mhurhangee/patent-ind-claim-en huggingface dataset:
Tyre comprising a tread band having one or more reliefs (3', 3") with circumferential development, and a noise-reducing element applied on an inner surface of said tyre and extending along a prevalent portion of a circumferential development of the inner surface , wherein said noise-reducing element comprises a series of radially through openings , wherein said series of openings extends along said circumferential development of the inner surface , wherein said series of openings is placed so that at least a prevalent portion of an overall top view area of the openings of said series of openings is placed at one relief of said one or more reliefs (3', 3"), wherein said noise-reducing element comprises one or more further series of radially through openings , wherein each further series of openings extends along said circumferential development of the inner surface , wherein the openings are arranged onto said noise-reducing element according to an ordered scheme, wherein said ordered scheme comprises a base module repeated along said circumferential development, wherein said base module comprises a first set of openings belonging to said series of openings and a second set of openings for each of said one or more further series of openings , wherein said noise-reducing element comprises a plurality of noise-reducing sub-elements applied circumferentially in sequence along said circumferential development of the inner surface of said tyre , characterized in that each noise-reducing sub-element comprises one base module . wherein said noise-reducing element comprises one or more further series of radially through openings , wherein each further series of openings extends along said circumferential development of the inner surface , wherein the openings are arranged onto said noise-reducing element according to an ordered scheme, wherein said ordered scheme comprises a base module repeated along said circumferential development, wherein said base module comprises a first set of openings belonging to said series of openings and a second set of openings for each of said one or more further series of openings , wherein said noise-reducing element comprises a plurality of noise-reducing sub-elements applied circumferentially in sequence along said circumferential development of the inner surface of said tyre , characterized in that each noise-reducing sub-element comprises one base module .
A gas delivery device, comprising: a nitric oxide (NO) generating system, including: a chamber; an NO cartridge contained within the chamber, the NO cartridge including: a light transparent substrate that is transparent to one or more wavelengths of light ranging from about 300 nm to about 600 nm; a solid, light sensitive NO donor immobilized on a surface of the light transparent substrate via an adhesive that is transparent to wavelengths of light ranging from about 300 nm to about 600 nm; and a porous membrane positioned on the solid, light sensitive NO donor and adhered to the light transparent substrate; a light source operatively positioned to selectively expose the solid, light sensitive NO donor to light through the light transparent substrate to generate NO gas; an inspiratory gas conduit operatively connected to the chamber to introduce an oxygen-containing gas and form an output gas including the NO gas; and an outlet conduit to transport a stream of the output gas from the NO generating system. a chamber; an NO cartridge contained within the chamber, the NO cartridge including: a light transparent substrate that is transparent to one or more wavelengths of light ranging from about 300 nm to about 600 nm; a solid, light sensitive NO donor immobilized on a surface of the light transparent substrate via an adhesive that is transparent to wavelengths of light ranging from about 300 nm to about 600 nm; and a porous membrane positioned on the solid, light sensitive NO donor and adhered to the light transparent substrate; a light source operatively positioned to selectively expose the solid, light sensitive NO donor to light through the light transparent substrate to generate NO gas; an inspiratory gas conduit operatively connected to the chamber to introduce an oxygen-containing gas and form an output gas including the NO gas; and an outlet conduit to transport a stream of the output gas from the NO generating system. a light transparent substrate that is transparent to one or more wavelengths of light ranging from about 300 nm to about 600 nm; a solid, light sensitive NO donor immobilized on a surface of the light transparent substrate via an adhesive that is transparent to wavelengths of light ranging from about 300 nm to about 600 nm; and a porous membrane positioned on the solid, light sensitive NO donor and adhered to the light transparent substrate; a light source operatively positioned to selectively expose the solid, light sensitive NO donor to light through the light transparent substrate to generate NO gas; an inspiratory gas conduit operatively connected to the chamber to introduce an oxygen-containing gas and form an output gas including the NO gas; and an outlet conduit to transport a stream of the output gas from the NO generating system.
