the cooling liquid in the tank, and - a control station that is configured to control the displacement mechanism and the cooling circuit, with a user's interface for input of a desired beverage-cooling temperature;
Steam cooker accessory for heating and/or steaming food contained in a container , the steam cooker accessory comprising an enclosure having an outer side wall and a bottom wall , a steam generator configured to supply steam to the enclosure , the steam generator having a steam-generating chamber connected to a steam distribution outlet provided in a lower portion of the steam generator , the enclosure including a water reservoir surrounding and supplying water to the steam-generating chamber through at least one water supply inlet , the steam-generating chamber communicating with a steam discharge outlet arranged higher than the water supply inlet , the steam-generating chamber comprising a heating device , the enclosure comprising a first side wall surrounding the heating device and at least partially delimiting the steam-generating chamber , characterised in that the enclosure comprises a second side wall surrounding the first side wall at a distance from the outer side wall , the steam-generating chamber communicating with the steam discharge outlet via a steam diffusion chamber arranged around the steam-generating chamber , the steam diffusion chamber being delimited by the first side wall and the second side wall .
A V-ribbed belt comprising a compression rubber layer having a frictional power-transmission surface, wherein the compression rubber layer comprises a cured material of a rubber composition comprising an ethylene-α-olefin elastomer and a carbon black, the carbon black comprises a soft carbon having a primary particle size of 40 nm or more and a hard carbon having a primary particle size of less than 40 nm, characterized in that the frictional power-transmission surface is covered with a knitted cloth and in that the ratio of the number of particles between the soft carbon and the hard carbon satisfies a relation of former/latter =3/97 to 25/75. the compression rubber layer comprises a cured material of a rubber composition comprising an ethylene-α-olefin elastomer and a carbon black, the carbon black comprises a soft carbon having a primary particle size of 40 nm or more and a hard carbon having a primary particle size of less than 40 nm, characterized in that the frictional power-transmission surface is covered with a knitted cloth and in that the ratio of the number of particles between the soft carbon and the hard carbon satisfies a relation of former/latter =3/97 to 25/75.
An agricultural harvesting machine having a multiple stage compression system comprising: a pickup mechanism which gathers a crop material from an associated ground surface; a first compression system including a first compression mechanism which partially compresses the crop material in a compression chamber received from the pickup mechanism ; and a second compression system characterized in that the second compression system includes first and second compartments each having at least one open end and positioned rearward of the compression chamber , the second compression system having a first position in which the second compartment is aligned with the compression chamber and the first compartment is operatively positioned with a second compression mechanism , the second compression system having a second position in which the second compartment is operatively positioned with a third compression mechanism and the first compartment is aligned with the compression chamber , and the second compression system including a first binding system operatively associated with the second compression mechanism . a pickup mechanism which gathers a crop material from an associated ground surface; a first compression system including a first compression mechanism which partially compresses the crop material in a compression chamber received from the pickup mechanism ; and a second compression system characterized in that the second compression system includes first and second compartments each having at least one open end and positioned rearward of the compression chamber , the second compression system having a first position in which the second compartment is aligned with the compression chamber and the first compartment is operatively positioned with a second compression mechanism , the second compression system having a second position in which the second compartment is operatively positioned with a third compression mechanism and the first compartment is aligned with the compression chamber , and the second compression system including a first binding system operatively associated with the second compression mechanism .
A method for incorporating subscriber identity data into a subscriber identity module , with the subscriber identity module being incorporated in ready-to-operate condition in an end device , and the subscriber identity module being arranged to manage a plurality of subscriber identity data and to receive subscriber identity data , and with said subscriber identity data being stored in a file system , having in the subscriber identity module the method steps of: - receiving a load command for subscriber identity data to be received in the subscriber identity module of a subscriber identity data management ; - preparing the file system in a memory area of the subscriber identity module for storing subscriber identity data ; - receiving subscriber identity data in the subscriber identity module ; - storing the subscriber identity data in the prepared file system ; and - checking the data integrity of the received subscriber identity data by the subscriber identity module ; wherein in the step of storing, the received subscriber identity data are stored in a shadow directory in the file system of the subscriber identity module , and wherein for activating the stored subscriber identity data , the shadow directory is renamed to a root directory of the file system of the subscriber identity module . - receiving a load command for subscriber identity data to be received in the subscriber identity module of a subscriber identity data management ; - preparing the file system in a memory area of the subscriber identity module for storing subscriber identity data ; - receiving subscriber identity data in the subscriber identity module ; - storing the subscriber identity data in the prepared file system ; and - checking the data integrity of the received subscriber identity data by the subscriber identity module ;
An optical sorter comprising: a chute arranged to slope and to allow a raw material as objects to be sorted out to flow down; optical detection means for detecting the objects to be sorted out dropping from a lower end of the chute ; ejector means for sorting out and excluding the objects to be sorted out on the basis of a detection result by the optical detection means ; and a discharge hopper for separately discharging the objects sorted out by the ejector means, wherein the optical sorter further comprising: a frame having a pair of right and left sidewalls which are screw-fixed to a base , and wherein the chute , the optical detection means , the ejector means and the discharge hopper are attached to the frame , characterized in that the sidewalls of the frame are coupled with braces in a diagonal shape. a chute arranged to slope and to allow a raw material as objects to be sorted out to flow down; optical detection means for detecting the objects to be sorted out dropping from a lower end of the chute ; ejector means for sorting out and excluding the objects to be sorted out on the basis of a detection result by the optical detection means ; and a discharge hopper for separately discharging the objects sorted out by the ejector means, wherein the optical sorter further comprising: a frame having a pair of right and left sidewalls which are screw-fixed to a base , and wherein the chute , the optical detection means , the ejector means and the discharge hopper are attached to the frame , characterized in that the sidewalls of the frame are coupled with braces in a diagonal shape.
