mhurhangee/ep-ind-claims huggingface dataset:
A secondary battery monitoring device configured to detect an abnormality of a secondary battery (C1, C2), comprising: a resistance circuit (13, 23) to which both ends of the secondary battery are to be connected and which is configured to output a detection voltage from an output terminal thereof; a detection circuit (17, 18, 27, 28) configured to detect the abnormality of the secondary battery, based on the detection voltage; a voltage-to-current conversion circuit (11, 21) to which both ends of the secondary battery are to be connected and which is configured to convert a voltage of the secondary battery to a current; a current-to-voltage conversion circuit configured to convert the current of the voltage-to-current conversion circuit to a voltage; a first current generation circuit (32, 33, 34) configured to generate a first current (Ic) proportional to the voltage of the secondary battery, based on the voltage of the current-to-voltage conversion circuit; a second current generation circuit (35, 36, 37, 38) configured to generate a second current (Ir) proportional to a voltage for setting the output terminal of the resistance circuit to a failure diagnosis voltage; a current mirror circuit configured to generate a failure detection current corresponding to the first current and the second current; and a switch (15, 16, 25, 26) which permits the failure detection current to flow to the output terminal of the resistance circuit. a resistance circuit (13, 23) to which both ends of the secondary battery are to be connected and which is configured to output a detection voltage from an output terminal thereof; a detection circuit (17, 18, 27, 28) configured to detect the abnormality of the secondary battery, based on the detection voltage; a voltage-to-current conversion circuit (11, 21) to which both ends of the secondary battery are to be connected and which is configured to convert a voltage of the secondary battery to a current; a current-to-voltage conversion circuit configured to convert the current of the voltage-to-current conversion circuit to a voltage; a first current generation circuit (32, 33, 34) configured to generate a first current (Ic) proportional to the voltage of the secondary battery, based on the voltage of the current-to-voltage conversion circuit; a second current generation circuit (35, 36, 37, 38) configured to generate a second current (Ir) proportional to a voltage for setting the output terminal of the resistance circuit to a failure diagnosis voltage; a current mirror circuit configured to generate a failure detection current corresponding to the first current and the second current; and a switch (15, 16, 25, 26) which permits the failure detection current to flow to the output terminal of the resistance circuit.
A head-up display system for overlaying a projected image onto an external scene image, the head-up display system comprising: a combiner comprising a first surface and a second surface and including a uniaxially absorbing polarizing structure; a polarized image generation system (202, 203) configured to project polarized light onto the combiner; and the uniaxially absorbing polarizing structure having a local absorption axis and disposed on the combiner to define the first surface, or within the combiner between the first surface and the second surface, the combiner configured to reflect from the first surface a first portion of the polarized light from the image generation system toward a design eye point for the head-up display system, and the uniaxially absorbing polarizing structure configured to substantially absorb a second portion of the polarized light from the image generation system, characterised in that the local absorption axis is normal to the first surface. a combiner comprising a first surface and a second surface and including a uniaxially absorbing polarizing structure; a polarized image generation system (202, 203) configured to project polarized light onto the combiner; and the uniaxially absorbing polarizing structure having a local absorption axis and disposed on the combiner to define the first surface, or within the combiner between the first surface and the second surface, the combiner configured to reflect from the first surface a first portion of the polarized light from the image generation system toward a design eye point for the head-up display system, and the uniaxially absorbing polarizing structure configured to substantially absorb a second portion of the polarized light from the image generation system, characterised in that the local absorption axis is normal to the first surface.
Device for manipulating an emission characteristic of a light-emitting diode, the device having the following features: an optical element, which can be arranged movably relative to the light-emitting diode between a first position and at least one further position, and is formed in order to induce a first light distribution of the light emitted by the light-emitting diode when the optical element is arranged in the first position, and in order to induce a further light distribution of the light emitted by the light-emitting diode when the optical element is arranged in the at least one further position, and at least one micromechanical actuator for moving the optical element between the first position and the at least one further position, in order to manipulate the emission characteristic, characterized in that the actuator has a friction bearing as an interface between the optical element and the actuator. an optical element, which can be arranged movably relative to the light-emitting diode between a first position and at least one further position, and is formed in order to induce a first light distribution of the light emitted by the light-emitting diode when the optical element is arranged in the first position, and in order to induce a further light distribution of the light emitted by the light-emitting diode when the optical element is arranged in the at least one further position, and at least one micromechanical actuator for moving the optical element between the first position and the at least one further position, in order to manipulate the emission characteristic, characterized in that the actuator has a friction bearing as an interface between the optical element and the actuator.
