mhurhangee/ep-ind-claims huggingface dataset:
An internal combustion engine comprising: at least one cylinder provided with a combustion chamber, in which, following the combustion, exhaust gases are generated; an exhaust duct, which is flown through by the exhaust gases coming from the combustion chamber; and a water-based operating liquid system comprising: a tank, which is designed to contain a quantity of water-based operating liquid and a heating device, which is coupled to the tank and is designed to heat the water-based operating liquid contained in the tank; the internal combustion engine is characterized in that the heating device comprises: a heating chamber, which surrounds a portion of the exhaust duct, comprises an inlet opening designed to receive air from the outside, is configured to allow heat to be transferred from the walls of the exhaust duct to the air received from the outside and comprises an outlet opening for the heated air; and a heat exchanger, which receives the heated air from the outlet opening of the heating chamber and is thermally coupled to the tank so as to transfer part of the heat owned by the heated air to the water-based operating liquid contained in the tank. at least one cylinder provided with a combustion chamber, in which, following the combustion, exhaust gases are generated; an exhaust duct, which is flown through by the exhaust gases coming from the combustion chamber; and a water-based operating liquid system comprising: a tank, which is designed to contain a quantity of water-based operating liquid and a heating device, which is coupled to the tank and is designed to heat the water-based operating liquid contained in the tank; the internal combustion engine is characterized in that the heating device comprises: a heating chamber, which surrounds a portion of the exhaust duct, comprises an inlet opening designed to receive air from the outside, is configured to allow heat to be transferred from the walls of the exhaust duct to the air received from the outside and comprises an outlet opening for the heated air; and a heat exchanger, which receives the heated air from the outlet opening of the heating chamber and is thermally coupled to the tank so as to transfer part of the heat owned by the heated air to the water-based operating liquid contained in the tank. a heating chamber, which surrounds a portion of the exhaust duct, comprises an inlet opening designed to receive air from the outside, is configured to allow heat to be transferred from the walls of the exhaust duct to the air received from the outside and comprises an outlet opening for the heated air; and a heat exchanger, which receives the heated air from the outlet opening of the heating chamber and is thermally coupled to the tank so as to transfer part of the heat owned by the heated air to the water-based operating liquid contained in the tank.
A device for determining the pressure in an evacuated vacuum chamber, which comprises an evacuated measurement connecting piece arranged outside the vacuum chamber and connected vacuum-tightly with the vacuum chamber, which contains a gas friction sensor, which is arranged and set into rotation without contact by a magnetic field generated by a measurement head placed on the measurement connecting piece, characterized in that between the vacuum chamber and the measurement connecting piece a bendable metal tube provided with a screw- or parallel corrugation is arranged, which is connected with one end vacuum-tightly to the measurement connecting piece and with the other end vacuum-tightly to the vacuum chamber and that the measurement connecting piece is aligned horizontally in the working position.
Method for controlling bearer related resources by a node or a traffic detection function, TDF, of a policy and charging system in a communication network, comprising the steps of Obtaining, at a network node, bearer support information indicating whether a user equipment, UE, supports a dedicated bearer of a plurality of bearers, which is a bearer dedicated to a service session; characterized by setting a time period for the service session according to the obtained bearer support information so that the time period is set to a short time period when the bearer support information indicates that the UE does not support a dedicated bearer for the service session and the time period is set to a long time period when the bearer support information indicates that the UE supports a dedicated bearer for the service session; and instructing a modification of a reserved bearer resource assigned to the service session when the set time period expires.
Method for the orientation of a workpiece that is to be machined, comprising the steps: a) providing a workpiece-fixed processing path for processing the workpiece; b) selecting a rigid transformation of the positioning of the workpiece; c) simulating the workpiece-fixed processing path taking account of the rigid transformation of the positioning of the workpiece; d) determining at least one process variable of the machining of the workpiece; characterised in that the steps b) to d) are repeated, modifying the at least one rigid transformation of the positioning of the workpiece, until the at least one process variable reaches a target value, wherein the at least one process variable is a ratio of running times of respective driving means of at least two machine axes and the target value is a selectable value. a) providing a workpiece-fixed processing path for processing the workpiece; b) selecting a rigid transformation of the positioning of the workpiece; c) simulating the workpiece-fixed processing path taking account of the rigid transformation of the positioning of the workpiece; d) determining at least one process variable of the machining of the workpiece;
A system (100, 100') for determining a surface shape of a test object (105, 105'), comprising: a pattern of individual light sources including a plurality of first elements disposed about a central axis and defining an aperture containing the central axis, the first elements including a plurality of common elements (115, 215) having a common form and a reference element (116, 216) having a reference form that is different than the common form; a detector array; and an optical system adapted to provide spot images (123a, 125, 126) of the first elements when light reflects off a surface (102, 102') of the test object (105, 105'), passes through the aperture, and is received by the detector array; wherein the reference form is configured to facilitate an association between the common elements (115, 215) and the spot images of the common elements (115, 215). a pattern of individual light sources including a plurality of first elements disposed about a central axis and defining an aperture containing the central axis, the first elements including a plurality of common elements (115, 215) having a common form and a reference element (116, 216) having a reference form that is different than the common form; a detector array; and an optical system adapted to provide spot images (123a, 125, 126) of the first elements when light reflects off a surface (102, 102') of the test object (105, 105'), passes through the aperture, and is received by the detector array; wherein the reference form is configured to facilitate an association between the common elements (115, 215) and the spot images of the common elements (115, 215).
