mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a sensor array comprising a plurality of capacitive sensors configured to detect a first attribute; at least one infra red sensor configured to detect a second attribute; wherein the at least one infra red sensor is configured such that, in response to detecting a trigger input comprising the second attribute the infra red sensor enables a first portion of the sensor array to be powered on while a second portion of the sensor array remains powered off, characterized in that the at least one infra red sensor forms at least part of an electrode of the capacitive sensors. a sensor array comprising a plurality of capacitive sensors configured to detect a first attribute; at least one infra red sensor configured to detect a second attribute; wherein the at least one infra red sensor is configured such that, in response to detecting a trigger input comprising the second attribute the infra red sensor enables a first portion of the sensor array to be powered on while a second portion of the sensor array remains powered off, characterized in that the at least one infra red sensor forms at least part of an electrode of the capacitive sensors.
Hydraulic binder comprising, in parts by mass: (a) from 20 to 60 parts of Portland clinker; (b) from 20 to 40 parts of slag; and (c) from 0 to 60 parts of inorganic material other than the clinker and the slag; the inorganic material comprising a pozzolan, calcined shale, calcium carbonate, silica fume, metakaolin or a mixture thereof; the sum of (a), (b) and (c) being equal to 100 parts; which binder further comprises a slag activator comprising, relative to 100 parts of the sum of (a) and (b): from 1.4 to 6.55 parts of alkali metal salt, expressed as equivalent-Na 2 O; and from 1.1 to 11.0 parts of calcium sulfate, expressed as SO 3; which binder comprises no fly ash. (a) from 20 to 60 parts of Portland clinker; (b) from 20 to 40 parts of slag; and (c) from 0 to 60 parts of inorganic material other than the clinker and the slag; from 1.4 to 6.55 parts of alkali metal salt, expressed as equivalent-Na 2 O; and from 1.1 to 11.0 parts of calcium sulfate, expressed as SO 3;
Valve assembly for an injection valve, comprising - a valve body comprising a central longitudinal axis and a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially movable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit being designed to actuate the valve needle, the actuator unit comprising an armature, the armature being axially movable in the cavity and comprising a main body and a hydraulic damper being fixedly coupled to the main body and having an inner surface facing the main body, the inner surface being designed to be in contact with the valve needle, the hydraulic damper comprising a first opening and at least one second opening, wherein the valve needle extends through the first opening and the second opening provides a fluid passage from the fluid inlet portion to the fluid outlet portion characterized in that the hydraulic damper comprises a side surface directed in direction of the longitudinal axis, the side surface being completely in contact with the main body. - a valve body comprising a central longitudinal axis and a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially movable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit being designed to actuate the valve needle, the actuator unit comprising an armature, the armature being axially movable in the cavity and comprising a main body and a hydraulic damper being fixedly coupled to the main body and having an inner surface facing the main body, the inner surface being designed to be in contact with the valve needle, the hydraulic damper comprising a first opening and at least one second opening, wherein the valve needle extends through the first opening and the second opening provides a fluid passage from the fluid inlet portion to the fluid outlet portion
Operating fluid container for a motor vehicle, said container including a container body which is assembled from at least two shells (2a, 2b) of plastics material which are complementary to each other, wherein the shells (2a, 2b) in each case have integrally moulded structures which extend into the free container volume in such a manner that they bring about a restriction of a fluid surge created, for instance, in the container, wherein at least some of the structures on each of the two shells (2a, 2b) are welded together at least in part approximately in the joining plane of the container, wherein in each case one integrally moulded surge wall element is provided on at least two shells (2a, 2b), wherein the surge wall elements of two complementary shells (2a, 2b) are welded together in the joining plane, characterized in that the complementary shells (2a, 2b) are welded together in the joining plane in a punctiform manner and in that two surge wall elements of complenentary shells (2a, 2b), said surge wall elements adjoining each other in the joining plane, form flow passages between each other.
A multi-layer electrochromic structure comprising: a top electrode layer; a bottom electrode layer; a plurality of electrochromic layers (120, 122) between the top and bottom electrode layers: a first electrolyte layer between the plurality of electrochromic layers and the top electrode layer; and a second electrolyte layer between the plurality of electrochromic layers and the bottom electrode layer, wherein the first electrolyte layer is at a point of contact with the top electrode layer, and the second electrolyte layer is at a point of contact with the bottom electrode layer. a top electrode layer; a bottom electrode layer; a plurality of electrochromic layers (120, 122) between the top and bottom electrode layers: a first electrolyte layer between the plurality of electrochromic layers and the top electrode layer; and a second electrolyte layer between the plurality of electrochromic layers and the bottom electrode layer, wherein the first electrolyte layer is at a point of contact with the top electrode layer, and the second electrolyte layer is at a point of contact with the bottom electrode layer.
