mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a solenoid coupled to a switch, wherein the solenoid comprises a plunger; a processor configured to initiate an operation of the solenoid; a drive circuit coupled to the processor and coupled to the switch, the drive circuit configured to receive a command to control an operation of the solenoid; a detector for detecting at least one of a current or voltage of the solenoid, wherein the detector is coupled to the drive circuit, wherein the detector is configured to detect a solenoid current has reached a maximum pull-in current, switch the solenoid from a first mode to a second mode, wherein the first mode is a Pull-in mode where the plunger of the solenoid is pulled-in and the second mode is a Hold mode where the plunger of the solenoid is held in the pull-in position, and wherein the detector is further configured to detect the solenoid current is less than a maximum hold current, switch the solenoid from the second mode to the first mode; wherein the drive circuit is at least one of a pulse-width modulated,PWM, based current drive circuit or a DC-DC converter circuit; and the system further comprising a timer-based circuit coupled to the drive circuit, wherein the timer-based circuit comprises a monostable multivibrator and a D-flip flop circuit; and wherein the command to control the operation of the solenoid is received from the timer-based circuit. a solenoid coupled to a switch, wherein the solenoid comprises a plunger; a processor configured to initiate an operation of the solenoid; a drive circuit coupled to the processor and coupled to the switch, the drive circuit configured to receive a command to control an operation of the solenoid; a detector for detecting at least one of a current or voltage of the solenoid, wherein the detector is coupled to the drive circuit, wherein the detector is configured to detect a solenoid current has reached a maximum pull-in current, switch the solenoid from a first mode to a second mode, wherein the first mode is a Pull-in mode where the plunger of the solenoid is pulled-in and the second mode is a Hold mode where the plunger of the solenoid is held in the pull-in position, and wherein the detector is further configured to detect the solenoid current is less than a maximum hold current, switch the solenoid from the second mode to the first mode; wherein the drive circuit is at least one of a pulse-width modulated,PWM, based current drive circuit or a DC-DC converter circuit; and the system further comprising a timer-based circuit coupled to the drive circuit, wherein the timer-based circuit comprises a monostable multivibrator and a D-flip flop circuit; and wherein the command to control the operation of the solenoid is received from the timer-based circuit.
A method comprising: applying a pressure to a first portion of a composite material blank with a pair of forming dies of a composite filler forming apparatus , the pair of forming dies having a pair of convex radii, each forming die of the pair of forming dies having a respective convex radius of the pair of convex radii; and repeating the applying step to a subsequent portion of the composite material blank to incrementally form the composite material blank into a desired cross-section along its length; wherein the pressure is a first pressure, and the pair of forming dies is a first pair of forming dies and further comprising: applying a second pressure to a second portion of the composite material blank with a second pair of forming dies as the first pair of forming dies applies the first pressure to the first portion of the composite material blank , the second pair of forming dies having a second pair of convex radii, each forming die of the second pair of forming dies having a respective convex radius of the second pair of convex radii; and the method further comprising: advancing the composite material blank on a base of the composite filler forming apparatus a designated distance prior to repeating the applying step to incrementally form the composite material blank into a desired cross-section along its length. applying a pressure to a first portion of a composite material blank with a pair of forming dies of a composite filler forming apparatus , the pair of forming dies having a pair of convex radii, each forming die of the pair of forming dies having a respective convex radius of the pair of convex radii; and repeating the applying step to a subsequent portion of the composite material blank to incrementally form the composite material blank into a desired cross-section along its length; wherein the pressure is a first pressure, and the pair of forming dies is a first pair of forming dies and further comprising: applying a second pressure to a second portion of the composite material blank with a second pair of forming dies as the first pair of forming dies applies the first pressure to the first portion of the composite material blank , the second pair of forming dies having a second pair of convex radii, each forming die of the second pair of forming dies having a respective convex radius of the second pair of convex radii; and the method further comprising: advancing the composite material blank on a base of the composite filler forming apparatus a designated distance prior to repeating the applying step to incrementally form the composite material blank into a desired cross-section along its length.
