mhurhangee/ep-ind-claims huggingface dataset:
A filter, in particular a cabin air filter of a motor vehicle, - comprising a filter housing having at least one filter housing component and a filter housing cover, wherein the filter housing features respectively at least one air inflow opening and one air outflow opening and a receiving space for accommodating at least two filter elements (3, 4), which feature respectively a filter medium body (33, 43) and a frame device (31, 41) extending around the filter medium body (33, 43), - wherein at least one radially projecting circumferential abutment shoulder is present in the receiving space for a sealing abutment of a seal on the filter element side, - and wherein the receiving space is closable by the filter housing cover, which is coupleable with the filter housing component in an assembled state, characterized in that - the filter housing cover exerts, in the assembled state, an at least partially axially directed clamping force on the frame device of a first filter element, and - the frame device of the first filter element rests against the frame device of a second filter element at its axial end facing away from the filter housing cover in the assembled state, wherein the clamping force is transmitted to the frame device of the second filter element, - wherein the frame device of the second filter element features a circumferential seal which is, in the assembled state, pressed onto the abutment shoulder of the filter housing using the clamping force, - and wherein the circumferential seal of the second filter element features a hollow chamber profile. - comprising a filter housing having at least one filter housing component and a filter housing cover, wherein the filter housing features respectively at least one air inflow opening and one air outflow opening and a receiving space for accommodating at least two filter elements (3, 4), which feature respectively a filter medium body (33, 43) and a frame device (31, 41) extending around the filter medium body (33, 43), - wherein at least one radially projecting circumferential abutment shoulder is present in the receiving space for a sealing abutment of a seal on the filter element side, - and wherein the receiving space is closable by the filter housing cover, which is coupleable with the filter housing component in an assembled state, characterized in that - the filter housing cover exerts, in the assembled state, an at least partially axially directed clamping force on the frame device of a first filter element, and - the frame device of the first filter element rests against the frame device of a second filter element at its axial end facing away from the filter housing cover in the assembled state, wherein the clamping force is transmitted to the frame device of the second filter element, - wherein the frame device of the second filter element features a circumferential seal which is, in the assembled state, pressed onto the abutment shoulder of the filter housing using the clamping force, - and wherein the circumferential seal of the second filter element features a hollow chamber profile.
A device for detecting critical stations in a planned multi-station scan of a patient, comprising: - an input unit; - a processing unit; and - an output unit; wherein the input unit is configured to receive image data taken from the patient lying on a table before start of the multi-station scan with a magnetic resonance imaging system, wherein the image data comprises an optical image captured by an optical camera and wherein the stations of the multi-station scan are defined manually based on a user-supplied input or defined automatically based on anatomical landmarks detected on the optical image; wherein the processing unit is configured to analyze the received image data of the patient to identify a spatial location of a lung of the patient, to align the spatial location of the lung of the patient with the planned multi-station scan to identify critical stations that are potentially affected by a respiratory motion of the patient, and to assign breath-hold to the identified critical stations; and wherein the output unit is configured to provide the identified critical stations. - an input unit; - a processing unit; and - an output unit; wherein the input unit is configured to receive image data taken from the patient lying on a table before start of the multi-station scan with a magnetic resonance imaging system, wherein the image data comprises an optical image captured by an optical camera and wherein the stations of the multi-station scan are defined manually based on a user-supplied input or defined automatically based on anatomical landmarks detected on the optical image; wherein the processing unit is configured to analyze the received image data of the patient to identify a spatial location of a lung of the patient, to align the spatial location of the lung of the patient with the planned multi-station scan to identify critical stations that are potentially affected by a respiratory motion of the patient, and to assign breath-hold to the identified critical stations; and wherein the output unit is configured to provide the identified critical stations.
A method of a communication system comprising: sending information on carrier aggregation in communication with a mobile terminal from a server that manages subscriber information of the mobile terminal to a mobility management apparatus; wherein the subscriber information includes information indicating whether the mobile terminal can perform carrier aggregation; sending the information on carrier aggregation from the mobility management apparatus to a base station; and checking by the base station whether or not to apply carrier aggregation to the communication with the mobile terminal based on the information on carrier aggregation received by the base station. sending information on carrier aggregation in communication with a mobile terminal from a server that manages subscriber information of the mobile terminal to a mobility management apparatus; wherein the subscriber information includes information indicating whether the mobile terminal can perform carrier aggregation; sending the information on carrier aggregation from the mobility management apparatus to a base station; and checking by the base station whether or not to apply carrier aggregation to the communication with the mobile terminal based on the information on carrier aggregation received by the base station.
