mhurhangee/ep-ind-claims huggingface dataset:
A load control system for access control, comprising: a power supply; a load controller configured to be coupled to a load, the load controller configured to receive a first power having a first current level from the power supply, and to communicate information regarding the load by executing an enumeration process using a plurality of resistors, in which each resistor is caused to output a pre-defined code, and by connecting each of the plurality of resistors to the power supply to cause the plurality of resistors to draw pre-defined amounts of current from the power supply and output a plurality of pre-defined codes; and characterised in that a supply controller that is configured to receive the plurality of pre-defined codes, evaluate an output condition based on matching the plurality of pre-defined codes to a plurality of corresponding supply codes, and cause the power supply to output a second power having a second current level greater than the first level responsive to the plurality of pre-defined codes satisfying the output condition. a power supply; a load controller configured to be coupled to a load, the load controller configured to receive a first power having a first current level from the power supply, and to communicate information regarding the load by executing an enumeration process using a plurality of resistors, in which each resistor is caused to output a pre-defined code, and by connecting each of the plurality of resistors to the power supply to cause the plurality of resistors to draw pre-defined amounts of current from the power supply and output a plurality of pre-defined codes; and characterised in that a supply controller that is configured to receive the plurality of pre-defined codes, evaluate an output condition based on matching the plurality of pre-defined codes to a plurality of corresponding supply codes, and cause the power supply to output a second power having a second current level greater than the first level responsive to the plurality of pre-defined codes satisfying the output condition.
A motor vehicle with a heating/air-conditioning device, wherein the heating/air-conditioning device comprises an electrical parking heater (3, 18) for heating an air flow for pre-heating the interior space of a motor vehicle, wherein the electrical parking heater is configured for connection with a battery of a motor vehicle electrical system and comprises a control device for turning on the electrical parking heater, characterized in that the motor vehicle electrical system comprises two subnetworks with different vehicle electrical system voltages, wherein the vehicle electrical system voltage of the first subnetwork is 48V and the vehicle electrical system voltage of the second subnetwork is 12V and that the electrical parking heater (3, 18) comprises at least one PTC heating element in the first subnetwork, which is adapted for the vehicle electrical system voltage of 48V, the heating/air-conditioning device further comprises a blower for generating the air flow, wherein the electrical parking heater (3, 18) of the heating/air-conditioning device is connected directly with the motor vehicle battery in order to operate with the ignition switched off, the control device is furthermore setup to turn on the blower during operation of the parking heater (3, 18) and the control device is part of the second subnetwork with a vehicle voltage of 12V.
A timepiece with date display comprising two supports (20, 30), for example superposed discs or rings, each bearing a set of signs (40, 50) according to an annular arrangement, one bearing signs from 0 to 9 forming the date digits and the other bearing signs from 0 to 3 forming the decimals, arranged in such a manner that the respective signs (40, 50) are juxtaposed in order to indicate the date, characterized by the fact that said signs (40, 50) are disposed in a non uniform manner, such that the angular deviation formed between the start of a sign (40, 50) and the start of the following sign (40, 50) varies from one sign (40, 50) to another, the signs 0 to 9 forming the digits being separated at an angle varying by around 33° between the signs 0 and 1 to around 38.5° between the signs 2 and 1, the signs 0 to 3 forming the decimals being doubled, (0, 0; 1, 1; 2, 2; 3, 3) and being separated at an angle varying by around 41° between the signs 1 and 0 to around 48° between the signs 2 and 1, the timepiece further comprising a mechanism for driving said discs and/or rings (20, 30) by uniform angular pitches of around 36° per day for the disc/ring bearing the signs forming digits and of around 45° per five days for the disc/ring bearing the signs forming the decimals.
A method for manufacturing a check valve unit (1, 1a, 1b, 1c, 1d), the method comprising: disposing a tube stock in a state of being clamped by outer dies; fixing the tube stock by pushing shaft pushing tools into the tube stock from both ends of the tube stock; filling the tube stock with fluid; forming a valve seat on an inner peripheral surface of the tube stock by further pushing the shaft pushing tools into the tube stock from both ends of the tube stock; cutting the tube stock to cause the valve seat to form one end portion; inserting a valve body into the tube stock; and forming a protruding portion that protrudes inward at another end portion, the other end portion being on a side opposite to the valve seat. disposing a tube stock in a state of being clamped by outer dies; fixing the tube stock by pushing shaft pushing tools into the tube stock from both ends of the tube stock; filling the tube stock with fluid; forming a valve seat on an inner peripheral surface of the tube stock by further pushing the shaft pushing tools into the tube stock from both ends of the tube stock; cutting the tube stock to cause the valve seat to form one end portion; inserting a valve body into the tube stock; and forming a protruding portion that protrudes inward at another end portion, the other end portion being on a side opposite to the valve seat.