A method for operating a computerized numerical control machine and for machining a dental work piece , wherein the computerized numerical control machine comprises a chucking device for chucking the dental work piece and a machining device for machining the dental work piece , wherein the dental work piece chucked in the chucking device is machined by the machining device of the computerized numerical control machine when the computerized numerical control device is operated in a machining mode (BM), wherein the computerized numerical control machine comprises a housing , a first drive device , a second drive device , a third drive device and a machining tool in the form of a milling tool, a driller or a grinder, the machining tool being chucked in the machining device , wherein the computerized numerical control machine comprises a first spatial axis (X), a second spatial axis (Y) and a third spatial axis (Z), wherein the chucking device is movable by the first drive device relative to the housing about or along at least one axis (X, A, B), the machining device is movable by the second drive device relative to the housing about or along at least one axis (Y, Z) and the machining tool chucked in the machining device can be driven in a rotary manner by the third drive device about a machining axis (C), characterized in that based on a test specimen at least one calibration parameter (K) of the computerized numerical control machine is verified and at least one correction value (Q) is determined when the computerized numerical control machine is operated in a calibration mode (KM), wherein in the machining mode (BM) the computerized numerical control machine is operated depending on the at least one correction value (Q), wherein it is verified which angle a rotary axis (A) of the chucking device has compared to a plane (YZ) which is spanned by the second spatial axis (Y) and by the third spatial axis (Z), wherein the verification is carried out in that a verification feeler is moved along the second spatial axis (Y) and based on the difference of the scanned points compared to the third spatial axis (Z) the angle of the rotary axis (A) of the chucking device relative to the plane (YZ) is calculated, wherein the orientation of the rotary axis (A) of the chucking device relative to the plane (YZ) forms a calibration parameter (K).
A purification method comprising: adding a mixture including a target substance to a first container; adding magnetic beads to the first container; separating the target substance from a remainder of the mixture in the first container with the magnetic beads, wherein the target substance temporarily binds to the magnetic beads; transferring a first volume of the mixture and a first quantity of the magnetic beads from the first container to a second container, wherein a volume of the second container is less than a volume of the first container; applying a magnetic field to hold the first quantity of the magnetic beads against an interior surface of the second container; removing the first volume of the mixture from the second container while the magnetic field holds the first quantity of the magnetic beads against the interior surface of the second container; transferring a second volume of the mixture and a second quantity of the magnetic beads from the first container to the second container; and removing the second volume of the mixture from the second container while the magnetic field holds the first and second quantities of the magnetic beads against the interior surface of the second container. adding a mixture including a target substance to a first container; adding magnetic beads to the first container; separating the target substance from a remainder of the mixture in the first container with the magnetic beads, wherein the target substance temporarily binds to the magnetic beads; transferring a first volume of the mixture and a first quantity of the magnetic beads from the first container to a second container, wherein a volume of the second container is less than a volume of the first container; applying a magnetic field to hold the first quantity of the magnetic beads against an interior surface of the second container; removing the first volume of the mixture from the second container while the magnetic field holds the first quantity of the magnetic beads against the interior surface of the second container; transferring a second volume of the mixture and a second quantity of the magnetic beads from the first container to the second container; and removing the second volume of the mixture from the second container while the magnetic field holds the first and second quantities of the magnetic beads against the interior surface of the second container.
A unit display screen , comprising a display panel and a frame surrounding the display panel , wherein the frame comprises a first frame which comprises a first part and a second part sequentially from the display panel side in a direction perpendicular to the display panel , and in a direction parallel to the display panel , characterised in that the second part being extended to project towards a direction away from the display panel with respect to the first part and in that the second part has a chamber for accommodating a circuit board and a wire .
A medical device system comprising; - a heart help device, - an operation device, and - a medical device, wherein; the heart is placed in the thorax, the thoracic diaphragm is dividing the thorax from the abdomen and the pericardium is surrounding the heart and is attached to the thoracic diaphragm at a pericardial contacting section of the thoracic diaphragm, characterised in that the medical device comprises a diaphragm passing part adapted to pass from the abdomen, through the thoracic diaphragm at the pericardial contacting section into the pericardium, wherein said diaphragm passing part is adapted to allow the diaphragm muscle to move during respiration and to slide against the thoracic diaphragm, wherein said diaphragm passing part comprises a force transferring part, and wherein said force transferring part is adapted to transfer force between the abdominal side of the thoracic diaphragm and the thoracic side of the thoracic diaphragm or the pericardium, wherein said force transferring part being a force transferring member wherein said force transferring member comprises a first and second portion, wherein said first portion is adapted to be in connection with the operation device and said second portion is adapted to be in connection with said heart help device, and wherein said force transferring member is adapted to transfer force from said operation device to said heart help device. - a heart help device, - an operation device, and - a medical device, wherein;
A method for handling blackwater containing medical substances, such as antibiotics, said method comprising, in a vacuum toilet system in which blackwater ejected by vacuum from a plurality of vacuum toilets contains medical substances present in dissolved state in bodily waste: subjecting the ejected blackwater to an initial treatment including a bacteria reduction and a fragmentation , for producing an initially treated blackwater slurry; transferring the blackwater slurry to at least one central buffer tank and temporarily storing the blackwater slurry in said at least one central buffer tank ; transferring the blackwater slurry from said at least one buffer tank to a central vaporization unit comprising one or more vaporization chambers ; in said one or more vaporization chambers , vaporizing water from the blackwater slurry for producing a water-reduced waste material containing said medical substances; transferring the water-reduced waste material into one or more replaceable waste containers ; in said one or more replaceable waste containers , vaporizing additional water from the water-reduced waste material for producing a further water-reduced waste material in the waste containers ; and removing and replacing said waste containers containing said further water-reduced waste material. subjecting the ejected blackwater to an initial treatment including a bacteria reduction and a fragmentation , for producing an initially treated blackwater slurry; transferring the blackwater slurry to at least one central buffer tank and temporarily storing the blackwater slurry in said at least one central buffer tank ; transferring the blackwater slurry from said at least one buffer tank to a central vaporization unit comprising one or more vaporization chambers ; in said one or more vaporization chambers , vaporizing water from the blackwater slurry for producing a water-reduced waste material containing said medical substances; transferring the water-reduced waste material into one or more replaceable waste containers ; in said one or more replaceable waste containers , vaporizing additional water from the water-reduced waste material for producing a further water-reduced waste material in the waste containers ; and removing and replacing said waste containers containing said further water-reduced waste material.