A method for detecting a low voltage defect of a secondary battery, comprising: an assembling step of assembling a secondary battery by accommodating an electrode assembly, in which a positive electrode plate and a negative electrode plate are stacked with a separator being interposed therebetween, and an electrolytic solution in a battery case; a primary aging step of aging the assembled secondary battery at a temperature of 20°C to 40°C; a primary formation step of charging the aged secondary battery at a C-rate of 0.1C to 0.5C; a high-rate charging step of charging the secondary battery at a C-rate of 2C or above, after the primary formation step; and a detecting step of detecting a low voltage defect of the secondary battery, after the high-rate charging step. an assembling step of assembling a secondary battery by accommodating an electrode assembly, in which a positive electrode plate and a negative electrode plate are stacked with a separator being interposed therebetween, and an electrolytic solution in a battery case; a primary aging step of aging the assembled secondary battery at a temperature of 20°C to 40°C; a primary formation step of charging the aged secondary battery at a C-rate of 0.1C to 0.5C; a high-rate charging step of charging the secondary battery at a C-rate of 2C or above, after the primary formation step; and a detecting step of detecting a low voltage defect of the secondary battery, after the high-rate charging step.
Support structure which is composed of a plurality of hollow bodies (3, 7, 8, 13, 14, 16, 19), wherein a poncho, in particular a rain poncho, can be placed on the structure, wherein: - a second and a third hollow body (7, 8) extend from the ends of a first hollow body, which second and third hollow bodies extend in parallel with one another and are angled in such a way that a first leg connected to the first hollow body transitions into a second leg, the end of which points in a direction opposite the first hollow body, - a fourth and a fifth hollow body (13, 14) extend from the first hollow body, the ends of which fourth and fifth hollow bodies are arranged in the region of the ends of the second legs of the second or third hollow body (7, 8), and - a sixth hollow body is oriented in parallel with the first hollow body and arranged in the region of the ends of the second, third, fourth and fifth hollow body (7, 8, 13, 14), - at least the first hollow body and the second hollow body and the third hollow body form a common first air chamber, and at least the fourth hollow body and the fifth hollow body and the sixth hollow body form a common second air chamber, wherein - the first and the second air chambers (9, 17) each have a tightly closable air inlet, or - the first and the second air chambers (9, 17) are in flow connection with one another and have at least one tightly closable air inlet. - a second and a third hollow body (7, 8) extend from the ends of a first hollow body, which second and third hollow bodies extend in parallel with one another and are angled in such a way that a first leg connected to the first hollow body transitions into a second leg, the end of which points in a direction opposite the first hollow body, - a fourth and a fifth hollow body (13, 14) extend from the first hollow body, the ends of which fourth and fifth hollow bodies are arranged in the region of the ends of the second legs of the second or third hollow body (7, 8), and - a sixth hollow body is oriented in parallel with the first hollow body and arranged in the region of the ends of the second, third, fourth and fifth hollow body (7, 8, 13, 14), - at least the first hollow body and the second hollow body and the third hollow body form a common first air chamber, and at least the fourth hollow body and the fifth hollow body and the sixth hollow body form a common second air chamber, wherein - the first and the second air chambers (9, 17) each have a tightly closable air inlet, or - the first and the second air chambers (9, 17) are in flow connection with one another and have at least one tightly closable air inlet. - the first and the second air chambers (9, 17) each have a tightly closable air inlet, or - the first and the second air chambers (9, 17) are in flow connection with one another and have at least one tightly closable air inlet.
