mhurhangee/ep-ind-claims huggingface dataset:
A steering system comprising: a steering shaft, to one end of which a steering member is coupled; a column jacket that holds the steering shaft and is pivotable about a pivot axis that is on the opposite side of the steering shaft from the one end in an axial direction; a bracket that is fixed to a vehicle body and supports the column jacket so that the column jacket is pivotable; an operation member that is operated to allow and prevent pivoting of the column jacket with respect to the bracket; a pair of tooth rows each including a plurality of first teeth each of which has a tooth trace extending in an orthogonal direction orthogonal to both of the axial direction and an intersecting direction vertically intersecting the axial direction and that are arranged along the intersecting direction, the pair of tooth rows being supported by the bracket and being arranged side by side in the axial direction; and a tooth member including a second tooth that has a tooth trace extending in the orthogonal direction, is formed at least one in each of two locations spaced apart from each other in the axial direction, and is configured to mesh with the pair of tooth rows, the tooth member being pivotable together with the column jacket and being movable in the orthogonal direction in accordance with operation of the operation member, characterized in that a tooth tip angle (α) of the first teeth in one tooth row of the pair of tooth rows is different from a tooth tip angle (β) of the first teeth in the other tooth row that is more distant from the pivot axis than the one tooth row. a steering shaft, to one end of which a steering member is coupled; a column jacket that holds the steering shaft and is pivotable about a pivot axis that is on the opposite side of the steering shaft from the one end in an axial direction; a bracket that is fixed to a vehicle body and supports the column jacket so that the column jacket is pivotable; an operation member that is operated to allow and prevent pivoting of the column jacket with respect to the bracket; a pair of tooth rows each including a plurality of first teeth each of which has a tooth trace extending in an orthogonal direction orthogonal to both of the axial direction and an intersecting direction vertically intersecting the axial direction and that are arranged along the intersecting direction, the pair of tooth rows being supported by the bracket and being arranged side by side in the axial direction; and a tooth member including a second tooth that has a tooth trace extending in the orthogonal direction, is formed at least one in each of two locations spaced apart from each other in the axial direction, and is configured to mesh with the pair of tooth rows, the tooth member being pivotable together with the column jacket and being movable in the orthogonal direction in accordance with operation of the operation member, characterized in that a tooth tip angle (α) of the first teeth in one tooth row of the pair of tooth rows is different from a tooth tip angle (β) of the first teeth in the other tooth row that is more distant from the pivot axis than the one tooth row.
A helmet airflow control member, comprising: a plate-like main body arranged on a shell and including a main body rear surface that covers part of a shell outer surface; and at least one passage formation portion arranged on the main body rear surface, wherein a periphery of the main body rear surface includes a first peripheral portion (21 E1), which is shaped in correspondence with the shell outer surface and closes a space between the main body rear surface and the shell outer surface, and a second peripheral portion (21E2), which is spaced apart from the shell outer surface and defines an opening of the space between the main body rear surface and the shell outer surface in cooperation with the shell outer surface, and the passage formation portion defines a passage in the space, with the passage extending from the opening into the space and returning from the space to the opening. a plate-like main body arranged on a shell and including a main body rear surface that covers part of a shell outer surface; and at least one passage formation portion arranged on the main body rear surface, wherein a periphery of the main body rear surface includes a first peripheral portion (21 E1), which is shaped in correspondence with the shell outer surface and closes a space between the main body rear surface and the shell outer surface, and a second peripheral portion (21E2), which is spaced apart from the shell outer surface and defines an opening of the space between the main body rear surface and the shell outer surface in cooperation with the shell outer surface, and the passage formation portion defines a passage in the space, with the passage extending from the opening into the space and returning from the space to the opening.
