mhurhangee/patent-ind-claim-en huggingface dataset:
Bandwidth extension decoder for providing a bandwidth extended audio signal based on an input audio signal and a parameter signal , wherein the parameter signal comprises an indication of an offset frequency and an indication of a power density parameter, the bandwidth extension decoder comprising: a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; an output interface configured to provide the bandwidth extended audio signal ; and a core decoder and a parameter extraction unit , wherein the core decoder is connected to the patch generator and the combiner , wherein the parameter extraction unit is connected to the patch generator and to the output interface , wherein the patch generator is connected to the combiner , and wherein the combiner is connected to the output interface , wherein the input audio signal comprises an upper cutoff frequency equal to a crossover frequency of the core decoder , or wherein the crossover frequency is constant or is variable over time. a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; an output interface configured to provide the bandwidth extended audio signal ; and a core decoder and a parameter extraction unit , wherein the core decoder is connected to the patch generator and the combiner , wherein the parameter extraction unit is connected to the patch generator and to the output interface , wherein the patch generator is connected to the combiner , and wherein the combiner is connected to the output interface , wherein the input audio signal comprises an upper cutoff frequency equal to a crossover frequency of the core decoder , or wherein the crossover frequency is constant or is variable over time.
An ignition-source detecting system comprising: an electronic processor configured to control the ignition-source detecting system; wherein the electronic processor is further configured to provide power to at least one detector at a voltage that is modulated between a high voltage and a low voltage with a predetermined time interval; and the at least one detector is configured to detect radiation in a container, the at least one detector being further configured to make a decision to identify to the electronic processor that a hazardous event has occurred by modifying the duration of either the high or low voltage, wherein the electronic processor is located in close proximity to the container and the detector, wherein the electronic processor is mounted within the same hazardous environment as the container and the detector; the ignition-source detecting system further comprising: at least one spray nozzle configured to release a fluid; and at least one valve configured to control flow of the fluid to the spray nozzle in response to a signal received from the electronic processor; wherein the processor is configured to interpret the voltage modifications as a radiation detection event and, in response thereto, to send the signal to the valve . an electronic processor configured to control the ignition-source detecting system; wherein the electronic processor is further configured to provide power to at least one detector at a voltage that is modulated between a high voltage and a low voltage with a predetermined time interval; and the at least one detector is configured to detect radiation in a container, the at least one detector being further configured to make a decision to identify to the electronic processor that a hazardous event has occurred by modifying the duration of either the high or low voltage, wherein the electronic processor is located in close proximity to the container and the detector, wherein the electronic processor is mounted within the same hazardous environment as the container and the detector; the ignition-source detecting system further comprising: at least one spray nozzle configured to release a fluid; and at least one valve configured to control flow of the fluid to the spray nozzle in response to a signal received from the electronic processor; wherein the processor is configured to interpret the voltage modifications as a radiation detection event and, in response thereto, to send the signal to the valve . at least one spray nozzle configured to release a fluid; and at least one valve configured to control flow of the fluid to the spray nozzle in response to a signal received from the electronic processor; wherein the processor is configured to interpret the voltage modifications as a radiation detection event and, in response thereto, to send the signal to the valve .
