mhurhangee/patent-ind-claim-en huggingface dataset:
An air filter housing for an air filter arrangement in a vehicle , the air filter housing being configured for receiving unfiltered air and outputting filtered air by passage of the air through an air filter unit , the air filter housing forming a filter cavity configured to house said air filter unit , and the air filter housing comprising a support member being fixedly arranged in said filter cavity , said support member comprising a filter holder portion for holding said air filter unit in a use position, in which use position the complete filter holder portion is located inside said filter cavity , wherein said filter holder portion is movable between a retracted position being said use position, and an extended position, in which extended position at least a part of said filter holder portion is located outside of said cavity , wherein said filter housing comprises an outlet for filtered air, characterized in that said support member comprises an outlet sealing member arranged between the filter holder portion and the outlet of the filter housing , wherein said outlet sealing member is an expansible and retractable member , preferably an expansible and retractable bellows member . the air filter housing forming a filter cavity configured to house said air filter unit , and the air filter housing comprising a support member being fixedly arranged in said filter cavity , said support member comprising a filter holder portion for holding said air filter unit in a use position, in which use position the complete filter holder portion is located inside said filter cavity , wherein said filter holder portion is movable between a retracted position being said use position, and an extended position, in which extended position at least a part of said filter holder portion is located outside of said cavity , wherein said filter housing comprises an outlet for filtered air, characterized in that said support member comprises an outlet sealing member arranged between the filter holder portion and the outlet of the filter housing , wherein said outlet sealing member is an expansible and retractable member , preferably an expansible and retractable bellows member .
An induction heating cooker , comprising: a first coil ; a second coil arranged outside the first coil ; a third coil arranged outside the second coil ; a first inverter circuit configured to supply a first high-frequency current to the first coil ; a second inverter circuit configured to supply a second high-frequency current to the second coil ; a third inverter circuit configured to supply a third high-frequency current to the third coil ; and a controller configured to control driving of the first inverter circuit , the second inverter circuit , and the third inverter circuit ; and characterised in that the induction cooker further comprises a load determining unit configured to determine a material of a heating object placed above each of the first coil , the second coil and the third coil , wherein when a material of the heating object placed above the first coil is a magnetic material and a material of the heating object placed above the second coil and the third coil includes a non-magnetic material, the controller operates the first inverter circuit and the second inverter circuit , and stops an operation of the third inverter circuit , and controls such that a frequency of the second high-frequency current is higher than a frequency of the first high-frequency current. a first coil ; a second coil arranged outside the first coil ; a third coil arranged outside the second coil ; a first inverter circuit configured to supply a first high-frequency current to the first coil ; a second inverter circuit configured to supply a second high-frequency current to the second coil ; a third inverter circuit configured to supply a third high-frequency current to the third coil ; and a controller configured to control driving of the first inverter circuit , the second inverter circuit , and the third inverter circuit ; and characterised in that the induction cooker further comprises a load determining unit configured to determine a material of a heating object placed above each of the first coil , the second coil and the third coil , wherein when a material of the heating object placed above the first coil is a magnetic material and a material of the heating object placed above the second coil and the third coil includes a non-magnetic material, the controller operates the first inverter circuit and the second inverter circuit , and stops an operation of the third inverter circuit , and controls such that a frequency of the second high-frequency current is higher than a frequency of the first high-frequency current.
Reinforcing arrangement for an opening in an aircraft fuselage structure, having - a fuselage skin having an inner side , an outer side and a first opening with a first opening contour, and - a reinforcing structure having a thickening section and at least one projecting profile , wherein the first opening contour is surrounded on the inner side of the fuselage skin by an opening edge surface on an opening edge region, which has a thickness that equals a thickness of the fuselage skin surrounding the opening edge surface , wherein the thickening section has a bearing surface matched to the opening edge surface and has a receiving section which faces away from the bearing surface and surrounds a second opening , wherein the at least one projecting profile is arranged on the receiving section and extends in a direction away from the bearing surface , wherein the reinforcing structure is in one piece, wherein the fuselage skin and the reinforcing structure are composed of a fibre-reinforced plastic containing reinforcing fibres embedded in a plastic matrix, wherein the bearing surface is in surface contact with the opening edge surface , and the reinforcing structure is connected to the fuselage skin , with the result that the first opening and the second opening lie one above the other, wherein a plurality of first reinforcing fibres extends both within the bearing surface and within the projecting profile , and wherein a plurality of second reinforcing fibres extends exclusively within the bearing surface and overlaps or is interleaved with the first reinforcing fibres . - a fuselage skin having an inner side , an outer side and a first opening with a first opening contour, and - a reinforcing structure having a thickening section and at least one projecting profile , wherein the first opening contour is surrounded on the inner side of the fuselage skin by an opening edge surface on an opening edge region, which has a thickness that equals a thickness of the fuselage skin surrounding the opening edge surface , wherein the thickening section has a bearing surface matched to the opening edge surface and has a receiving section which faces away from the bearing surface and surrounds a second opening , wherein the at least one projecting profile is arranged on the receiving section and extends in a direction away from the bearing surface , wherein the reinforcing structure is in one piece, wherein the fuselage skin and the reinforcing structure are composed of a fibre-reinforced plastic containing reinforcing fibres embedded in a plastic matrix, wherein the bearing surface is in surface contact with the opening edge surface , and the reinforcing structure is connected to the fuselage skin , with the result that the first opening and the second opening lie one above the other, wherein a plurality of first reinforcing fibres extends both within the bearing surface and within the projecting profile , and wherein a plurality of second reinforcing fibres extends exclusively within the bearing surface and overlaps or is interleaved with the first reinforcing fibres .