An automated system for updating firmware on an industrial device, the system comprising: a user interface device storing a computer program with executable instructions (210, 212, 214, 220, 222); one or more industrial devices, which are selected from a programmable logic controller, a human machine interface device, a switch, an electric machine, a sensor, an actuator, and a combination thereof, comprising firmware; and a communication network, which is an industrial network, interfacing with the user interface device and the one or more industrial devices and adapted to transmit data, characterized in that the computer program of the user interface device comprises instructions to scan the communication network and to identify at least one industrial device that requires an update of the firmware, and wherein the computer program of the user interface device comprises further instructions to update the firmware on the at least one industrial device via the communication network after establishing communication with the at least one industrial device, wherein the computer program of the user interface device comprises further instructions to generate an inventory list comprising current firmware versions and/or update files for the at least one industrial device, and wherein the computer program comprises further instructions to acquire the update files based on the inventory list. a user interface device storing a computer program with executable instructions (210, 212, 214, 220, 222); one or more industrial devices, which are selected from a programmable logic controller, a human machine interface device, a switch, an electric machine, a sensor, an actuator, and a combination thereof, comprising firmware; and a communication network, which is an industrial network, interfacing with the user interface device and the one or more industrial devices and adapted to transmit data, characterized in that the computer program of the user interface device comprises instructions to scan the communication network and to identify at least one industrial device that requires an update of the firmware, and wherein the computer program of the user interface device comprises further instructions to update the firmware on the at least one industrial device via the communication network after establishing communication with the at least one industrial device, wherein the computer program of the user interface device comprises further instructions to generate an inventory list comprising current firmware versions and/or update files for the at least one industrial device, and wherein the computer program comprises further instructions to acquire the update files based on the inventory list.
A fixture suitable for testing electrical properties of materials at a high temperature, said fixture comprising: at least three noble metal electrodes (11, 12, 13) arranged in parallel, among which two adjacent noble metal electrodes (11, 12 13) are configured to clamp a test sample; noble metal wires (1, 2, 5) connected to the noble metal electrodes (11, 12, 13) at one end, and to a test device at the other end for transmitting test signals corresponding to the test sample to the test device through the noble metal electrodes (11, 12, 13); and a thermocouple for measuring the temperature of the test materials; wherein the noble metal electrodes (11, 12, 13) comprise a first electrode, a second electrode and at least one third shared electrode; and wherein the first electrode and the at least one third shared electrode are arranged to be movable in a direction perpendicular to the noble metal electrodes so that the distance between each of the noble metal electrodes is adjustable; and wherein said fixture further comprises a protection tube surrounding a first wire that is connected to the first electrode, the protection tube is movable in a direction perpendicular to the noble metal electrodes, and the first electrode is provided at the end surface of the protection tube. characterized in that said fixture further comprises a frame-shaped bracket having an opening, and wherein the noble metal electrodes (11, 12, 13) extend toward the opening. at least three noble metal electrodes (11, 12, 13) arranged in parallel, among which two adjacent noble metal electrodes (11, 12 13) are configured to clamp a test sample; noble metal wires (1, 2, 5) connected to the noble metal electrodes (11, 12, 13) at one end, and to a test device at the other end for transmitting test signals corresponding to the test sample to the test device through the noble metal electrodes (11, 12, 13); and a thermocouple for measuring the temperature of the test materials; wherein the noble metal electrodes (11, 12, 13) comprise a first electrode, a second electrode and at least one third shared electrode; and wherein the first electrode and the at least one third shared electrode are arranged to be movable in a direction perpendicular to the noble metal electrodes so that the distance between each of the noble metal electrodes is adjustable; and wherein said fixture further comprises a protection tube surrounding a first wire that is connected to the first electrode, the protection tube is movable in a direction perpendicular to the noble metal electrodes, and the first electrode is provided at the end surface of the protection tube. characterized in that said fixture further comprises a frame-shaped bracket having an opening, and wherein the noble metal electrodes (11, 12, 13) extend toward the opening.
