mhurhangee/patent-ind-claim-en huggingface dataset:
A steering support member structure, comprising a steering support member that is disposed in a front portion of a vehicle cabin to support a steering column , wherein the steering support member comprises: a single steering support member body that extends over the entire width of a vehicle width direction ; and side brackets that fix both ends of the steering support member body to a vehicle body, wherein the single steering support member body is disposed above a gravity center position of the steering column to fix the gravity center position or a position in a vicinity of the gravity center position , wherein a virtual line extending vertically upward from the gravity center position of the steering column is located within an area of the cross section of the single steering support member body , and wherein at least the side bracket closer to the steering column comprises a front-and-rear fixing portion that fixes the steering support member to the vehicle body in a vehicle front-and-rear direction . a single steering support member body that extends over the entire width of a vehicle width direction ; and side brackets that fix both ends of the steering support member body to a vehicle body, wherein the single steering support member body is disposed above a gravity center position of the steering column to fix the gravity center position or a position in a vicinity of the gravity center position , wherein a virtual line extending vertically upward from the gravity center position of the steering column is located within an area of the cross section of the single steering support member body , and wherein at least the side bracket closer to the steering column comprises a front-and-rear fixing portion that fixes the steering support member to the vehicle body in a vehicle front-and-rear direction .
An extruder system for the extrusion of a strand (ST) of building material (BS) for 3D printing of a structural part (BWT), wherein the extruder system has: - an extruder apparatus for the extrusion of a strand (ST) of building material (BS) for 3D printing of a structural part (BWT), wherein the extruder apparatus has: - an extruder nozzle , wherein the extruder nozzle has a discharge opening for the discharge of the strand (ST) of building material (BS) out of the extruder apparatus , and - at least one inner element , wherein the at least one inner element is designed for arrangement within the extruder nozzle for the purposes of defining an inner edge of a flow cross section of building material (BS) within the extruder nozzle for the purposes of specifying an inner edge of a strand cross section of the discharged strand (ST) of building material (BS), characterized by - an, in particular controllable, movement apparatus , wherein the movement apparatus is designed to at least translationally move the extruder apparatus , in particular during the discharge of the strand (ST) of building material (BS) . - an extruder apparatus for the extrusion of a strand (ST) of building material (BS) for 3D printing of a structural part (BWT), wherein the extruder apparatus has: - an extruder nozzle , wherein the extruder nozzle has a discharge opening for the discharge of the strand (ST) of building material (BS) out of the extruder apparatus , and - at least one inner element , wherein the at least one inner element is designed for arrangement within the extruder nozzle for the purposes of defining an inner edge of a flow cross section of building material (BS) within the extruder nozzle for the purposes of specifying an inner edge of a strand cross section of the discharged strand (ST) of building material (BS), characterized by - an, in particular controllable, movement apparatus , wherein the movement apparatus is designed to at least translationally move the extruder apparatus , in particular during the discharge of the strand (ST) of building material (BS) .
Customer premises equipment, CPE, comprising: a housing , an omnidirectional antenna , a communications module , a printed circuit board, PCB , and a heat sink , wherein the omnidirectional antenna is connected to an input end of the communications module , an output end of the communications module is connected to the PCB , an output end of the PCB is connected to an Ethernet cable, and the PCB is disposed on the heat sink ; the communications module is configured to convert a received radio-frequency signal to a digital signal; characterized in that the housing is a cylindrical structure with an opening formed at a lower end, and the omnidirectional antenna, the communications module , and the PCB are disposed inside the housing; and the heat sink is disposed at the lower end of the housing, and a through hole for the Ethernet cable to pass through is disposed on the heat sink . a housing , an omnidirectional antenna , a communications module , a printed circuit board, PCB , and a heat sink , wherein the omnidirectional antenna is connected to an input end of the communications module , an output end of the communications module is connected to the PCB , an output end of the PCB is connected to an Ethernet cable, and the PCB is disposed on the heat sink ; the communications module is configured to convert a received radio-frequency signal to a digital signal; characterized in that the housing is a cylindrical structure with an opening formed at a lower end, and the omnidirectional antenna, the communications module , and the PCB are disposed inside the housing; and the heat sink is disposed at the lower end of the housing, and a through hole for the Ethernet cable to pass through is disposed on the heat sink .