An implantable medical device assembly comprising: a mounting structure having a length defined from a proximal end thereof to a distal end thereof, a thickness defined from a first surface thereof to a second surface thereof, and a width defined from a first side thereof to a second side thereof, the mounting structure comprising first and second shoulders (311-S) formed in the first surface of the structure and aligned along the length of the structure, the first shoulder being adjacent to the first side of the structure, and the second shoulder being adjacent to the second side of the structure; an electrode protruding from the first surface of the mounting structure; and a first tissue-penetrating fixation tine and a second tissue-penetrating fixation tine , wherein the first and second tissue-penetrating fixation tines are located on opposite sides of the electrode, and wherein each of the first and second tissue-penetrating fixation tines includes a pre-formed V-shaped segment that has a piercing tip , that extends away from a corresponding shoulder of the first surface of the mounting structure, and that is elastically deformable between a relaxed condition and an extended condition, the relaxed condition being that of the pre-formed V-shape, the extended condition being that in which each of the pre-formed V-shaped segment bends toward the distal end of the mounting structure and extends along the corresponding shoulder of the mounting structure so that each piercing tip is located distal to the electrode. a mounting structure having a length defined from a proximal end thereof to a distal end thereof, a thickness defined from a first surface thereof to a second surface thereof, and a width defined from a first side thereof to a second side thereof, the mounting structure comprising first and second shoulders (311-S) formed in the first surface of the structure and aligned along the length of the structure, the first shoulder being adjacent to the first side of the structure, and the second shoulder being adjacent to the second side of the structure; an electrode protruding from the first surface of the mounting structure; and a first tissue-penetrating fixation tine and a second tissue-penetrating fixation tine , wherein the first and second tissue-penetrating fixation tines are located on opposite sides of the electrode, and wherein each of the first and second tissue-penetrating fixation tines includes a pre-formed V-shaped segment that has a piercing tip , that extends away from a corresponding shoulder of the first surface of the mounting structure, and that is elastically deformable between a relaxed condition and an extended condition, the relaxed condition being that of the pre-formed V-shape, the extended condition being that in which each of the pre-formed V-shaped segment bends toward the distal end of the mounting structure and extends along the corresponding shoulder of the mounting structure so that each piercing tip is located distal to the electrode.
Process for controlling the roll motion of a ship, with null or low ship speed, through at least one stabilizing fin, the process comprising the following steps: a. starting a movement of the stabilizing fin when the roll motion starts; b. impressing a motion law of the stabilizing fin depending on the roll rate; c. ending the movement of the stabilizing fin when the roll motion ends, wherein the movement of the stabilizing fin is stopped next to any position reached by the stabilizing fin, the stabilizing fin being moved with a rate proportional to the roll rate, to create a gradual stabilizing movement opposed to the roll motion, and, next to a null roll rate, the stabilizing fin instantaneously stopping and keeping its reached position, whichever its reached position is, next to a not null roll rate, the stabilizing fin starting again moving, starting from the position reached in a previous cycle for controlling the roll motion. a. starting a movement of the stabilizing fin when the roll motion starts; b. impressing a motion law of the stabilizing fin depending on the roll rate; c. ending the movement of the stabilizing fin when the roll motion ends, wherein the movement of the stabilizing fin is stopped next to any position reached by the stabilizing fin, the stabilizing fin being moved with a rate proportional to the roll rate, to create a gradual stabilizing movement opposed to the roll motion, and, next to a null roll rate, the stabilizing fin instantaneously stopping and keeping its reached position, whichever its reached position is, next to a not null roll rate, the stabilizing fin starting again moving, starting from the position reached in a previous cycle for controlling the roll motion.