A SDN controller for managing the control plane functions for a plurality of software defined networking, SDN, nodes within an SDN domain (106a-c), comprising: a processor configured to: collect a plurality of network information from the plurality of SDN nodes, wherein the network information is fine-grain network information that pertains to the SDN domain; implement domain-specific policies to filter out private network information collected from the SDN nodes managed by the SDN controller; aggregate the network information collected from the SDN nodes managed by the SDN controller based on domain-specific policies; forward the aggregated network information after being processed with the domain-specific policies to an Application Layer Traffic Optimization, ALTO, node; receive cost maps and other traffic optimization information from the ALTO node, wherein the cost maps indicate a path cost to transport data for a path; and calculate paths based on the received cost maps and other traffic optimization information. a processor configured to: collect a plurality of network information from the plurality of SDN nodes, wherein the network information is fine-grain network information that pertains to the SDN domain; implement domain-specific policies to filter out private network information collected from the SDN nodes managed by the SDN controller; aggregate the network information collected from the SDN nodes managed by the SDN controller based on domain-specific policies; forward the aggregated network information after being processed with the domain-specific policies to an Application Layer Traffic Optimization, ALTO, node; receive cost maps and other traffic optimization information from the ALTO node, wherein the cost maps indicate a path cost to transport data for a path; and calculate paths based on the received cost maps and other traffic optimization information. collect a plurality of network information from the plurality of SDN nodes, wherein the network information is fine-grain network information that pertains to the SDN domain; implement domain-specific policies to filter out private network information collected from the SDN nodes managed by the SDN controller; aggregate the network information collected from the SDN nodes managed by the SDN controller based on domain-specific policies; forward the aggregated network information after being processed with the domain-specific policies to an Application Layer Traffic Optimization, ALTO, node; receive cost maps and other traffic optimization information from the ALTO node, wherein the cost maps indicate a path cost to transport data for a path; and calculate paths based on the received cost maps and other traffic optimization information.
A method for full duplex communication using a node (101, 301) in a wireless telecommunications network, including: selecting a first set of resource elements of a resource block for downlink control channel data transmission by the node (101, 301); and characterized by, scheduling half-duplex user equipment, UE, in groups of two UEs for full duplex communication with the node (101, 301) wherein uplink, UL, transmissions to the node (101, 301) from the UEs use a second set of resource elements of the resource block different from the first set. selecting a first set of resource elements of a resource block for downlink control channel data transmission by the node (101, 301); and characterized by, scheduling half-duplex user equipment, UE, in groups of two UEs for full duplex communication with the node (101, 301) wherein uplink, UL, transmissions to the node (101, 301) from the UEs use a second set of resource elements of the resource block different from the first set.