Hydrophilic polyaspartic esters obtainable by reaction of at least one polyamine component A), comprising an amine compound of the formula, in which X is a saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or aromatic organic radical which is substituted or unsubstituted and/or has heteroatoms in the chain, Y is a secondary amino group bonded to two carbon atoms, R 1 and R 2 independently of one another are saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or aromatic organic radicals having 1 to 18 carbon atoms, and are substituted or unsubstituted and/or have heteroatoms in the chain, and n is a natural number from 1 to 4, with at least one polyisocyanate component B), comprising a polyisocyanate which contains at least one chemically bonded polyalkylene oxide polyether alcohol, the ratio of the number of secondary amino groups Y to the number of isocyanate groups in the polyisocyanate being from 250:1 to 3:1. Y is a secondary amino group bonded to two carbon atoms, R 1 and R 2 independently of one another are saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or aromatic organic radicals having 1 to 18 carbon atoms, and are substituted or unsubstituted and/or have heteroatoms in the chain, and n is a natural number from 1 to 4,
Method for continuous treatment of a stream of slurry in which the stream is injected at a flow rate q into an enclosure which is pressurised with respect to atmospheric pressure, while also injecting air at a flow rate Q ≥ 5 q into said enclosure, before evacuation and separation between solid and liquid fractions obtained downstream of the enclosure, characterised in that the slurry is an organic slurry, the method being applied to the deodorisation of the solid fraction obtained, in that the injection of slurry is carried out in a pressurised air column which is itself injected at said flow rate Q ≥ 5 q, said column extending over a given length L along a longitudinal axis, said length L, the flow rate and the excess pressure of said air column being arranged so as to create in the enclosure a fluidised bed in which the slurry is nebulised, between an air supply pipeline and a pipe or reservoir downstream of the fluidised bed obtained, in that said fluidised bed is evacuated into said pipe or reservoir which is vented or set substantially at atmospheric pressure, and in that a flocculant is introduced continuously into said fluidised bed downstream of the enclosure, under conditions arranged so as to collect and/or coagulate the organic matter so that deodorisation of the solid fraction obtained after separation is obtained.
An input device comprising: a body in which an electromagnetic induction, EMI, circuit is embedded; a first contact member configured to reciprocate in the body and connected with the EMI circuit for transmitting a writing pressure from the first contact member to the EMI circuit; and a second contact member installed in the body and having at least a part disposed adjacent to the first contact member, the second contact member being made of a conductive material for contacting a human body, wherein the first contact member is disposed at one end of the body in a lengthwise direction of the body, and wherein the second contact member is located adjacent to the first contact member at the one end of the body, and the first and second contact members form a distal end of the input device. a body in which an electromagnetic induction, EMI, circuit is embedded; a first contact member configured to reciprocate in the body and connected with the EMI circuit for transmitting a writing pressure from the first contact member to the EMI circuit; and a second contact member installed in the body and having at least a part disposed adjacent to the first contact member, the second contact member being made of a conductive material for contacting a human body, wherein the first contact member is disposed at one end of the body in a lengthwise direction of the body, and wherein the second contact member is located adjacent to the first contact member at the one end of the body, and the first and second contact members form a distal end of the input device.
A method of realigning a node in a label switched network comprising a plurality of nodes, the method comprising: periodically maintaining backup path status information for the node; in response to restarting of the node, re-establishing label switched paths with the other nodes using the backup status information, and communicating with an adjacent node in order to establish a path reliability value for each path recorded in the backup status information using a reliability value from an adjacent node, in order to establish node realignment, the method characterized in further comprising the node receiving a path reliability value from an adjacent node for a path, modifying the received path reliability value dependent on whether the path is recorded in the back up path status information for the node to establish a cumulative path reliability for the path, and comparing the cumulative path reliability value with a path reliability threshold to determine whether the related path is reliable, wherein the path reliability threshold is a function of the number of hops in the related path. periodically maintaining backup path status information for the node; in response to restarting of the node, re-establishing label switched paths with the other nodes using the backup status information, and communicating with an adjacent node in order to establish a path reliability value for each path recorded in the backup status information using a reliability value from an adjacent node, in order to establish node realignment, the method characterized in further comprising the node receiving a path reliability value from an adjacent node for a path, modifying the received path reliability value dependent on whether the path is recorded in the back up path status information for the node to establish a cumulative path reliability for the path, and comparing the cumulative path reliability value with a path reliability threshold to determine whether the related path is reliable, wherein the path reliability threshold is a function of the number of hops in the related path.