An organic EL panel including: organic EL elements formed by stacking organic layers having at least an organic light emitting layer between a signal electrode and a scanning electrode that are disposed facing each other so as to cross each other on a substrate , wherein the signal electrode comprises a plurality of pixel electrodes formed in a substantially rectangular shape and disposed in a matrix, and a plurality of wiring electrodes connected alternately to each pixel electrode of the plurality of pixel electrodes in each column of the matrix, wherein the wiring electrodes are formed between columns of the pixel electrodes and are formed in such a way as to partially curve or bend along the pixel electrodes connected to another wiring electrode , in order to avoid the pixel electrodes connected to another wiring electrode in each column of the pixel electrodes , and characterized in that each of the plurality of pixel electrodes have at least one cutaway portion , the at least one cutaway portion being a portion of the end of the pixel electrode that is obliquely removed, and the wiring electrodes are formed so as to partially curve or bend along the cutaway portion , and further including auxiliary electrodes which are formed on the wiring electrodes and made of a material of an electrical resistance lower than that of the wiring electrodes , wherein the auxiliary electrodes are formed on the respective wiring electrodes so as to partially curve or bend along the cutaway portions of the pixel electrodes , in the same way as the shape of the wiring electrodes . organic EL elements formed by stacking organic layers having at least an organic light emitting layer between a signal electrode and a scanning electrode that are disposed facing each other so as to cross each other on a substrate , wherein the signal electrode comprises a plurality of pixel electrodes formed in a substantially rectangular shape and disposed in a matrix, and a plurality of wiring electrodes connected alternately to each pixel electrode of the plurality of pixel electrodes in each column of the matrix, wherein the wiring electrodes are formed between columns of the pixel electrodes and are formed in such a way as to partially curve or bend along the pixel electrodes connected to another wiring electrode , in order to avoid the pixel electrodes connected to another wiring electrode in each column of the pixel electrodes , and characterized in that each of the plurality of pixel electrodes have at least one cutaway portion , the at least one cutaway portion being a portion of the end of the pixel electrode that is obliquely removed, and the wiring electrodes are formed so as to partially curve or bend along the cutaway portion , and further including auxiliary electrodes which are formed on the wiring electrodes and made of a material of an electrical resistance lower than that of the wiring electrodes , wherein the auxiliary electrodes are formed on the respective wiring electrodes so as to partially curve or bend along the cutaway portions of the pixel electrodes , in the same way as the shape of the wiring electrodes .
Pallet made of plastic, with a cover plate for receiving objects and with at least two, preferably three, skids which are arranged below the top plate, are arranged parallel to one another and parallel to a pallet edge and each have a skid standing surface , at the ends of each of which is arranged a support-foot-like skid support member angled away from the skid standing surface in the direction of the cover plate, the skid standing surface being arranged at a distance from the cover plate by means of the skid support members and support feet arranged therebetween and being detachably connected to the cover plate, characterized in that the skids are each formed from at least two respective one-piece skid elements , in that each skid element is L-shaped, the skid support member of each skid element , which is in each case formed at a first end of the skid element is angled at right angles from the skid standing surface of the skid elements , and in that the skid elements are each detachably connected to the cover plate via the skid support members and together form a respective skid of the pallet.
Control system for a technical installation, in particular a manufacturing or process installation, which is embodied and provided to initiate an issuing and a revocation of certificates for components of the technical installation within the scope of a certificate management, characterised in that the control system comprises a computer-implemented revocation service , which is embodied and provided to initiate the revocation of certificates in an event-controlled and automated manner, wherein a change in communication links between components of the technical installation, without a component being replaced or removed in the process, represents an event which triggers the initiation of the revocation of certificates.
A computer-implemented method of tokenization of a physical object, such as a product, the method comprising: generating or receiving object identification data based on an inspection of a Physical Unclonable Function, PUF, being attached to or otherwise connected to or embedded in the physical object, the object identification data comprising at least one cryptographic hash value as a collision-resistant virtual representation of the physical object; generating a non-certified token being assigned to the physical object and representing the object identification data, wherein the non-certified token is a data structure defined according to a particular data format and carries further information about the non-certified token and its respective purpose which enables an interoperability between different ecosystems in which the non-certified token is used; communicating a non-certified token validation request data via a token framework to one or more certification systems, the non-certified token validation request data representing information indicating the creation of the non-certified token in relation to the object identification data and a request to have the non-certified token validated; and receiving token certification data representing a certification of the previously non-certified token by at least one of the certification systems. generating or receiving object identification data based on an inspection of a Physical Unclonable Function, PUF, being attached to or otherwise connected to or embedded in the physical object, the object identification data comprising at least one cryptographic hash value as a collision-resistant virtual representation of the physical object; generating a non-certified token being assigned to the physical object and representing the object identification data, wherein the non-certified token is a data structure defined according to a particular data format and carries further information about the non-certified token and its respective purpose which enables an interoperability between different ecosystems in which the non-certified token is used; communicating a non-certified token validation request data via a token framework to one or more certification systems, the non-certified token validation request data representing information indicating the creation of the non-certified token in relation to the object identification data and a request to have the non-certified token validated; and receiving token certification data representing a certification of the previously non-certified token by at least one of the certification systems.
