mhurhangee/patent-ind-claim-en huggingface dataset:
A bottom housing assembly structure for an air conditioner, comprising a bottom housing assembly and a base , wherein a guide structure is arranged between the bottom housing assembly and the base , and the guide structure is configured to guide installation of the bottom housing assembly on the base , the guide structure comprises a guide slot and a guide rail matched with each other slidably, wherein the guide slot is arranged on one of the bottom housing assembly and the base , and the guide rail is arranged on the other one of the bottom housing assembly and the base , the guide slot is arranged on at least one end of the base , and the guide rail is arranged on a corresponding position of the bottom housing assembly , the guide slot comprises a first guide slot , the base comprises a bottom plate and a vertical plate arranged on a first end of the bottom plate , a side baffle plate stretching outside laterally is arranged on the vertical plate , and the first guide slot is formed between the side baffle plate and the bottom plate , the bottom plate comprises an inclined segment and a horizontal segment, the inclined segment and the side baffle plate form the downward inclined first guide slot , for installing the bottom housing assembly obliquely downward along the first guide slot first, and when arriving at the tail end of the first guide slot , installing the bottom housing assembly horizontally along the horizontal segment.
Adjusting device for a disc brake to compensate for a wear-related change of a clearance, comprising a rotatable spindle having a radial collar , a bearing disc capable of being secured to a brake calliper of the disc brake and having a trough designed as a spherical segment, and a spherical washer mounted therein, wherein a friction disc abutting with a friction surface each is arranged between the spherical washer and the radial collar while forming a friction pairing with a defined friction moment, characterised in that the adjacent contact surfaces of the spherical washer and the bearing disc are designed as a friction pairing with a defined friction moment.
An assembly for a drug delivery device, the assembly comprising an actuator which is configured to perform a setting movement in order to set a dose and which is configured to perform a dispense movement in order to dispense a dose, and a piston rod , which is configured to be moved in a distal direction in order to dispense a dose, and a snap feature which is configured to snap into engagement with the piston rod , wherein the snap feature is configured to inhibit a dispense movement of the actuator when a maximum amount of medication has been delivered, and wherein the assembly comprises a drive member which is configured to drive the piston rod towards a distal end of the device in order to deliver a dose of medication, wherein the snap feature is configured as a resilient member, wherein the snap feature is preloaded before snapping into engagement with the piston rod , and wherein the snap feature is enabled to relax when snapping into engagement with the piston rod characterised in that the drive member comprises at least one first recess , wherein the snap feature comprises at least one protrusion which is permanently engaged with the first recess of the drive member , wherein the piston rod comprises at least one second recess , wherein the snap feature is configured to engage with the second recess .
A formed zeolite honeycomb article comprising a formed article obtained by extruding a zeolite raw material containing zeolite particles, an inorganic binding material which binds the zeolite particles to one another and a filler constituted of plate-like particles having a thin-piece-like shape with two or more comparatively flat surfaces, two of the flat surfaces being substantially parallel to each other and having a two-dimensional spread, where a distance between the parallel surfaces is small as compared with a length of a long diameter of each surface and a value (the long diameter/a thickness) of a ratio of the length of the long diameter with respect to the length thereof in the thickness direction is 10 or more and the average particle diameter of the plate-like particles is 20 μm or more and is twice or more the average particle diameter of the zeolite particles, in a honeycomb shape including partition walls disposed to form a plurality of cells which become through channels of a fluid and extend from one end face to the other end face, wherein the partition walls have a constitution where a drying shrinkage of the partition walls in a thickness direction is larger than a drying shrinkage of the partition walls in a cell extending direction and a drying shrinkage of the partition walls in a diametric direction of sections of the partition walls which is perpendicular to the cell extending direction in the honeycomb shape, and the drying shrinkage of the partition walls in the thickness direction (X) is 1.2 or more times the drying shrinkage of the partition walls in the diametric direction (Y) of the sections of the partition walls which is perpendicular to the cell extending direction in the honeycomb shape.