A duct stringer (20, 30) comprising: duct walls providing a duct with a closed cross-section, wherein the duct is adapted to transport fluid; and a bulkhead (21, 31) in the duct, wherein the bulkhead is adapted to block the flow of fluid along the duct and characterised in that the bulkhead is adhered to the duct walls by one or more co-cured or co-bonded joints. duct walls providing a duct with a closed cross-section, wherein the duct is adapted to transport fluid; and a bulkhead (21, 31) in the duct, wherein the bulkhead is adapted to block the flow of fluid along the duct and characterised in that the bulkhead is adhered to the duct walls by one or more co-cured or co-bonded joints.
A method for the management of repository data in a Home Subscriber Server HSS, said method comprising the steps of: - receiving at the HSS, from a provisioning system, a request, referred to as management request (Manage Repository Data Request), for the management of repository data, - upon reception of said management request, HSS sending to at least one Application Server AS (AS-OAM, AS), referred to as validating AS, a request (Notify Validation Request), referred to as validation request, for validation of said management request, - upon reception of a validation response (Notify Answer) indicating successful validation, executing said management request at the HSS. - receiving at the HSS, from a provisioning system, a request, referred to as management request (Manage Repository Data Request), for the management of repository data, - upon reception of said management request, HSS sending to at least one Application Server AS (AS-OAM, AS), referred to as validating AS, a request (Notify Validation Request), referred to as validation request, for validation of said management request, - upon reception of a validation response (Notify Answer) indicating successful validation, executing said management request at the HSS.
An exhaust valve of a diesel engine for a large ship, comprising: a shaft part and an umbrella part that are integrated with each other and made of an Ni-Cr-Al system Ni-base age-precipitated alloy, wherein the exhaust valve has a layered structure and hardness of 600 HV or less as a whole, and the layered structure comprises a layer formed of an α-Cr phase having a thickness of 150 nm or more that is aged beyond peak mechanical strength. a shaft part and an umbrella part that are integrated with each other and made of an Ni-Cr-Al system Ni-base age-precipitated alloy, wherein the exhaust valve has a layered structure and hardness of 600 HV or less as a whole, and the layered structure comprises a layer formed of an α-Cr phase having a thickness of 150 nm or more that is aged beyond peak mechanical strength.
Method for estimating an analyte concentration in an urban or peri-urban environment containing lanes configured to be followed by vehicular traffic, the method comprising the following steps: a) generating a spatial mesh of the environment, so as to obtain mesh points; b) taking into account, at each mesh point, at an estimation time: - at least one datum that remains constant over time, relating to each lane; - estimated or measured dynamic data that vary as a function of the estimation time, these data including meteorological data, traffic data, and time-dependent data relating to the estimation time; c) using the data taken into account in step b), at the estimation time, as input data for a first supervised artificial-intelligence algorithm, so as to estimate, at each mesh point, a concentration of at least a first analyte, at the estimation time; d) using the concentration of the first analyte, resulting from step c), at at least one mesh point at the estimation time, as input datum for a second supervised artificial-intelligence algorithm that is different from the first supervised artificial-intelligence algorithm, so as to estimate, at the mesh point, a concentration of at least a second analyte that is different from the first analyte, at the estimation time; steps a) to d) being implemented by a processing unit, comprising a microprocessor. a) generating a spatial mesh of the environment, so as to obtain mesh points; b) taking into account, at each mesh point, at an estimation time: - at least one datum that remains constant over time, relating to each lane; - estimated or measured dynamic data that vary as a function of the estimation time, these data including meteorological data, traffic data, and time-dependent data relating to the estimation time; - at least one datum that remains constant over time, relating to each lane; - estimated or measured dynamic data that vary as a function of the estimation time, these data including meteorological data, traffic data, and time-dependent data relating to the estimation time; c) using the data taken into account in step b), at the estimation time, as input data for a first supervised artificial-intelligence algorithm, so as to estimate, at each mesh point, a concentration of at least a first analyte, at the estimation time; d) using the concentration of the first analyte, resulting from step c), at at least one mesh point at the estimation time, as input datum for a second supervised artificial-intelligence algorithm that is different from the first supervised artificial-intelligence algorithm, so as to estimate, at the mesh point, a concentration of at least a second analyte that is different from the first analyte, at the estimation time;
A method performed in a wireless device located in a first cell operated by a network node of a wireless communication system, the method comprising: - acquiring system information of a second cell using at least one autonomous gap during a time period, wherein the wireless device is configured with a flexible subframe allocation scheme in the first cell during at least a part of the time period, the method being characterized in that it comprises: - obtaining a value Nmin corresponding to a minimum number of uplink feedback signals, where the value Nmin is associated with the flexible subframe allocation scheme, - transmitting at least the minimum number Nmin of uplink feedback signals in response to continuous downlink data received from the network node in the first cell during the time period. - acquiring system information of a second cell using at least one autonomous gap during a time period, wherein the wireless device is configured with a flexible subframe allocation scheme in the first cell during at least a part of the time period, - obtaining a value Nmin corresponding to a minimum number of uplink feedback signals, where the value Nmin is associated with the flexible subframe allocation scheme, - transmitting at least the minimum number Nmin of uplink feedback signals in response to continuous downlink data received from the network node in the first cell during the time period.
