mhurhangee/patent-ind-claim-en huggingface dataset:
A method of assigning use of a bandwidth for radio communication, the method comprising the following steps: a. generating (29; 37; 57) an initial frame (39; 59), the initial frame (39; 59) consisting of a series of allocations; b. generating a further frame, the further frame consisting of a series of allocations; c. repeating step b. to generate (41; 61, 67) a matrix of allocations (45; 65, 69); d. shuffling (33; 47; 71) at least two columns or at least two rows within the matrix (45; 65, 69); e. selecting one or more columns or rows (53; 81) in the matrix (49; 77), wherein each selected column or row represents a sequence; f. assigning use of the bandwidth according to the one or more selected sequences; and g. transmitting one or more data streams on the assigned bandwidth ; wherein the step of shuffling (33; 47; 71) at least two columns or at least two rows comprises pseudo-random shuffling using a shuffle algorithm; and characterised in that the step of generating (29; 37; 57) an initial frame comprises pseudo-random generation using a shuffle algorithm; and the pseudo-random generation comprises using an external random number generator to generate a pseudo-random number based on a time-of-day. a. generating (29; 37; 57) an initial frame (39; 59), the initial frame (39; 59) consisting of a series of allocations; b. generating a further frame, the further frame consisting of a series of allocations; c. repeating step b. to generate (41; 61, 67) a matrix of allocations (45; 65, 69); d. shuffling (33; 47; 71) at least two columns or at least two rows within the matrix (45; 65, 69); e. selecting one or more columns or rows (53; 81) in the matrix (49; 77), wherein each selected column or row represents a sequence; f. assigning use of the bandwidth according to the one or more selected sequences; and g. transmitting one or more data streams on the assigned bandwidth ; wherein the step of shuffling (33; 47; 71) at least two columns or at least two rows comprises pseudo-random shuffling using a shuffle algorithm; and characterised in that the step of generating (29; 37; 57) an initial frame comprises pseudo-random generation using a shuffle algorithm; and the pseudo-random generation comprises using an external random number generator to generate a pseudo-random number based on a time-of-day.
A non-coated air bag fabric, wherein the fabric is woven using fibers containing polyethylene terephthalate as a main raw material, the fabric has a cover factor F of 2300 or more, wherein the cover factor is defined by the equation cover factor F = warp density of fabric (#/2.54 cm) × √total fineness of warp (dtex) + weft density of fabric (#/2.54 cm) × √total fineness of weft (dtex), a single fiber fineness of threads that constitute the fabric is 1.0 to 3.5 dtex, a thickness D (mm) of the fabric and the cover factor F satisfies F/D ≥ 8200, a height difference between a recess and a protrusion on a surface of the fabric as measured according to the description is less than 130 μm and the thickness D of the fabric is 0.28 to 0.35 mm. wherein the fabric is woven using fibers containing polyethylene terephthalate as a main raw material, the fabric has a cover factor F of 2300 or more, wherein the cover factor is defined by the equation cover factor F = warp density of fabric (#/2.54 cm) × √total fineness of warp (dtex) + weft density of fabric (#/2.54 cm) × √total fineness of weft (dtex), a single fiber fineness of threads that constitute the fabric is 1.0 to 3.5 dtex, a thickness D (mm) of the fabric and the cover factor F satisfies F/D ≥ 8200, a height difference between a recess and a protrusion on a surface of the fabric as measured according to the description is less than 130 μm and the thickness D of the fabric is 0.28 to 0.35 mm.
A method for finishing a peripheral surface of a shaft-shaped workpiece by means of a finishing tape having a processing surface , comprising at least the following steps: - Driving the workpiece into a rotational motion with a driving device, - Pressing the processing surface of the finishing tape against a peripheral surface having a first profile shape with a press-on device , wherein the finishing tape is selected as a function of a second profile shape of the peripheral surface intended after the finishing process that differs from the first profile shape, wherein a spatial distribution of the cutting ability of the processing surface of the finishing tape along the axis of rotation of the workpiece prescribes the intended second profile shape, wherein more material is abraded at least at one axial location of the workpiece than at another axial location offset parallel to the axis of rotation, characterized in that the processing surface of the finishing tape which abuts against the peripheral surface of the workpiece has at least one first area with a first cutting ability and at least one second area with a second cutting ability that differs from the first cutting ability, and that a dividing line zigzags or undulates between the first area and the second area along the direction of the rotational motion of the peripheral surface. - Driving the workpiece into a rotational motion with a driving device, - Pressing the processing surface of the finishing tape against a peripheral surface having a first profile shape with a press-on device , wherein the finishing tape is selected as a function of a second profile shape of the peripheral surface intended after the finishing process that differs from the first profile shape, wherein a spatial distribution of the cutting ability of the processing surface of the finishing tape along the axis of rotation of the workpiece prescribes the intended second profile shape, wherein more material is abraded at least at one axial location of the workpiece than at another axial location offset parallel to the axis of rotation, characterized in that the processing surface of the finishing tape which abuts against the peripheral surface of the workpiece has at least one first area with a first cutting ability and at least one second area with a second cutting ability that differs from the first cutting ability, and that a dividing line zigzags or undulates between the first area and the second area along the direction of the rotational motion of the peripheral surface.