A method for a base station , the method comprising: determining whether to terminate a call connection with a terminal ; determining whether the terminal is capable of receiving a public safety service; determining whether the terminal receives a multimedia broadcast multicast services, MBMS, if the terminal is capable of receiving the public safety service; configuring, if the terminal receives the MBMS, a priority of a frequency band for receiving the MBMS to be highest among a plurality of frequency bands; and transmitting , to the terminal , a connection release message including information on a priority of each of the plurality of the frequency bands. determining whether to terminate a call connection with a terminal ; determining whether the terminal is capable of receiving a public safety service; determining whether the terminal receives a multimedia broadcast multicast services, MBMS, if the terminal is capable of receiving the public safety service; configuring, if the terminal receives the MBMS, a priority of a frequency band for receiving the MBMS to be highest among a plurality of frequency bands; and transmitting , to the terminal , a connection release message including information on a priority of each of the plurality of the frequency bands.
A coating film comprising a metal oxide (A) and a hydrophilic compound (B), wherein an elemental concentration ratio (C1s/M), which is between carbon (C) element and a metal element and which is obtained from a metal (M) spectrum derived from the metal oxide and a C1s spectrum in an elemental analysis of the surface using XPS, is within the range of 0.2 to 10, wherein the metal oxide (A) is colloidal silica, and wherein the hydrophilic compound (B) has an alkylene glycol moiety in the molecule.
A method of guiding movement of an agricultural system within a field , the method comprising: receiving sensor data indicative of an environment of an agricultural system ; identifying, from the sensor data, a material profile along which the agricultural system shall be guided; determining one or more properties of the material profile from the sensor data indicative of an irregularity in the material profile; determining a correcting path segment for guiding movement of the agricultural system with respect to the determined material profile irregularity; and controlling movement of the agricultural system along the determined correcting path segment ; characterized by a first path planning procedure comprising the determination of the correcting path segment with respect to a global path ; wherein the method comprises performing one or more alternative path planning procedures comprising the determination of the correcting path segment if the global path is not available or has not been determined; wherein the execution of the one or more alternative path planning procedures depends on whether the agricultural system is determined to be located in a headland of the environment; or the agricultural system is determined not to be located in a headland of the environment; or a field contour is available. receiving sensor data indicative of an environment of an agricultural system ; identifying, from the sensor data, a material profile along which the agricultural system shall be guided; determining one or more properties of the material profile from the sensor data indicative of an irregularity in the material profile; determining a correcting path segment for guiding movement of the agricultural system with respect to the determined material profile irregularity; and controlling movement of the agricultural system along the determined correcting path segment ; characterized by a first path planning procedure comprising the determination of the correcting path segment with respect to a global path ; wherein the method comprises performing one or more alternative path planning procedures comprising the determination of the correcting path segment if the global path is not available or has not been determined; wherein the execution of the one or more alternative path planning procedures depends on whether the agricultural system is determined to be located in a headland of the environment; or the agricultural system is determined not to be located in a headland of the environment; or a field contour is available. the agricultural system is determined to be located in a headland of the environment; or the agricultural system is determined not to be located in a headland of the environment; or a field contour is available.
An inductor damper circuit comprising: a shared magnetic core ; a primary winding wound around the shared magnetic core wherein the primary winding comprises an inductor winding having a first wire diameter; and a secondary winding comprising a resistive damper winding having a second wire diameter that is less than the first wire diameter and wherein the secondary winding is wound around the same shared magnetic core and is contactless magnetically coupled with the primary winding, wherein the primary winding is a copper winding and characterized in that the resistive damper winding comprises a resistive alloy. a shared magnetic core ; a primary winding wound around the shared magnetic core wherein the primary winding comprises an inductor winding having a first wire diameter; and a secondary winding comprising a resistive damper winding having a second wire diameter that is less than the first wire diameter and wherein the secondary winding is wound around the same shared magnetic core and is contactless magnetically coupled with the primary winding, wherein the primary winding is a copper winding and characterized in that the resistive damper winding comprises a resistive alloy.