Method for producing carbon fibre pellets, which comprises - cutting and/or grinding, to a predefined mean length, the carbon fibres that are to be processed to form pellets, - mixing the carbon fibres with a solution or suspension to form agglomerates in a mixer equipped with an inclined rotating vessel, wherein the inclined rotating vessel has an agitator arranged therein which rotates in the opposite direction and which stirs the agglomerates, - compacting the agglomerates by bringing the agglomerates into contact with the inclined rotating surface, and - drying the agglomerates to form carbon fibre pellets, characterized in that the carbon fibres are pyrolysed prior to the mixing. - cutting and/or grinding, to a predefined mean length, the carbon fibres that are to be processed to form pellets, - mixing the carbon fibres with a solution or suspension to form agglomerates in a mixer equipped with an inclined rotating vessel, wherein the inclined rotating vessel has an agitator arranged therein which rotates in the opposite direction and which stirs the agglomerates, - compacting the agglomerates by bringing the agglomerates into contact with the inclined rotating surface, and - drying the agglomerates to form carbon fibre pellets,
A wheel nut for securing a wheel to a threaded stud or bolt of a vehicle, characterized in that the wheel nut comprises: a torque receiving section with an external tool interface but without internal threading; and a load bearing section including a threaded internal bore adapted to mate with the threaded stud or bolt, the load bearing section comprising a first portion adapted to contact a washer, and a second portion axially arranged between the first portion and the torque receiving section. a torque receiving section with an external tool interface but without internal threading; and a load bearing section including a threaded internal bore adapted to mate with the threaded stud or bolt, the load bearing section comprising a first portion adapted to contact a washer, and a second portion axially arranged between the first portion and the torque receiving section.
A method for injecting an electrolyte to a pouch secondary battery which comprises the steps of: 1) interposing an electrode assembly between a first metal laminate film and a second metal laminate film forming a pouch casing, and sealing the edges of each of the films with an electrolyte inlet left therein, thereby providing a pouch secondary battery; 2) mounting the pouch secondary battery between a first jig and a second jig, which are installed in a jig stand to have a controllable interval and form a gap space, with the electrolyte inlet facing up, and injecting an electrolyte through the electrolyte inlet; 3) loading the jig stand to a vacuum chamber; 4) increasing the width of the gap space by moving the first and the second jigs (41, 42) so that the area occupied by the electrolyte may be localized in the lower part of the pouch casing, and then forming vacuum atmosphere; and 5) moving the first and the second jigs (41, 42) while maintaining the vacuum atmosphere so that the width of the gap space may be reduced gradually and the liquid surface of the electrolyte may be lifted gradually to a position higher than the top of the electrode assembly, wherein the width of the gap space is increased while inserting a blower to the electrolyte inlet and spraying gas toward the inside of the pouch casing, in step 4). 1) interposing an electrode assembly between a first metal laminate film and a second metal laminate film forming a pouch casing, and sealing the edges of each of the films with an electrolyte inlet left therein, thereby providing a pouch secondary battery; 2) mounting the pouch secondary battery between a first jig and a second jig, which are installed in a jig stand to have a controllable interval and form a gap space, with the electrolyte inlet facing up, and injecting an electrolyte through the electrolyte inlet; 3) loading the jig stand to a vacuum chamber; 4) increasing the width of the gap space by moving the first and the second jigs (41, 42) so that the area occupied by the electrolyte may be localized in the lower part of the pouch casing, and then forming vacuum atmosphere; and 5) moving the first and the second jigs (41, 42) while maintaining the vacuum atmosphere so that the width of the gap space may be reduced gradually and the liquid surface of the electrolyte may be lifted gradually to a position higher than the top of the electrode assembly,
A device for applying treatment to a nerve (112, 116) of a patient, the device comprising: a stimulating collar configured for being implanted around the nerve (112, 116); and a stimulator for applying electrical as well as magnetic stimulation to the nerve (112, 116) through the collar. a stimulating collar configured for being implanted around the nerve (112, 116); and a stimulator for applying electrical as well as magnetic stimulation to the nerve (112, 116) through the collar.
An apparatus for correcting the bending of a molten resin comprising a temperature-adjusting means arranged surrounding a molten resin extrusion passage of an extrusion die head along the direction of extrusion, a measuring means for measuring the horizontal position of the molten resin extruded from an extrusion opening of said extrusion passage, and a control means for controlling said temperature-adjusting means based on the results measured by said measuring means; characterized in that said temperature-adjusting means includes a plurality of cooling passages which are independently controlled by said control means; and said measuring means comprises an imaging camera disposed just under the extrusion die head and maintaining a gap through which a cutting mechanism can pass, wherein said imaging camera is for picking up the image of the end portion of said molten resin extruded from said extrusion opening.