A hydraulic system for a vehicle comprising a transmission lube circuit; a main pump; a variable displacement charge pump for supplying charge fluid to the main pump, the variable displacement charge pump having a charge pump outlet and a pressure responsive displacement control unit; a charge fluid line communicating the charge pump outlet with an inlet of the main pump; a pressure sensing line communicating the charge fluid line with the displacement control unit; a lube line communicating the charge pump outlet with the transmission lube circuit; and a fluid restriction in the lube line.
Method for cutting a workpiece to be cut using a laser beam, comprising the following steps: a) generating an incident laser beam, having a wavelength referred to as a working wavelength and a given initial beam parameter product, by means of a laser source which has fibres containing ytterbium and is coupled to at least one beam-conveying optical fibre; b) bringing said incident laser beam to a focusing head (3, 4) having at least one focusing optical system; c) focussing the incident laser beam by means of the focusing optical system so as to obtain a focused laser beam; and d) cutting the workpiece by means of the focused laser beam, characterised in that the beam parameter product of the incident laser beam is adjusted or modified by means of an optical device which is able and designed to modify or act on the BPP of a laser beam so as to obtain a focused laser beam having a modified BPP which is different from the BPP of said incident laser beam, said optical device being at least one transmissive or reflective diffracting optical component and being capable of producing a modified focused laser beam, the BPP of which is different from the initial BPP of the incident laser beam by a multiplication factor which is greater than or equal to 1.2 and less than or equal to 5, the surface of the optical device having microstructures engraved in the substrate of said optical device over variable depths of approximately the working wavelength. a) generating an incident laser beam, having a wavelength referred to as a working wavelength and a given initial beam parameter product, by means of a laser source which has fibres containing ytterbium and is coupled to at least one beam-conveying optical fibre; b) bringing said incident laser beam to a focusing head (3, 4) having at least one focusing optical system; c) focussing the incident laser beam by means of the focusing optical system so as to obtain a focused laser beam; and d) cutting the workpiece by means of the focused laser beam, characterised in that the beam parameter product of the incident laser beam is adjusted or modified by means of an optical device which is able and designed to modify or act on the BPP of a laser beam so as to obtain a focused laser beam having a modified BPP which is different from the BPP of said incident laser beam, said optical device being at least one transmissive or reflective diffracting optical component and being capable of producing a modified focused laser beam, the BPP of which is different from the initial BPP of the incident laser beam by a multiplication factor which is greater than or equal to 1.2 and less than or equal to 5, the surface of the optical device having microstructures engraved in the substrate of said optical device over variable depths of approximately the working wavelength.
A self-moving automatic snow removal device (1000, 1000', 2000) for protecting a human of an object from damage by thrown snow or miscellaneous matter, comprising: a moving module, driving the snow removal device (1000, 1000', 2000) to move; a working module, comprising a working motor and a snow throwing mechanism driven by the working motor, wherein the snow throwing mechanism is driven by the working motor to collect accumulated snow and miscellaneous matter on the ground and is configured to throw the accumulated snow and miscellaneous matter out of the snow throwing mechanism, and a maximum height of a thrown object in the air from the ground is referred to as a snow throwing height; wherein the self-moving snow removal device is characterised in that it further comprises a control module, configured to control the working module or the moving module to enable the snow throwing height to be not greater than a predetermined snow throwing height threshold. a moving module, driving the snow removal device (1000, 1000', 2000) to move; a working module, comprising a working motor and a snow throwing mechanism driven by the working motor, wherein the snow throwing mechanism is driven by the working motor to collect accumulated snow and miscellaneous matter on the ground and is configured to throw the accumulated snow and miscellaneous matter out of the snow throwing mechanism, and a maximum height of a thrown object in the air from the ground is referred to as a snow throwing height; wherein the self-moving snow removal device is characterised in that it further comprises a control module, configured to control the working module or the moving module to enable the snow throwing height to be not greater than a predetermined snow throwing height threshold.
A lid for a medical implant, the lid comprising: • a first part, • a second part having a side, and • engaging means wherein the second part is rotatable relative to the first part, or the first part is rotatable relative to the second part, characterised in that the engaging means is located in the second part or integrally formed with the second part, and wherein the first part and the second part are arranged such that, in use when the second part is assembled with the first part, rotation of the first part relative to the second part causes the engaging means to be moved, with respect to the side of the second part, whereby the engaging means engages with the implant, and holds the lid onto the implant. • a first part, • a second part having a side, and • engaging means wherein the second part is rotatable relative to the first part, or the first part is rotatable relative to the second part, characterised in that the engaging means is located in the second part or integrally formed with the second part, and wherein the first part and the second part are arranged such that, in use when the second part is assembled with the first part, rotation of the first part relative to the second part causes the engaging means to be moved, with respect to the side of the second part, whereby the engaging means engages with the implant, and holds the lid onto the implant.
