mhurhangee/patent-ind-claim-en huggingface dataset:
Method for additive manufacturing of a workpiece comprising the following steps: a) providing a powdery material in a powder bed in an electron beam system comprising a single electron beam generator which is configured to direct an electron beam to laterally different locations of the powder bed in order to selectively melt the powdery material locally there; b) locally selective melting of the material in the powder bed with the moved electron beam ; c) detecting backscattered electrons , which are scattered back from the material or the workpiece , with a backscattered electron detector ; d) evaluating the backscattered electrons with an evaluation unit ; characterized in that e) the detection of the backscattered electrons , which are backscattered due to the electron input by the electron beam , takes place during melting and the evaluation of the backscattered electrons takes place in a direction-dependent manner by means of a plurality of backscattered electron detectors (38; 40) arranged at different locations. a) providing a powdery material in a powder bed in an electron beam system comprising a single electron beam generator which is configured to direct an electron beam to laterally different locations of the powder bed in order to selectively melt the powdery material locally there; b) locally selective melting of the material in the powder bed with the moved electron beam ; c) detecting backscattered electrons , which are scattered back from the material or the workpiece , with a backscattered electron detector ; d) evaluating the backscattered electrons with an evaluation unit ; characterized in that e) the detection of the backscattered electrons , which are backscattered due to the electron input by the electron beam , takes place during melting and the evaluation of the backscattered electrons takes place in a direction-dependent manner by means of a plurality of backscattered electron detectors (38; 40) arranged at different locations.
A light blocking element for an imaging system for a motor vehicle comprising a bottom section , a left wall section and a right wall section , the wall sections extending from an opening for reception of a camera lens between the wall sections , the wall sections being attached to the bottom section at a first end , the wall sections' second end being adapted to be attached to a motor vehicle windshield , the wall sections being elastically deformable, such that the wall sections are elastically compressible to reduce the height of the wall sections to match a stacking height limit for transport, characterized in that a frame section is attached to the outer surface of the first end of the wall sections and a front end of the bottom section .
Steering column for a motor vehicle, with a steering shaft which is mounted in a casing tube in a bearing such that it can be rotated about its longitudinal axis (L), which bearing comprises at least one inner ring which is connected fixedly to the steering shaft so as to rotate with it, and one outer ring which is attached coaxially with respect thereto and fixedly to the casing tube so as to rotate with it, and at least one friction element which is arranged in a frictional contact between the inner ring and the outer ring , characterized in that the bearing has at least one intermediate element which is mounted in a floating manner in the circumferential direction between the inner ring and the outer ring , and to which the friction element is attached over the surface area.
A knitted component , comprising: a forefoot portion having a top layer and a bottom layer ; a heel area extending from the bottom layer of the forefoot portion in a longitudinal direction and secured to the bottom layer of the forefoot portion via at least one common knit structure; and at least one extension extending from the heel area in a second direction when the knitted component is in an unfolded state, the second direction being different than the longitudinal direction, the knitted component being characterized in that the top layer extends through at least a medial side and a lateral side , wherein a void for receiving the forefoot is formed between the top layer and the bottom layer, and wherein the top layer is secured to the bottom layer via the at least one common knit structure. a forefoot portion having a top layer and a bottom layer ; a heel area extending from the bottom layer of the forefoot portion in a longitudinal direction and secured to the bottom layer of the forefoot portion via at least one common knit structure; and at least one extension extending from the heel area in a second direction when the knitted component is in an unfolded state, the second direction being different than the longitudinal direction, the knitted component being characterized in that the top layer extends through at least a medial side and a lateral side , wherein a void for receiving the forefoot is formed between the top layer and the bottom layer, and wherein the top layer is secured to the bottom layer via the at least one common knit structure.
A method for operating a hybrid collector solar system in which a heat transfer agent which is present in a buffer accumulator passes via a pump into a thermal solar collector of the hybrid collector in order to heat the heat transfer agent , wherein the pump is connected into a feed line , which feed line connects the buffer accumulator to the thermal solar collector , characterized in that the solar system is partially filled with heat transfer agent so that part of the solar system is not filled and so that the heat transfer agent is moved back and forth between the thermal solar collector and the buffer accumulator via the feed line in dependence on its temperature, thereby realizing an oscillating method of operation.
