mhurhangee/ep-ind-claims huggingface dataset:
Method for engraving, marking, lettering and/or cutting workpieces with applied graphics, in particular a graphic area, comprising the following steps: - Creating and/or loading of a processing job with a graphic or a graphic area, respectively, and identifying features on a display element, in particular a computer; - Application of the identifying features and the graphic or the graphic area, respectively, on the workpiece; - Placing of the workpiece in a processing area of a processing device, in particular a laser plotter with an optical unit for detecting the identifying features; - Detection of the workpiece, in particular the identifying features, in order to determine the position and orientation of the workpiece, in particular of the applied graphics or the graphics area, respectively, in the processing area; - Execution of the machining process after successful detection of the workpiece, in particular of the graphic or the graphic area, respectively, characterized in that after the position or alignment of the workpiece and/or the graphic or the graphic area has been detected, an engraving verification process is carried out, in which parameters, such as engraving angle deviation, alignment angle deviation, engraving depth, engraving width, etc., for the deviation of the optimal preferably horizontal and/or vertical alignment of the graphic or the graphic area and/or the workpiece are stored on the display element, in particular on the computer, or in a database or the control unit of the laser plotter, whereby these preset values are taken into account during the engraving verification process, so that if a tolerance range of the defined parameters is exceeded, whereby the determined position or alignment of the graphic or the graphic area and/or the workpiece is used to determine whether engraving or lettering, in particular an engraving process in the defined engraving and/or lettering area, is possible or not, the engraving process is stopped. - Creating and/or loading of a processing job with a graphic or a graphic area, respectively, and identifying features on a display element, in particular a computer; - Application of the identifying features and the graphic or the graphic area, respectively, on the workpiece; - Placing of the workpiece in a processing area of a processing device, in particular a laser plotter with an optical unit for detecting the identifying features; - Detection of the workpiece, in particular the identifying features, in order to determine the position and orientation of the workpiece, in particular of the applied graphics or the graphics area, respectively, in the processing area; - Execution of the machining process after successful detection of the workpiece, in particular of the graphic or the graphic area, respectively,
A high speed datalink rotary joint comprising a first ring with a first diameter and a second ring with a second diameter larger than the first diameter, the first ring being coaxially arranged to the second ring and around a center axis forming a circular gap between the rings (210, 220), the first ring and the second ring comprising at least partially conductive material, the rotary joint further comprising a first antenna and a second antenna rotatable relative to the first antenna, the first antenna being directed into the circular gap in a first radial direction relative to the center axis and under a first angle relative to the first radial direction, the second antenna being directed into the circular gap in a second radial direction relative to the center axis and under a second angle relative to the second radial direction, wherein the first antenna is directed under the first angle towards the second ring and the second antenna is directed under the second angle towards the first ring, and the first angle and the second angle have an absolute value in a range from 1° to 89°, wherein the first angle and the second angle are at fixed values which are constant over rotation. comprising a first ring with a first diameter and a second ring with a second diameter larger than the first diameter, the first ring being coaxially arranged to the second ring and around a center axis forming a circular gap between the rings (210, 220), the first ring and the second ring comprising at least partially conductive material, the rotary joint further comprising a first antenna and a second antenna rotatable relative to the first antenna, the first antenna being directed into the circular gap in a first radial direction relative to the center axis and under a first angle relative to the first radial direction, the second antenna being directed into the circular gap in a second radial direction relative to the center axis and under a second angle relative to the second radial direction, wherein the first antenna is directed under the first angle towards the second ring and the second antenna is directed under the second angle towards the first ring, and the first angle and the second angle have an absolute value in a range from 1° to 89°, wherein the first angle and the second angle are at fixed values which are constant over rotation.