A control arrangement for controlling a sensorless diaphragm pump , comprising - a control fluid inlet for connection to a first controlled fluid reservoir having a pressure level which is elevated compared to a reference pressure, - a control fluid outlet for connection to a second controlled fluid reservoir having a pressure level which is reduced compared to a reference pressure, - a control fluid connection for the connection of a control fluid line for the sensorless diaphragm pump , characterised in that - the control fluid inlet is connected to a collection point via a first proportional valve and the control fluid outlet is connected to the collection point via a second proportional valve , - a mass flow sensor is arranged between the collection point and the control fluid connection , and - the control arrangement further comprises a control unit , which, in terms of signal technology, is connected to the first proportional valve , the second proportional valve and the mass flow sensor . - a control fluid inlet for connection to a first controlled fluid reservoir having a pressure level which is elevated compared to a reference pressure, - a control fluid outlet for connection to a second controlled fluid reservoir having a pressure level which is reduced compared to a reference pressure, - a control fluid connection for the connection of a control fluid line for the sensorless diaphragm pump , - the control fluid inlet is connected to a collection point via a first proportional valve and the control fluid outlet is connected to the collection point via a second proportional valve , - a mass flow sensor is arranged between the collection point and the control fluid connection , and - the control arrangement further comprises a control unit , which, in terms of signal technology, is connected to the first proportional valve , the second proportional valve and the mass flow sensor .
Method for determining an electrical cell voltage of a battery cell of a traction battery of a vehicle, in which, in order to provide a cell voltage signal which describes the cell voltage of the battery cell, the cell voltage of the battery cells is filtered using a filter device and the filtered cell voltage is sampled using an analog-to-digital converter , wherein the cell voltage signal is evaluated and wherein the cell voltage is filtered using a low-pass filter, in particular a low-pass filter having a corner frequency between 500 Hz and 1.5 kHz, and the filtered cell voltage is sampled at a predetermined sampling rate, in particular a sampling rate between 50 Hz and 200 Hz, characterized in that - a ripple value is additionally provided, which describes a ripple of the cell voltage, and an electrical total voltage of the traction battery is determined for determining the ripple value; - the cell voltage signal is evaluated on the basis of the ripple value; - a voltage ripple of the total voltage is determined in a predetermined frequency range, in particular in a frequency range between 50 Hz and 2 kHz, wherein this voltage ripple is a measurement that is to be taken into account for a maximum aliasing-induced measurement deviation at cell level; - the voltage ripple for the battery cell is scaled. - a ripple value is additionally provided, which describes a ripple of the cell voltage, and an electrical total voltage of the traction battery is determined for determining the ripple value; - the cell voltage signal is evaluated on the basis of the ripple value; - a voltage ripple of the total voltage is determined in a predetermined frequency range, in particular in a frequency range between 50 Hz and 2 kHz, wherein this voltage ripple is a measurement that is to be taken into account for a maximum aliasing-induced measurement deviation at cell level; - the voltage ripple for the battery cell is scaled.
A midline catheter comprising: a shaft defining a lumen , said shaft having a distal end and a proximal end wherein said distal end includes two or more opposing notches thereon, each of said notches having an open notch distal end and an opposing notch proximal end formed as an arch, wherein said distal end includes a radiused edge circumferentially disposed thereon, characterized in that : an interior of the shaft is undivided between the proximal end of the shaft and the proximal end of each of the two or more opposing notches , and that said catheter further includes a luer and a hub coupled to the proximal end and wherein an indicia is printed on the luer , the hub , the shaft and combinations of the foregoing. a shaft defining a lumen , said shaft having a distal end and a proximal end wherein said distal end includes two or more opposing notches thereon, each of said notches having an open notch distal end and an opposing notch proximal end formed as an arch, wherein said distal end includes a radiused edge circumferentially disposed thereon, an interior of the shaft is undivided between the proximal end of the shaft and the proximal end of each of the two or more opposing notches , and that said catheter further includes a luer and a hub coupled to the proximal end and wherein an indicia is printed on the luer , the hub , the shaft and combinations of the foregoing.
