mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating between nodes of an ad hoc network including radio communication means, said method comprising the following steps, said nodes further including localization means and storage means of a database matching geographical zones (A, B, C, D) and radio channels, at least one respective radio channel, called geographical radio channel, being selectively associated with each geographical zone in the database: - detection, by at least one node, of its location via said localization means; - determination, by said node, of at least one geographical zone within which it is located, based on the detected location, and determination of at least one geographical radio channel selectively associated with said determined geographical zone; - association of said determined geographical radio channel with said node; - transmission and/or reception by said node of data to be relayed between nodes of the ad hoc network on said geographical radio channel thus associated with it, the method being characterized in that: - the nodes of the ad hoc network having been distributed in the groups, at least one respective radio channel, called group radio channel, is also allocated exclusively to the radio transmission and/or reception of the nodes of each respective group; and in that said node signals the presence of its group on said geographical radio channel, said node relaying a cross message, received on a group channel allocated to the group of said node, by transmitting it on said geographical radio channel, if a node from another group is present on that same geographical radio channel, said node relaying also a cross message, received on its geographical channel, by transmitting it on the group channel allocated to the group of said node. - detection, by at least one node, of its location via said localization means; - determination, by said node, of at least one geographical zone within which it is located, based on the detected location, and determination of at least one geographical radio channel selectively associated with said determined geographical zone; - association of said determined geographical radio channel with said node; - transmission and/or reception by said node of data to be relayed between nodes of the ad hoc network on said geographical radio channel thus associated with it, - the nodes of the ad hoc network having been distributed in the groups, at least one respective radio channel, called group radio channel, is also allocated exclusively to the radio transmission and/or reception of the nodes of each respective group; and in that
An arrangement for manoeuvre generation for automated driving on a one-way road of a vehicle ( e) hosting the arrangement, the host vehicle ( e) further comprising one or more advanced driver assistance systems, characterized in that it comprises: a controller arranged to repeatedly, with a fix time interval, determine a collision free reference trajectory for longitudinal and lateral movement of the host vehicle ( e) allowing the host vehicle ( e) to retain a desired velocity and maintain the host vehicle ( c) in a preferred lane utilizing model predictive control and quadratic program formulation; the controller further being arranged to utilize a control scheme where the structured environment of the one-way road is exploited in order to linearly formulate collision avoidance constraints, the controller further being arranged to perform the manoeuvre generation through the solution of the quadratic program, the controller further being arranged to control the one or more advanced driver assistance systems to perform the generated manoeuvre, wherein the controller is arranged to determine the collision free reference trajectory for longitudinal and lateral movement of the host vehicle ( e) through solving an optimization problem minimizing a path performance index subject to host vehicle ( e) dynamics, convenience/comfort constraints and safety constraints, and wherein a set of difference equations (2a - 2d) is used to model the host vehicle ( e) dynamics relative to its surrounding vehicles ( i) in a road aligned coordinate frame. a controller arranged to repeatedly, with a fix time interval, determine a collision free reference trajectory for longitudinal and lateral movement of the host vehicle ( e) allowing the host vehicle ( e) to retain a desired velocity and maintain the host vehicle ( c) in a preferred lane utilizing model predictive control and quadratic program formulation; the controller further being arranged to utilize a control scheme where the structured environment of the one-way road is exploited in order to linearly formulate collision avoidance constraints, the controller further being arranged to perform the manoeuvre generation through the solution of the quadratic program, the controller further being arranged to control the one or more advanced driver assistance systems to perform the generated manoeuvre, wherein the controller is arranged to determine the collision free reference trajectory for longitudinal and lateral movement of the host vehicle ( e) through solving an optimization problem minimizing a path performance index subject to host vehicle ( e) dynamics, convenience/comfort constraints and safety constraints, and wherein a set of difference equations (2a - 2d) is used to model the host vehicle ( e) dynamics relative to its surrounding vehicles ( i) in a road aligned coordinate frame.