A method of making a polymer comprising, reacting a conjugated diolefin in a hydrocarbon solvent in the presence of an initiator to form a polymer, bonding alkoxy silane terminal functionalizing groups to the polymer, adding a stabilizing agent to the polymer, the stabilizing agent being a silanol having the formula (R) 4-n Si(OH) n wherein R is a C 1 to C 18 alkyl, C 1 to C 18 alkyl group containing a heteroatom such as nitrogen or oxygen, C 4 to C 8 cycloalkyl, or C 6 to C 18 aromatic group and n is from 1 to 3, and desolvatizing the polymer, resulting in a polymer with stable Mooney viscosity. reacting a conjugated diolefin in a hydrocarbon solvent in the presence of an initiator to form a polymer, bonding alkoxy silane terminal functionalizing groups to the polymer, adding a stabilizing agent to the polymer, the stabilizing agent being a silanol having the formula (R) 4-n Si(OH) n wherein R is a C 1 to C 18 alkyl, C 1 to C 18 alkyl group containing a heteroatom such as nitrogen or oxygen, C 4 to C 8 cycloalkyl, or C 6 to C 18 aromatic group and n is from 1 to 3, and desolvatizing the polymer, resulting in a polymer with stable Mooney viscosity.
A deformable tapping plate comprising: a central member including at least two mounting openings and a mounting surface , the mounting surface defining a mounting plane ; and a first attachment pad located adjacent a first end of the central member and connected to the central member by a first connecting arm , the first attachment pad including a first attachment surface ; and a second attachment pad located adjacent to a second end of the central member opposite to the first attachment pad and connected to the central member by a second connecting arm , the second attachment pad including a second attachment surface ; the first connecting arm including a first arched portion projecting away from both the mounting plane and the attachment plane ; and the second connecting arm including a second arched portion projecting away from both the mounting plane and the attachment plane ; wherein a single continuous sheet of metal forms each of the first and second attachment pads , the first and second connecting arms , and at least a portion of the central member , characterized in that the second attachment surface is oriented co-planar with the first attachment surface to define an attachment plane , wherein the mounting plane and the attachment plane are oriented substantially parallel to one another with the mounting plane offset from the attachment plane , And in that the first arched portion includes a first narrowed apex having a thickness that is less than a thickness of an adjacent portion of the first arched portion , and the second arched portion includes a second narrowed apex having a thickness that is less than a thickness of an adjacent portion of the second arched portion. a central member including at least two mounting openings and a mounting surface , the mounting surface defining a mounting plane ; and a first attachment pad located adjacent a first end of the central member and connected to the central member by a first connecting arm , the first attachment pad including a first attachment surface ; and a second attachment pad located adjacent to a second end of the central member opposite to the first attachment pad and connected to the central member by a second connecting arm , the second attachment pad including a second attachment surface ; the first connecting arm including a first arched portion projecting away from both the mounting plane and the attachment plane ; and the second connecting arm including a second arched portion projecting away from both the mounting plane and the attachment plane ; wherein a single continuous sheet of metal forms each of the first and second attachment pads , the first and second connecting arms , and at least a portion of the central member ,
An organic zinc compound represented by Formula 1: where R 1 and R 2 are each independently hydrogen or an alkyl group having 1 to 20 carbon atoms; Ar is an aryl group having 6 to 20 carbon atoms; A is a hydrocarbon group having 1 to 20 carbon atoms; an average value of a 1 and a 2 is 0 to 10,000; and an average value of b 1 and b 2 is 10 to 1,000.
A method of updating an online multiplayer game session by a mobile device of a game participant, said method comprising: detecting a game event during the multiplayer game session; sending an update request to a game data object server responsive to said game event, said update request including the identity of one or more other game participants and an event identifier associated with the game event; receiving a game data object from the game data object server responsive to said update request, said game data object containing a game update corresponding to the one or more other game participants and the game event specified in the update request; updating the multiplayer game session with the game data object. detecting a game event during the multiplayer game session; sending an update request to a game data object server responsive to said game event, said update request including the identity of one or more other game participants and an event identifier associated with the game event; receiving a game data object from the game data object server responsive to said update request, said game data object containing a game update corresponding to the one or more other game participants and the game event specified in the update request; updating the multiplayer game session with the game data object.