A system for monitoring wind turbine loading, the system comprising: a main shaft ; a bedplate ; a gearbox coupled to the main shaft and mounted to the bedplate , the gearbox comprising an outer casing and a torque arm extending from the outer casing ; an isolation mount coupled to the torque arm , wherein the torque arm and isolation mount each define a bore hole therethrough, and further defining a pin extending through the bore holes of the torque arm and the isolation mount , coupling the isolation mount to the torque arm , and a sensor configured to measure displacement of the torque arm , wherein the sensor is mounted within the isolation mount and is configured to indirectly measure displacement of the torque arm by measuring displacement of the pin . a bedplate ; a gearbox coupled to the main shaft and mounted to the bedplate , the gearbox comprising an outer casing and a torque arm extending from the outer casing ; an isolation mount coupled to the torque arm , wherein the torque arm and isolation mount each define a bore hole therethrough, and further defining a pin extending through the bore holes of the torque arm and the isolation mount , coupling the isolation mount to the torque arm , and a sensor configured to measure displacement of the torque arm , wherein the sensor is mounted within the isolation mount and is configured to indirectly measure displacement of the torque arm by measuring displacement of the pin .
Pneumatic vehicle tyre of a radial type of construction with a carcass insert , two belt plies and a belt bandage , wherein, in the lateral belt regions, a bracing strip , which runs over the circumference of the tyre while in contact with the radially inner belt ply and the carcass insert , is respectively arranged radially within the radially inner belt ply , wherein each belt ply has reinforcing elements (2'a, 2'b), which run parallel to one another and at an angle (α) of 20° to 40° to the circumferential direction, and wherein the reinforcing elements (2'a) in the one belt ply cross the reinforcing elements (2'b) in the other belt ply , and wherein the bracing strips comprise steel filaments (2'c), which are embedded in rubber material, run parallel to one another and at an angle (β) of at least 55° to the circumferential direction and have a diameter or a thickness, determined in the radial direction, of 0.2 mm to 0.5 mm and a tensile strength of 3050 N/mm 2 to 3650 N/mm 2 , characterized in that the bracing strips have in the axial direction a width (b 2 ) of 20% to 35% of the width (b 1 ) of the wider belt ply and in that the angle (β) of the steel filaments in the bracing strips in relation to the circumferential direction is greater by 30° to 40° than the angle (α) at which the reinforcing elements (2'a, 2'b) run in the two belt plies .
Air-water heat pump , which is configured as an internally installed air-water heat pump for installation in an installation room, having - a refrigerant circuit , - a hydraulic circuit, - a chamber, referred to as evaporator chamber , which is sealed off externally from the installation room, - a further chamber, referred to as refrigerant chamber, - an evaporator , which is part of the refrigerant circuit, - a fan , which is set up to direct air over the evaporator , - a condenser , which is part of the refrigerant circuit, - a compressor, which is part of the refrigerant circuit, wherein the hydraulic circuit comprises the condenser, wherein the evaporator and the fan are arranged in the evaporator chamber , wherein the condenser and the compressor are arranged in the refrigerant chamber, wherein the air-water heat pump comprises an air duct adjacent to the fan, which is configured such that the fan conveys air from the evaporator chamber to outside the installation room, characterised in that the air-water heat pump comprises a safety valve , which is arranged in the hydraulic circuit downstream of the condenser , and has a hydraulic connection between the safety valve and the evaporator chamber . - a refrigerant circuit , - a hydraulic circuit, - a chamber, referred to as evaporator chamber , which is sealed off externally from the installation room, - a further chamber, referred to as refrigerant chamber, - an evaporator , which is part of the refrigerant circuit, - a fan , which is set up to direct air over the evaporator , - a condenser , which is part of the refrigerant circuit, - a compressor, which is part of the refrigerant circuit, wherein the hydraulic circuit comprises the condenser, wherein the evaporator and the fan are arranged in the evaporator chamber , wherein the condenser and the compressor are arranged in the refrigerant chamber, wherein the air-water heat pump comprises an air duct adjacent to the fan, which is configured such that the fan conveys air from the evaporator chamber to outside the installation room, comprises a safety valve , which is arranged in the hydraulic circuit downstream of the condenser , and has a hydraulic connection between the safety valve and the evaporator chamber .