A system comprising: a first network device (200a, 200b; 535) in communication with a second network device (200a, 200b; 570) via a plurality of communication tunnels (530a-n), the plurality of communication tunnels including an encrypted communication tunnel and an unencrypted communication tunnel , the first network device configured to: receive a packet , the packet including header information and a payload ; determine whether the received packet is encrypted to meet a threshold level of security; characterized in that the first network device is further configured to: responsive to determining that the packet is encrypted to meet the threshold level of security, communicate an identifier of the payload and the header information to the second network device via the encrypted communication tunnel, and communicate the payload to the second network device via the unencrypted communication tunnel; and cause the header information communicated via the encrypted communication tunnel, to be combined with the payload communicated via the unencrypted communication tunnel receive a packet , the packet including header information and a payload ; determine whether the received packet is encrypted to meet a threshold level of security; characterized in that the first network device is further configured to: responsive to determining that the packet is encrypted to meet the threshold level of security, communicate an identifier of the payload and the header information to the second network device via the encrypted communication tunnel, and communicate the payload to the second network device via the unencrypted communication tunnel; and cause the header information communicated via the encrypted communication tunnel, to be combined with the payload communicated via the unencrypted communication tunnel
Method for the galvanic deposition of zinc-nickel layers from an alkaline coating bath containing zinc-nickel electrolytes and organic bath additives, which method uses, as the anode, an electrode that is insoluble in the bath and that contains metal manganese and/or manganese oxide, wherein the organic bath additives comprise amine-containing complexing agents, and wherein the electrode 1) is produced from metal manganese or a manganese-containing alloy, wherein the manganese-containing alloy contains at least 5 wt.% manganese, or 2) is produced from an electrically conductive substrate and a coating applied thereto and containing metal manganese and/or manganese oxide, wherein the coating containing manganese and/or manganese oxide contains at least 5 wt.% manganese, based on the total amount of manganese that is obtained from metal manganese and manganese oxide, or 3) is produced from a composite material that comprises metal manganese and/or manganese oxide and an electrically conductive material, wherein the composite material contains at least 5 wt.% manganese, based on the total amount that is obtained from metal manganese and manganese oxide. 1) is produced from metal manganese or a manganese-containing alloy, wherein the manganese-containing alloy contains at least 5 wt.% manganese, or 2) is produced from an electrically conductive substrate and a coating applied thereto and containing metal manganese and/or manganese oxide, wherein the coating containing manganese and/or manganese oxide contains at least 5 wt.% manganese, based on the total amount of manganese that is obtained from metal manganese and manganese oxide, or 3) is produced from a composite material that comprises metal manganese and/or manganese oxide and an electrically conductive material, wherein the composite material contains at least 5 wt.% manganese, based on the total amount that is obtained from metal manganese and manganese oxide.
A lipid composition comprising active compounds finasteride and minoxidil dissolved in non-toxic solvent-water system, wherein the composition contains phosphatidylcholine, and wherein the composition is obtainable by mixing the dissolved active compounds and the phosphatidylcholine together, for use as a topical treatment of a subject.
An embolization microcatheter for delivery of embolization beads to a target area, the microcatheter comprising: a proximal end and a distal end , the distal end comprising an end opening ; and a skeleton formed of braided or coiled wires ; a polymeric layer intercalated into and/or overlaying the skeleton ; and a filter located in proximity to the distal end opening ; the filter comprising at least 100 openings distributed circumferentially around a wall thereof; wherein a total open area of the filter is at least 3 times larger than an area of the distal end opening; wherein the proximal end is sized and shaped to allow delivery of a suspension flowing through the microcatheter , wherein the suspension comprises a suspension fluid and the embolization beads, and wherein the filter is configured to allow outflow of the suspension fluid while preventing outflow of the embolization beads; characterised in that the at least 100 openings are essentially bone shaped or bead-on-string shaped. a proximal end and a distal end , the distal end comprising an end opening ; and a skeleton formed of braided or coiled wires ; a polymeric layer intercalated into and/or overlaying the skeleton ; and a filter located in proximity to the distal end opening ; the filter comprising at least 100 openings distributed circumferentially around a wall thereof; wherein a total open area of the filter is at least 3 times larger than an area of the distal end opening; wherein the proximal end is sized and shaped to allow delivery of a suspension flowing through the microcatheter , wherein the suspension comprises a suspension fluid and the embolization beads, and wherein the filter is configured to allow outflow of the suspension fluid while preventing outflow of the embolization beads; characterised in that the at least 100 openings are essentially bone shaped or bead-on-string shaped.