A system for identifying malicious activity comprising: a telemetry gathering component configured to receive a plurality of telemetry data streams from a plurality of devices , each of the plurality of telemetry data streams having a plurality of events; an anchor identification component configured to identify an anchor event in a first telemetry data stream, wherein the anchor event is an event or signal which is known to be malicious or related to malicious activity; and a satellite identification component configured to identify a satellite event in at least a second telemetry data stream, the satellite event corresponding to an event in the first telemetry data stream within an anchor timeframe from the anchor event; wherein the satellite identification component is further configured to identify the satellite event in a third telemetry data stream and to identify an unidentified anchor event in the third telemetry data stream, the unidentified anchor event having a relationship to the satellite event and occurring within the anchor timeframe; wherein the satellite identification component is adapted to tag the unidentified anchor event having a relationship to the satellite event as anchor event or to flag the unidentified anchor event having a relationship to the satellite event for analysis by a malware researcher. a telemetry gathering component configured to receive a plurality of telemetry data streams from a plurality of devices , each of the plurality of telemetry data streams having a plurality of events; an anchor identification component configured to identify an anchor event in a first telemetry data stream, wherein the anchor event is an event or signal which is known to be malicious or related to malicious activity; and a satellite identification component configured to identify a satellite event in at least a second telemetry data stream, the satellite event corresponding to an event in the first telemetry data stream within an anchor timeframe from the anchor event; wherein the satellite identification component is further configured to identify the satellite event in a third telemetry data stream and to identify an unidentified anchor event in the third telemetry data stream, the unidentified anchor event having a relationship to the satellite event and occurring within the anchor timeframe; wherein the satellite identification component is adapted to tag the unidentified anchor event having a relationship to the satellite event as anchor event or to flag the unidentified anchor event having a relationship to the satellite event for analysis by a malware researcher.
A Method for manufacturing carbonous material, the method comprising - mixing a solid composition (SC) with first water (W1) to form a carbonatable mixture (M2C), the solid composition (SC) comprising a compound comprising an element selected from the Group I or II of the periodic table of elements excluding hydrogen, - adding liquid or gaseous carbonating fluid (CF) to the carbonatable mixture (M2C) to carbonate the carbonatable mixture (M2C) in a primary reactor arrangement to form carbonated mixture (CM), the carbonating fluid (CF) comprising at least 1 vol % carbon dioxide (CO 2 ), such that a pH of the carbonated mixture (CM) is less than 9, - separating a first water fraction (WF1) and a first solid fraction (SF1) from the carbonated mixture (CM) by using a primary dewatering apparatus, - adding a second water (W2) to the first solid fraction (SF1) to form sludge comprising at least a part of the carbonated mixture (CM), and thereafter - adding a stabilizer (S) comprising iron (Fe) to the sludge comprising at least a part of the carbonated mixture (CM) to stabilize the carbonated mixture (CM) in a secondary reactor arrangement to produce a mixture (MA) comprising the carbonous material. - mixing a solid composition (SC) with first water (W1) to form a carbonatable mixture (M2C), the solid composition (SC) comprising a compound comprising an element selected from the Group I or II of the periodic table of elements excluding hydrogen, - adding liquid or gaseous carbonating fluid (CF) to the carbonatable mixture (M2C) to carbonate the carbonatable mixture (M2C) in a primary reactor arrangement to form carbonated mixture (CM), the carbonating fluid (CF) comprising at least 1 vol % carbon dioxide (CO 2 ), such that a pH of the carbonated mixture (CM) is less than 9, - separating a first water fraction (WF1) and a first solid fraction (SF1) from the carbonated mixture (CM) by using a primary dewatering apparatus, - adding a second water (W2) to the first solid fraction (SF1) to form sludge comprising at least a part of the carbonated mixture (CM), and thereafter - adding a stabilizer (S) comprising iron (Fe) to the sludge comprising at least a part of the carbonated mixture (CM) to stabilize the carbonated mixture (CM) in a secondary reactor arrangement to produce a mixture (MA) comprising the carbonous material.