A computing device comprising one or more processors and one or more memory devices having stored thereon computer readable instructions which, when executed by the one or more processors, cause the computing device to establish a trusted execution environment for executing application code, the trusted execution environment comprising: - an execution engine configured to execute application code; - a storage module configured to provide read-only access to the execution engine for accessing the application code; and - a management module configured to: - receive, from a requestor, execution request(s) to execute the application code; - instruct the execution engine to load the application code from the storage module and to execute the application code according to the execution request; - bundle data input, response data output to and from the execution engine into input data stream(s) and output data stream(s), respectively; - terminate the execution engine after execution of the application code; - create an execution record of execution of the application code by the execution engine comprising data indicative of said input data stream (s) and output data stream(s); and - transmit the execution record to the requestor. - an execution engine configured to execute application code; - a storage module configured to provide read-only access to the execution engine for accessing the application code; and - a management module configured to: - receive, from a requestor, execution request(s) to execute the application code; - instruct the execution engine to load the application code from the storage module and to execute the application code according to the execution request; - bundle data input, response data output to and from the execution engine into input data stream(s) and output data stream(s), respectively; - terminate the execution engine after execution of the application code; - create an execution record of execution of the application code by the execution engine comprising data indicative of said input data stream (s) and output data stream(s); and - transmit the execution record to the requestor. - receive, from a requestor, execution request(s) to execute the application code; - instruct the execution engine to load the application code from the storage module and to execute the application code according to the execution request; - bundle data input, response data output to and from the execution engine into input data stream(s) and output data stream(s), respectively; - terminate the execution engine after execution of the application code; - create an execution record of execution of the application code by the execution engine comprising data indicative of said input data stream (s) and output data stream(s); and - transmit the execution record to the requestor.
Exhaust gas purification system for an internal combustion engine, having an exhaust system which is connectable to an outlet of the internal combustion engine, wherein the exhaust system comprises an exhaust gas channel in which, in the flow direction of an exhaust of the internal combustion engine through the exhaust gas channel, a particle filter is arranged proximal to the engine as a first emission-reducing component; a first three-way catalytic converter is arranged downstream of the particle filter, likewise in a position proximal to the engine; and a further three-way catalytic converter is arranged downstream of the first three-way catalytic converter; wherein an exhaust gas burner is arranged downstream of the particle filter, with which burner hot exhaust can be introduced into the exhaust system to heat at least one of the three-way catalytic converters (26, 28).
A system comprising: a first switch having a single pole and dual throws (114, 116), wherein the single pole is on a supply side of the first switch, wherein the dual throws are on a load side of the first switch, and wherein the dual throws include a normally open, NO, throw and a normally closed, NC, throw; a second switch having a single pole and dual throws (122, 124), wherein the single pole is on a supply side of the second switch, wherein the dual throws are on a load side of the second switch, and wherein the dual throws include a NO throw and a NC throw; a third switch having a single pole and dual throws (130, 132), wherein the single pole is on a supply side of the third switch, wherein the dual throws are on a load side of the third switch, and wherein the dual throws include a NO throw and a NC throw; a first voltage detector connected from the single pole of the first switch to the NC throw of the third switch; a second voltage detector connected from the single pole of the second switch to the NC throw of the first switch; and a third voltage detector connected from the single pole of the third switch to a NC throw of the second switch. a first switch having a single pole and dual throws (114, 116), wherein the single pole is on a supply side of the first switch, wherein the dual throws are on a load side of the first switch, and wherein the dual throws include a normally open, NO, throw and a normally closed, NC, throw; a second switch having a single pole and dual throws (122, 124), wherein the single pole is on a supply side of the second switch, wherein the dual throws are on a load side of the second switch, and wherein the dual throws include a NO throw and a NC throw; a third switch having a single pole and dual throws (130, 132), wherein the single pole is on a supply side of the third switch, wherein the dual throws are on a load side of the third switch, and wherein the dual throws include a NO throw and a NC throw; a first voltage detector connected from the single pole of the first switch to the NC throw of the third switch; a second voltage detector connected from the single pole of the second switch to the NC throw of the first switch; and a third voltage detector connected from the single pole of the third switch to a NC throw of the second switch.
