mhurhangee/ep-ind-claims huggingface dataset:
Gas sensor, including: a membrane; a heating element arranged in or on the membrane between a first discontinuation area of the membrane and a second discontinuation area of the membrane, wherein the first discontinuation area of the membrane comprises several discontinuations (162, 162 1, 162 i) of the membrane, and wherein the second discontinuation area of the membrane comprises several discontinuations (172, 172 1, 172 i) of the membrane, a first temperature sensor structure arranged at least partially in or on the membrane on a side of the first discontinuation area of the membrane opposite to the heating element; and a second temperature sensor structure arranged at least partially in or on the membrane on a side of the second discontinuation area of the membrane opposite to the heating element; characterized in that the first discontinuation area and the second discontinuation area comprise several discontinuations (162, 162 1, 162 i, 172, 172 1, 172 i) that are arranged such that a grid structure is created, in which a path (114a, 114b) of a parasitic heat conduction from the heating element to the first temperature sensor structure or to the second temperature sensor structure through the membrane is longer than a direct path (122a, 122b, 210, 220) of a heat conduction from the heating element to the first temperature sensor structure or to the second temperature sensor structure through the gas to be analyzed. a membrane; a heating element arranged in or on the membrane between a first discontinuation area of the membrane and a second discontinuation area of the membrane, wherein the first discontinuation area of the membrane comprises several discontinuations (162, 162 1, 162 i) of the membrane, and wherein the second discontinuation area of the membrane comprises several discontinuations (172, 172 1, 172 i) of the membrane, a first temperature sensor structure arranged at least partially in or on the membrane on a side of the first discontinuation area of the membrane opposite to the heating element; and a second temperature sensor structure arranged at least partially in or on the membrane on a side of the second discontinuation area of the membrane opposite to the heating element; characterized in that the first discontinuation area and the second discontinuation area comprise several discontinuations (162, 162 1, 162 i, 172, 172 1, 172 i) that are arranged such that a grid structure is created, in which a path (114a, 114b) of a parasitic heat conduction from the heating element to the first temperature sensor structure or to the second temperature sensor structure through the membrane is longer than a direct path (122a, 122b, 210, 220) of a heat conduction from the heating element to the first temperature sensor structure or to the second temperature sensor structure through the gas to be analyzed.
An image sensor (S1, S2), comprising: - a light guide (1, 2) extending in a main scanning direction and that is adapted to emit light onto an irradiated body; - a lens that is adapted to focus reflected light reflected by the irradiated body; - a light receiver that is adapted to receive the reflected light focused by the lens; and - a housing (10, 10A) housing or holding the light guide (1, 2), the lens, and the light receiver, and comprising a metal portion and a resin portion that are formed into one housing, and wherein the metal portion comprises: a first bottom section having a slit section extending in the main scanning direction and configured to pass through the reflected light passed through the lens; and a sidewall section bent toward the inside from both ends of the first bottom section; and wherein the resin portion comprises: a lens holder having an opening formed therein, configured to hold the lens fitted inside the opening; and a second bottom section having a light-receiver-board holder that is adapted to hold a light-receiver board on which the light receiver is mounted. - a light guide (1, 2) extending in a main scanning direction and that is adapted to emit light onto an irradiated body; - a lens that is adapted to focus reflected light reflected by the irradiated body; - a light receiver that is adapted to receive the reflected light focused by the lens; and - a housing (10, 10A) housing or holding the light guide (1, 2), the lens, and the light receiver, and comprising a metal portion and a resin portion that are formed into one housing, and a first bottom section having a slit section extending in the main scanning direction and configured to pass through the reflected light passed through the lens; and a sidewall section bent toward the inside from both ends of the first bottom section; and wherein the resin portion comprises: a lens holder having an opening formed therein, configured to hold the lens fitted inside the opening; and a second bottom section having a light-receiver-board holder that is adapted to hold a light-receiver board on which the light receiver is mounted. a lens holder having an opening formed therein, configured to hold the lens fitted inside the opening; and a second bottom section having a light-receiver-board holder that is adapted to hold a light-receiver board on which the light receiver is mounted.
