mhurhangee/patent-ind-claim-en huggingface dataset:
A system for synchronizing sensor data, the system comprising: at least one module operable to, at least: during normal operation, acquire and store sensor measurement information from a sensor at a target output data rate (ODR) with a target period T; acquire and store a first sensor measurement value at a first time ; receive a first ODR sync signal (ODR_SYNC_IN) ; and acquire and store a second sensor measurement value at a second time which occurs after the first time at a time which is shorter than the target period, in response to the received first ODR sync signal. during normal operation, acquire and store sensor measurement information from a sensor at a target output data rate (ODR) with a target period T; acquire and store a first sensor measurement value at a first time ; receive a first ODR sync signal (ODR_SYNC_IN) ; and acquire and store a second sensor measurement value at a second time which occurs after the first time at a time which is shorter than the target period, in response to the received first ODR sync signal.
A power supply module for a voltage supply device arranged in a vehicle, wherein the power supply module is constructed from a large number of structurally independent power supply cells , wherein the large number of power supply cells , stacked to form at least one row of cells , are arranged one behind another, wherein the power supply module cooperates with a temperature control means , wherein the temperature control means is designed to control the temperature of at least some of the power supply cells by means of a heating medium, with a bracing means (18, 18', 18") which is designed to brace the power supply cells of the at least one row of cells , wherein the bracing means (18, 18', 8") for this has at least two end plates and a tensioning element (22, 22a, 22', 22a', 22", 22a"), wherein the at least two end plates cooperate with the tensioning element (22, 22a, 22', 22a', 22", 22a") to form a bracing force acting on the power supply cells , wherein the tensioning element (22, 22a, 22', 22a', 22", 22a") is embodied as a functional component of the temperature control means and to this end has at least one infeed connection for feeding heating medium into the tensioning element (22, 22a, 22', 22a', 22", 22a") and at least one discharge connection for discharging the heating medium which has flowed through at least a partial region of the tensioning element (22, 22a, 22', 22a', 22", 22a"), characterised in that the tensioning element (22, 22a, 22', 22a', 22", 22a") is designed to be U-shaped or meandering and is constructed from at least one transverse element (42, 42a, 42*, 42a', 42", 42a") and at least two longitudinal elements (44, 44a, 44', 44a', 44", 44a"), produced monolithically with the transverse element (42, 42a, 42*, 42a', 42", 42a"), with in each case one end on the transverse-element side and one free end , the infeed connection and the discharge connection being associated spatially with the free ends , the infeed connection being associated with the free end of the one longitudinal element (44, 44a, 44', 44a', 44", 44a") and the discharge connection with the free end of the other longitudinal element (44, 44a, 44', 44a', 44", 44a"), and the tensioning element (22, 22a, 22', 22a', 22", 22a") having at least one heating-medium channel (68, 68', 68") carrying the heating medium and connected to the infeed connection and the discharge connection , which channel is designed such that it encompasses the row of cells along the two longitudinal elements (44, 44a, 44', 44a', 44", 44a") and the transverse element (42, 42a, 42*, 42a', 42", 42a").
A concatenated ground run-up enclosure structure comprising at least first and second ground run-up enclosures; each ground run-up enclosure comprising: — one jet blast deflector ; and — at least one double-sided noise barrier ; wherein, said double-sided noise barrier comprises a support structure formed by two side surfaces and provided with a plurality of sound insulating plates; wherein at least one sound insulating plate is mounted in each side surface of the support structure, forming a sound absorbing space ahead of each side surface; and wherein, a ground run-up enclosure is comprised by one back barrier and at least one lateral barrier, each of the at least one lateral barrier extending in a direction and arranged in such a way in relation to one of the ends of the back barrier; the angle formed between the lateral barrier and the back barrier being at least 90°; and wherein at least one of the barriers of each ground run-up enclosure is a double-sided noise barrier; the structure being characterized in that a free end of a lateral double-sided noise barrier of a first ground run-up enclosure is connected to an end of a back barrier or of a back double-sided noise barrier of a second ground run-up enclosure. — one jet blast deflector ; and — at least one double-sided noise barrier ; said double-sided noise barrier comprises a support structure formed by two side surfaces and provided with a plurality of sound insulating plates; wherein at least one sound insulating plate is mounted in each side surface of the support structure, forming a sound absorbing space ahead of each side surface; and wherein, a ground run-up enclosure is comprised by one back barrier and at least one lateral barrier, each of the at least one lateral barrier extending in a direction and arranged in such a way in relation to one of the ends of the back barrier; the angle formed between the lateral barrier and the back barrier being at least 90°; and wherein at least one of the barriers of each ground run-up enclosure is a double-sided noise barrier; the structure being characterized in that a free end of a lateral double-sided noise barrier of a first ground run-up enclosure is connected to an end of a back barrier or of a back double-sided noise barrier of a second ground run-up enclosure.