A vehicle control unit arranged to control motion of a heavy-duty vehicle comprising first and second electric machine, EM, arrangements (EM1, EM2), where the first EM arrangement has different efficiency characteristics compared to the second EM arrangement, wherein the vehicle control unit is arranged to control the first and the second EM arrangement (EM1, EM2) by transmitting wheel slip requests to respective EM control units, wherein the control unit is arranged to obtain a desired total longitudinal force (Fx) to be jointly generated by the first and second EM arrangements, and to obtain respective efficiency characteristics of the first and the second EM arrangements (EM1, EM2), wherein the control unit is arranged to determine a desired first wheel slip (λ1) corresponding to a first longitudinal force (F1) generated by the first EM arrangement, and a desired second wheel slip (λ2) corresponding to a second longitudinal force (F2) generated by the second EM arrangement, where the sum of the first longitudinal force (F1) and the second longitudinal force (F2) is matched to the desired total longitudinal force (Fx), characterised in that the control unit is arranged to balance a magnitude of the first wheel slip (λ1) relative to a magnitude of the second wheel slip (λ2) in dependence of the respective efficiency characteristics of the first and the second EM arrangements (EM1, EM2). wherein the vehicle control unit is arranged to control the first and the second EM arrangement (EM1, EM2) by transmitting wheel slip requests to respective EM control units, wherein the control unit is arranged to obtain a desired total longitudinal force (Fx) to be jointly generated by the first and second EM arrangements, and to obtain respective efficiency characteristics of the first and the second EM arrangements (EM1, EM2), wherein the control unit is arranged to determine a desired first wheel slip (λ1) corresponding to a first longitudinal force (F1) generated by the first EM arrangement, and a desired second wheel slip (λ2) corresponding to a second longitudinal force (F2) generated by the second EM arrangement, where the sum of the first longitudinal force (F1) and the second longitudinal force (F2) is matched to the desired total longitudinal force (Fx), characterised in that the control unit is arranged to balance a magnitude of the first wheel slip (λ1) relative to a magnitude of the second wheel slip (λ2) in dependence of the respective efficiency characteristics of the first and the second EM arrangements (EM1, EM2).
A threaded fastening element comprising a threaded shank extending along a central axis (A) between a first end and a second end , a screw head connected to the first end , the second end opposite the screw head being free, and a threading formed on the threaded shank and extending along the central axis (A), the threading having at least one screw thread , wherein said screw thread has an apical angle decreasing gradually, continuously and monotonously, between a first apical angle (α1) and a second apical angle (α2) strictly smaller than the first apical angle, wherein the threading comprises at least one variation segment over which the decrease in the apical angle occurs, the decrease in the apical angle being done over several turns, and a first segment extending from the variation segment towards the first end and over which the screw thread has a constant apical angle equal to the first apical angle (α1).
Presentation case for a watch comprising at least one housing intended to receive a watch comprising, for the winding thereof, a winding crown , said presentation case comprising an automatic winding device for the watch arranged to be able to wind the watch using its winding crown when it is in place in its housing , characterised in that the automatic winding device for the watch comprises a winding carriage arranged to be translationally movable between a rest position, furthest away from the winding crown , and a winding position, closest to the winding crown , said winding carriage bearing a rotating shaft having a connecting member arranged to be able to cooperate with the winding crown when the winding carriage is in its winding position, the watch being in place in its housing , in order for it to be able to be wound.
Edge shuttering device for moulding a concrete construction panel comprising basic shuttering brackets to be fastened on a casting bed , said brackets having a shuttering wall , an opposite rear wall and a series of additional shuttering elements extending parallel to the basic shuttering brackets onto which they are detached, characterized in that from the rear wall rails are extending on which said additional shuttering elements are slidably mounted in a direction rectangular with respect to the basic shuttering brackets .
An inductive proximity sensor for detecting an object, the inductive proximity sensor comprising a detection unit for detecting a sensor signal and a control and evaluation unit configured to determine an object property by evaluating the sensor signal, the control and evaluation unit comprising a correction value unit configured to determine a correction value for disturbing influences of the sensor environment from the sensor signal by further evaluation using a machine learning method and to correct the object property using the correction value.