A working machine vehicle provided with a supporting frame and a pivoted load container , wherein the vehicle is configured to allow tilting of the load container from a transport position to a tilted position for dumping of a load from the load container , wherein the vehicle is provided with a suspension arrangement configured to reduce transfer of vibrations between the frame and the load container when the load container is in its transport position, wherein the suspension arrangement comprises a spring element and a damper element , and wherein the vehicle further is provided with at least one hydraulic hoist cylinder connected between the frame and the load container and arranged to lift and tilt the load container to the tilting position for dumping, characterized in that the hydraulic hoist cylinder forms part of a hydraulic system comprising a container for hydraulic fluid and at least one conduit that connects the hydraulic hoist cylinder with the container so as to form a flow passage for hydraulic fluid between the hydraulic hoist cylinder and the hydraulic container , and wherein the flow passage is arranged to exert a flow resistance to a hydraulic fluid flowing through the flow passage so as to dampen an oscillating flow through the flow passage and thereby form the damper element of the suspension arrangement .
A communication method for avoiding time-frequency resource conflicts between a new radio synchronization signal and physical broadcast channel block, NR SSB, and a long term evolution cell reference signal, LTE CRS, in spectrum sharing, applied to a first network device , the method comprising: receiving a first position from a second network device , wherein the first position is a position of one or more subframes occupied by first information; determining a first offset, wherein the first offset is for determining a second position, the second position is a position obtained by offsetting the first position by the first offset, the second position is located in a first range, and the first range is a position that supports configuration of a multicast-broadcast single-frequency network, MBSFN, subframe; configuring the MBSFN subframe based on the first position and the first offset, wherein a position of the MBSFN subframe comprises the second position; and sending the first offset and the first MBSFN configuration information to the second network device , wherein the first MBSFN configuration information is for determining a configuration state of the MBSFN subframe in the first range. receiving a first position from a second network device , wherein the first position is a position of one or more subframes occupied by first information; determining a first offset, wherein the first offset is for determining a second position, the second position is a position obtained by offsetting the first position by the first offset, the second position is located in a first range, and the first range is a position that supports configuration of a multicast-broadcast single-frequency network, MBSFN, subframe; configuring the MBSFN subframe based on the first position and the first offset, wherein a position of the MBSFN subframe comprises the second position; and sending the first offset and the first MBSFN configuration information to the second network device , wherein the first MBSFN configuration information is for determining a configuration state of the MBSFN subframe in the first range.
A method for storing living insect larvae in water by means of a storage means , comprising providing a mixture of insect larvae and water to the storage means , controlling the amount of water in the content of the storage means to be between 30% and 80% by weight, maintaining the content of the storage means at a temperature below 15°C, and agitating the content of the storage means by a stirring device or mixing screw included in the storage means . providing a mixture of insect larvae and water to the storage means , controlling the amount of water in the content of the storage means to be between 30% and 80% by weight, maintaining the content of the storage means at a temperature below 15°C, and agitating the content of the storage means by a stirring device or mixing screw included in the storage means .
