mhurhangee/ep-ind-claims huggingface dataset:
A method of making a window frame unit, where the frame comprises a top member, a bottom member and two side members and carries a pane comprising at least two sheet elements (2,4,6), and where the frame comprises one or more functional elements, said method comprising the following steps: a) at least two frame parts (1,3,5) each comprising a top section, a bottom section and two side sections (12,52,13,53) are made by moulding, b) at least one sheet element (2, 4, 6) is attached to each of said at least two frame parts (1,3,5) during the moulding step, thereby forming a unit layer, c) at least one functional element is attached to each of said two frame parts (1,3,5) during or after the moulding thereof, and d) the at least two unit layers are superposed and interconnected so that the top sections (11,51), bottom sections (14,54) and side sections (12,52,13,53) of the frame parts (1,3,5) form the top member, bottom member and side members of the frame, respectively, characterized the functional element attached to one of said at least two frame parts (1, 3, 5) is a hinge or a mounting bracket for interconnection to a load-bearing structure and that the other functional element attached to the other of said at least two frame parts (1,3,5) is insulating material. a) at least two frame parts (1,3,5) each comprising a top section, a bottom section and two side sections (12,52,13,53) are made by moulding, b) at least one sheet element (2, 4, 6) is attached to each of said at least two frame parts (1,3,5) during the moulding step, thereby forming a unit layer, c) at least one functional element is attached to each of said two frame parts (1,3,5) during or after the moulding thereof, and d) the at least two unit layers are superposed and interconnected so that the top sections (11,51), bottom sections (14,54) and side sections (12,52,13,53) of the frame parts (1,3,5) form the top member, bottom member and side members of the frame, respectively,
A cladding clip suitable for holding tongue and groove type cladding boards, the clip comprising: a lateral base; a head coupled to and upstanding from the lateral base; and, a flexible lip for holding a cladding board, wherein the lip is upstanding from the lateral base and laterally spaced from the head along the base; wherein the flexible lip is hooked so that a lateral part of the lip extends laterally, spaced from the base; wherein the flexible lip is configured to mate with a tongue and groove joint by partially surrounding a tongue of a tongue and groove joint of cladding boards held by the clip; wherein the flexible lip comprises a first upstanding part which spaces the lateral part of the flexible lip from the lateral base, and a second upstanding part upstanding from the lateral part of the flexible lip, wherein the second upstanding part of the flexible lip is hooked; wherein the head is configured to mate with a corresponding recess in the cladding board to locate the board at a selected position with respect to the flexible lip; and wherein the lateral part of the flexible lip is configured to bias a portion of the cladding board toward the lateral base when the hook of the second upstanding part of the flexible lip is engaged by a second board. a lateral base; a head coupled to and upstanding from the lateral base; and, a flexible lip for holding a cladding board, wherein the lip is upstanding from the lateral base and laterally spaced from the head along the base; wherein the flexible lip is hooked so that a lateral part of the lip extends laterally, spaced from the base; wherein the flexible lip is configured to mate with a tongue and groove joint by partially surrounding a tongue of a tongue and groove joint of cladding boards held by the clip; wherein the flexible lip comprises a first upstanding part which spaces the lateral part of the flexible lip from the lateral base, and a second upstanding part upstanding from the lateral part of the flexible lip, wherein the second upstanding part of the flexible lip is hooked; wherein the head is configured to mate with a corresponding recess in the cladding board to locate the board at a selected position with respect to the flexible lip; and wherein the lateral part of the flexible lip is configured to bias a portion of the cladding board toward the lateral base when the hook of the second upstanding part of the flexible lip is engaged by a second board.