A variable transmittance film comprising: a first electrode substrate and a second electrode substrate which are provided to face each other; and a liquid receiving layer which is provided between the first electrode substrate and the second electrode substrate and comprises a liquid substance, and a partition wall pattern that divides the liquid substance into two or more spaces, wherein at least a part of the partition wall pattern comprises a passageway region that connects the adjacent spaces, wherein the partition wall pattern comprises a rim structure having closed figures connected continuously, wherein the closed figure is a hexagon, and the passageway regions are provided in at least a pair of rim regions of the hexagon which face each other; and characterized in that a thickness (t) of the passageway region is 0.05 times to 0.95 times a thickness (q) of the partition wall pattern , , the thickness being measured in a direction perpendicular to the substrates; and wherein the entirety of one surface of the partition wall pattern , comprising the passageway region , adjoins the first electrode substrate, and the entirety of the other surface of the partition wall pattern , which is opposite to the one surface adjoining the first electrode substrate, except for the passageway region , adjoins the second electrode substrate. a first electrode substrate and a second electrode substrate which are provided to face each other; and a liquid receiving layer which is provided between the first electrode substrate and the second electrode substrate and comprises a liquid substance, and a partition wall pattern that divides the liquid substance into two or more spaces, wherein at least a part of the partition wall pattern comprises a passageway region that connects the adjacent spaces, wherein the partition wall pattern comprises a rim structure having closed figures connected continuously, wherein the closed figure is a hexagon, and the passageway regions are provided in at least a pair of rim regions of the hexagon which face each other; and characterized in that a thickness (t) of the passageway region is 0.05 times to 0.95 times a thickness (q) of the partition wall pattern , , the thickness being measured in a direction perpendicular to the substrates; and wherein the entirety of one surface of the partition wall pattern , comprising the passageway region , adjoins the first electrode substrate, and the entirety of the other surface of the partition wall pattern , which is opposite to the one surface adjoining the first electrode substrate, except for the passageway region , adjoins the second electrode substrate.
A method of forming a multilayer confectionery sheet, wherein at least one of the confectionery sheets is a gum sheet, the method comprising: mixing gum ingredients to output a gum structure; forming a first confectionery into a first confectionery sheet having an average thickness between about 0.3mm and 10mm using a first forming station having a first set of forming drums; forming a second confectionery into a second confectionery sheet having an average thickness between about 0.3mm and 10mm using a second forming station having a second set of forming drums; wherein the gum structure is fed in a form of a non-uniform mass to at least one of the first and second forming stations to form the gum sheet; and laminating the first confectionery sheet and the second confectionery sheet to form a multilayer confectionery sheet. mixing gum ingredients to output a gum structure; forming a first confectionery into a first confectionery sheet having an average thickness between about 0.3mm and 10mm using a first forming station having a first set of forming drums; forming a second confectionery into a second confectionery sheet having an average thickness between about 0.3mm and 10mm using a second forming station having a second set of forming drums; wherein the gum structure is fed in a form of a non-uniform mass to at least one of the first and second forming stations to form the gum sheet; and laminating the first confectionery sheet and the second confectionery sheet to form a multilayer confectionery sheet.
A capacitor unit with staggered-layer structure, for a capacitor array comprising a plurality of capacitor units in which one and another of the plurality capacitor units are seamlessly connected side by side, characterized by comprising: a plurality of odd layers , wherein each of the plurality of odd layers is formed with a first slot , and not adjacent to another one of the plurality of odd layers ; a first via (V1) formed in the first slot ; a plurality of first connecting portion corresponding to the plurality of odd layers , formed in the first slot , and configured to connect the first via (V1) and the plurality of odd layers ; a plurality of even layers , wherein each of the plurality of even layers is formed with a second slot , and not adjacent to another one of the plurality of even layers ; a second via formed in the second slot ; and a plurality of second connecting portion corresponding to the plurality of even layers , formed in the second slot , and configured to connect the second via (V2) and the plurality of even layers ; wherein one of the plurality of odd layers is adjacent to one of the plurality of even layers to form a staggered-layer structure. a plurality of odd layers , wherein each of the plurality of odd layers is formed with a first slot , and not adjacent to another one of the plurality of odd layers ; a first via (V1) formed in the first slot ; a plurality of first connecting portion corresponding to the plurality of odd layers , formed in the first slot , and configured to connect the first via (V1) and the plurality of odd layers ; a plurality of even layers , wherein each of the plurality of even layers is formed with a second slot , and not adjacent to another one of the plurality of even layers ; a second via formed in the second slot ; and a plurality of second connecting portion corresponding to the plurality of even layers , formed in the second slot , and configured to connect the second via (V2) and the plurality of even layers ; wherein one of the plurality of odd layers is adjacent to one of the plurality of even layers to form a staggered-layer structure.