A nozzle for a drill bit, the nozzle comprising: a nozzle body, wherein the nozzle body is generally cylindrical and comprises a longitudinal axis, a proximal end for insertion into a drill bit body, and a distal end opposite the proximal end, and wherein the nozzle body defines a longitudinal bore through the nozzle along the longitudinal axis; one or more lobes extending radially from an outer cylindrical surface of the nozzle body near the distal end, wherein each of the one or more lobes is displaced axially from the distal end such that a cylindrical portion of the nozzle body is disposed between the distal end and the lobe; and a fitting in the distal end configured to engage a tool for imparting rotational torque to the nozzle about the longitudinal axis, wherein each of the one or more lobes comprises a cylindrical outer surface centered on the longitudinal axis of the nozzle body and having a larger radius than the portion of the nozzle body from which the lobe extends. a nozzle body, wherein the nozzle body is generally cylindrical and comprises a longitudinal axis, a proximal end for insertion into a drill bit body, and a distal end opposite the proximal end, and wherein the nozzle body defines a longitudinal bore through the nozzle along the longitudinal axis; one or more lobes extending radially from an outer cylindrical surface of the nozzle body near the distal end, wherein each of the one or more lobes is displaced axially from the distal end such that a cylindrical portion of the nozzle body is disposed between the distal end and the lobe; and a fitting in the distal end configured to engage a tool for imparting rotational torque to the nozzle about the longitudinal axis, wherein each of the one or more lobes comprises a cylindrical outer surface centered on the longitudinal axis of the nozzle body and having a larger radius than the portion of the nozzle body from which the lobe extends.
A container for collecting liquid drawn through a vacuum conduit from an oral cavity of a user by a vacuum pump of an oral negative-pressure therapy system, the container comprising: a container body having an interior surface defining an interior space; a fluid inlet for fluidly connecting the vacuum conduit to the interior space; a fluid outlet for fluidly connecting the vacuum pump to the interior space; an interior baffle connected to the container body and disposed in the interior space, the interior baffle configured to support an absorbent insert received thereon; characterized in that the container further comprising a fluid passageway extending from the fluid inlet along the interior baffle, wherein the fluid passageway fluidly connects the fluid inlet to the interior space when the absorbent insert is received on the interior baffle; wherein the interior baffle includes a baffle body and a plurality of baffle standoffs(90A, 90B) extending outward from the baffle body, wherein the baffle standoffs (90A, 90B) are configured to space the absorbent insert apart from the baffle body to define fluid flow paths between the baffle body and the absorbent insert that are in fluid communication with the fluid passageway and the outlet. a container body having an interior surface defining an interior space; a fluid inlet for fluidly connecting the vacuum conduit to the interior space; a fluid outlet for fluidly connecting the vacuum pump to the interior space; an interior baffle connected to the container body and disposed in the interior space, the interior baffle configured to support an absorbent insert received thereon; characterized in that the container further comprising a fluid passageway extending from the fluid inlet along the interior baffle, wherein the fluid passageway fluidly connects the fluid inlet to the interior space when the absorbent insert is received on the interior baffle; wherein the interior baffle includes a baffle body and a plurality of baffle standoffs(90A, 90B) extending outward from the baffle body, wherein the baffle standoffs (90A, 90B) are configured to space the absorbent insert apart from the baffle body to define fluid flow paths between the baffle body and the absorbent insert that are in fluid communication with the fluid passageway and the outlet.
A method implemented by one or more processors, the method comprising: receiving, from one or more sensors, three-dimensional data representing a physical structure, wherein the three-dimensional data includes one or more spatial measurements of the physical structure; generating, based on the three-dimensional data, a data structure representing a virtual three-dimensional model of the physical structure; and incorporating, with the data structure representing the virtual three-dimensional model of the physical structure, an at least two-dimensional virtual scale that conveys the one or more spatial measurements. wherein the at least two-dimensional virtual scale has spaced markings or two- or three-dimensional elements with known relationships between various internal dimensions, and wherein the at least two-dimensional virtual scale is resized directly in proportion with any resizing of the virtual three-dimensional model of the physical structure; wherein the data structure is such that a three-dimensional printer is able to use the data structure to create a physical model of the physical structure that includes a physical manifestation (114, 214, 314) of the at least two-dimensional virtual scale. receiving, from one or more sensors, three-dimensional data representing a physical structure, wherein the three-dimensional data includes one or more spatial measurements of the physical structure; generating, based on the three-dimensional data, a data structure representing a virtual three-dimensional model of the physical structure; and incorporating, with the data structure representing the virtual three-dimensional model of the physical structure, an at least two-dimensional virtual scale that conveys the one or more spatial measurements. wherein the at least two-dimensional virtual scale has spaced markings or two- or three-dimensional elements with known relationships between various internal dimensions, and wherein the at least two-dimensional virtual scale is resized directly in proportion with any resizing of the virtual three-dimensional model of the physical structure; wherein the data structure is such that a three-dimensional printer is able to use the data structure to create a physical model of the physical structure that includes a physical manifestation (114, 214, 314) of the at least two-dimensional virtual scale.