An axle system comprising: an axle assembly (120,) including an axle member (28, 32), a gear coupled with said axle member, and a housing (136, 236) encasing a lubrication fluid and at least a portion of said axle member and said gear therein; and a sensor (162, 262) detecting at least one property of said lubrication fluid; and a control module (164, 264) in communication with said sensor (162, 262) and controlling said device in response to information received from said sensor, characterized in that the axle system further comprises: a device (160, 260) selectively transferring heat from an exhaust system (170, 270) to said lubrication fluid in a heating mode. an axle assembly (120,) including an axle member (28, 32), a gear coupled with said axle member, and a housing (136, 236) encasing a lubrication fluid and at least a portion of said axle member and said gear therein; and a sensor (162, 262) detecting at least one property of said lubrication fluid; and a control module (164, 264) in communication with said sensor (162, 262) and controlling said device in response to information received from said sensor, characterized in that the axle system further comprises: a device (160, 260) selectively transferring heat from an exhaust system (170, 270) to said lubrication fluid in a heating mode.
Water feature nozzle comprising at least two separate water channels (1, 3) each having at least one outlet opening (13, 14), controllable, different water volume flows (V 1, V 2) being able to be guided to the outlet openings (13, 14) via the water channels (1, 3) in order to generate variable water images, and an inner water channel being surrounded by at least one outer water channel, characterised in that the water channels (1, 3) guide parallel water flows (V 1, V 2) up to a common nozzle outlet between an outer flow deflector, having a central opening, and an inner flow deflector, which reshapes the inner water volume flow (V 1) into an annular shape.
A carburettor including a primary air passage having an upstream inlet and a downstream outlet, an adjustable throttle valve situated within the primary air passage, a fuel supply nozzle communicating with the primary air passage and connected to a fuel metering valve for varying the amount of fuel discharged through the fuel supply nozzle, said fuel metering valve comprising a bore defining member movably accommodating a valve member, the bore defining member and the valve member defining a fuel inlet space, a fuel inlet communicating with the fuel inlet space, a secondary air passage with a secondary inlet and with an outlet to the primary air passage between the adjustable throttle valve and the primary air passage downstream outlet, characterised by a fuel outlet passing through a side wall of the bore defining member and communicating with the fuel supply nozzle, and a portion of an outer surface of the valve member being so profiled that the valve member is movable relative to the bore defining member such that an area of communication between the fuel inlet space and the fuel outlet varies progressively between a maximum and a minimum value, and the fuel outlet of the fuel metering valve communicating with the secondary air passage, the fuel supply nozzle communicating with the secondary and primary air passages such that the fuel is arranged to mix with the air flowing through the secondary air passage before flowing through the fuel supply nozzle and mixing with the air flowing in the primary air passage downstream of the adjustable throttle valve.
Data carrier arrangement with emergency destruct capability, comprising: at least one data carrier; and a hollow charge, the hollow charge being configured to physically destroy the at least one data carrier, wherein a plurality of data carriers are provided in a magazined arrangement and are physically destructible using the hollow charge, and wherein the hollow charge has external dimensions which conform to the external shape of a data carrier in the magazined arrangement in such a way that the hollow charge can be arranged in the magazined arrangement of the data carrier in the same way as the data carriers. at least one data carrier; and a hollow charge, the hollow charge being configured to physically destroy the at least one data carrier, wherein a plurality of data carriers are provided in a magazined arrangement and are physically destructible using the hollow charge, and wherein the hollow charge has external dimensions which conform to the external shape of a data carrier in the magazined arrangement in such a way that the hollow charge can be arranged in the magazined arrangement of the data carrier in the same way as the data carriers.