A spherical sector viewport window sealing ring replacing device, wherein the sealing ring replacing device is used to replace a sealing ring mounted in a sealing groove formed by a spherical sector viewport window, wherein the spherical sector viewport window is mounted on a window seat, the window seat being mounted on a flange,through a plurality of O-rings, wherein a pressure ring is mounted on a circumferential surface of the joint of the spherical sector viewport window and the window seat through a pressure ring rubber pad and a sealing device, and at the same time, the pressure ring is locked with the window seat through hexagon socket bolts; the sealing ring replacing device comprising a plurality of replacement tools to be mounted at intervals in a circumferential direction of the window seat; wherein a single replacement tool structurally comprises a support, a right-angle frame is extended upward at the rear end of the support, one of the right-angle sides of the right-angle frame is provided with a through hole, a long bolt is mounted at the through hole and is connected with the window seat and the flange and locked through a first nut, a mounting sleeve is extended downward at the bottom of the front end of the support, a screw rod is mounted in the mounting sleeve and fixed through a second nut, a pressure plate is fixed at the bottom of the screw rod, and the bottom surface of the pressure plate abuts against the spherical sector viewport window through a tool rubber pad. wherein a pressure ring is mounted on a circumferential surface of the joint of the spherical sector viewport window and the window seat through a pressure ring rubber pad and a sealing device, and at the same time, the pressure ring is locked with the window seat through hexagon socket bolts; the sealing ring replacing device comprising a plurality of replacement tools to be mounted at intervals in a circumferential direction of the window seat; wherein a single replacement tool structurally comprises a support, a right-angle frame is extended upward at the rear end of the support, one of the right-angle sides of the right-angle frame is provided with a through hole, a long bolt is mounted at the through hole and is connected with the window seat and the flange and locked through a first nut, a mounting sleeve is extended downward at the bottom of the front end of the support, a screw rod is mounted in the mounting sleeve and fixed through a second nut, a pressure plate is fixed at the bottom of the screw rod, and the bottom surface of the pressure plate abuts against the spherical sector viewport window through a tool rubber pad.
A system for selectively actuating from a remote location multiple downhole well tools in a well, the system comprising: a first control device for a first well tool, such that the first well tool can be actuated when the first control device is selected; a second control device for a second well tool, such that the second well tool can be actuated when the second control device is selected; first, second, and third conductors (52a-c) connected to the control devices,; wherein the first control device is connected between the first and second conductors, and wherein the first control device is not electrically connected to the third conductor; wherein the second control device is connected between the first and third conductors, and wherein the second control device is not electrically connected to the second conductor; whereby each of the control devices can be selected by applying a predetermined voltage potential across the pair of conductors connected to the respective control device; and at least one lockout device for each of the control devices, whereby the lockout devices prevent current from flowing through the respective control devices if the voltage potential across the pair of conductors connected to the control device is less than a predetermined minimum. a first control device for a first well tool, such that the first well tool can be actuated when the first control device is selected; a second control device for a second well tool, such that the second well tool can be actuated when the second control device is selected; first, second, and third conductors (52a-c) connected to the control devices,; wherein the first control device is connected between the first and second conductors, and wherein the first control device is not electrically connected to the third conductor; wherein the second control device is connected between the first and third conductors, and wherein the second control device is not electrically connected to the second conductor; whereby each of the control devices can be selected by applying a predetermined voltage potential across the pair of conductors connected to the respective control device; and at least one lockout device for each of the control devices, whereby the lockout devices prevent current from flowing through the respective control devices if the voltage potential across the pair of conductors connected to the control device is less than a predetermined minimum.
Method for assessing a quantity of energy that can be extracted from a motor vehicle battery, the method being executed by a processor, comprising: - receiving an initial value of a temperature parameter ( T bat ( t 0)) and an initial value of a battery state-of-charge parameter ( BSOC ( t 0)), corresponding to an initial instant ( t 0), - reading a value of a parameter representative of a battery discharge current ((I BAT) 2) retained in memory, said value being generated as a function of discharge current values measured during at least one previous journey of the vehicle, - estimating at least one subsequent value of the temperature parameter, corresponding to at least one future instant, by using a step of modelling of the trend of the temperature parameter of the battery during the discharge as a function of time (Tbat(t)), as a function of the value of the initial temperature parameter (Tbat) of the battery received and of said value of a parameter representative of a battery discharge current ((I BAT) 2), - estimating (33, 34, 35) an average temperature parameter value ((T bat) t0→tf Average) from an initial instant (t 0) to an end-of-discharge instant (t f) as a function of said modelling of the trend of the temperature of the battery as a function of time; and - determining (36, 38) an estimated value of the quantity of energy that can be extracted from the battery as a function of said average temperature parameter value ((T bat) t0→tf Average) and of the initial value of the battery state-of-charge parameter (BSOC(t 0)). - receiving an initial value of a temperature parameter ( T bat ( t 0)) and an initial value of a battery state-of-charge parameter ( BSOC ( t 0)), corresponding to an initial instant ( t 0), - reading a value of a parameter representative of a battery discharge current ((I BAT) 2) retained in memory, said value being generated as a function of discharge current values measured during at least one previous journey of the vehicle, - estimating at least one subsequent value of the temperature parameter, corresponding to at least one future instant, by using a step of modelling of the trend of the temperature parameter of the battery during the discharge as a function of time (Tbat(t)), as a function of the value of the initial temperature parameter (Tbat) of the battery received and of said value of a parameter representative of a battery discharge current ((I BAT) 2), - estimating (33, 34, 35) an average temperature parameter value ((T bat) t0→tf Average) from an initial instant (t 0) to an end-of-discharge instant (t f) as a function of said modelling of the trend of the temperature of the battery as a function of time; and - determining (36, 38) an estimated value of the quantity of energy that can be extracted from the battery as a function of said average temperature parameter value ((T bat) t0→tf Average) and of the initial value of the battery state-of-charge parameter (BSOC(t 0)).