Pick-up device for defined pick-up of bags and in particular of flexible valve bags, having a stacking device on which a bag bundle can be arranged to be lying and from which the topmost bag can be separately gripped and picked up, characterized in that a positioning device having at least one blowing device is provided comprising at least one air nozzle inclined to the horizontal which is oriented inclined from above in the direction of one end of the bag to be picked up for positioning by way of at least one directed air blast the topmost bag of the bag bundle to be picked up, at a stopper in a defined manner.
A carbon fiber reinforced resin processed product having an end surface, carbon fibers and a thermoplastic resin, wherein the carbon fibers are aligned in one direction or are randomly oriented in a two-dimensional direction in the carbon fiber reinforced resin processed product, wherein the end surface is a cutting processed surface, characterized in that the end surface has no irregularly shaped portion, and wherein the end surface has a surface roughness (Rz) within a range from greater than 5 μm to 50 μm. wherein the carbon fibers are aligned in one direction or are randomly oriented in a two-dimensional direction in the carbon fiber reinforced resin processed product, wherein the end surface is a cutting processed surface, characterized in that the end surface has no irregularly shaped portion, and wherein the end surface has a surface roughness (Rz) within a range from greater than 5 μm to 50 μm.
A method for optical network switching protection, wherein an active optical central office end apparatus and a standby optical central office end apparatus are connected to an optical splitter through a backbone optical fibre, and each optical terminal apparatus is connected to the optical splitter through a branch optical fibre, the method comprising: selecting (201; 404) one optical terminal apparatus as a ranging optical terminal apparatus after a service is switched from the active optical central office end apparatus to the standby optical central office end apparatus; obtaining (202; 409) a delay difference between delay from the ranging optical terminal apparatus to the standby optical central office end apparatus and delay from the ranging optical terminal apparatus to the active optical central office end apparatus; synchronizing (203; 410; 411) time at which data sent by all the optical terminal apparatuses reaches the standby optical central office end apparatus according to the delay difference; and characterised in that the synchronizing the time at which the data sent by all the optical terminal apparatuses reaches the standby optical central office end apparatus according to the delay difference comprises: delivering the delay difference to all optical terminal apparatuses in a multicast or broadcast manner, so that each optical terminal apparatus calculates an Equalization delay, EqD, between the optical terminal apparatus and the standby optical central office end apparatus according to the delay difference respectively, and sets the calculated EqD. selecting (201; 404) one optical terminal apparatus as a ranging optical terminal apparatus after a service is switched from the active optical central office end apparatus to the standby optical central office end apparatus; obtaining (202; 409) a delay difference between delay from the ranging optical terminal apparatus to the standby optical central office end apparatus and delay from the ranging optical terminal apparatus to the active optical central office end apparatus; synchronizing (203; 410; 411) time at which data sent by all the optical terminal apparatuses reaches the standby optical central office end apparatus according to the delay difference; and characterised in that the synchronizing the time at which the data sent by all the optical terminal apparatuses reaches the standby optical central office end apparatus according to the delay difference comprises: delivering the delay difference to all optical terminal apparatuses in a multicast or broadcast manner, so that each optical terminal apparatus calculates an Equalization delay, EqD, between the optical terminal apparatus and the standby optical central office end apparatus according to the delay difference respectively, and sets the calculated EqD.