A user apparatus for use in a mobile communication system including a first base station and a second base station that communicate with the user apparatus by inter-base station carrier aggregation, the first base station acting as a master base station and the second base station acting as a secondary base station, comprising: reception means configured to receive, from the first base station, a message specifying a predetermined notification trigger that triggers measurement reporting; measurement means (104, 105) configured to measure a time difference between subframe boundaries of a subframe in the first base station and a subframe in the second base station; and notification means configured, when detecting the predetermined notification trigger, to notify the first base station or the second base station of time difference information on the time difference measured by the measurement means. reception means configured to receive, from the first base station, a message specifying a predetermined notification trigger that triggers measurement reporting; measurement means (104, 105) configured to measure a time difference between subframe boundaries of a subframe in the first base station and a subframe in the second base station; and notification means configured, when detecting the predetermined notification trigger, to notify the first base station or the second base station of time difference information on the time difference measured by the measurement means.
An imprinting device that transfers a mold pattern on a die to a molding target, the imprinting device comprising: a casing forming a pressure-adjusting chamber; a stage supporting the die and the molding target; a frame encircling an outer circumference of the stage; first moving means that moves the casing and the stage in a direction coming close to each other or becoming distant from each other; second moving means that moves the casing and the frame in a direction coming close to each other or becoming distant from each other; pressure-adjusting means that adjusts pressure of a fluid in the pressure-adjusting chamber and decompression means which decompresses a decompression chamber formed by the frame and the die or the molding target, and which eliminates the fluid present between the die and the molding target. a casing forming a pressure-adjusting chamber; a stage supporting the die and the molding target; a frame encircling an outer circumference of the stage; first moving means that moves the casing and the stage in a direction coming close to each other or becoming distant from each other; second moving means that moves the casing and the frame in a direction coming close to each other or becoming distant from each other; pressure-adjusting means that adjusts pressure of a fluid in the pressure-adjusting chamber and decompression means which decompresses a decompression chamber formed by the frame and the die or the molding target, and which eliminates the fluid present between the die and the molding target.
A light emitting diode and light guide assembly, comprising: a light emitting diode with an output surface; a first power input lead electrically coupled to a first pole of said light emitting diode and having a first surface and a second surface; a second power input lead electrically coupled to a second pole of said light emitting diode and having a first surface and a second surface; an integrally molded light guide having an axially extending, light transmissive guide body with an internally reflective surface, said guide body having a light output window; an input window formed with said light guide being aligned to capture all the light emitted by the light emitting diode at said output surface; and a supporting base integrally molded with said light guide and enveloping at least a portion of said first surface and said second surface of said first power input lead and said first surface and said second surface of said second power input lead to anchor the guide body with respect to said power inputs (16, 20), characterised in that said integrally molded light guide and supporting base includes a base coupling formed to frictionally engage a recess in a substrate to form an anchor for the light emitting diode and light guide assembly, and said base coupling includes a plurality of peripheral barbs. a light emitting diode with an output surface; a first power input lead electrically coupled to a first pole of said light emitting diode and having a first surface and a second surface; a second power input lead electrically coupled to a second pole of said light emitting diode and having a first surface and a second surface; an integrally molded light guide having an axially extending, light transmissive guide body with an internally reflective surface, said guide body having a light output window; an input window formed with said light guide being aligned to capture all the light emitted by the light emitting diode at said output surface; and a supporting base integrally molded with said light guide and enveloping at least a portion of said first surface and said second surface of said first power input lead and said first surface and said second surface of said second power input lead to anchor the guide body with respect to said power inputs (16, 20), characterised in that said integrally molded light guide and supporting base includes a base coupling formed to frictionally engage a recess in a substrate to form an anchor for the light emitting diode and light guide assembly, and said base coupling includes a plurality of peripheral barbs.