A motor vehicle control system for controlling a plurality of vehicle subsystems to operate in a plurality of subsystem configuration modes in dependence on a selected driving surface, the system being operable in a manual operating mode in which a user is able to select said driving surface and an automatic operating mode in which the system is operable to select said driving surface automatically; characterised in that the system is able to be switched between said manual and automatic operating modes by means of a user-operable input device ; and wherein when operating in the automatic operating mode and a change from the automatic operating mode to the manual operating mode is made via the user-operable input device , the system is configured to select a default subsystem configuration mode.
Cable guide for an articulated vehicle , with a leaf spring , with a cable conduit which extends along the leaf spring , and with a cable which is guided in the cable conduit , the cable guide being designed to be arranged between a first section and a second section of the articulated vehicle , the cable guide comprising a central hoop , and the leaf spring being connected to the central hoop , the central hoop being designed to enclose a passage which is intended for passengers, and with a holder which holds the cable conduit at a fixed spacing relative to the leaf spring , the cable conduit being mounted by way of the holder such that it can be displaced in the longitudinal direction relative to the leaf spring .
A method, comprising: towing an object by a marine survey vessel in a body of water; causing a first roll of at least a section (108-1) of the towed object while the towed object is being towed in a first heading as part of a calibration process, wherein the section (108-1) includes a towed object telemetry unit thereon; causing a second roll of at least the section (108-1) of the towed object while the towed object is being towed in a second heading as part of the calibration process; causing a third roll of at least the section (108-1) of the towed object while the towed object is being towed in a third heading as part of the calibration process; wherein the first heading, the second heading, and the third heading are different headings; acquiring roll data from a magnetometer (114-1) and an accelerometer (112-1) of the towed object telemetry unit (111-1) during the first, second and third rolls of the towed object ; calibrating the magnetometer (114-1) based on the roll data by adjusting bias and gain of the magnetometer (114-1) such that the roll data fits a sphere; causing a turn of the towed object from a first heading to a second heading as part of the calibration process; acquiring turn data from the magnetometer (114-1) and the accelerometer (112-1) during the turn of the towed object ; and further calibrating the magnetometer (114-1) based on the turn data by adjusting bias and gain of the magnetometer (114-1) such that the turn data scales to a circle. towing an object by a marine survey vessel in a body of water; causing a first roll of at least a section (108-1) of the towed object while the towed object is being towed in a first heading as part of a calibration process, wherein the section (108-1) includes a towed object telemetry unit thereon; causing a second roll of at least the section (108-1) of the towed object while the towed object is being towed in a second heading as part of the calibration process; causing a third roll of at least the section (108-1) of the towed object while the towed object is being towed in a third heading as part of the calibration process; wherein the first heading, the second heading, and the third heading are different headings; acquiring roll data from a magnetometer (114-1) and an accelerometer (112-1) of the towed object telemetry unit (111-1) during the first, second and third rolls of the towed object ; calibrating the magnetometer (114-1) based on the roll data by adjusting bias and gain of the magnetometer (114-1) such that the roll data fits a sphere; causing a turn of the towed object from a first heading to a second heading as part of the calibration process; acquiring turn data from the magnetometer (114-1) and the accelerometer (112-1) during the turn of the towed object ; and further calibrating the magnetometer (114-1) based on the turn data by adjusting bias and gain of the magnetometer (114-1) such that the turn data scales to a circle.
Component of a turbomachine comprising a thermal barrier coating system having a ceramic coating made of fully or partially stabilized zirconium oxide and an oxide cover coating on the ceramic coating , the oxide cover coating comprising aluminum oxide, the aluminum oxide at least partially being present as free α-Al 2 O 3 and the oxide cover coating comprising at least 50 vol.% of the α-Al 2 O 3 and an oxide coating system comprising the thermal barrier coating made of zirconium oxide and the oxide cover coating , characterized in that the oxide cover coating further includes lanthanum and the oxide cover coating has a porosity of 5 to 30 vol%.
Use of a molding material in molding by a Fused Deposition Modeling method, wherein: the molding material contains an ethylene-vinyl alcohol copolymer, a content of an ethylene structural unit in the ethylene-vinyl alcohol copolymer is 20 mol% to 50 mol%, and a content of the ethylene-vinyl alcohol copolymer in the molding material is 50 mass% or more. the molding material contains an ethylene-vinyl alcohol copolymer, a content of an ethylene structural unit in the ethylene-vinyl alcohol copolymer is 20 mol% to 50 mol%, and a content of the ethylene-vinyl alcohol copolymer in the molding material is 50 mass% or more.