A mobile device comprising: a housing comprising a metal chassis (104,184), the metal chassis having a base and a sidewall, the sidewall extending upwardly from the base at a perimeter thereof, the base and the side wall having a plurality of first recesses formed by chemically etching the plurality of first recesses into the surface of the base and the sidewall; characterised by a plastic connector assembly (120,180,182) comprising a connector body (122,186) and a guide rib (124,185) having a plurality of first flow portions, the guide rib is a U-shaped member having distal ends, the guide rib extends upwardly from the base and inwardly from the sidewall, the plurality of recesses formed along the U-shaped member and the distal ends on the metal chassis, the U-shaped member being mechanically bonded to the plurality of the first recesses on the base via the plurality of the first flow portions, the distal ends being mechanically bonded to the plurality of the first recesses on the sidewall via the plurality of the first flow portions, the guide rib forming a cavity sized and shaped to facilitate placement of the connector body having an electrical contact on the metal chassis. a housing comprising a metal chassis (104,184), the metal chassis having a base and a sidewall, the sidewall extending upwardly from the base at a perimeter thereof, the base and the side wall having a plurality of first recesses formed by chemically etching the plurality of first recesses into the surface of the base and the sidewall; characterised by a plastic connector assembly (120,180,182) comprising a connector body (122,186) and a guide rib (124,185) having a plurality of first flow portions, the guide rib is a U-shaped member having distal ends, the guide rib extends upwardly from the base and inwardly from the sidewall, the plurality of recesses formed along the U-shaped member and the distal ends on the metal chassis, the U-shaped member being mechanically bonded to the plurality of the first recesses on the base via the plurality of the first flow portions, the distal ends being mechanically bonded to the plurality of the first recesses on the sidewall via the plurality of the first flow portions, the guide rib forming a cavity sized and shaped to facilitate placement of the connector body having an electrical contact on the metal chassis.
A robot comprising: a robot arm having a distal end at which an end effector is provided; arm drive unit configured to move the robot arm at least in a vertical direction; holding unit provided to the end effector in order to hold a plate member; holding-state detection unit configured to detect whether or not the plate member is held by the holding unit; and robot control unit configured to control the arm drive unit and the holding unit, wherein the robot control unit is configured to turn off the holding unit while the plate member is placed on the end effector, and control the arm drive unit to lower the end effector, by a predetermined distance, from an initial position higher than a preset temporary placing position toward the temporary placing position, switch the holding unit from an OFF state to an ON state while the end effector is stopped; and determine whether or not the plate member is held by the holding unit by using the holding-state detection unit, and wherein in a case in which the plate member is determined to be held by the holding unit, the robot control unit will turn off the holding unit and further lower the end effector by the predetermined distance, and determine again whether or not the plate member is held by the holding unit while the end effector is stopped, and wherein in a case in which the plate member is determined not to be held by the holding unit, the robot control unit will detect a position of the end effector at this point of time as a normal placing position.
A USB cable antenna for acting both as a USB cable and as an antenna for receiving a high-frequency signal in a desired band; the USB cable antenna having a predetermined length; the USB cable antenna comprising a transmission line of a differential signal of the USB cable, a power supply line, a ground line, and a metal shield; wherein the metal shield is configured to coaxially shield the power supply line, the ground line, and the transmission line of the differential signal of the USB cable; the USB cable antenna further comprising a cable-side USB connector connectable to an information terminal device, wherein the cable-side USB connector comprises an identification terminal; wherein the metal shield is connected to the identification terminal; the USB cable antenna further comprising two common mode chokes (25, 32) having a high impedance for the high-frequency signal in the desired band and connected respectively to both ends of the transmission line of the differential signal of the USB cable; and high-frequency cutoff elements (FB, 24, 26, 31, 33) having a high impedance for the high-frequency signal in the desired band and connected respectively to both ends of a power supply line and to both ends of the ground line of the USB cable antenna.
Method for producing a dimensionally water-resistant thermoplastic starch material, characterized in that native starch is extruded to a strand, using water as a destructuring agent with a content of 30-60% by weight relative to the quantity used, and taking in account the moisture content of the native starch, in a twin-screw extruder, at a barrel temperature of 70-105°C and at a specific mechanical energy input ranging from 200-1500, then granulated and afterwards stored for retrogradation at high air humidity >80% and storage times ranging from 1 to 24 hours.