A method for configuring a plurality of managed forwarding elements 'MFEs' in a plurality of virtual cloud networks 'VCNs' (310A-N) to make routing decisions that efficiently use a peered transit VCN and peering with other VCNs in the plurality of VCNs (310A-N), the MFEs implementing a logical forwarding element of a tenant logical network spanning the transit VCN and the plurality of VCNs (310A-N), the method comprising: at a set of controller computers: receiving an identification of peering relationships between VCNs in the plurality of VCNs (310A-N), wherein compute nodes of peered VCNs communicate as if the compute nodes are in a single VCN; generating configuration data for configuring each MFE to 1) forward data messages received at the MFE directly between a source VCN including a source compute node in the tenant logical network and a destination VCN including a destination compute node when it is possible to forward data messages directly between the source and destination VCNs, and to 2) forward data messages received at the MFE to a transit gateway device in a transit VCN when it is not possible to forward data messages directly between the source and destination VCNs (310A, 3 10N), the transit gateway device implementing a logical routing element of the tenant logical network; and sending the configuration data for each MFE to a corresponding configuration agent executing in the VCN on which the MFE executes to configure the MFE. receiving an identification of peering relationships between VCNs in the plurality of VCNs (310A-N), wherein compute nodes of peered VCNs communicate as if the compute nodes are in a single VCN; generating configuration data for configuring each MFE to 1) forward data messages received at the MFE directly between a source VCN including a source compute node in the tenant logical network and a destination VCN including a destination compute node when it is possible to forward data messages directly between the source and destination VCNs, and to 2) forward data messages received at the MFE to a transit gateway device in a transit VCN when it is not possible to forward data messages directly between the source and destination VCNs (310A, 3 10N), the transit gateway device implementing a logical routing element of the tenant logical network; and sending the configuration data for each MFE to a corresponding configuration agent executing in the VCN on which the MFE executes to configure the MFE.
Heating device for heating a fluid, in particular water, having at least one fluid-guiding unit for predefining a flow direction of the fluid, and having at least one heating unit, in particular a heating coil unit, for transferring heat to the fluid, and having at least one fixing unit, in particular clamping unit, for fixing the heating unit within the fluid-guiding unit, wherein the at least one fixing unit is arranged at a bend, for deflecting the fluid, of the fluid-guiding unit, characterized in that the fluid-guiding unit does not have a fixing unit in at least one bend-free portion of the fluid-guiding unit, the at least one heating unit being arranged in said bend-free portion, along a continuous section which corresponds at least substantially to a maximum extent of the bend-free portion.
A direct-current electric arc detection method, comprising: obtaining an electrical quantity of a direct current circuit; inputting the electrical quantity into a burning arc neural network model to perform burning arc detection on the direct current circuit, to obtain a burning arc detection result; and when the burning arc detection result is that a burning arc is detected, determining that a direct-current electric arc fault exists in the direct current circuit, wherein, before inputting the electrical quantity into the burning arc neural network model, the method further comprises: inputting the electrical quantity into a starting arc neural network model to perform starting arc detection on the direct current circuit, to obtain a starting arc detection result; and when the starting arc detection result is that a starting arc is detected, inputting the electrical quantity into the burning arc neural network model; and wherein the electrical quantity is data obtained by performing Fourier transform and data per unit normalization processing on an original electrical quantity. obtaining an electrical quantity of a direct current circuit; inputting the electrical quantity into a burning arc neural network model to perform burning arc detection on the direct current circuit, to obtain a burning arc detection result; and when the burning arc detection result is that a burning arc is detected, determining that a direct-current electric arc fault exists in the direct current circuit, wherein, before inputting the electrical quantity into the burning arc neural network model, the method further comprises: inputting the electrical quantity into a starting arc neural network model to perform starting arc detection on the direct current circuit, to obtain a starting arc detection result; and when the starting arc detection result is that a starting arc is detected, inputting the electrical quantity into the burning arc neural network model; and wherein the electrical quantity is data obtained by performing Fourier transform and data per unit normalization processing on an original electrical quantity. inputting the electrical quantity into a starting arc neural network model to perform starting arc detection on the direct current circuit, to obtain a starting arc detection result; and when the starting arc detection result is that a starting arc is detected, inputting the electrical quantity into the burning arc neural network model; and wherein the electrical quantity is data obtained by performing Fourier transform and data per unit normalization processing on an original electrical quantity.
A fastener for fixing a panel to a support, comprising a clip foot configured to be pressed axially through a hole in said support, and a head comprising a plate to which said clip foot is linked, a wedge and a shank connecting said plate to said wedge, said wedge comprising a back-plate formed by a rigid hub, a rim and a plurality of flexible arms each connecting said rim to said back-plate, said wedge being configured to be inserted in a recess arranged in a thickness of said panel, and said shank being configured to be received in a keyhole slot in said panel opening into said recess; said fastener being characterized in that each said flexible arm comprises a first curved section, a second curved section and an elbow connecting said first curved section to said second curved section, said first curved section being connected to said back-plate by a first end of said flexible arm and said second curved section being connected to said rim by a second end of said flexible arm opposite the first end thereof; said back-plate and each said flexible arm being configured such that the distance (d3, d4) between the center of said back-plate and said second curved section increases along said second curved section from said elbow to said rim.