Security cassette for valuable papers , comprising - a cover - a receiving area for receiving a plurality of the valuable papers , wherein the receiving area is closeable with the cover , - a protective device for the valuable papers which can be triggered automatically in order to thereby devalue the valuable papers in the receiving area , wherein the security cassette comprises at least one sub-divider designed to be mounted in the receiving area so as to divide the receiving area in order to be able to hold valuable paper bundles each having a plurality of valuable papers in bundles such that the valuable paper bundles held by the sub-divider are arranged parallel upright in the receiving area , characterized in that the at least one sub-divider has a ribbed structure , wherein - either two adjacent valuable paper bundles held by the sub-divider are respectively separated from one another by an intermediate space , - or a valuable paper bundle is respectively held between two sub-dividers in such a way that there result multiple intermediate spaces between the sub-dividers and the valuable paper bundle . - a cover - a receiving area for receiving a plurality of the valuable papers , wherein the receiving area is closeable with the cover , - a protective device for the valuable papers which can be triggered automatically in order to thereby devalue the valuable papers in the receiving area , - either two adjacent valuable paper bundles held by the sub-divider are respectively separated from one another by an intermediate space , - or a valuable paper bundle is respectively held between two sub-dividers in such a way that there result multiple intermediate spaces between the sub-dividers and the valuable paper bundle .
A water-in-oil emulsion for the preparation of a frozen confection, the emulsion comprising a water phase (WP) and an oil phase (OP) in a weight ratio (WP:OP) of from 94:6 to 70:30 wherein: - the oil phase comprises at least an edible oil and an emulsifier, the emulsifier having an average HLB of from 0.1 to 5; - the water phase comprises at least water and one or more freezing point depressors selected from the group consisting of sugars, salts or sugar-alcohols or a mixture thereof; - the emulsion comprises at least (W × A) wt% emulsifier by weight of the emulsion where: • W is the proportion of the water phase in the emulsion expressed as the weight percentage of the total emulsion; and • A is 0.0001; - the emulsion comprises at most (O × 0.2) wt% emulsifier by weight of the emulsion where: • O is the proportion of the oil phase in the emulsion expressed as the weight percentage of the total emulsion; - the emulsion comprises from 4 to 40 wt% of the one or more freezing point depressors by weight of the emulsion; and - the temperature at which the edible oil contains 25 wt% solid fat by weight of the edible oil is lower than temperature at which the water phase contains 25 wt% ice by weight of the water phase. - the oil phase comprises at least an edible oil and an emulsifier, the emulsifier having an average HLB of from 0.1 to 5; - the water phase comprises at least water and one or more freezing point depressors selected from the group consisting of sugars, salts or sugar-alcohols or a mixture thereof; - the emulsion comprises at least (W × A) wt% emulsifier by weight of the emulsion where: • W is the proportion of the water phase in the emulsion expressed as the weight percentage of the total emulsion; and • A is 0.0001; • W is the proportion of the water phase in the emulsion expressed as the weight percentage of the total emulsion; and • A is 0.0001; - the emulsion comprises at most (O × 0.2) wt% emulsifier by weight of the emulsion where: • O is the proportion of the oil phase in the emulsion expressed as the weight percentage of the total emulsion; • O is the proportion of the oil phase in the emulsion expressed as the weight percentage of the total emulsion; - the emulsion comprises from 4 to 40 wt% of the one or more freezing point depressors by weight of the emulsion; and - the temperature at which the edible oil contains 25 wt% solid fat by weight of the edible oil is lower than temperature at which the water phase contains 25 wt% ice by weight of the water phase.
An apparatus comprising: a processor having secure enclave support, wherein the processor is to establish a secure enclave using the secure enclave support; and an input/output (I/O) controller including an integrated trusted I/O device , characterized in that the trusted I/O device is to receive an unencrypted request to configure the trusted I/O device via a default control endpoint of the trusted I/O device , configure a command endpoint and a response endpoint to block topology change notifications to system software and direct the topology change notifications to the secure enclave instead in response to receipt of the unencrypted request, receive an encrypted command from the secure enclave via the command endpoint, perform a device management operation related to the I/O controller in response to receipt of the encrypted command; and transmit an encrypted response to the secure enclave via the response endpoint in response to performance of the device management operation. a processor having secure enclave support, wherein the processor is to establish a secure enclave using the secure enclave support; and an input/output (I/O) controller including an integrated trusted I/O device , characterized in that the trusted I/O device is to receive an unencrypted request to configure the trusted I/O device via a default control endpoint of the trusted I/O device , configure a command endpoint and a response endpoint to block topology change notifications to system software and direct the topology change notifications to the secure enclave instead in response to receipt of the unencrypted request, receive an encrypted command from the secure enclave via the command endpoint, perform a device management operation related to the I/O controller in response to receipt of the encrypted command; and transmit an encrypted response to the secure enclave via the response endpoint in response to performance of the device management operation.