A downhole straddle system for sealing off a damaged zone in a well tubular metal structure in a well having a top, comprising: - a straddle assembly having a first end, a second end closest to the top, an inner face, a first hydraulic expandable annular barrier (15, 15A) and a second hydraulic expandable annular barrier (15, 15B), - a downhole tool assembly having a hydraulic operated deployment tool for releasable connection of the downhole tool assembly to the second end of the straddle assembly, the downhole tool assembly further comprising a first sealing unit arranged above the first hydraulic expandable annular barrier and the second hydraulic expandable annular barrier and configured to seal against the inner face of the straddle assembly, and - a closing unit configured to close the first end of the straddle assembly, characterised in that the downhole tool assembly further comprises a sealing device arranged above the deployment tool and the first sealing unit, the sealing device having an annular sealing element having a first outer diameter in a first condition and a second outer diameter being larger than the first outer diameter in a second condition for sealing against an inner face of the well tubular metal structure, the sealing device comprising a fluid channel to fluidly connect an inside of the straddle assembly with the well tubular metal structure above the sealing device, the fluid channel extending from an outer face of the sealing device to the inside of the straddle assembly. - a straddle assembly having a first end, a second end closest to the top, an inner face, a first hydraulic expandable annular barrier (15, 15A) and a second hydraulic expandable annular barrier (15, 15B), - a downhole tool assembly having a hydraulic operated deployment tool for releasable connection of the downhole tool assembly to the second end of the straddle assembly, the downhole tool assembly further comprising a first sealing unit arranged above the first hydraulic expandable annular barrier and the second hydraulic expandable annular barrier and configured to seal against the inner face of the straddle assembly, and - a closing unit configured to close the first end of the straddle assembly,
A method of reducing parasitic effects on a digit line for reading a ferroelectric memory cell, comprising: virtually grounding the digit line that is in electronic communication with a ferroelectric capacitor of the ferroelectric memory cell and a virtual ground; applying a read voltage to a plate of the ferroelectric capacitor while the digit line is virtually grounded; isolating the digit line from the virtual ground after applying the read voltage to the plate of the ferroelectric capacitor and after a threshold associated with applying the read voltage is reached; and selecting the ferroelectric capacitor for a read operation after isolating the digit line from the virtual ground and based at least in part on applying the read voltage to the plate of the ferroelectric capacitor. virtually grounding the digit line that is in electronic communication with a ferroelectric capacitor of the ferroelectric memory cell and a virtual ground; applying a read voltage to a plate of the ferroelectric capacitor while the digit line is virtually grounded; isolating the digit line from the virtual ground after applying the read voltage to the plate of the ferroelectric capacitor and after a threshold associated with applying the read voltage is reached; and selecting the ferroelectric capacitor for a read operation after isolating the digit line from the virtual ground and based at least in part on applying the read voltage to the plate of the ferroelectric capacitor.
Method for determining the degradation of a battery module or a battery cell, wherein the battery module or battery cell delivers energy to an electric load, and following steps are comprised: a) Capturing a battery parameter set comprising an actual temperature of the battery module or cell, b) Capturing a load parameter set of the load, c) Capturing an environmental parameter set of the environment of the battery module or cell, d) Setup and training a machine learning model with the battery parameter set, the load parameter set and the environmental parameter set, e) Calculating a predicted temperature and a standard deviation using the machine learning model, f) determining the degradation of a battery module using predicted temperature, the standard deviation and the actual temperature, characterized in that a change over the time of a probability of measuring the actual module or cell temperature, which is normal distributed, is an indicator for the degradation of the battery module or battery cell. a) Capturing a battery parameter set comprising an actual temperature of the battery module or cell, b) Capturing a load parameter set of the load, c) Capturing an environmental parameter set of the environment of the battery module or cell, d) Setup and training a machine learning model with the battery parameter set, the load parameter set and the environmental parameter set, e) Calculating a predicted temperature and a standard deviation using the machine learning model, f) determining the degradation of a battery module using predicted temperature, the standard deviation and the actual temperature,
A receiver circuit for a data link, the receiver circuit comprising: a first signal path including first equalization circuitry (204, 206); a second signal path including second equalization circuitry; and a path selector circuit which is configured to select one signal path of the first and second signal paths while shutting off power to an un-selected signal path; wherein the first signal path comprises a decision feedback equalizer circuit and an output of the decision feedback equalizer circuit is provided to a first input of the path selector circuit; and wherein the second signal path comprises at least one analog equalizer circuit without decision feedback equalization and an output of the analog equalizer circuit is provided to a second input of the path selector circuit. a first signal path including first equalization circuitry (204, 206); a second signal path including second equalization circuitry; and a path selector circuit which is configured to select one signal path of the first and second signal paths while shutting off power to an un-selected signal path; wherein the first signal path comprises a decision feedback equalizer circuit and an output of the decision feedback equalizer circuit is provided to a first input of the path selector circuit; and wherein the second signal path comprises at least one analog equalizer circuit without decision feedback equalization and an output of the analog equalizer circuit is provided to a second input of the path selector circuit.