An egg processing apparatus , comprising: a frame ; a lift assembly operably engaged with the frame and having a motorized pulley system comprising an elongate drive member , a plurality of idler pulleys , and a drive pulley , the pulley system further comprising a drive assembly having a lift motor and a drive shaft , the drive pulley being attached to the drive shaft to facilitate rotation thereof; and an egg processing head having a plurality of egg processing devices, a head plate assembly , and a head crossbeam , each idler pulley being disposed along the elongate drive member between the drive pulley and the head crossbeam , the lift motor being centered directly above or below the egg processing head , the elongate drive member being operably engaged with the head crossbeam at opposite ends thereof such that rotation of the drive pulley causes the elongate drive member to wind upon or unwind from the drive pulley , thereby facilitating vertical motion of the egg processing head characterized in that when the elongate drive member is a single elongate drive member, it extends through a slot of the drive pulley and is drawn across the idler pulleys , or when there is a plurality of elongate drive members , they are attached to the drive pulley with fasteners and supported over the idler pulleys and then attached to opposite ends of the egg processing head using fasteners . a frame ; a lift assembly operably engaged with the frame and having a motorized pulley system comprising an elongate drive member , a plurality of idler pulleys , and a drive pulley , the pulley system further comprising a drive assembly having a lift motor and a drive shaft , the drive pulley being attached to the drive shaft to facilitate rotation thereof; and an egg processing head having a plurality of egg processing devices, a head plate assembly , and a head crossbeam , each idler pulley being disposed along the elongate drive member between the drive pulley and the head crossbeam , the lift motor being centered directly above or below the egg processing head , the elongate drive member being operably engaged with the head crossbeam at opposite ends thereof such that rotation of the drive pulley causes the elongate drive member to wind upon or unwind from the drive pulley , thereby facilitating vertical motion of the egg processing head characterized in that when the elongate drive member is a single elongate drive member, it extends through a slot of the drive pulley and is drawn across the idler pulleys , or when there is a plurality of elongate drive members , they are attached to the drive pulley with fasteners and supported over the idler pulleys and then attached to opposite ends of the egg processing head using fasteners .
A method for determining user liveness comprising: capturing facial authentication data as a sequence of frames; calculating , by a device, a pair of eye openness measures for each frame and storing the eye openness measure pairs in a buffer in the device; locating temporal windows at different positions along the buffer by shifting a temporal window; dividing the eye openness measure pairs within each temporal window along the buffer into three groups (S1,S2,S3), wherein each group comprises at least one eye openness measure pair; for each group of the three groups in each temporal window , conducting calculations with the eye openness measure pairs included in the group, to form results; creating a vector, for each temporal window, by combining the results for the three groups of the temporal window ; processing, by a tree-based model, each vector to calculate a confidence score indicating the degree of confidence that a blink occurred within the time spanned by each temporal window; and identifying a maximum confidence score from the calculated confidence scores and detecting an eye blink when the maximum confidence score is greater than a threshold score. capturing facial authentication data as a sequence of frames; calculating , by a device, a pair of eye openness measures for each frame and storing the eye openness measure pairs in a buffer in the device; locating temporal windows at different positions along the buffer by shifting a temporal window; dividing the eye openness measure pairs within each temporal window along the buffer into three groups (S1,S2,S3), wherein each group comprises at least one eye openness measure pair; for each group of the three groups in each temporal window , conducting calculations with the eye openness measure pairs included in the group, to form results; creating a vector, for each temporal window, by combining the results for the three groups of the temporal window ; processing, by a tree-based model, each vector to calculate a confidence score indicating the degree of confidence that a blink occurred within the time spanned by each temporal window; and identifying a maximum confidence score from the calculated confidence scores and detecting an eye blink when the maximum confidence score is greater than a threshold score.