Lock profile, with an upper part and a lower part , in particular a lock profile for equipping if required with a door opener, for a door lock, wherein, if a door opener is not present, the upper part is provided, wherein, if the upper part is used, the upper part has a blocking nose , and the door lock comprises a retractable lock latch bolt, which in the projecting locking position engages through a passage opening in the profile front side and engages behind the blocking nose , arranged in the passage opening is at least one sliding web , angled at a predetermined inclination angle away from an opening edge, for the lock latch bolt, which engages through a latch bolt cut-out opening of the upper part , characterized in that the sliding web is arranged as one piece on the lower part , which is located underneath the lock profile and provides a securing receiver element for the upper part .
An implant (6000; 7000; 8000) having an inferior outer surface and a superior outer surface and comprising a plurality of coils (6110, 6120, 6210, 6220, 6310, 6320, 6110", 6120", 6210", 6220"; 7810, 7812; 7814, 7820, 7822, 7824, 7810', 7812', 7814'; 8110, 8120, 8210, 8220, 8110', 8120', 8210' 8220, 8210", 8220", 8210"', 8220"") and an open space between and/or inside the coils, wherein at least one coil contains flat portions corresponding to the portion of the coil located in the inferior outer surface or the superior outer surface , wherein the implant (6000; 7000; 8000) is symmetric about a transverse plane (T), characterized in that the implant (6000; 7000; 8000) comprises at least two levels (6710, 6720; 7710, 7720; 8710, 8720) and in that when the implant (6000; 7000; 8000) is divided about the transverse plane (T), at least a first level (6710, 6720; 7710, 7720; 8710, 8720) is located in the superior half and at least a second level (6710, 6720; 7710, 7720; 8710, 8720) is located in the inferior half, and in that each level (6710, 6720; 7710, 7720; 8710, 8720) comprises at least two exterior coils and at least two interior coils .
A functional body for a covering , in particular a floor covering or a wall covering or for a cover element, such as, for example, a tile, a glazed tile or a panel, having a bottom side which can be deposited on a substrate and a top side which can be joined together with the covering , wherein a temperature-control means can be arranged on or in the top side , wherein a size and a shape of a base area of the functional body at least virtually corresponds to a size and a shape of a base area of a covering ,and wherein the functional body is composed of a heat-insulating material, characterized in that an outer border on the top side of the functional body has a sealing means and can be brought together with the covering.
A blocked isocyanate comprising a latent isocyanate group, which is an isocyanate group blocked with a blocking agent, wherein the blocked isocyanate comprises a first latent isocyanate group that is an isocyanate group blocked with a first blocking agent and a second latent isocyanate group that is an isocyanate group blocked with a second blocking agent, the first blocking agent is represented by general formula below, and has a higher catalysis activity that activates the isocyanate group than that of the second blocking agent, and the first latent isocyanate group content relative to a total amount in mol of the first latent isocyanate group and the second latent isocyanate group is 1 mol% or more and 30 mol% or less, (where R1 to R3 represent a hydrocarbon group having 1 to 12 carbon atoms or a hydrogen atom, and at least one of R1 to R3 represents a hydrogen atom, and R1 and R3 may be bonded to each other to form a heterocycle; R4 represents a hydrocarbon group having 1 to 12 carbon atoms, a hydrogen atom, or an atomic group represented by -NR 5 R 6 (R5 and R6 represent a hydrocarbon group having 1 to 12 carbon atoms, and R5 and R1 may be bonded to each other to form a heterocycle and R6 and R3 may be bonded to each other to form a heterocycle)). wherein the blocked isocyanate comprises a first latent isocyanate group that is an isocyanate group blocked with a first blocking agent and a second latent isocyanate group that is an isocyanate group blocked with a second blocking agent, the first blocking agent is represented by general formula below, and has a higher catalysis activity that activates the isocyanate group than that of the second blocking agent, and the first latent isocyanate group content relative to a total amount in mol of the first latent isocyanate group and the second latent isocyanate group is 1 mol% or more and 30 mol% or less, (where R1 to R3 represent a hydrocarbon group having 1 to 12 carbon atoms or a hydrogen atom, and at least one of R1 to R3 represents a hydrogen atom, and R1 and R3 may be bonded to each other to form a heterocycle; R4 represents a hydrocarbon group having 1 to 12 carbon atoms, a hydrogen atom, or an atomic group represented by -NR 5 R 6 (R5 and R6 represent a hydrocarbon group having 1 to 12 carbon atoms, and R5 and R1 may be bonded to each other to form a heterocycle and R6 and R3 may be bonded to each other to form a heterocycle)).