Method for installing an adjustable modular basket carousel system on a vessel, wherein said adjustable modular basket carousel system includes a grillage arranged to be fixated on a deck of the vessel and a basket for receiving a cable, which basket is mountable on the grillage and rotatable around a vertical axis, the method comprising the steps of: - mounting the adjustable modular basket carousel system while adjusting a diameter of the system; - lifting the mounted modular basket carousel system and placing said system on a deck of the vessel; - fixating the adjustable modular basket carousel system on the deck of the vessel, wherein the adjustable modular basket carousel system is entirely mounted on-shore and lifted as a whole onto the vessel, wherein the grillage comprises a pivot on which the basket is rotatable, a plurality of beams radially extending from said pivot, as well as a plurality of support beams connected to said radially extending beams, said plurality of support beams being substantially in parallel with one of said radially extending beams, wherein a diameter of the system is adjusted by extending at least one of said plurality of radially extending beams, and/or at least one of said plurality of support beams. - mounting the adjustable modular basket carousel system while adjusting a diameter of the system; - lifting the mounted modular basket carousel system and placing said system on a deck of the vessel; - fixating the adjustable modular basket carousel system on the deck of the vessel, wherein the adjustable modular basket carousel system is entirely mounted on-shore and lifted as a whole onto the vessel, wherein the grillage comprises a pivot on which the basket is rotatable, a plurality of beams radially extending from said pivot, as well as a plurality of support beams connected to said radially extending beams, said plurality of support beams being substantially in parallel with one of said radially extending beams, wherein a diameter of the system is adjusted by extending at least one of said plurality of radially extending beams, and/or at least one of said plurality of support beams.
A method of calculating blood pressure, comprising: performing, by one or more sensors, two or more measurements, wherein at least two measurements from the two or more measurements correspond to different measurement elevations of a subject's limb; determining, by a processor, a blood flow difference based on the two or more measurements, wherein the determining comprises: determining, by the processor, values of arterial lumen for each of the measurement elevations; determining, by the processor, a value of blood velocity associated with each of the measurement elevations based, at least in part, on a Doppler shift or a Doppler shift related signal; and determining, by the processor, a first blood flow associated with a first measurement elevation and a second blood flow associated with a second measurement elevation based on the determined values of blood velocity and the determined values of arterial lumen; determining, by the processor, a hydrostatic pressure difference based on the two or more different measurement elevations of the two or more measurements; and estimating, by the processor, a blood pressure based on one or more values of blood flow, the hydrostatic pressure difference and the blood flow difference. performing, by one or more sensors, two or more measurements, wherein at least two measurements from the two or more measurements correspond to different measurement elevations of a subject's limb; determining, by a processor, a blood flow difference based on the two or more measurements, wherein the determining comprises: determining, by the processor, values of arterial lumen for each of the measurement elevations; determining, by the processor, a value of blood velocity associated with each of the measurement elevations based, at least in part, on a Doppler shift or a Doppler shift related signal; and determining, by the processor, a first blood flow associated with a first measurement elevation and a second blood flow associated with a second measurement elevation based on the determined values of blood velocity and the determined values of arterial lumen; determining, by the processor, values of arterial lumen for each of the measurement elevations; determining, by the processor, a value of blood velocity associated with each of the measurement elevations based, at least in part, on a Doppler shift or a Doppler shift related signal; and determining, by the processor, a first blood flow associated with a first measurement elevation and a second blood flow associated with a second measurement elevation based on the determined values of blood velocity and the determined values of arterial lumen; determining, by the processor, a hydrostatic pressure difference based on the two or more different measurement elevations of the two or more measurements; and estimating, by the processor, a blood pressure based on one or more values of blood flow, the hydrostatic pressure difference and the blood flow difference.