Individual floating element comprising at least two cuboidal buoyancy elements , a framework , comprising elongated hollow bodies coupled to one another by means of a first connecting element , and at least a second connecting element , wherein the second connecting element is rod-shaped and is arranged in a hollow body , wherein each cuboidal buoyancy element has cannulations along an x-axis and has grooves on at least one side surface along an y- or z-axis, and wherein the cuboidal buoyancy elements are arranged one on top of the other in such a way, that the grooves each form an elongated cavity , wherein the elongated hollow bodies of the framework are arranged in the elongated cavities and in the cannulations , and wherein the at least one first connecting element of the framework is arranged at intersections of the elongated cavities , wherein the at least one second connecting element is force-lockingly and form-lockingly connected at both its sides to a clamping bush in such a way, that the at least two cuboidal buoyancy elements are force-lockingly and form-lockingly connected to each other. comprising at least two cuboidal buoyancy elements , a framework , comprising elongated hollow bodies coupled to one another by means of a first connecting element , and at least a second connecting element , wherein the second connecting element is rod-shaped and is arranged in a hollow body , wherein each cuboidal buoyancy element has cannulations along an x-axis and has grooves on at least one side surface along an y- or z-axis, and wherein the cuboidal buoyancy elements are arranged one on top of the other in such a way, that the grooves each form an elongated cavity , wherein the elongated hollow bodies of the framework are arranged in the elongated cavities and in the cannulations , and wherein the at least one first connecting element of the framework is arranged at intersections of the elongated cavities , wherein the at least one second connecting element is force-lockingly and form-lockingly connected at both its sides to a clamping bush in such a way, that the at least two cuboidal buoyancy elements are force-lockingly and form-lockingly connected to each other.
An absorbent article comprising a liquid pervious topsheet, a liquid impervious backsheet, and an absorbent core comprising an absorbent material between a top core wrap sheet and a back core wrap sheet, said absorbent core being positioned in between said topsheet and said backsheet, said absorbent core having a first and second longitudinal edge and a first and second transverse edge; wherein the absorbent core is provided with a plurality of attachment zones comprising at least a first and a second attachment zone located at a distance of each other, said first and second attachment zone extending next to each other from a crotch region in the direction of the first and/or second transverse edge; wherein in said first and second attachment zone: said top core wrap sheet is attached to said back core wrap sheet along an attachment which extends, seen in a transverse direction of the absorbent core , over a transverse distance which is at least 1 mm, preferably at least 2 mm, more preferably at least 3mm, most preferably at least 4 mm; and/or said top core wrap sheet is attached to said back core wrap sheet along a discontinuous attachment at a plurality of locations at a distance of each other, seen in the transverse direction of the absorbent core ; such that upon wetting of the absorbent material, a first and second channel are created at said first and second attachment zone , respectively, wherein the first and second attachment zones are parallel in a rear part of the crotch region, whilst the transverse distance between the first and second attachment zones gradually increases in the direction of the first transverse edge of the absorbent core , wherein the first transverse edge is a front transverse edge of the absorbent core . said top core wrap sheet is attached to said back core wrap sheet along an attachment which extends, seen in a transverse direction of the absorbent core , over a transverse distance which is at least 1 mm, preferably at least 2 mm, more preferably at least 3mm, most preferably at least 4 mm; and/or said top core wrap sheet is attached to said back core wrap sheet along a discontinuous attachment at a plurality of locations at a distance of each other, seen in the transverse direction of the absorbent core ; such that upon wetting of the absorbent material, a first and second channel are created at said first and second attachment zone , respectively, wherein the first and second attachment zones are parallel in a rear part of the crotch region, whilst the transverse distance between the first and second attachment zones gradually increases in the direction of the first transverse edge of the absorbent core , wherein the first transverse edge is a front transverse edge of the absorbent core .
Method for stabilising a welding process phase transition (SPÜ) between different welding process phases (SPP-A, SPP-B) of a welding process (SP), the welding process phases (SPP-A, SPP-B) having different welding parameters, a workpiece (W) being welded at least in the welding process phases (SPP), in each case by means of a welding arc (SLB) which extends between a welding wire electrode (SDE) and the workpiece (W) and has an arc length parameter LBLP adjustable for the at least one welding process phase SPP, characterised in that , during a welding process phase transition (SPÜ) between consecutive different welding process phases (SPP-A, SPP-B), if the set arc length parameter LBLP of the welding arc (SLB) is changed in parallel with this, at least one transition welding parameter ÜSP is automatically adapted as a function of the performed arc length parameter change ΔLBLP so as to stabilise the welding process phase transition (SPÜ). the welding process phases (SPP-A, SPP-B) having different welding parameters, a workpiece (W) being welded at least in the welding process phases (SPP), in each case by means of a welding arc (SLB) which extends between a welding wire electrode (SDE) and the workpiece (W) and has an arc length parameter LBLP adjustable for the at least one welding process phase SPP, characterised in that , during a welding process phase transition (SPÜ) between consecutive different welding process phases (SPP-A, SPP-B), if the set arc length parameter LBLP of the welding arc (SLB) is changed in parallel with this, at least one transition welding parameter ÜSP is automatically adapted as a function of the performed arc length parameter change ΔLBLP so as to stabilise the welding process phase transition (SPÜ).