A method comprising: targeting a sound source by processing at least two audio signals from at least two microphones of an apparatus and based on an output of at least one sensor of the apparatus; tracking a position of the apparatus relative to the targeted sound source further based on the output of the at least one sensor, wherein tracking the position of the apparatus relative to the targeted sound source comprises determining a change in position of the apparatus from a first time period to a second time period; and processing the at least two audio signals from the at least two microphones dependent on the position of the apparatus relative to the targeted sound source to generate at least one output audio signal from the at least two microphones so as to maintain a direction of the targeted sound source independent of the apparatus actual position, wherein processing the at least two audio signals from the at least two microphones comprises beamforming the at least two audio signals from the at least two microphones dependent on the change in position of the apparatus to generate the at least one output audio signal, the at least one output audio signal comprising a focussing of acoustic energy from the targeted sound source independent of the apparatus actual position. targeting a sound source by processing at least two audio signals from at least two microphones of an apparatus and based on an output of at least one sensor of the apparatus; tracking a position of the apparatus relative to the targeted sound source further based on the output of the at least one sensor, wherein tracking the position of the apparatus relative to the targeted sound source comprises determining a change in position of the apparatus from a first time period to a second time period; and processing the at least two audio signals from the at least two microphones dependent on the position of the apparatus relative to the targeted sound source to generate at least one output audio signal from the at least two microphones so as to maintain a direction of the targeted sound source independent of the apparatus actual position, wherein processing the at least two audio signals from the at least two microphones comprises beamforming the at least two audio signals from the at least two microphones dependent on the change in position of the apparatus to generate the at least one output audio signal, the at least one output audio signal comprising a focussing of acoustic energy from the targeted sound source independent of the apparatus actual position.
Watch self-winding device with rotary motion, comprising a base carrying a motor for driving a mobile support in rotation relative to said base, which support is arranged so as to receive a mechanical watch or an electronic watch with a mechanical power source in a winding position, and comprises at least one upper watch holder comprising a receiving surface for direct contact with a watch fixed to said support, the said support comprising at least one microphone for listening to a said watch, characterised in that it comprises at least one embedded electronic circuit housed inside said support for processing the signal from each said microphone, and in that said device comprises, in order to supply power to each said embedded electronic circuit, at least one first coil, fixed to said base or to said motor, and powered by a static power source carried or relayed by said base, and at least one second coil embedded in said support and arranged to cooperate with at least one said first coil, and arranged to transmit power to each said embedded electronic circuit, at least one said embedded electronic circuit whereof is arranged to exchange information with at least one static electronic circuit housed at said base.
A method of analysing a communication event occurring over a network, wherein a network service provider provides access to the network for a communication client executed at a device to engage in the communication event, the method comprising: the communication client detecting a problem with the communication event; the communication client determining communication metric data relating to the communication event; comparing the determined communication metric data with other communication metric data relating to the network to determine whether or not the detected problem is caused by a first reason, the first reason being the network service provider discriminating against transmission over the network of a particular type of data used in the communication event, wherein said other communication metric data comprises other communication metric data relating to transmission through the network of data other than that relating to the communication event; and in the event that it is determined that the detected problem is caused by the first reason, computing a confidence value indicative of the certainty with which the detected problem is caused by the first reason and providing a notification to a user of the device, wherein the notification indicates that the detected problem is caused by the first reason and the form of the notification depends upon the confidence value. the communication client detecting a problem with the communication event; the communication client determining communication metric data relating to the communication event; comparing the determined communication metric data with other communication metric data relating to the network to determine whether or not the detected problem is caused by a first reason, the first reason being the network service provider discriminating against transmission over the network of a particular type of data used in the communication event, wherein said other communication metric data comprises other communication metric data relating to transmission through the network of data other than that relating to the communication event; and in the event that it is determined that the detected problem is caused by the first reason, computing a confidence value indicative of the certainty with which the detected problem is caused by the first reason and providing a notification to a user of the device, wherein the notification indicates that the detected problem is caused by the first reason and the form of the notification depends upon the confidence value.