A method comprising: detecting, via a processor at a branch router, a number of sessions hosted by a virtual desktop interface, VDI, server that are being managed by the branch router; performing, via the processor, a comparison of the number of sessions to a predetermined threshold capacity of the branch router; receiving at the branch router a request for a new session to be hosted by the VDI server; and forwarding the request for the new session according to the comparison of the number of sessions to the predetermined threshold capacity, characterized by if the number of sessions is greater than the predetermined threshold capacity of the branch router, before forwarding the request to the VDI server, modifying the request for the new session to a request for a limited VDI session. detecting, via a processor at a branch router, a number of sessions hosted by a virtual desktop interface, VDI, server that are being managed by the branch router; performing, via the processor, a comparison of the number of sessions to a predetermined threshold capacity of the branch router; receiving at the branch router a request for a new session to be hosted by the VDI server; and forwarding the request for the new session according to the comparison of the number of sessions to the predetermined threshold capacity, characterized by if the number of sessions is greater than the predetermined threshold capacity of the branch router, before forwarding the request to the VDI server, modifying the request for the new session to a request for a limited VDI session.
A computer-implemented method for a mobile device, the method comprising: running in the mobile device a remote tool for remote support for industrial automation devices; establishing (5-2, 5-7), by the mobile device, using the remote tool, a first connection to an industrial automation device and a second connection to a shared data storage; detecting in the remote tool a user input triggering a test for the industrial automation device; causing sending via the first connection, from the mobile device, at least a set of parameter values with an indication of the test to the industrial automation device the indication of the test being a set of instructions comprising at least instructions to back up existing parameters before the test is run and to restore the existing parameter after the test ends; receiving in the mobile device a user input to start the test; causing sending, from the mobile device, via the first connection, a command to start to run the test to the industrial automation device; receiving in the mobile device data from the industrial automation device via the first connection; and forwarding by the mobile device the data to the shared data storage via the second connection. running in the mobile device a remote tool for remote support for industrial automation devices; establishing (5-2, 5-7), by the mobile device, using the remote tool, a first connection to an industrial automation device and a second connection to a shared data storage; detecting in the remote tool a user input triggering a test for the industrial automation device; causing sending via the first connection, from the mobile device, at least a set of parameter values with an indication of the test to the industrial automation device the indication of the test being a set of instructions comprising at least instructions to back up existing parameters before the test is run and to restore the existing parameter after the test ends; receiving in the mobile device a user input to start the test; causing sending, from the mobile device, via the first connection, a command to start to run the test to the industrial automation device; receiving in the mobile device data from the industrial automation device via the first connection; and forwarding by the mobile device the data to the shared data storage via the second connection.
A method for the mobilization of a transposable element in a plant cell, said method comprising the steps of: a) providing a plant cell comprising a transposable element b) contacting said plant cell with an inhibitor of transcription and an inhibitor of DNA methylation, c) exposing said plant cell to an abiotic stress, biotic stress or chemical stress, d) isolating said plant cell and determining whether a phenotype of said cell has been changed thereby yielding a plant cell with a mobilized transposable element. a) providing a plant cell comprising a transposable element b) contacting said plant cell with an inhibitor of transcription and an inhibitor of DNA methylation, c) exposing said plant cell to an abiotic stress, biotic stress or chemical stress, d) isolating said plant cell and determining whether a phenotype of said cell has been changed