A compound of Formula or a pharmaceutically acceptable salt thereof: wherein X is CH or N; n is 0, 1 or 2; R 1 is methyl, ethyl, cyanomethyl, C-linked acetamido, methyl acetate, 2-hydroxyethyl, 2-hydroxy-1-propyl, 1,3-dihydroxy-2-propyl or 1,2-dihydroxy-3-propyl; R 2 is independently selected from halo, amino, hydroxymethyl, C 1-2 alkyl optionally substituted by up to three fluoro or C 1-2 alkoxy optionally substituted by up to three fluoro; R 3 is phenyl, pyridyl, pyrimidinyl, pyrazinyl or pyridazinyl wherein each of these groups may be optionally substituted by one or two substituents selected from halo, cyano, C 1-2 alkyl optionally substituted by up to three fluoro and C 1-2 alkoxy optionally substituted by up to three fluoro, wherein the substituents may be the same or different; or R 3 is cyclohexyl which may be optionally substituted by one or two fluoro or chloro wherein each substituent may be attached to the same carbon atom and each substituent may be the same or different; or R 3 is tetrahydropyran; and R 4 is H or methyl. X is CH or N; n is 0, 1 or 2; R 1 is methyl, ethyl, cyanomethyl, C-linked acetamido, methyl acetate, 2-hydroxyethyl, 2-hydroxy-1-propyl, 1,3-dihydroxy-2-propyl or 1,2-dihydroxy-3-propyl; R 2 is independently selected from halo, amino, hydroxymethyl, C 1-2 alkyl optionally substituted by up to three fluoro or C 1-2 alkoxy optionally substituted by up to three fluoro; R 3 is phenyl, pyridyl, pyrimidinyl, pyrazinyl or pyridazinyl wherein each of these groups may be optionally substituted by one or two substituents selected from halo, cyano, C 1-2 alkyl optionally substituted by up to three fluoro and C 1-2 alkoxy optionally substituted by up to three fluoro, wherein the substituents may be the same or different; or R 3 is cyclohexyl which may be optionally substituted by one or two fluoro or chloro wherein each substituent may be attached to the same carbon atom and each substituent may be the same or different; or R 3 is tetrahydropyran; and R 4 is H or methyl.
An assembly for an anti-icing system for a nacelle for an aircraft propulsion system, comprising: a nozzle including a distribution conduit, a first nozzle port and a second nozzle port; the distribution conduit comprising a plurality of conduit sections arranged longitudinally along a conduit centerline, the plurality of conduit sections comprising a first conduit section and a second conduit section; the first nozzle port connected to the first conduit section; and the second nozzle port connected to the second conduit section, characterized in that: the second conduit section is angularly offset from the first conduit section; and the first nozzle port and the second nozzle port are each tapered so as to increase flow uniformity to the first nozzle port and the second nozzle port. a nozzle including a distribution conduit, a first nozzle port and a second nozzle port; the distribution conduit comprising a plurality of conduit sections arranged longitudinally along a conduit centerline, the plurality of conduit sections comprising a first conduit section and a second conduit section; the first nozzle port connected to the first conduit section; and the second nozzle port connected to the second conduit section, characterized in that: the second conduit section is angularly offset from the first conduit section; and the first nozzle port and the second nozzle port are each tapered so as to increase flow uniformity to the first nozzle port and the second nozzle port. the second conduit section is angularly offset from the first conduit section; and the first nozzle port and the second nozzle port are each tapered so as to increase flow uniformity to the first nozzle port and the second nozzle port.
A hemostatic biopsy tract article, comprising a bioresorbable body characterised in that the bioresorbable body has a microporous structure, and in that the bioresorbable body is formed by a mixture that includes a bioabsorbable hemostatic powder, a hydrolyzed starch, hyaluronic acid, and carboxymethylcellulose.