A porous carbon material having a continuous porous structure in at least a portion thereof, in which the continuous porous structure has an orientation degree measured by a small-angle X-ray scattering method or an X-ray CT method of 1.10 or more.
A system for capturing 3D representations from an object, comprising: a light source being configured to project a sequence of one or more light patterns , whereby at least one of the light patterns is a phase-encoded pattern containing a non-repeating pattern of gradients between each pixel and adjacent pixels in different directions, wherein subsets of gradients between pixels and their adjacent pixels form more than one code per pixel that each can be decoded to yield phase values, whereby the light source can project the phase-encoded pattern onto a scene; a light sensor configured to capture at least one image of the scene under the influence of the projected pattern; and a processor configured to decode gradients in the captured image to determine the coordinates in the projected image that created the light received at each captured image pixel. a light source being configured to project a sequence of one or more light patterns , whereby at least one of the light patterns is a phase-encoded pattern containing a non-repeating pattern of gradients between each pixel and adjacent pixels in different directions, wherein subsets of gradients between pixels and their adjacent pixels form more than one code per pixel that each can be decoded to yield phase values, whereby the light source can project the phase-encoded pattern onto a scene; a light sensor configured to capture at least one image of the scene under the influence of the projected pattern; and a processor configured to decode gradients in the captured image to determine the coordinates in the projected image that created the light received at each captured image pixel.
A bracket for elongated bodies such as leads, cables, and the like, wherein the bracket comprises a trough-like base body having a non-moving base wall and two non-moving side walls extending away from the latter, wherein a pivotable closure part is hinged onto a first side wall and a locking part is arranged on the second side wall, wherein the pivotable closure part and the locking part comprise corresponding latching means (16, 17; 27, 28), which can be brought into engagement with one another by a pivoting of the closure part , wherein a wall serving as a pivot lever for a pivoting actuation of the closure part is given, which, upon placement and pressing in of an object to be held, pivots the latching means of the closure part to the latching means of the locking part and brings the two into engagement, wherein at least one elastic support is given, which, in the closed state, extends from the base body and/or the wall serving as the pivot lever towards the object to be held, characterized in that the non-moving parts of the bracket , namely the non-moving base wall , the non-moving first side wall , and the non-moving second side wall , including the locking part arranged thereon, have a common bracing rib for stiffening, which extends outwardly and orthogonally while standing on the plane of the respective wall and thus provides a stiffening. wherein the bracket comprises a trough-like base body having a non-moving base wall and two non-moving side walls extending away from the latter, wherein a pivotable closure part is hinged onto a first side wall and a locking part is arranged on the second side wall, wherein the pivotable closure part and the locking part comprise corresponding latching means (16, 17; 27, 28), which can be brought into engagement with one another by a pivoting of the closure part , wherein a wall serving as a pivot lever for a pivoting actuation of the closure part is given, which, upon placement and pressing in of an object to be held, pivots the latching means of the closure part to the latching means of the locking part and brings the two into engagement, wherein at least one elastic support is given, which, in the closed state, extends from the base body and/or the wall serving as the pivot lever towards the object to be held, characterized in that the non-moving parts of the bracket , namely the non-moving base wall , the non-moving first side wall , and the non-moving second side wall , including the locking part arranged thereon, have a common bracing rib for stiffening, which extends outwardly and orthogonally while standing on the plane of the respective wall and thus provides a stiffening.
A recombinant bi-functional fusion protein, comprising - an antibody or an antibody fragment specifically binding to CD20, and - a peptide specifically binding to CD47, wherein the antibody or antibody fragment specifically binding to CD20 comprises a heavy chain comprising a heavy chain variable region having the amino acid sequence of SEQ ID NO.: 5, and a light chain comprising a light chain variable region having the amino acid sequence of SEQ ID NO.: 7, the peptide specifically binding to CD47 comprises the amino acid sequence of SEQ ID NO: 9, and the peptide specifically binding to CD47 is linked to the N- or C- terminus of the heavy chain of the antibody or the antibody fragment. - an antibody or an antibody fragment specifically binding to CD20, and - a peptide specifically binding to CD47, wherein the antibody or antibody fragment specifically binding to CD20 comprises a heavy chain comprising a heavy chain variable region having the amino acid sequence of SEQ ID NO.: 5, and a light chain comprising a light chain variable region having the amino acid sequence of SEQ ID NO.: 7, the peptide specifically binding to CD47 comprises the amino acid sequence of SEQ ID NO: 9, and the peptide specifically binding to CD47 is linked to the N- or C- terminus of the heavy chain of the antibody or the antibody fragment.