An intervertebral disc comprising: a superior endplate having an upper vertebra contacting surface and a lower bearing surface , wherein the upper surface of the superior endplate has a domed central portion and wherein the lower bearing surface has a concavity disposed opposite the domed central portion; an inferior endplate having a lower vertebra contacting surface and an upper bearing surface , wherein the lower surface of the inferior endplate has a domed central portion raised relative to a generally planar peripheral portion and wherein the upper bearing surface has a concavity disposed opposite the domed central portion; a core positioned between the superior and inferior endplates, the core having upper and lower surfaces (53 and 55) configured to mate with the bearing surfaces of the superior and inferior endplates; and wherein the domed central portion of the superior endplate has a height greater than a height of the domed central portion of the inferior endplate . a superior endplate having an upper vertebra contacting surface and a lower bearing surface , wherein the upper surface of the superior endplate has a domed central portion and wherein the lower bearing surface has a concavity disposed opposite the domed central portion; an inferior endplate having a lower vertebra contacting surface and an upper bearing surface , wherein the lower surface of the inferior endplate has a domed central portion raised relative to a generally planar peripheral portion and wherein the upper bearing surface has a concavity disposed opposite the domed central portion; a core positioned between the superior and inferior endplates, the core having upper and lower surfaces (53 and 55) configured to mate with the bearing surfaces of the superior and inferior endplates; and wherein the domed central portion of the superior endplate has a height greater than a height of the domed central portion of the inferior endplate .
A message forwarding method, comprising: receiving , by a Dynamic Host Configuration Protocol for Internet Protocol version 6, DHCPv6, layer-3 relay agent device, a first DHCPv6 message from a DHCPv6 client through a layer-3 interface of the DHCPv6 layer-3 relay agent device; generating , by the DHCPv6 layer-3 relay agent device, a Relay-forward message, wherein the Relay-forward message comprises two Interface-ID Option fields, wherein one of the two Interface-ID Option fields and the first DHCPv6 message are encapsulated in an internal-layer of the Relay-forward message, and another one of the two second Interface-ID Option fields is encapsulated in an external-layer of the Relay-forward message, wherein one of the two Interface-ID Option fields indicates an identifier of a port on the DHCPv6 layer-3 relay agent device on which the first DHCPv6 message is received, and another one of the two Interface-ID Option fields indicates an identifier of the layer-3 interface of the DHCPv6 layer-3 relay agent device through which the first DHCPv6 message is received; and sending , by the DHCPv6 layer-3 relay agent device, the Relay-forward message to a DHCPv6 server. receiving , by a Dynamic Host Configuration Protocol for Internet Protocol version 6, DHCPv6, layer-3 relay agent device, a first DHCPv6 message from a DHCPv6 client through a layer-3 interface of the DHCPv6 layer-3 relay agent device; generating , by the DHCPv6 layer-3 relay agent device, a Relay-forward message, wherein the Relay-forward message comprises two Interface-ID Option fields, wherein one of the two Interface-ID Option fields and the first DHCPv6 message are encapsulated in an internal-layer of the Relay-forward message, and another one of the two second Interface-ID Option fields is encapsulated in an external-layer of the Relay-forward message, wherein one of the two Interface-ID Option fields indicates an identifier of a port on the DHCPv6 layer-3 relay agent device on which the first DHCPv6 message is received, and another one of the two Interface-ID Option fields indicates an identifier of the layer-3 interface of the DHCPv6 layer-3 relay agent device through which the first DHCPv6 message is received; and sending , by the DHCPv6 layer-3 relay agent device, the Relay-forward message to a DHCPv6 server.
A microcrystalline glass containing a water-repellent and oil-repellent composite coating layer on the surface, characterized in that from the outermost surface of the microcrystalline glass, it includes: a water-repellent and oil-repellent layer, an intermediate layer and a bottom layer, wherein, the intermediate layer is the intermediate layer containing ionic crystals with a lattice energy of 700-3000kJ/mol; wherein, the intermediate layer is a crystal layer formed by at least one ionic crystal of LiF, NaF and/or KF as the original coating material; or formed by at least one of MgF 2 , CaF 2 , SrF 2 or BaF 2 as the original coating material; the thickness of the intermediate layer is 1-5nm; the thickness of the bottom layer is 3-15nm; and the bottom layer includes compounds containing Si-O bonds or a mixed silicon oxide layer; and the microcrystalline glass's crystallinity is greater than 60%. wherein, the intermediate layer is a crystal layer formed by at least one ionic crystal of LiF, NaF and/or KF as the original coating material; or formed by at least one of MgF 2 , CaF 2 , SrF 2 or BaF 2 as the original coating material; the thickness of the intermediate layer is 1-5nm; the thickness of the bottom layer is 3-15nm; and the bottom layer includes compounds containing Si-O bonds or a mixed silicon oxide layer; and the microcrystalline glass's crystallinity is greater than 60%.