An organic hydride generation system comprising: an electrolytic bath having an anode electrode for oxidizing water to generate protons, a cathode electrode for hydrogenating a hydrogenation target substance with the protons to generate an organic hydride, an anode chamber accommodating the anode electrode , a cathode chamber accommodating the cathode electrode , and a diaphragm partitioning the anode chamber and the cathode chamber ; a main power supplier structured to supply power to the electrolytic bath ; an auxiliary power supplier structured to supply power to the electrolytic bath independently of the main power supplier ; a detector structured to detect a voltage between the anode electrode and the cathode electrode , a potential of the anode electrode , or a potential of the cathode electrode ; and a controller structured to control the supply of power to the electrolytic bath on the basis of a detection result of the detector , wherein the controller controls the auxiliary power supplier so as to supply the power to the electrolytic bath , when it is detected that the voltage has decreased to a specified voltage, the potential of the anode electrode has changed to a specified potential E AN1 , or the potential of the cathode electrode has changed to a specified potential E CA1 during operation stop of the organic hydride generation system in which the power from the main power supplier is not supplied to the electrolytic bath . an electrolytic bath having an anode electrode for oxidizing water to generate protons, a cathode electrode for hydrogenating a hydrogenation target substance with the protons to generate an organic hydride, an anode chamber accommodating the anode electrode , a cathode chamber accommodating the cathode electrode , and a diaphragm partitioning the anode chamber and the cathode chamber ; a main power supplier structured to supply power to the electrolytic bath ; an auxiliary power supplier structured to supply power to the electrolytic bath independently of the main power supplier ; a detector structured to detect a voltage between the anode electrode and the cathode electrode , a potential of the anode electrode , or a potential of the cathode electrode ; and a controller structured to control the supply of power to the electrolytic bath on the basis of a detection result of the detector , wherein the controller controls the auxiliary power supplier so as to supply the power to the electrolytic bath , when it is detected that the voltage has decreased to a specified voltage, the potential of the anode electrode has changed to a specified potential E AN1 , or the potential of the cathode electrode has changed to a specified potential E CA1 during operation stop of the organic hydride generation system in which the power from the main power supplier is not supplied to the electrolytic bath .
A method of manufacturing adhered components, comprising: a first process of applying an adhesive to a plurality of application areas on a surface of a first component , the application areas extending linearly and being spaced in a direction intersecting an extending direction in which the application areas extend linearly; a second process of placing a second component above the first component such that the adhesive is sandwiched between the first component and the second component ; and a third process of compressing the adhesive by pressurizing the second component toward the first component with a pressurizer , wherein, in the third process, a load applied to the pressurizer changes such that the load goes through a curvilinear increase period and a rapid increase period in an order of description, the curvilinear increase period being a period in which the load increases in a curved line as an amount of compression of the adhesive increases, the rapid increase period being a period in which the load increases in a polygonal line with respect to a trajectory of the load in the curvilinear increase period as the amount of compression of the adhesive increases, and wherein the third process includes performing pressurization by the pressurizer while detecting the load by a load sensor , detecting the rapid increase period based on a detection value of the load sensor , and stopping the pressurization by the pressurizer during the rapid increase period. a first process of applying an adhesive to a plurality of application areas on a surface of a first component , the application areas extending linearly and being spaced in a direction intersecting an extending direction in which the application areas extend linearly; a second process of placing a second component above the first component such that the adhesive is sandwiched between the first component and the second component ; and a third process of compressing the adhesive by pressurizing the second component toward the first component with a pressurizer , wherein, in the third process, a load applied to the pressurizer changes such that the load goes through a curvilinear increase period and a rapid increase period in an order of description, the curvilinear increase period being a period in which the load increases in a curved line as an amount of compression of the adhesive increases, the rapid increase period being a period in which the load increases in a polygonal line with respect to a trajectory of the load in the curvilinear increase period as the amount of compression of the adhesive increases, and wherein the third process includes performing pressurization by the pressurizer while detecting the load by a load sensor , detecting the rapid increase period based on a detection value of the load sensor , and stopping the pressurization by the pressurizer during the rapid increase period.
A shared vehicle including at least one storage compartment arranged in the cockpit of the vehicle and closed by a cover , and a means for controlling the stopping of the engine of the vehicle, the vehicle comprising, furthermore, exterior lighting means of the compartment arranged in the peripheral visual field of the driver of the vehicle, detection means able to generate information concerning the status of the engine of the vehicle and means for activation of said lighting means when information of stopping of the engine of the vehicle delivered by the control means is detected by the detection means, in which the cover is provided with a control member for opening the storage compartment ; the lighting means being arranged in the immediate proximity of the opening control member , and in which the lighting means comprise a light source and a part made of light-diffusing material and surrounding the opening control member .