A method for aerosolising a liquid comprising the steps of: providing an aperture plate with a reservoir layer having apertures and an outlet layer having at least 100 outlet holes per mm 2 ; delivering liquid to the aperture plate, wherein the viscosity of the liquid is in the range of from 1 to 15 mPa·s and the surface tension of the liquid is in the range of from 72 to 0.5mN/m; and vibrating the aperture plate to produce an aerosol wherein the output rate of the generated aerosol is greater than 0.01 mL/min. providing an aperture plate with a reservoir layer having apertures and an outlet layer having at least 100 outlet holes per mm 2 ; delivering liquid to the aperture plate, wherein the viscosity of the liquid is in the range of from 1 to 15 mPa·s and the surface tension of the liquid is in the range of from 72 to 0.5mN/m; and vibrating the aperture plate to produce an aerosol wherein the output rate of the generated aerosol is greater than 0.01 mL/min.
Apparatus for maintaining the precision of the navigation capability of a driverless transport vehicle , having the following features: a) a test station for the temporary stay of the transport vehicle has an open front side and a delimited rear side, wherein in each case two depressions for receiving drive wheels and two depressions for receiving support wheels are provided in a surface region on the bottom, b) a test line is provided in the horizontal direction on the rear side of the test station at a working height of a laser scanner of the transport vehicle , wherein in each case the marking of a test point for the angle adjustment of the laser scanner of the transport vehicle is provided at the same height of the test line in the lateral direction, c) a device for moving a cleaning apparatus of the front side of a transport vehicle and of the laser scanner is provided on the rear side of the test station . a) a test station for the temporary stay of the transport vehicle has an open front side and a delimited rear side, wherein in each case two depressions for receiving drive wheels and two depressions for receiving support wheels are provided in a surface region on the bottom, b) a test line is provided in the horizontal direction on the rear side of the test station at a working height of a laser scanner of the transport vehicle , wherein in each case the marking of a test point for the angle adjustment of the laser scanner of the transport vehicle is provided at the same height of the test line in the lateral direction, c) a device for moving a cleaning apparatus of the front side of a transport vehicle and of the laser scanner is provided on the rear side of the test station .
Application nozzle for application of a viscous material to workpieces , having a nozzle body and having an application channel for the viscous material that extends in the nozzle body from a material inlet opening all the way to a material outlet opening , wherein at least one filler body that narrows the cross-section of the application channel , extending from a first end arranged at a distance from the material inlet opening all the way to a second end arranged at the material outlet opening is arranged in the application channel , wherein the at least one filler body has a cross-section that increases in size from the first end to the second end and wherein the at least one filler body borders on the nozzle body directly over its entire length, characterized in that the at least one filler body is configured in one piece with the nozzle body .
A method for reporting channel state information, CSI, by a terminal, the method comprising: receiving information on two sub frame patterns via radio resource control, RRC, signaling, wherein each sub frame pattern indicates subframes to be used for channel state measurement; receiving downlink control information, DCI, including information for a non-periodic CSI request; identifying a subframe pattern of the two subframe patterns based on the information for the non-periodic CSI request; and reporting the CSI, the CSI being measured in a subframe that is determined based on a subframe in which the CSI is transmitted and the identified subframe pattern. receiving information on two sub frame patterns via radio resource control, RRC, signaling, wherein each sub frame pattern indicates subframes to be used for channel state measurement; receiving downlink control information, DCI, including information for a non-periodic CSI request; identifying a subframe pattern of the two subframe patterns based on the information for the non-periodic CSI request; and reporting the CSI, the CSI being measured in a subframe that is determined based on a subframe in which the CSI is transmitted and the identified subframe pattern.
A wind turbine blade , comprising: an outer surface ; and a plurality of vortex generators formed in the outer surface; characterised in that each vortex generator includes an outer first component defining a portion of the outer surface of the blade and an inner second component defining the shape of the vortex generator and at least partially surrounded by the first component and the outer first component of each vortex generator is composed of a first material, and the inner second component of each vortex generator is composed of a second material different to the first material. an outer surface ; and a plurality of vortex generators formed in the outer surface;