A method for controlling an air conditioner, comprising: receiving a turning-on remote control signal sent by an air conditioner socket through a signal sending component built in the air conditioner socket, wherein the turning-on remote control signal is generated and sent by the air conditioner socket after a signal receiving component built in the air conditioner socket or power statistic component built in the air conditioner socket determines that an air conditioner is turned on, wherein the turning-on remote control signal contains an identifier of the air conditioner socket, and wherein a plug of the air conditioner has been plugged into the air conditioner socket; querying whether a rapid working mode of the air conditioner is in an enabled state according to a corresponding relationship between the identifier of the air conditioner socket and a working state of the air conditioner, the rapid working mode being a turning-on rapid cooling mode or a turning-on rapid heating mode; and when the rapid working mode of the air conditioner is in the enabled state, sending a first remote control signal to the air conditioner socket, wherein the first remote control signal is configured to instruct the air conditioner socket to control the air conditioner to run with a working parameter of the rapid working mode when receiving the first remote control signal through the signal receiving component. receiving a turning-on remote control signal sent by an air conditioner socket through a signal sending component built in the air conditioner socket, wherein the turning-on remote control signal is generated and sent by the air conditioner socket after a signal receiving component built in the air conditioner socket or power statistic component built in the air conditioner socket determines that an air conditioner is turned on, wherein the turning-on remote control signal contains an identifier of the air conditioner socket, and wherein a plug of the air conditioner has been plugged into the air conditioner socket; querying whether a rapid working mode of the air conditioner is in an enabled state according to a corresponding relationship between the identifier of the air conditioner socket and a working state of the air conditioner, the rapid working mode being a turning-on rapid cooling mode or a turning-on rapid heating mode; and when the rapid working mode of the air conditioner is in the enabled state, sending a first remote control signal to the air conditioner socket, wherein the first remote control signal is configured to instruct the air conditioner socket to control the air conditioner to run with a working parameter of the rapid working mode when receiving the first remote control signal through the signal receiving component.
An antenna comprising: a variable dielectric constant, VDC, layer comprising a top dielectric layer , a bottom dielectric layer and variable dielectric constant material sandwiched between the top dielectric layer and the bottom dielectric layer; a common ground electrode provided below the VDC layer; a plurality of addressable contacts provided over the VDC plate, wherein each addressable contact defines a pixel and is configured to apply electric field over the VDC material at the location of the pixel; at least one radiating element provided over the VDC layer; at least one delay line provided over the VDC layer, each of the at least one radiating element being RF coupled to at least one of the delay line; and at least one conductive feed line provided below the VDC plate and coupled to the at least one delay line through a window formed in the common ground electrode. a variable dielectric constant, VDC, layer comprising a top dielectric layer , a bottom dielectric layer and variable dielectric constant material sandwiched between the top dielectric layer and the bottom dielectric layer; a common ground electrode provided below the VDC layer; a plurality of addressable contacts provided over the VDC plate, wherein each addressable contact defines a pixel and is configured to apply electric field over the VDC material at the location of the pixel; at least one radiating element provided over the VDC layer; at least one delay line provided over the VDC layer, each of the at least one radiating element being RF coupled to at least one of the delay line; and at least one conductive feed line provided below the VDC plate and coupled to the at least one delay line through a window formed in the common ground electrode.
An article of unitary construction for forming a double-layer trim piece, the article comprising: when in an un-assembled configuration: a first zone having a first set of apertures , each of the first set of apertures having a first size; a second zone having a second set of apertures , each of the second set of apertures having a second size, and a third zone interposed between the first zone and the second zone characterized by the first size being different from the second size.