A transmission control device of a vehicle comprising: a control part for performing an automatic shift change of a transmission in response to at least vehicle-speed information; a first sensor for detecting a rotational speed of a front wheel; a second sensor for detecting a rotational speed of a rear wheel; and a rotational-speed-difference detection means for detecting the difference in rotational speed between the front wheel and the rear wheel based on information from the first sensor and the second sensor, wherein the control part inhibits the automatic shift change when the rotational speed of the rear wheel becomes larger than the rotational speed of the front wheel and the difference in rotational speed between the front wheel and the rear wheel becomes a predetermined value or more; characterized in that the transmission control device is for a motorcycle, and is configured to interrupt the transmission of a driving force to the rear wheel by disconnecting a clutch (22, 23) when a separation quantity between the front wheel and a road surface becomes a predetermined value or more during the inhibition of the automatic shift change. a control part for performing an automatic shift change of a transmission in response to at least vehicle-speed information; a first sensor for detecting a rotational speed of a front wheel; a second sensor for detecting a rotational speed of a rear wheel; and a rotational-speed-difference detection means for detecting the difference in rotational speed between the front wheel and the rear wheel based on information from the first sensor and the second sensor, wherein the control part inhibits the automatic shift change when the rotational speed of the rear wheel becomes larger than the rotational speed of the front wheel and the difference in rotational speed between the front wheel and the rear wheel becomes a predetermined value or more; characterized in that the transmission control device is for a motorcycle, and is configured to interrupt the transmission of a driving force to the rear wheel by disconnecting a clutch (22, 23) when a separation quantity between the front wheel and a road surface becomes a predetermined value or more during the inhibition of the automatic shift change.
A method of polishing an object formed of a substrate material for optical devices, a substrate material for power devices, or a compound semiconductor material, the method characterized by: preparing a polishing composition comprising at least abrasive grains selected from the group consisting of aluminum oxide, silicon oxide, zirconium oxide, diamond, and silicon carbide, a pH adjuster, and water, and using the polishing composition to polish the object selected from the group consisting of sapphire or indium arsenide, wherein the preparing a polishing composition includes adjusting the pH of the polishing composition so as to satisfy the relationship X × Y ≤ 0 under the conditions during polishing of the object by using the polishing composition, where X [mV] represents the zeta potential of the abrasive grains and Y [mV] represents the zeta potential of the object. preparing a polishing composition comprising at least abrasive grains selected from the group consisting of aluminum oxide, silicon oxide, zirconium oxide, diamond, and silicon carbide, a pH adjuster, and water, and using the polishing composition to polish the object selected from the group consisting of sapphire or indium arsenide, wherein the preparing a polishing composition includes adjusting the pH of the polishing composition so as to satisfy the relationship X × Y ≤ 0 under the conditions during polishing of the object by using the polishing composition, where X [mV] represents the zeta potential of the abrasive grains and Y [mV] represents the zeta potential of the object.
A vehicle-to-everything, V2X, message transmission method in a communication network, the communication network comprising an access network and a core network, wherein the access network comprises a base station, the method comprising: receiving, by the base station, a V2X message from user equipment, UE, on a V2X bearer, wherein the V2X bearer is a bearer used to transmit only the V2X message between the UE and the base station; and sending, by the base station, the V2X message directly to a local broadcast multicast service center, BM-SC without passing through the core network; wherein the method further comprises: receiving, by the base station, the V2X message from the local BM-SC on a multimedia broadcast multicast service, MBMS, bearer, and broadcasting the V2X message, wherein the MBMS bearer is a bearer used to transmit the V2X message between the base station and the local BM-SC; wherein the local BM-SC is not included in the core network such that the V2X message received from the UE is broadcast by the base station without the V2X message passing through the core network. receiving, by the base station, a V2X message from user equipment, UE, on a V2X bearer, wherein the V2X bearer is a bearer used to transmit only the V2X message between the UE and the base station; and sending, by the base station, the V2X message directly to a local broadcast multicast service center, BM-SC without passing through the core network; wherein the method further comprises: receiving, by the base station, the V2X message from the local BM-SC on a multimedia broadcast multicast service, MBMS, bearer, and broadcasting the V2X message, wherein the MBMS bearer is a bearer used to transmit the V2X message between the base station and the local BM-SC; wherein the local BM-SC is not included in the core network such that the V2X message received from the UE is broadcast by the base station without the V2X message passing through the core network. receiving, by the base station, the V2X message from the local BM-SC on a multimedia broadcast multicast service, MBMS, bearer, and broadcasting the V2X message, wherein the MBMS bearer is a bearer used to transmit the V2X message between the base station and the local BM-SC; wherein the local BM-SC is not included in the core network such that the V2X message received from the UE is broadcast by the base station without the V2X message passing through the core network.