A system for supplying power from an input node (VIN) to an output node (VOUT) comprising: multiple MOSFET switches (Q1, Q2) coupled in parallel between the input node (VIN) and the output node (VOUT) and each controlled by a switch control signal for performing switching operations to provide power from the input node (VIN) to the output node (VOUT), the MOSFET switches (Q1, Q2) being supplied with an ON signal to command the MOSFET switches (Q1, Q2) to turn on, fault detecting circuitry being configured for indicating a fault condition of the MOSFET switches (Q1, Q2) when the MOSFET switches (Q1, Q2) are commanded to turn on and a condition is detected wherein a voltage across the MOSFET switches (Q1, Q2) exceeds a predetermined value for a predetermined period of time; wherein the fault detecting circuitry is further configured for indicating the fault condition of the MOSFET switches (Q1, Q2) when the MOSFET switches (Q1, Q2) are commanded to turn on and a condition is detected wherein the gate to source voltages of all of the MOSFET switches (Q1, Q2) are below a threshold value for a predetermined period of time; and wherein the fault detecting circuitry is further configured for indicating the fault condition of the MOSFET switches (Q1, Q2) when the MOSFET switches (Q1, Q2) are commanded to turn on and a condition is detected wherein the gate to source voltage of any one of the MOSFET switches (Q1, Q2) is below a threshold value and an output signal of that MOSFET switch is not being regulated for current limitation. multiple MOSFET switches (Q1, Q2) coupled in parallel between the input node (VIN) and the output node (VOUT) and each controlled by a switch control signal for performing switching operations to provide power from the input node (VIN) to the output node (VOUT), the MOSFET switches (Q1, Q2) being supplied with an ON signal to command the MOSFET switches (Q1, Q2) to turn on, fault detecting circuitry being configured for indicating a fault condition of the MOSFET switches (Q1, Q2) when the MOSFET switches (Q1, Q2) are commanded to turn on and a condition is detected wherein a voltage across the MOSFET switches (Q1, Q2) exceeds a predetermined value for a predetermined period of time; wherein the fault detecting circuitry is further configured for indicating the fault condition of the MOSFET switches (Q1, Q2) when the MOSFET switches (Q1, Q2) are commanded to turn on and a condition is detected wherein the gate to source voltages of all of the MOSFET switches (Q1, Q2) are below a threshold value for a predetermined period of time; and wherein the fault detecting circuitry is further configured for indicating the fault condition of the MOSFET switches (Q1, Q2) when the MOSFET switches (Q1, Q2) are commanded to turn on and a condition is detected wherein the gate to source voltage of any one of the MOSFET switches (Q1, Q2) is below a threshold value and an output signal of that MOSFET switch is not being regulated for current limitation.
A pixel substrate , comprising: a photoelectric conversion element (PD) comprising a doped region and a substrate region , wherein the doped region and the substrate region form a pn junction ; a pixel circuit electrically connected to a first supply line and the photoelectric conversion element (PD), and a protection circuit configured to short-circuit the first supply line and the substrate region when a voltage difference between the first supply line and the substrate region falls below a negative threshold voltage, wherein the protection circuit comprises a photoelectric current source and a main transistor circuit with a switchable current path between the first supply line and the substrate region , and wherein the photoelectric current source is configured to switch on the switchable current path when a voltage difference between the first supply line and the substrate region falls below the negative threshold voltage. a photoelectric conversion element (PD) comprising a doped region and a substrate region , wherein the doped region and the substrate region form a pn junction ; a pixel circuit electrically connected to a first supply line and the photoelectric conversion element (PD), and a protection circuit configured to short-circuit the first supply line and the substrate region when a voltage difference between the first supply line and the substrate region falls below a negative threshold voltage, wherein the protection circuit comprises a photoelectric current source and a main transistor circuit with a switchable current path between the first supply line and the substrate region , and wherein the photoelectric current source is configured to switch on the switchable current path when a voltage difference between the first supply line and the substrate region falls below the negative threshold voltage.