A layered structure comprising a first electrode and a second electrode, a light-emitting layer or a charge separation layer between the first electrode and the second electrode, and a layer containing a conjugated polymer compound between the light-emitting layer or the charge separation layer and the first electrode, wherein the conjugated polymer compound contains one or more repeating units represented by formula: wherein Ar 2 represents a divalent aromatic group, R 3 represents a substituent group having a group represented by formula, Ar 2 may have a substituent group other than R 3, n3 represents an integer of 1 or more and, when a plurality of R 3 s are present, they may be the same or different; -(R 4) c2 -(Q 2) n4 -Y 2 (M 2) a2 (Z 2) b2 wherein R 4 represents a 1,3-phenylene group having an alkyl group, an alkoxy group, an aryl group, an aryloxy group, a carboxyl group or a substituted oxycarbonyl group as a substituent group, Q 2 represents a divalent organic group which may have a substituent group, Y 2 represents -CO 2 -, -SO 3 -, -SO 2 - or -PO 3 2-, M 2 represents a metal cation or an ammonium cation which may have a substituent group, Z 2 represents F -, Cl -, Br -, I -, OH -, R b SO 3 -, R b COO -, ClO -, ClO 2 -, ClO 3 -, ClO 4 -, SCN -, CN -, NO 3 -, SO 4 2-, HSO 4 - PO 4 3-, HPO 4 2-, H 2 PO 4 -, BF 4 - or PF 6 -, c2 represents 1, n4 represents 0, a2 represents an integer of 1 or more, b2 represents an integer of 0 or more, a2 and b2 are selected so that the charge of the substituent group represented by formula is 0, R b represents an alkyl group having 1 to 30 carbon atoms, which may have a substituent group, or an aryl group having 6 to 50 carbon atoms, which may have a substituent group, when a plurality of M 2 s are present, they may be the same or different, and when a plurality of Z 2 s are present, they may be the same or different.
A system for limiting vertical axis augmentation in a rotorcraft, the system comprising: a sensor configured to measure torque; and a computer having a control law, the control law operable to generate a command to an actuator based upon a difference between a commanded vertical state such as vertical speed or altitude and an actual vertical state; wherein the computer is configured to compare a torque measured by the sensor to a predetermined lower torque limit, such that if the measured torque is below the predetermined lower torque limit, the computer is configured to adjust the command to negate the decrease in torque below the lower torque limit. a sensor configured to measure torque; and a computer having a control law, the control law operable to generate a command to an actuator based upon a difference between a commanded vertical state such as vertical speed or altitude and an actual vertical state; wherein the computer is configured to compare a torque measured by the sensor to a predetermined lower torque limit, such that if the measured torque is below the predetermined lower torque limit, the computer is configured to adjust the command to negate the decrease in torque below the lower torque limit.
Method for transferring harvested crop from a harvesting vehicle to a transport vehicle, wherein the harvesting vehicle travels along a plurality of substantially parallel tracks, wherein the lane of the harvesting vehicle is recorded during the journey, wherein the harvesting vehicle picks up crop material during the journey, wherein the transport vehicle is driven parallel to the harvesting vehicle and during the parallel drive of the harvesting vehicle and transport vehicle the crop material is overloaded from the harvesting vehicle onto the transport vehicle, characterised in that the recorded lane is transmitted to the transport vehicle, wherein the transport vehicle is driven substantially along the transmitted lane. wherein the harvesting vehicle travels along a plurality of substantially parallel tracks, wherein the lane of the harvesting vehicle is recorded during the journey, wherein the harvesting vehicle picks up crop material during the journey, wherein the transport vehicle is driven parallel to the harvesting vehicle and during the parallel drive of the harvesting vehicle and transport vehicle the crop material is overloaded from the harvesting vehicle onto the transport vehicle, characterised in that the recorded lane is transmitted to the transport vehicle, wherein the transport vehicle is driven substantially along the transmitted lane.