A hybrid vehicle comprising: a power storage device; an internal combustion engine; at least one motor (6, 10) having an electric power generation function in which the motor is driven by said internal combustion engine to supply electric power to said power storage device and a function of producing running driving force; characterized by comprising a control device configured to control start and stop of said internal combustion engine based on a start condition and a stop condition for said internal combustion engine set from a physical quantity relevant to a charged state of said power storage device; and a shift selection device for selection of one of a plurality of shift ranges included in one of a running range and a non-running range, wherein in the case where said running range has been selected when the vehicle stops, said control device is configured to set said start condition and said stop condition such that an operation duration of said internal combustion engine is shorter than during vehicle running, and in the case where said non-running range has been selected, said control device is configured to set said stop condition such that said operation duration is longer than in the case where said running range has been selected when the vehicle stops. a power storage device; an internal combustion engine; at least one motor (6, 10) having an electric power generation function in which the motor is driven by said internal combustion engine to supply electric power to said power storage device and a function of producing running driving force; characterized by comprising a control device configured to control start and stop of said internal combustion engine based on a start condition and a stop condition for said internal combustion engine set from a physical quantity relevant to a charged state of said power storage device; and a shift selection device for selection of one of a plurality of shift ranges included in one of a running range and a non-running range, wherein in the case where said running range has been selected when the vehicle stops, said control device is configured to set said start condition and said stop condition such that an operation duration of said internal combustion engine is shorter than during vehicle running, and in the case where said non-running range has been selected, said control device is configured to set said stop condition such that said operation duration is longer than in the case where said running range has been selected when the vehicle stops.
A heat cooking device comprising: a main body having a heating chamber for accommodating and heating an object; a machine chamber provided under the main body, the machine chamber being equipped with a mechanism for forming and transmitting microwaves for microwave heating in the heating chamber; a front grille panel detachably provided on a front face of the machine chamber; a door configured to be openable with respect to the heating chamber; and a memory card attaching mechanism configured to insert a memory card into the main body, characterized in that the memory card attaching mechanism is configured to have, on a lower face of the main body, a card insertion port for inserting the memory card vertically upward, the card insertion port being configured to be hidden by the front grille panel attached to the machine chamber so as not to be exposed from the heat cooking device. a main body having a heating chamber for accommodating and heating an object; a machine chamber provided under the main body, the machine chamber being equipped with a mechanism for forming and transmitting microwaves for microwave heating in the heating chamber; a front grille panel detachably provided on a front face of the machine chamber; a door configured to be openable with respect to the heating chamber; and a memory card attaching mechanism configured to insert a memory card into the main body, characterized in that the memory card attaching mechanism is configured to have, on a lower face of the main body, a card insertion port for inserting the memory card vertically upward, the card insertion port being configured to be hidden by the front grille panel attached to the machine chamber so as not to be exposed from the heat cooking device.
A compensation apparatus configured to perform a compensation process of removing an image component in a quadrature-demodulated signal, the compensation apparatus including a quadrature demodulation compensation section configured to compensate for the quadrature-demodulated signal including an I signal and a Q signal, wherein the quadrature demodulation compensation section comprises: a delay section, configured to perform a compensation process of compensating a characteristic difference between a frequency characteristic of a first filter that performs filtering of the I signal and a frequency characteristic of a second filter that performs filtering of the Q signal; and an image component rejection section, configured to remove an image component caused by a quadrature demodulator that outputs the quadrature-demodulated signal. a delay section, configured to perform a compensation process of compensating a characteristic difference between a frequency characteristic of a first filter that performs filtering of the I signal and a frequency characteristic of a second filter that performs filtering of the Q signal; and an image component rejection section, configured to remove an image component caused by a quadrature demodulator that outputs the quadrature-demodulated signal.
Cable deflecting piece for a cable operated window lifter, which comprises at least one guide rail wherein the cable deflecting piece is to be fastened on the rail head or rail foot thereof, with - a base body of the cable deflecting piece, which butts against the rail head or rail foot during mounting and after fastening the cable deflecting piece on the rail head or rail foot of the guide rail, - a rotary and bearing pin projecting from the base body, which can be inserted into a rotary and bearing opening of the rail head or rail foot in a position of the cable deflecting piece tilted in relation to the longitudinal extension of the guide rail wherein the rotary and bearing pin and the rotary and bearing opening form a mounting rotation axis about which the cable deflecting piece can be pivoted during the mounting of the cable deflecting piece on the rail head or rail foot of a guide rail, - a rotation prevention means (5, 6; 21, 22, 16) which secures the connection of the cable deflecting piece to the rail head or rail foot against a rotation of the cable deflecting piece about the mounting rotation axis in a final mounting position after a tilting of the cable deflecting piece about the mounting rotation axis, and - a device (7, 8) formed on the base body for securing the abutment of the base body against the rail head or rail foot perpendicular to the longitudinal extension of the guide rail. characterized in that in the final mounting position a stop area formed on the base body of the cable deflecting piece abuts against a part of the terminal edge of the rail head or rail foot, and the device for securing the abutment of the base body against the rail head or rail foot consists of at least one rear grip (7, 8) originating from the base body and encompassing at least partially a terminal edge (14, 15) of the rail head or rail foot. - a base body of the cable deflecting piece, which butts against the rail head or rail foot during mounting and after fastening the cable deflecting piece on the rail head or rail foot of the guide rail, - a rotary and bearing pin projecting from the base body, which can be inserted into a rotary and bearing opening of the rail head or rail foot in a position of the cable deflecting piece tilted in relation to the longitudinal extension of the guide rail wherein the rotary and bearing pin and the rotary and bearing opening form a mounting rotation axis about which the cable deflecting piece can be pivoted during the mounting of the cable deflecting piece on the rail head or rail foot of a guide rail, - a rotation prevention means (5, 6; 21, 22, 16) which secures the connection of the cable deflecting piece to the rail head or rail foot against a rotation of the cable deflecting piece about the mounting rotation axis in a final mounting position after a tilting of the cable deflecting piece about the mounting rotation axis, and - a device (7, 8) formed on the base body for securing the abutment of the base body against the rail head or rail foot perpendicular to the longitudinal extension of the guide rail.