Coolant circuit for controlling the temperature of charge gas for an internal combustion engine, having a thermostatic valve which is designed to divide a coolant flow between a vehicle radiator and a bypass coolant line which guides a portion of the coolant flow past the vehicle radiator, wherein the thermostatic valve reacts to a mixing temperature which is based on a mixture of coolant that has passed through the vehicle radiator with the coolant that has been guided past the vehicle radiator, wherein the coolant circuit also has: a charge-air cooler which is designed to exchange heat between the mixed coolant and the charge gas; a pump for conveying the coolant along a direction of flow; a first line section downstream of the charge-air cooler in the direction of flow; a branching element having a branching-element inlet and a first branching-element outlet and a second branching-element outlet, wherein the branching-element inlet is coupled to the first line section, wherein the bypass coolant line is coupled to the first branching-element outlet, wherein the thermostatic valve has a first inlet, a second inlet and an outlet, wherein the bypass coolant line is coupled to the first inlet; and a second line section which is coupled between the outlet of the thermostatic valve and the charge-air cooler, characterized in that the thermostatic valve is designed to set a quantity of coolant flowing from the second inlet to the outlet of the thermostatic valve in accordance with a temperature of the coolant. a charge-air cooler which is designed to exchange heat between the mixed coolant and the charge gas; a pump for conveying the coolant along a direction of flow; a first line section downstream of the charge-air cooler in the direction of flow; a branching element having a branching-element inlet and a first branching-element outlet and a second branching-element outlet, wherein the branching-element inlet is coupled to the first line section, wherein the bypass coolant line is coupled to the first branching-element outlet, wherein the thermostatic valve has a first inlet, a second inlet and an outlet, wherein the bypass coolant line is coupled to the first inlet; and a second line section which is coupled between the outlet of the thermostatic valve and the charge-air cooler,
A method of production of a laser welded joint obtained by arranging metal sheets (3,4) overlaid and welding them by a laser beam from the overlaid direction, the method of production of a laser welded joint characterized by comprising the steps of: forming a layer of a zinc oxide with a boiling point higher than a melting point of the metal sheets at a scheduled welding location on one surface of a metal sheet, overlaying another metal sheet on the layer of a zinc oxide, and laser welding them by irradiating a laser beam from an overlaid direction of the steel sheets so that regions including the layer of a zinc oxide melt. forming a layer of a zinc oxide with a boiling point higher than a melting point of the metal sheets at a scheduled welding location on one surface of a metal sheet, overlaying another metal sheet on the layer of a zinc oxide, and laser welding them by irradiating a laser beam from an overlaid direction of the steel sheets so that regions including the layer of a zinc oxide melt.
A unit for controlling the flow of gas, comprising: - a gas distribution line (2; 102), - a regulating device (3; 103) for controlling the flow of gas along the distribution line (2; 102), the regulating device (3; 103) having a respective shutter designed to at least partly close the passage of the gas along the line (2; 102), - a system (1, 101) for remotely detecting and signalling the open and/or closed state of the shutter, comprising: - an electric switch (17; 18, 117) configured to generate an electrical signal representing at least one of the open and closed states, - a pneumatic detecting device (10; 110) supporting the electric switch (17; 18, 117) and comprising a body (13, 113) which is movable inside it, designed to reach at least an end conditioning position of the electric switch (17, 18; 117) at which the switch (17; 18; 117) generates the electrical signal, - means (22, 122) for remotely transmitting the electrical signal, characterised in that said system (1, 101) further comprises a pilot device (5, 6; 150, 160) for controlling the regulating device (3; 103) and - pneumatic connecting means configured for connecting the pneumatic detecting device (10; 110) at least to the pilot device (5, 6; 150, 160). - a gas distribution line (2; 102), - a regulating device (3; 103) for controlling the flow of gas along the distribution line (2; 102), the regulating device (3; 103) having a respective shutter designed to at least partly close the passage of the gas along the line (2; 102), - a system (1, 101) for remotely detecting and signalling the open and/or closed state of the shutter, comprising: - an electric switch (17; 18, 117) configured to generate an electrical signal representing at least one of the open and closed states, - a pneumatic detecting device (10; 110) supporting the electric switch (17; 18, 117) and comprising a body (13, 113) which is movable inside it, designed to reach at least an end conditioning position of the electric switch (17, 18; 117) at which the switch (17; 18; 117) generates the electrical signal, - means (22, 122) for remotely transmitting the electrical signal, characterised in that said system (1, 101) further comprises a pilot device (5, 6; 150, 160) for controlling the regulating device (3; 103) and - pneumatic connecting means configured for connecting the pneumatic detecting device (10; 110) at least to the pilot device (5, 6; 150, 160).
A thin film transistor comprising a substrate with a gate electrode layer deposited and patterned thereon and a gate insulator layer deposited on the gate electrode layer and the substrate, further comprising (i) a carrier injection layer essentially consisting of ITO arranged above the gate insulator layer, (ii) a source/drain (S/D) electrode layer essentially consisting of Al deposited on the carrier injection layer, and (iii) a semiconductor layer essentially consisting of IGZO, ITZO, ITO, IZO, IGO, HIZO, or indium oxide (In 2 O 3), wherein the TFT is patterned such that the semiconductor layer directly contacts the gate insulator layer, the carrier injection layer and the S/D electrode layer, and wherein the TFT comprises a protection layer, essentially consisting of ITO, wherein the protection layer is arranged above S/D electrode layer and wherein the semiconductor layer reaches from the gate insulator layer to above the protection layer, wherein the semiconductor layer is not located underneath the S/D electrode layer or the injection layer, the semiconductor layer is in contact with the substrate averted surface of the protection layer, and wherein the semiconductor layer directly contacts a) the gate insulator layer, b) a side surface of the carrier injection layer, and c) a side surface of the S/D electrode layer, the contact of the semiconductor layer with the side surface of the S/D electrode layer occurs above the contact of the semiconductor layer with the side surface of the carrier injection layer.