Heat exchanger for cooling cracked gas comprising a tube connection between an uncooled tube and a cooled tube, wherein the cooled tube is configured as a double tube and it consists of a cooled inner tube and a jacket tube, the inner tube being enclosed by the jacket tube at a radial distance, forming a tube intermediate space, through which a cooling medium flows, wherein the cooled tube is in connection with the uncooled tube via a water chamber and via a gas inlet header that is connected to the uncooled tube and is forked in cross section, wherein the gas inlet header has a GI tube inner part and a GI tube outer part, and a cooling intermediate space, which is filled with an insulating layer consisting of a heat-insulating material, is formed between the GI tube inner part and the GI tube outer part, wherein the GI tube outer part is connected via the water chamber to the jacket tube on a WC end face, wherein the GI tube inner part faces the inner tube at a short axial distance on a WC bottom end face of the water chamber, wherein a ring configured as a weld pool backing ring is arranged between an end face of the cooling intermediate space and a WC bottom end face of the water chamber, characterized in that the weld pool backing ring is inserted into the insulating layer of the cooling intermediate space, that the weld pool backing ring is arranged in a mounted turn-out or groove in the insulating layer on the end face of the cooling intermediate space and is in contact with a tube inner surface of the GI tube outer part, and that the insulating layer and the weld pool backing ring have a short overhang of 0.3 mm to 1.3 mm over a welded edge of the gas inlet header.
A method for manufacturing a porous metal body, the method comprising a plurality of steps including: a depositing step of depositing a metal powder in a dry process onto a molding plate made of carbon, the molding plate having a thickness of 3 mm or more and 30 mm or less and an area of a surface for depositing the metal powder of 36 cm 2 or more; after the depositing step, a sintering step of sintering the metal powder on the molding plate, wherein the plurality of steps are performed using the same molding plate, wherein at least one step of the plurality of steps further comprises, between the depositing step and the sintering step, a thickness adjusting step of adjusting a thickness of a deposited layer of the metal powder on the molding plate while flattening the surface of the molding plate, wherein the thickness adjusting step comprises adjusting the thickness of the deposited layer of the metal powder while pressing downward just the molding plate at at least a part of edge portions (1024, 102b) of the surface of the molding plate so that the surface of the molding plate is flattened, wherein the metal powder is a pure titanium powder, and wherein the porous metal body has an average thickness of 0.1 to 1.0 mm. a depositing step of depositing a metal powder in a dry process onto a molding plate made of carbon, the molding plate having a thickness of 3 mm or more and 30 mm or less and an area of a surface for depositing the metal powder of 36 cm 2 or more; after the depositing step, a sintering step of sintering the metal powder on the molding plate, wherein the plurality of steps are performed using the same molding plate, wherein at least one step of the plurality of steps further comprises, between the depositing step and the sintering step, a thickness adjusting step of adjusting a thickness of a deposited layer of the metal powder on the molding plate while flattening the surface of the molding plate, wherein the thickness adjusting step comprises adjusting the thickness of the deposited layer of the metal powder while pressing downward just the molding plate at at least a part of edge portions (1024, 102b) of the surface of the molding plate so that the surface of the molding plate is flattened, wherein the metal powder is a pure titanium powder, and wherein the porous metal body has an average thickness of 0.1 to 1.0 mm.
A Type 1 interferon alpha protein that binds to a Type I interferon multisubunit signalling receptor, the protein comprising: i. an amino acid sequence provided by SEQ ID NO: 18; or ii. an amino acid sequence provided by SEQ ID NO: 18 having two or more amino acid substitutions selected from the group consisting of L30A, R145A, M149A, E59A, H58A, and R150A. i. an amino acid sequence provided by SEQ ID NO: 18; or ii. an amino acid sequence provided by SEQ ID NO: 18 having two or more amino acid substitutions selected from the group consisting of L30A, R145A, M149A, E59A, H58A, and R150A.
In vitro method for promoting vascularization or vessel repair, comprising the following steps: - Providing a cell; and - Introducing an antisense molecule against miR-92 into the cell. - Providing a cell; and - Introducing an antisense molecule against miR-92 into the cell.