A method comprising: - providing a high impact polystyrene (HIPS) reaction system, wherein the HIPS reaction system has a devolitalizer downstream of a reactor; - injecting a retarding agent into the HIPS reaction system prior to the devolitalizer, said retarding agent being: a tertiary amine oxide or an aromatic tertiary amine oxide or 2,6-di-tert-butyl-4(dimethylamino)methylphenol. - providing a high impact polystyrene (HIPS) reaction system, wherein the HIPS reaction system has a devolitalizer downstream of a reactor; - injecting a retarding agent into the HIPS reaction system prior to the devolitalizer, said retarding agent being: a tertiary amine oxide or an aromatic tertiary amine oxide or 2,6-di-tert-butyl-4(dimethylamino)methylphenol. a tertiary amine oxide or an aromatic tertiary amine oxide or 2,6-di-tert-butyl-4(dimethylamino)methylphenol.
A computer implemented method comprising: receiving, from one or more downloadable agents , respective WAN performance information, wherein a first downloadable agent of the one or more downloadable agents is executable on a computing device coupled to a LAN of a broadband subscriber, wherein the LAN is coupled by another device to a WAN; storing the WAN performance information in a database associated with a server; analyzing the WAN performance information to generate an analysis result; determining control information for a DSL operator, the control information according to the analyzed information; and recommending the DSL operator with the control information to improve performance of a DSL service; and reporting the analysis result to at least one of the broadband subscriber, the broadband subscriber's service provider and a management entity. receiving, from one or more downloadable agents , respective WAN performance information, wherein a first downloadable agent of the one or more downloadable agents is executable on a computing device coupled to a LAN of a broadband subscriber, wherein the LAN is coupled by another device to a WAN; storing the WAN performance information in a database associated with a server; analyzing the WAN performance information to generate an analysis result; determining control information for a DSL operator, the control information according to the analyzed information; and recommending the DSL operator with the control information to improve performance of a DSL service; and reporting the analysis result to at least one of the broadband subscriber, the broadband subscriber's service provider and a management entity.
A method for forming a rivet head of a rivet from a brittle metallic material with an elongation at break ≤ 1%, wherein the rivet is cylindrical and has a rivet longitudinal axis , comprising the steps of: moving a die that rotates about a die longitudinal axis in the direction of the die longitudinal axis from a starting position into a contact position, wherein the die is moved with its die longitudinal axis parallel and/or coaxial to the rivet longitudinal axis in the direction of the die longitudinal axis , wherein the die has a die end face in a plane perpendicular to the die longitudinal axis , wherein the die end face is in contact with a rivet end face of the rivet in the contact position, wherein the rivet end face of the rivet is formed in a plane at right angles to a rivet longitudinal axis , wherein the die end face has an area that is larger than an area of the rivet end face ; applying a first pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis for a friction duration; applying a second pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis , wherein the second pressing pressure is greater than the first pressing pressure; and moving the rotating die in the direction of the die longitudinal axis into an end position, wherein, by moving the die from the contact position into the end position, a rivet end portion having the rivet end face is compressed and the circumference of the rivet end portion is increased. moving a die that rotates about a die longitudinal axis in the direction of the die longitudinal axis from a starting position into a contact position, wherein the die is moved with its die longitudinal axis parallel and/or coaxial to the rivet longitudinal axis in the direction of the die longitudinal axis , wherein the die has a die end face in a plane perpendicular to the die longitudinal axis , wherein the die end face is in contact with a rivet end face of the rivet in the contact position, wherein the rivet end face of the rivet is formed in a plane at right angles to a rivet longitudinal axis , wherein the die end face has an area that is larger than an area of the rivet end face ; applying a first pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis for a friction duration; applying a second pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis , wherein the second pressing pressure is greater than the first pressing pressure; and moving the rotating die in the direction of the die longitudinal axis into an end position, wherein, by moving the die from the contact position into the end position, a rivet end portion having the rivet end face is compressed and the circumference of the rivet end portion is increased.
Valve having a housing , a drive, a tappet which is connected to the drive, a closing body which is connected to the tappet and interacts with a valve seat , a magnet which is arranged at one end of the tappet , and a sensor which is arranged opposite the magnet, wherein the tappet is connected to an additional component which is designed in such a way that rotational movements of the tappet are prevented, characterized in that the additional component has a flexible region which permits a movement of the additional component in such a way that the additional component follows a linear movement of the tappet .