A method for video encoding, said method comprising: - selecting from a plurality of significance flag context sets a significance flag context set for a significance flag of a coefficient of a portion of an image, the significance flag signalling that the coefficient is non-zero when the significance flag is equal to one; and - encoding the significance flag using the selected significance flag context set, wherein the selecting uses the N last coded significance flags in scanning order to select the significance flag context set based on the number of significance flags equal to one in said N last coded significance flags. - selecting from a plurality of significance flag context sets a significance flag context set for a significance flag of a coefficient of a portion of an image, the significance flag signalling that the coefficient is non-zero when the significance flag is equal to one; and - encoding the significance flag using the selected significance flag context set, wherein the selecting uses the N last coded significance flags in scanning order to select the significance flag context set based on the number of significance flags equal to one in said N last coded significance flags.
An atropisomer compound of Formula II-A, II-B, II-C, or II-D, or a pharmaceutically acceptable salt thereof: wherein CyN is a cyclic amine group bound via a nitrogen atom that is optionally substituted with one or more substituents independently chosen from halogen, C 1 -C 2 alkyl, and C 1 -C 2 alkoxy; X is C or N; R 1 and R 2 are each independently a halogen, CN, CF 3, CHF 2, CH 2 F, a C 1 -C 10 alkyl group, a C 1 -C 10 alkoxy group, a di(C 1 -C 5 alkyl)amino; m and n are each independently 1, 2, or 3; and at least one R 1 group is an ortho substituent and the atropisomer of Formula II-A, II-B, II-C, or II-D is present in excess of its corresponding enantiomer. CyN is a cyclic amine group bound via a nitrogen atom that is optionally substituted with one or more substituents independently chosen from halogen, C 1 -C 2 alkyl, and C 1 -C 2 alkoxy; X is C or N; R 1 and R 2 are each independently a halogen, CN, CF 3, CHF 2, CH 2 F, a C 1 -C 10 alkyl group, a C 1 -C 10 alkoxy group, a di(C 1 -C 5 alkyl)amino; m and n are each independently 1, 2, or 3; and at least one R 1 group is an ortho substituent and the atropisomer of Formula II-A, II-B, II-C, or II-D is present in excess of its corresponding enantiomer.
An analyte monitoring system, comprising: an Assessor, AS, system configured to generate AS data, the AS system comprising: an in vivo analyte sensor (400, 500) configured for in-vivo detection of an analyte; an AS data processing unit worn by a user, adapted to process data corresponding to the detected analyte, the in vivo analyte sensor coupled to the AS data processing unit; and an AS receiver unit (404, 106) configured to receive AS data from the AS data processing unit, and configured to transfer the AS data to a Health Care Provider, HCP, terminal located at a remote site, wherein the AS system is configured to collect AS data for a period of one or more days; an in vitro meter configured to transfer in-vitro data of the analyte to the HCP terminal, the in vitro meter is configured to collect the in-vitro data at appropriate times during the period of AS data collection; the said HCP terminal comprising a data management system, wherein the analyte monitoring system is configured to operate in a blind retrospective mode in which the AS system does not display or otherwise communicate AS data to the user in real time, and wherein the HCP terminal calibrates the received AS data, which is retrospective, using the data transferred from the in vitro meter which is retrospective, and the data management system further reviews and/or processes the calibrated retrospective AS data. an in vivo analyte sensor (400, 500) configured for in-vivo detection of an analyte; an AS data processing unit worn by a user, adapted to process data corresponding to the detected analyte, the in vivo analyte sensor coupled to the AS data processing unit; and an AS receiver unit (404, 106) configured to receive AS data from the AS data processing unit, and configured to transfer the AS data to a Health Care Provider, HCP, terminal located at a remote site, wherein the AS system is configured to collect AS data for a period of one or more days; an in vitro meter configured to transfer in-vitro data of the analyte to the HCP terminal, the in vitro meter is configured to collect the in-vitro data at appropriate times during the period of AS data collection; the said HCP terminal comprising a data management system, wherein the analyte monitoring system is configured to operate in a blind retrospective mode in which the AS system does not display or otherwise communicate AS data to the user in real time, and wherein the HCP terminal calibrates the received AS data, which is retrospective, using the data transferred from the in vitro meter which is retrospective, and the data management system further reviews and/or processes the calibrated retrospective AS data.