Apparatus for forming plastic preforms into plastic containers, having a transport device which transports the plastic preforms along a predetermined transport path, wherein the transport device having a movable station carrier which is arranged at least indirectly on a stationary base carrier and on which a plurality of forming stations are arranged, these forming stations each having blow-molding devices which each form cavities, within which the plastic preforms can be formed into the plastic containers and these blow-molding devices are each arranged on blow-molding carriers, and the apparatus has a changing device which is suitable and intended for removing at least the blow molding devices from their blow molding carriers and/or arranging blow molding devices on the blow molding carriers, wherein this changing device having a gripping device for gripping the blow molding device, wherein this gripping device being movable in at least two different directions and pivotable about at least three different pivot axes (A1, A2....A6), wherein the changing device has a control device which carries out a removal of the blow molding device from the blow molding carriers in both a force-controlled and a displacement-controlled manner, and/or carries out an arrangement of the blow molding device on the blow molding carriers in both a force-controlled and a displacement-controlled manner, characterized in that the control device is set up in such a way that this control makes it possible to define one or more reference points at a blowing station and/or a magazine which can be approached, and the control device is set up in such a way that the exact geometric position of the blow molding device can be determined at any time. wherein the changing device has a control device which carries out a removal of the blow molding device from the blow molding carriers in both a force-controlled and a displacement-controlled manner, and/or carries out an arrangement of the blow molding device on the blow molding carriers in both a force-controlled and a displacement-controlled manner, characterized in that the control device is set up in such a way that this control makes it possible to define one or more reference points at a blowing station and/or a magazine which can be approached, and the control device is set up in such a way that the exact geometric position of the blow molding device can be determined at any time.
A method for preventing a pitch bearing failure of a pitch system of a wind turbine, the method comprising: monitoring, via at least one sensor (57, 58), one or more electrical signals of a pitch motor of a pitch drive mechanism of the pitch system that drives a pitch bearing of the pitch system; analyzing, via the controller, the one or more electrical signals of the pitch motor so as to remove noise and amplify outliers; estimating bearing friction of the pitch bearing using the analyzed one or more electrical signals of the pitch motor; and, implementing, via the controller, a control action when the estimated bearing friction of the pitch bearing indicates an anomaly in the pitch bearing; wherein analyzing the one or more electrical signals of the pitch motor so as to remove the noise and amplify outliers further comprises filtering the one or more electrical signals of the pitch motor over a predetermined time period; and wherein filtering the one or more electrical signals of the pitch motor over the predetermined time period further comprises: determining a mean drift in the one or more electrical signals of the pitch motor over the predetermined time period; and, removing the mean drift from the one or more electrical signals of the pitch motor for the predetermined time period to reduce noise of the one or more operational signals due to an aerodynamic torsional moment on the rotor blade. monitoring, via at least one sensor (57, 58), one or more electrical signals of a pitch motor of a pitch drive mechanism of the pitch system that drives a pitch bearing of the pitch system; analyzing, via the controller, the one or more electrical signals of the pitch motor so as to remove noise and amplify outliers; estimating bearing friction of the pitch bearing using the analyzed one or more electrical signals of the pitch motor; and, implementing, via the controller, a control action when the estimated bearing friction of the pitch bearing indicates an anomaly in the pitch bearing; wherein analyzing the one or more electrical signals of the pitch motor so as to remove the noise and amplify outliers further comprises filtering the one or more electrical signals of the pitch motor over a predetermined time period; and wherein filtering the one or more electrical signals of the pitch motor over the predetermined time period further comprises: determining a mean drift in the one or more electrical signals of the pitch motor over the predetermined time period; and, removing the mean drift from the one or more electrical signals of the pitch motor for the predetermined time period to reduce noise of the one or more operational signals due to an aerodynamic torsional moment on the rotor blade. determining a mean drift in the one or more electrical signals of the pitch motor over the predetermined time period; and, removing the mean drift from the one or more electrical signals of the pitch motor for the predetermined time period to reduce noise of the one or more operational signals due to an aerodynamic torsional moment on the rotor blade.
A dural graft material comprising: at least one collagen layer defining a plurality of pores, wherein a majority of the plurality of pores have a diameter of less than 10 micrometres, and wherein the collagen layer has a thickness in the range of about 0.51 mm to 5.1 mm (about 0.02 inches to 0.20 inches). at least one collagen layer defining a plurality of pores, wherein a majority of the plurality of pores have a diameter of less than 10 micrometres, and wherein the collagen layer has a thickness in the range of about 0.51 mm to 5.1 mm (about 0.02 inches to 0.20 inches).