A mobile device comprising: a plurality of radio frequency, RF, antennas configured to transmit, TX, or receive, RX, at least one RF signal; and a processor configured to: configure at least one RF antenna, among the plurality of RF antennas , as a TX antenna and at least one of the remaining RF antennas as at least one RX antenna based on an orientation of the mobile device , cause the TX antenna to transmit the at least one RF signal, cause the at least one RX antenna to receive portions of the at least one RF signal, the portions being reflected from at least one object. calculate each of flight times of the at least one RF signal with respect to each of the at least one RX antenna, and identify a location of the at least one object based on intersections of each of a plurality of ellipsoids with a first focus at the TX antenna and a second focus at each of the at least one RX antenna, wherein the plurality of ellipsoids is determined based on each of the flight times of the at least one RF signal and each of the plurality of RF antennas is reconfigurable as the TX antenna or the at least one RX antenna. a plurality of radio frequency, RF, antennas configured to transmit, TX, or receive, RX, at least one RF signal; and a processor configured to: configure at least one RF antenna, among the plurality of RF antennas , as a TX antenna and at least one of the remaining RF antennas as at least one RX antenna based on an orientation of the mobile device , cause the TX antenna to transmit the at least one RF signal, cause the at least one RX antenna to receive portions of the at least one RF signal, the portions being reflected from at least one object. calculate each of flight times of the at least one RF signal with respect to each of the at least one RX antenna, and identify a location of the at least one object based on intersections of each of a plurality of ellipsoids with a first focus at the TX antenna and a second focus at each of the at least one RX antenna, configure at least one RF antenna, among the plurality of RF antennas , as a TX antenna and at least one of the remaining RF antennas as at least one RX antenna based on an orientation of the mobile device , cause the TX antenna to transmit the at least one RF signal, cause the at least one RX antenna to receive portions of the at least one RF signal, the portions being reflected from at least one object. calculate each of flight times of the at least one RF signal with respect to each of the at least one RX antenna, and identify a location of the at least one object based on intersections of each of a plurality of ellipsoids with a first focus at the TX antenna and a second focus at each of the at least one RX antenna, wherein the plurality of ellipsoids is determined based on each of the flight times of the at least one RF signal and each of the plurality of RF antennas is reconfigurable as the TX antenna or the at least one RX antenna.
A blister package , comprising a plastic foil molding furnished with cavities and an opaque cover foil having at least one transparent region arranged outside of the cavities, wherein the plastic foil molding defines the front side of the blister package and the opaque cover foil the back side of the blister package , and the blister package additionally has in a certain region, which is formed outside of the region of the cavities of the plastic foil molding and is arranged overlapping at least the transparent region of the opaque cover foil , a semi-transparent function layer , which is constituted such that the blister package has in the transparent region of the opaque cover foil upon viewing in incident light a first, visually recognizable color and upon viewing in transmitted light has a second, visually recognizable color.
A common mode choke (63; 63a; 64; 66) comprising: • a magnetic core ; • a first winding (W ab ) of insulated wire having a number of turns wound on said magnetic core; and • a second winding (W cd ) of insulated wire having the same number of turns as the first winding wound on said magnetic core, wherein • the turns of each winding (W ab ; W cd ) are numbered consecutively; and • the turns of each winding (W ab ; W cd ) are arranged in at least two layers, of which a first layer (L 1 ) of turns is wound directly on said magnetic core and a second layer (L 2 ) of turns is wound around a section of said first layer, characterized in that • the first and second layers of each winding (W ab ; W cd ) are arranged such that the difference between the highest number of a turn in the second layer (L 2 ) and the lowest number of a turn in the section of the first layer (L 1 ) on which the second layer (L 2 ) is wound is less than or equal to 50 % of the number of turns in the first layer (L 1 ) of that winding; • the first layer (L 1 ) consists of turns having consecutive numbers from turn number one to the number of turns (N 1 ) in the first layer (L 1 ); • the second layer (L 2 ) consists of turns having consecutive numbers higher than the number of turns (N 1 ) in the first layer (L 1 ); and • the section of the first layer (L 1 ) on which the second layer (L 2 ) is wound comprises the highest numbered turns of the first layer (L 1 ). • a magnetic core ; • a first winding (W ab ) of insulated wire having a number of turns wound on said magnetic core; and • a second winding (W cd ) of insulated wire having the same number of turns as the first winding wound on said magnetic core, wherein • the turns of each winding (W ab ; W cd ) are numbered consecutively; and • the turns of each winding (W ab ; W cd ) are arranged in at least two layers, of which a first layer (L 1 ) of turns is wound directly on said magnetic core and a second layer (L 2 ) of turns is wound around a section of said first layer, characterized in that • the first and second layers of each winding (W ab ; W cd ) are arranged such that the difference between the highest number of a turn in the second layer (L 2 ) and the lowest number of a turn in the section of the first layer (L 1 ) on which the second layer (L 2 ) is wound is less than or equal to 50 % of the number of turns in the first layer (L 1 ) of that winding; • the first layer (L 1 ) consists of turns having consecutive numbers from turn number one to the number of turns (N 1 ) in the first layer (L 1 ); • the second layer (L 2 ) consists of turns having consecutive numbers higher than the number of turns (N 1 ) in the first layer (L 1 ); and • the section of the first layer (L 1 ) on which the second layer (L 2 ) is wound comprises the highest numbered turns of the first layer (L 1 ).