A rotary pump having a variable delivery volume, comprising: a) a casing (3, 6); b) a delivery chamber formed in the casing (3, 6) and comprising an inlet for a fluid on a low-pressure side and an outlet for the fluid on a high-pressure side of the pump; c) at least one delivery rotor which can be rotated in the delivery chamber about a rotational axis (R 2); d) an actuating member which is arranged on a front face of the delivery rotor or surrounds the delivery rotor and can be moved back and forth in the casing (3, 6) for adjusting the delivery volume, e) wherein the actuating member can be charged, in the direction of its mobility, with an actuating force which is dependent on the requirement of a consumer which is to be supplied with the fluid; f) and a track which is formed in the casing (3, 6) and guides the actuating member on an actuating member sliding surface in a sliding contact, g) wherein the track or the actuating member sliding surface is/are formed from a sliding material which consists of at least one of ceramic, nitride or a nickel-phosphorus compound or a sliding varnish or is formed by a DLC coating, a Ferroprint coating or a nano-coating, such that oscillating frictional wear is counteracted. a) a casing (3, 6); b) a delivery chamber formed in the casing (3, 6) and comprising an inlet for a fluid on a low-pressure side and an outlet for the fluid on a high-pressure side of the pump; c) at least one delivery rotor which can be rotated in the delivery chamber about a rotational axis (R 2); d) an actuating member which is arranged on a front face of the delivery rotor or surrounds the delivery rotor and can be moved back and forth in the casing (3, 6) for adjusting the delivery volume, e) wherein the actuating member can be charged, in the direction of its mobility, with an actuating force which is dependent on the requirement of a consumer which is to be supplied with the fluid; f) and a track which is formed in the casing (3, 6) and guides the actuating member on an actuating member sliding surface in a sliding contact, g) wherein the track or the actuating member sliding surface is/are formed from a sliding material which consists of at least one of ceramic, nitride or a nickel-phosphorus compound or a sliding varnish or is formed by a DLC coating, a Ferroprint coating or a nano-coating, such that oscillating frictional wear is counteracted.
A system that facilitates selection of at least one vector from among a plurality of vectors for pacing a first chamber of a heart, the system comprising: an implantable medical device configured to deliver pacing stimuli to the heart by means of one of said plurality of vectors; and characterized by means for receiving a selection of said plurality of vectors and measuring a plurality of criteria for each of said plurality of vectors by which each of the plurality of vectors may be prioritized; a processor configured to: store said plurality of criteria measurements for each of the plurality of vectors; control presentation of the plurality of criteria by which each of the plurality of vectors may be prioritized, the plurality of criteria consisting of cardiac resynchronization therapy efficacy, capture threshold amplitude, R-wave amplitude, impedance, phrenic nerve stimulation amplitude and power source longevity; receive a selection of at least one criterion from among the plurality of criteria by which each of the plurality of vectors may be prioritized; and automatically prioritize the plurality of vectors based on the measurement of the at least one selected criterion; wherein the at least one selected criterion comprises power source longevity. an implantable medical device configured to deliver pacing stimuli to the heart by means of one of said plurality of vectors; and characterized by means for receiving a selection of said plurality of vectors and measuring a plurality of criteria for each of said plurality of vectors by which each of the plurality of vectors may be prioritized; a processor configured to: store said plurality of criteria measurements for each of the plurality of vectors; control presentation of the plurality of criteria by which each of the plurality of vectors may be prioritized, the plurality of criteria consisting of cardiac resynchronization therapy efficacy, capture threshold amplitude, R-wave amplitude, impedance, phrenic nerve stimulation amplitude and power source longevity; receive a selection of at least one criterion from among the plurality of criteria by which each of the plurality of vectors may be prioritized; and automatically prioritize the plurality of vectors based on the measurement of the at least one selected criterion; wherein the at least one selected criterion comprises power source longevity. store said plurality of criteria measurements for each of the plurality of vectors; control presentation of the plurality of criteria by which each of the plurality of vectors may be prioritized, the plurality of criteria consisting of cardiac resynchronization therapy efficacy, capture threshold amplitude, R-wave amplitude, impedance, phrenic nerve stimulation amplitude and power source longevity; receive a selection of at least one criterion from among the plurality of criteria by which each of the plurality of vectors may be prioritized; and automatically prioritize the plurality of vectors based on the measurement of the at least one selected criterion; wherein the at least one selected criterion comprises power source longevity.