A method for diagnosis and monitoring of cancer in a patient, the method comprising: using a cell-free nucleic acid sample obtained from the patient; using a selector set to enrich for cell-free DNA that corresponds to the regions of the genome that are most likely to contain tumor-specific somatic mutations; wherein enrichment is by hybridizing the nucleic acids to a plurality of oligonucleotides that selectively hybridize to such regions of the genome; amplifying and sequencing the selected cell-free DNA to determine which of the selected genomic regions are mutated in the tumor; optionally comparing the sequence of the selected cell-free DNA with the individual's germline DNA sequence to distinguish somatic mutations present in the tumor, and detecting the tumor-specific mutation in the cell-free nucleic acid sample, wherein the selector set comprises genomic regions comprising one or more mutations present in one or more subjects from a population of cancer subjects. using a cell-free nucleic acid sample obtained from the patient; using a selector set to enrich for cell-free DNA that corresponds to the regions of the genome that are most likely to contain tumor-specific somatic mutations; wherein enrichment is by hybridizing the nucleic acids to a plurality of oligonucleotides that selectively hybridize to such regions of the genome; amplifying and sequencing the selected cell-free DNA to determine which of the selected genomic regions are mutated in the tumor; optionally comparing the sequence of the selected cell-free DNA with the individual's germline DNA sequence to distinguish somatic mutations present in the tumor, and detecting the tumor-specific mutation in the cell-free nucleic acid sample, wherein the selector set comprises genomic regions comprising one or more mutations present in one or more subjects from a population of cancer subjects.
Vessel (G) which accommodates a metal element in its base ,wherein the vessel (G) is a glass vessel , and the vessel (G) comprises a lower recess in the base which accommodates the metal element , wherein the metal element is bonded to the base by means of a transparent adhesive at the bottom of the recess , such that the surface of the metal element facing the bottom of the recess is completely covered by a thin adhesive film and, the bottom of the recess adjacent to the metal element is also completely covered by the adhesive , such that the bottom of the recess is completely sealed and, the metal element is completely embedded by a transparent plastic which fills up a remaining area of the recess and which adheres to the vessel (G) and the metal element , and wherein the vessel (G), the recess and the metal element are formed axially symmetrical to an axis (X), characterised in that the metal element is a magnetic metal element , and the recess is formed as a flat truncated cone with a base surface with a first diameter and a top surface with a second diameter and a height , wherein the base surface of the truncated cone is the aperture plane of the recess on the lower surface of the base and the top surface of the truncated cone is the bottom of the recess , and wherein the depth of the recess corresponds to the height of the truncated cone, and wherein the height of the truncated cone and the diameter of its base surface and the diameter of its top surface are each selected in such a predetermined manner that a half aperture angle (12α) of the truncated cone and of the recess , respectively is between 15 and 30 degrees. the metal element is bonded to the base by means of a transparent adhesive at the bottom of the recess , such that the surface of the metal element facing the bottom of the recess is completely covered by a thin adhesive film and, the bottom of the recess adjacent to the metal element is also completely covered by the adhesive , such that the bottom of the recess is completely sealed and, the metal element is completely embedded by a transparent plastic which fills up a remaining area of the recess and which adheres to the vessel (G) and the metal element , and wherein the vessel (G), the recess and the metal element are formed axially symmetrical to an axis (X), characterised in that the metal element is a magnetic metal element , and the recess is formed as a flat truncated cone with a base surface with a first diameter and a top surface with a second diameter and a height , wherein the base surface of the truncated cone is the aperture plane of the recess on the lower surface of the base and the top surface of the truncated cone is the bottom of the recess , and wherein the depth of the recess corresponds to the height of the truncated cone, and wherein the height of the truncated cone and the diameter of its base surface and the diameter of its top surface are each selected in such a predetermined manner that a half aperture angle (12α) of the truncated cone and of the recess , respectively is between 15 and 30 degrees.