A system with a consumer and power supply, wherein the consumer can be separated from the power supply, and the consumer , which is embodied as a converter-fed geared motor, comprises a secondary coil which once an insertion part has been inserted into a depression in the consumer is inductively coupled to a primary conductor system , and the consumer has a U-shaped core or an E-shaped core which couples the secondary coil in improved manner to the primary conductor system, wherein the primary conductor system comprises a forward conductor and a return conductor , into which a medium-frequency alternating current is injected, and wherein the insertion part has elevations for positive connection to the consumer or at least as a guide when inserting the insertion part , furthermore, bores are provided in the insertion part , wherein a screw is able to be inserted through the bore , which screw can also be introduced into a bore in the consumer, so that the insertion part can be coupled with the consumer in a positively locking manner, and a tool is necessary, so that the releasing of the connection can be carried out only by operators with a tool, and wherein furthermore, when the insertion part has been removed from the consumer, a padlock can be hooked with its lock shackle in the bore , so that the reinsertion of the insertion part into the consumer can be blocked and thus only an authorised operator with a key for the lock of the padlock can restore the electrical supply to the consumer.
A method for detecting damage in a bearing of a wind turbine , the method comprising: collecting, via one or more sensors , vibration data relating to the bearing ; storing the vibration data in a memory device ; identifying a plurality of harmonics in the vibration data that are indicative of bearing damage in the wind turbine ; eliminating harmonics within a specified frequency proximity to areas of high energy content representative of normal gearbox operation; determining at least one of increases in energy or a variance of the energy within each of the remaining harmonics ; calculating a damage factor of the bearing as a function of a least one of the increases in energy or the variance of the energy within each of the remaining harmonics ; and comparing the damage factor to a predetermined damage threshold, wherein a damage factor exceeding the predetermined damage threshold is indicative of a damaged bearing . collecting, via one or more sensors , vibration data relating to the bearing ; storing the vibration data in a memory device ; identifying a plurality of harmonics in the vibration data that are indicative of bearing damage in the wind turbine ; eliminating harmonics within a specified frequency proximity to areas of high energy content representative of normal gearbox operation; determining at least one of increases in energy or a variance of the energy within each of the remaining harmonics ; calculating a damage factor of the bearing as a function of a least one of the increases in energy or the variance of the energy within each of the remaining harmonics ; and comparing the damage factor to a predetermined damage threshold, wherein a damage factor exceeding the predetermined damage threshold is indicative of a damaged bearing .
A charge pump driver circuit arranged to output first and second charge pump control voltage signals to a charge pump circuit; the charge pump driver circuit comprising: a control stage arranged to receive an input signal and to generate a differential control current signal in accordance with the input signal , wherein the differential control current signal comprises a first current component and a second current component ; and an output stage arranged to receive at a first input node thereof the first current component output by the control stage and at a second input node thereof the second current component output by the control stage , the output stage comprising a resistance network coupled between each of the first and second input nodes thereof and a reference voltage node and arranged to provide a first resistive path, through which the first current component flows, and a second resistive path, through which the second current component flows, the output stage being arranged to generate at a first output node thereof the first charge pump control voltage signal based on the voltage level at the first input node and at a second output node thereof the second charge pump control voltage signal based on the voltage level at the second input node ; characterized by a current generator component arranged to receive an indication of a voltage level of a charge pump output signal of the charge pump circuit , and to generate a feedback current dependent on the voltage level of the charge pump output signal , wherein the feedback current is injected into the first and second resistive paths of the resistance network . a control stage arranged to receive an input signal and to generate a differential control current signal in accordance with the input signal , wherein the differential control current signal comprises a first current component and a second current component ; and an output stage arranged to receive at a first input node thereof the first current component output by the control stage and at a second input node thereof the second current component output by the control stage , the output stage comprising a resistance network coupled between each of the first and second input nodes thereof and a reference voltage node and arranged to provide a first resistive path, through which the first current component flows, and a second resistive path, through which the second current component flows, the output stage being arranged to generate at a first output node thereof the first charge pump control voltage signal based on the voltage level at the first input node and at a second output node thereof the second charge pump control voltage signal based on the voltage level at the second input node ; characterized by a current generator component arranged to receive an indication of a voltage level of a charge pump output signal of the charge pump circuit , and to generate a feedback current dependent on the voltage level of the charge pump output signal , wherein the feedback current is injected into the first and second resistive paths of the resistance network .