Process for preparing polyoxyalkylene macromers, comprising the step of reacting one or more H-functional starter substances and one or more alkylene oxides in the presence of a catalyst, characterized in that at least one of the H-functional starter substances comprises a carbon-carbon double bond which is part of a cyclic structure and wherein the starter substance and the alkylene oxide are metered continuously into the reactor during the reaction.
A method for producing a multi-layer seam of a packaging material, wherein at least three layers of packaging material, two inner layers and at least one outer layer , are joined in such a way that at least one first partial seam is produced between the two inner layers , which has a first seam strength, and at least one second partial seam, which is arranged in substantially the same position as the at least one first partial seam, is produced between at least two layers, one of the inner layers and one of the outer layers , which has a second seam strength, characterised in that that the first and second seam strengths are realised by the binding properties of at least one of the surfaces or of the material of the inner layers and of the at least one outer layer, at least in the region of the at least one first partial seam and/or of the at least one second partial seam, in such a way that a closure connection for a first utilisation cycle is formed by the first partial seam and a separating connection , which is not releasable when the closure connection is released by separating the inner layers from one another in order to open the packaging means, but is releasable during a second utilisation cycle, is formed by the second partial seam.
A method for estimating information related to an airborne vehicle pitch and/or roll angle, comprising the steps of capturing an image of an area covering at least a part of the horizon using a camera mounted on the airborne vehicle, and obtaining (220; 520) a first estimate of the information related to the pitch and/or roll angle, wherein the step of obtaining the first estimate of the pitch and/or roll angle related information comprises obtaining a first horizon estimate based on the captured image, and wherein in the first horizon estimate the earth is assumed to be spherical with no topography, characterized by the steps of determining an improved estimate of the information related to the pitch and/or roll angle based on the first estimate of the information related to the pitch and/or roll angle, and a digital elevation model, wherein the step of determining an improved estimate of the pitch and/or roll angle related information comprises obtaining at least one second horizon estimate based on the digital elevation model and adjusting the first estimate of the pitch and/or roll angle related information based on a relation between the first horizon estimate and the second horizon estimate. wherein the step of obtaining the first estimate of the pitch and/or roll angle related information comprises obtaining a first horizon estimate based on the captured image, and wherein in the first horizon estimate the earth is assumed to be spherical with no topography, characterized by the steps of
An avionics system for an aircraft, the avionics system comprising: a storage device for storing instructions for monitoring an actual performance of the aircraft; and one or more data processors configured to execute the instructions to: generate a lateral component and a longitudinal component of a measured moving air mass relative to the aircraft; generate a lateral position offset based on the lateral component and a longitudinal position offset based on the longitudinal component; generate a first wind independent position of the aircraft along a potential aircraft trajectory based on a prediction model; generate a first wind corrected position by applying the lateral position offset and the longitudinal position offset to the first wind independent position; and generate a plurality of wind corrected positions of the aircraft by repeatedly generating wind independent positions along the potential aircraft trajectory and repeatedly applying the lateral position offset and the longitudinal position offset to the wind independent positions. a storage device for storing instructions for monitoring an actual performance of the aircraft; and one or more data processors configured to execute the instructions to: generate a lateral component and a longitudinal component of a measured moving air mass relative to the aircraft; generate a lateral position offset based on the lateral component and a longitudinal position offset based on the longitudinal component; generate a first wind independent position of the aircraft along a potential aircraft trajectory based on a prediction model; generate a first wind corrected position by applying the lateral position offset and the longitudinal position offset to the first wind independent position; and generate a plurality of wind corrected positions of the aircraft by repeatedly generating wind independent positions along the potential aircraft trajectory and repeatedly applying the lateral position offset and the longitudinal position offset to the wind independent positions. generate a lateral component and a longitudinal component of a measured moving air mass relative to the aircraft; generate a lateral position offset based on the lateral component and a longitudinal position offset based on the longitudinal component; generate a first wind independent position of the aircraft along a potential aircraft trajectory based on a prediction model; generate a first wind corrected position by applying the lateral position offset and the longitudinal position offset to the first wind independent position; and generate a plurality of wind corrected positions of the aircraft by repeatedly generating wind independent positions along the potential aircraft trajectory and repeatedly applying the lateral position offset and the longitudinal position offset to the wind independent positions.