A combined cycle engine formed of a gas turbine cycle coupled with a fuel expansion cycle in which fuel for the gas turbine cycle is the working fluid of the fuel expansion cycle, wherein: the fuel expansion cycle comprises, in flow series, a fuel pump for pumping a cryogenic fuel for the gas turbine cycle, a first heat exchanger for heating the fuel, an expander to recover power by expansion of the fuel and to thereby drive a load, and a second heat exchanger to reheat the fuel; the gas turbine cycle comprises, in flow series, a compressor (302, 304), a combustor for combustion of reheated fuel delivered from the second heat exchanger, and a turbine (307, 308) configured to drive the compressor (302, 304); the first heat exchanger and the second heat exchanger are stationed downstream of the combustor and are configured to transfer heat from combustion products of the gas turbine cycle to the fuel in the fuel expansion cycle; characterised in that the first heat exchanger and the second heat exchanger are arranged in parallel between the combustor and an exhaust nozzle of the gas turbine cycle such that they receive exhaust combustion products in respective hot-side passes of the heat exchangers (403, 406) at the same temperature. the fuel expansion cycle comprises, in flow series, a fuel pump for pumping a cryogenic fuel for the gas turbine cycle, a first heat exchanger for heating the fuel, an expander to recover power by expansion of the fuel and to thereby drive a load, and a second heat exchanger to reheat the fuel; the gas turbine cycle comprises, in flow series, a compressor (302, 304), a combustor for combustion of reheated fuel delivered from the second heat exchanger, and a turbine (307, 308) configured to drive the compressor (302, 304); the first heat exchanger and the second heat exchanger are stationed downstream of the combustor and are configured to transfer heat from combustion products of the gas turbine cycle to the fuel in the fuel expansion cycle; characterised in that the first heat exchanger and the second heat exchanger are arranged in parallel between the combustor and an exhaust nozzle of the gas turbine cycle such that they receive exhaust combustion products in respective hot-side passes of the heat exchangers (403, 406) at the same temperature.
A method for testing and/or calibrating a thermopile based device, the method comprising: applying an electrical bias of a first polarity to the thermopile based device and measuring a first value of an electrical parameter; and applying an electrical bias of a second polarity to the thermopile based device and measuring a second value of an electrical parameter wherein said electrical bias of the first polarity and said electrical bias of the second polarity are applied to at least one thermopile, and wherein the first polarity and the second polarity are opposite polarities, and wherein the electrical bias of the first polarity and the electrical bias of the second polarity have a substantially equal magnitude; determining the magnitudes of the first value and the second value; calculating a value of the absolute difference between the magnitude of the first value and the magnitude of the second value, wherein the absolute difference between the magnitude of the first value and the magnitude of the second value is based on the voltage generated in the thermopile due to heating after the voltage generated from the resistance of the material of the thermopile is cancelled out. applying an electrical bias of a first polarity to the thermopile based device and measuring a first value of an electrical parameter; and applying an electrical bias of a second polarity to the thermopile based device and measuring a second value of an electrical parameter wherein said electrical bias of the first polarity and said electrical bias of the second polarity are applied to at least one thermopile, and wherein the first polarity and the second polarity are opposite polarities, and wherein the electrical bias of the first polarity and the electrical bias of the second polarity have a substantially equal magnitude; determining the magnitudes of the first value and the second value; calculating a value of the absolute difference between the magnitude of the first value and the magnitude of the second value, wherein the absolute difference between the magnitude of the first value and the magnitude of the second value is based on the voltage generated in the thermopile due to heating after the voltage generated from the resistance of the material of the thermopile is cancelled out.