Dispenser having a cartridge holder , characterized in that said cartridge holder has at least one guide and/or rotation-prevention means for a cartridge and/or a cartridge receptacle , wherein the cartridge holder has a release element for transfer of a piercing means of the cartridge receptacle from a retracted position into an extended position, wherein the cartridge holder has a liquid connection for connection to the cartridge receptacle, and wherein the cartridge holder has a compressed-air outlet which is connected to a compressed-air source.
A computer-implemented method comprising: receiving first audio data corresponding to a first utterance ; obtaining a first transcription of the first audio data ; receiving data indicating (i) a selection of one or more terms of the first transcription and (ii) one or more of replacement terms ; determining that one or more of the replacement terms are classified as a correction of one or more of the selected terms ; in response to determining that the one or more of the replacement terms are classified as a correction of the one or more of the selected terms, obtaining a first portion of the first audio data that corresponds to one or more terms of the first transcription ; and using the first portion of the first audio data that is associated with the one or more terms of the first transcription to train an acoustic model for recognizing the one or more of the replacement terms ; characterised by receiving second audio data corresponding to a second utterance, the second audio data including a second portion corresponding to the first portion of the first audio data ; obtaining a second transcription of the second audio data ; identifying the second portion from the second audio data ; obtaining a corrected transcription of the second portion using the trained acoustic model ; and obtaining a transcription that merges the second transcription and the corrected transcription . receiving first audio data corresponding to a first utterance ; obtaining a first transcription of the first audio data ; receiving data indicating (i) a selection of one or more terms of the first transcription and (ii) one or more of replacement terms ; determining that one or more of the replacement terms are classified as a correction of one or more of the selected terms ; in response to determining that the one or more of the replacement terms are classified as a correction of the one or more of the selected terms, obtaining a first portion of the first audio data that corresponds to one or more terms of the first transcription ; and using the first portion of the first audio data that is associated with the one or more terms of the first transcription to train an acoustic model for recognizing the one or more of the replacement terms ; characterised by receiving second audio data corresponding to a second utterance, the second audio data including a second portion corresponding to the first portion of the first audio data ; obtaining a second transcription of the second audio data ; identifying the second portion from the second audio data ; obtaining a corrected transcription of the second portion using the trained acoustic model ; and obtaining a transcription that merges the second transcription and the corrected transcription .
An integrated circuit comprising: a magneto resistive RAM, MRAM, array comprising a plurality of MRAM cells; a set of Hall sensor circuits , wherein the set includes a first Hall sensor having a first level of magnetic sensitivity, and a second hall sensor having second level of magnetic sensitivity greater than the first level of sensitivity; and magnetic processing circuitry for receiving at least one indication from the set of Hall sensor circuits, wherein the magnetic processing circuitry includes an output to provide an indication of a possible magnetic field threat or attack to the MRAM array based on the at least one indication, wherein the indication is based on a detection of a magnetic field being at least at a first threshold (T1, T2, T3, T4) magnitude for a first predetermined amount of time (DT 1, DT 2, DT 3, DT 4), wherein the magnetic processing circuitry is configured to provide a second indication of a possible magnetic field threat or attack, wherein the second indication is based on a magnetic field being at least at a second threshold (T1, T2, T3, T4) magnitude for a second predetermined amount of time (DT 1, DT 2, DT 3, DT 4), and wherein the second threshold magnitude is greater than the first threshold magnitude and the second predetermined amount of time is less than the first predetermined amount of time. a magneto resistive RAM, MRAM, array comprising a plurality of MRAM cells; a set of Hall sensor circuits , wherein the set includes a first Hall sensor having a first level of magnetic sensitivity, and a second hall sensor having second level of magnetic sensitivity greater than the first level of sensitivity; and magnetic processing circuitry for receiving at least one indication from the set of Hall sensor circuits, wherein the magnetic processing circuitry includes an output to provide an indication of a possible magnetic field threat or attack to the MRAM array based on the at least one indication, wherein the indication is based on a detection of a magnetic field being at least at a first threshold (T1, T2, T3, T4) magnitude for a first predetermined amount of time (DT 1, DT 2, DT 3, DT 4), wherein the magnetic processing circuitry is configured to provide a second indication of a possible magnetic field threat or attack, wherein the second indication is based on a magnetic field being at least at a second threshold (T1, T2, T3, T4) magnitude for a second predetermined amount of time (DT 1, DT 2, DT 3, DT 4), and wherein the second threshold magnitude is greater than the first threshold magnitude and the second predetermined amount of time is less than the first predetermined amount of time.