An assembly for an aircraft, comprising: a cowl configured to move between an open position and a closed position; and a latch assembly including a latch and a housing, the latch pivotally mounted to the housing, and the housing connected to the cowl; the latch assembly configured such that the latch is removable from the housing while the housing is connected to the cowl and the cowl is in the closed position; wherein the latch assembly further includes a latch pin that pivotally mounts the latch to the housing, and the latch pin is removable from the housing while the housing is connected to the cowl and the cowl is in the closed position; wherein the housing includes a first sidewall and a second sidewall, the first sidewall is configured with a first slot, the latch is arranged between the first sidewall and the second sidewall, and the latch pin is seated in the first slot, characterised in that: the first slot has a hook shape. a cowl configured to move between an open position and a closed position; and a latch assembly including a latch and a housing, the latch pivotally mounted to the housing, and the housing connected to the cowl; the latch assembly configured such that the latch is removable from the housing while the housing is connected to the cowl and the cowl is in the closed position; wherein the latch assembly further includes a latch pin that pivotally mounts the latch to the housing, and the latch pin is removable from the housing while the housing is connected to the cowl and the cowl is in the closed position; wherein the housing includes a first sidewall and a second sidewall, the first sidewall is configured with a first slot, the latch is arranged between the first sidewall and the second sidewall, and the latch pin is seated in the first slot,
A method for calculating a capability of an electronically controlled valve, comprising: a) operating the electronically controlled valve in accordance with a task; b) testing the electronically controlled valve in order to determine a range of movement of the electronically controlled valve in accordance with an initial gain that is provided by an engine electronic control, wherein the testing of the electronically controlled valve occurs after the valve has been operated in accordance with the task, recording the initial gain for providing the predetermined range of movement of the electronically controlled valve, wherein each new gain is compared to a predetermined value in order to determine whether the valve is trending towards a threshold value; c) determining a new gain required for providing a predetermined range of movement of the electronically controlled valve; and d) repeating steps a-c at least once, wherein the new gain is used to operate the valve in accordance with the task, wherein the task is controlling an amount of fuel provided to a gas turbine engine. a) operating the electronically controlled valve in accordance with a task; b) testing the electronically controlled valve in order to determine a range of movement of the electronically controlled valve in accordance with an initial gain that is provided by an engine electronic control, wherein the testing of the electronically controlled valve occurs after the valve has been operated in accordance with the task, recording the initial gain for providing the predetermined range of movement of the electronically controlled valve, wherein each new gain is compared to a predetermined value in order to determine whether the valve is trending towards a threshold value; c) determining a new gain required for providing a predetermined range of movement of the electronically controlled valve; and d) repeating steps a-c at least once, wherein the new gain is used to operate the valve in accordance with the task, wherein the task is controlling an amount of fuel provided to a gas turbine engine.
A method in a base station for determining connection establishment between the base station and a mobile terminal, wherein the base station is moving, the method comprising: when receiving a first connection request from the mobile terminal, refraining from establishing a connection between the base station and the mobile terminal; and when receiving a second connection request from the mobile terminal, determining whether or not to establish the connection between the base station and the mobile terminal, characterized by determining a time period between the first connection request and the second connection request; and determining a parameter indicating a relative speed between the base station and the mobile terminal, wherein determining whether or not to establish the connection between the base station and the mobile terminal further comprises: establishing the connection between the base station and the mobile terminal when the time period between the first connection request and the second connection request exceeds a third threshold and when the parameter indicates that the relative speed between the base station and the mobile terminal is below a fourth threshold. when receiving a first connection request from the mobile terminal, refraining from establishing a connection between the base station and the mobile terminal; and when receiving a second connection request from the mobile terminal, determining whether or not to establish the connection between the base station and the mobile terminal, characterized by determining a time period between the first connection request and the second connection request; and determining a parameter indicating a relative speed between the base station and the mobile terminal, wherein determining whether or not to establish the connection between the base station and the mobile terminal further comprises: establishing the connection between the base station and the mobile terminal when the time period between the first connection request and the second connection request exceeds a third threshold and when the parameter indicates that the relative speed between the base station and the mobile terminal is below a fourth threshold.