A system for suppressing undesirable vibration modes, the system comprising: a micro-electrical mechanical system (MEMS) resonator, the MEMS resonator comprising: two or more proof masses (202, 402); a plurality of anchors (208, 408), wherein proof masses (202, 402) in the two or more proof masses (202, 402) are connected to the plurality of anchors (208, 408) through a plurality of flexures (210, 410); a substrate, wherein the MEMS resonator is mounted to the substrate through the plurality of anchors (208, 408); and one or more tuned mass dampers (106, 206, 406) configured to counter-act the undesirable vibration modes in the substrate and the MEMS resonator, characterized in that the one or more tuned mass dampers comprise a first mass coupled to a first proof mass in the two or more proof masses through a first flexure (212, 410) that extends between the first mass and the first proof mass and to a second proof mass in the two or more proof masses through a second flexure (212, 410) that extends between the first mass and the second proof mass, wherein the first mass is placed between the first proof mass and the second proof mass, and the first proof mass and the second proof mass are connected to opposite sides of the first mass. a micro-electrical mechanical system (MEMS) resonator, the MEMS resonator comprising: two or more proof masses (202, 402); a plurality of anchors (208, 408), wherein proof masses (202, 402) in the two or more proof masses (202, 402) are connected to the plurality of anchors (208, 408) through a plurality of flexures (210, 410); two or more proof masses (202, 402); a plurality of anchors (208, 408), wherein proof masses (202, 402) in the two or more proof masses (202, 402) are connected to the plurality of anchors (208, 408) through a plurality of flexures (210, 410); a substrate, wherein the MEMS resonator is mounted to the substrate through the plurality of anchors (208, 408); and one or more tuned mass dampers (106, 206, 406) configured to counter-act the undesirable vibration modes in the substrate and the MEMS resonator, characterized in that the one or more tuned mass dampers comprise a first mass coupled to a first proof mass in the two or more proof masses through a first flexure (212, 410) that extends between the first mass and the first proof mass and to a second proof mass in the two or more proof masses through a second flexure (212, 410) that extends between the first mass and the second proof mass, wherein the first mass is placed between the first proof mass and the second proof mass, and the first proof mass and the second proof mass are connected to opposite sides of the first mass.
A method performed by a primary network node for handling a handover of a wireless device from a primary cell to a neighbour cell, the primary cell being serviced by the primary network node, the neighbour cell being serviced by a neighbour network node, and the wireless device, the primary network node, the primary cell, the neighbour network node and the neighbour cell being comprised in a wireless communications network, the method comprising: sending a configuration message to the wireless device, wherein the configuration message comprises instructions for the wireless device to evaluate in parallel a first handover event based on absolute criteria of signal quality measurements from the primary cell and the neighbour cell being compared with absolute thresholds, and a second handover event based on a relative criteria of signal strength measurements from the primary cell and the neighbour cell being compared, and a difference evaluated against a threshold, wherein to evaluate comprises determining if an entering condition for the first handover event is satisfied and if an entering condition for the second handover event is satisfied, and sending a handover command to the wireless device when one of: the entering condition for the first handover event is satisfied over a first time period, and the entering condition for the second handover event is satisfied over a second time period. sending a configuration message to the wireless device, wherein the configuration message comprises instructions for the wireless device to evaluate in parallel a first handover event based on absolute criteria of signal quality measurements from the primary cell and the neighbour cell being compared with absolute thresholds, and a second handover event based on a relative criteria of signal strength measurements from the primary cell and the neighbour cell being compared, and a difference evaluated against a threshold, wherein to evaluate comprises determining if an entering condition for the first handover event is satisfied and if an entering condition for the second handover event is satisfied, and sending a handover command to the wireless device when one of: the entering condition for the first handover event is satisfied over a first time period, and the entering condition for the second handover event is satisfied over a second time period.