mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method, comprising: detecting, by a first device, a signal transmitted by a second device, wherein the first device is a head mounted device including a display; processing, by a processor (190, 390) of the first device, the detected signal to detect a relative proximity of the first device and the second device; generating, by the first device, a virtual pairing indicator in response to the processing of the detected signal, wherein the virtual pairing indicator is displayed in a virtual environment by the display of the head mounted device; tracking at least one of a position or an orientation of the second device relative to the virtual pairing indicator based on the signal transmitted by the second device, including tracking a user controlled position and orientation of the second device to bring and maintain, by the user, the second device into alignment with the virtual pairing indicator; and operably coupling the first device and the second device in response to detecting that the alignment of the second device with the virtual pairing indicator is maintained, based on the tracking of the at least one of the position or the orientation of the second device relative to the virtual pairing indicator. detecting, by a first device, a signal transmitted by a second device, wherein the first device is a head mounted device including a display; processing, by a processor (190, 390) of the first device, the detected signal to detect a relative proximity of the first device and the second device; generating, by the first device, a virtual pairing indicator in response to the processing of the detected signal, wherein the virtual pairing indicator is displayed in a virtual environment by the display of the head mounted device; tracking at least one of a position or an orientation of the second device relative to the virtual pairing indicator based on the signal transmitted by the second device, including tracking a user controlled position and orientation of the second device to bring and maintain, by the user, the second device into alignment with the virtual pairing indicator; and operably coupling the first device and the second device in response to detecting that the alignment of the second device with the virtual pairing indicator is maintained, based on the tracking of the at least one of the position or the orientation of the second device relative to the virtual pairing indicator.
A method of selecting a random access preamble in a radio communication system operable at least on a physical layer and a medium access control layer, random access preambles being divided into at least two preamble groups, the preamble groups depending on at least one of the following: radio conditions and a size of a message to be transmitted by a user equipment, the method performed by the User Equipment comprising: - the medium access control layer selecting one of the preamble groups; - the medium access control layer randomly selecting one random access preamble within the selected preamble group; - the medium access control layer indicating (509, 511) to the physical layer a random access preamble index of the selected random access preamble; - the physical layer mapping the random access preamble index to a physical root sequence index, to a preamble start position within a logical root sequence index of the selected random access preamble and to a cyclic shift describing a correlation size of a Zadoff-Chu sequence; and - the physical layer transmitting the selected random access preamble. - the medium access control layer selecting one of the preamble groups; - the medium access control layer randomly selecting one random access preamble within the selected preamble group; - the medium access control layer indicating (509, 511) to the physical layer a random access preamble index of the selected random access preamble; - the physical layer mapping the random access preamble index to a physical root sequence index, to a preamble start position within a logical root sequence index of the selected random access preamble and to a cyclic shift describing a correlation size of a Zadoff-Chu sequence; and - the physical layer transmitting the selected random access preamble.
A charging socket for charging a charge storage means, comprising: - a coupling means for coupling a plug for charging the charge storage means, - an optical waveguide for illuminating the coupling means and/or for indicating a state of charge of the charge storage means, - a light source (140a, 140b) for coupling light into the optical waveguide, - a faceplate, in which the coupling means is arranged, wherein the optical waveguide is guided in a C-shape along the edge of the faceplate, - a screening element for covering the optical waveguide, wherein the screening element is transparent on a lateral edge and impervious to light on an upper side, - wherein the optical waveguide has two lateral ends (E130a, E130b) and wherein the optical waveguide has at the two lateral ends (E130a, E130b) in each case a coupling-in point for coupling light into the optical waveguide, - wherein the light source (140a, 140b) is arranged at the two ends (E130a, E130b) of the optical waveguide such that the light source (140a, 140b) couples light into the optical waveguide at the respective coupling-in point, - wherein the optical waveguide has a coupling-out structure for coupling light out of the optical waveguide, wherein the coupled-out light output is dependent on the shape of the coupling-out structure, - wherein the shape of the coupling-out structure is different at different positions (P130a, P130b, P130c) of the optical waveguide. - a coupling means for coupling a plug for charging the charge storage means, - an optical waveguide for illuminating the coupling means and/or for indicating a state of charge of the charge storage means, - a light source (140a, 140b) for coupling light into the optical waveguide, - a faceplate, in which the coupling means is arranged, wherein the optical waveguide is guided in a C-shape along the edge of the faceplate, - a screening element for covering the optical waveguide, wherein the screening element is transparent on a lateral edge and impervious to light on an upper side, - wherein the optical waveguide has two lateral ends (E130a, E130b) and wherein the optical waveguide has at the two lateral ends (E130a, E130b) in each case a coupling-in point for coupling light into the optical waveguide, - wherein the light source (140a, 140b) is arranged at the two ends (E130a, E130b) of the optical waveguide such that the light source (140a, 140b) couples light into the optical waveguide at the respective coupling-in point, - wherein the optical waveguide has a coupling-out structure for coupling light out of the optical waveguide, wherein the coupled-out light output is dependent on the shape of the coupling-out structure, - wherein the shape of the coupling-out structure is different at different positions (P130a, P130b, P130c) of the optical waveguide.
A method for handling supports, which carry biological cell cultures or auxiliary agents for treating biological cell cultures, with one or several modules, of which at least one has a handling device, wherein a plurality of supports each rests with its edges on support elements, which are allocated to each other in pairs and protrude at a standardized vertical distance from the opposing side walls of a storage device in a horizontal direction, and the supports, depending on their type or the auxiliary agents they support, require different storage heights (H 1 -H 7), some of which are greater than one or more times the standardized vertical distance A, wherein the supports have an information carrier, the information of which can be read by a reading device, and can be evaluated by a computing device, characterized in that the information contains details about the storage height (H 1 -H 7) of the respective support, and these details are used for handling the supports.
A light emitting diode device, comprising: first and second electrodes (806, 808), said first electrode on a mount surface; at least one LED chip on said mount surface; and an encapsulant proximate to said mount surface, said encapsulant comprising a textured primary emission surface, wherein said textured primary emission surface is substantially conformal with said mount surface; wherein all of said mount surface is covered by said encapsulant, characterized in that said encapsulant further comprises at least one textured side emission surface. first and second electrodes (806, 808), said first electrode on a mount surface; at least one LED chip on said mount surface; and an encapsulant proximate to said mount surface, said encapsulant comprising a textured primary emission surface, wherein said textured primary emission surface is substantially conformal with said mount surface; wherein all of said mount surface is covered by said encapsulant, characterized in that said encapsulant further comprises at least one textured side emission surface.
A method of reservoir targeting, comprising: filtering a plurality of values in a three-dimensional model to eliminate values which are below a threshold to create a filtered three-dimensional model; developing a first matrix from the filtered three-dimensional model representing a two-dimensional model of the reservoir, wherein the first matrix includes a plurality of cell center locations, cell areas and the filtered plurality of values; wherein developing the first matrix comprises windowing one or more cells from the filtered three-dimensional model, using a window determined based on the number of layers in the filtered three-dimensional model of the reservoir, to determine cell center locations with values of interest; developing a second matrix from the first matrix using a distance-weighted sum of the filtered plurality of values, such that the second matrix is populated by using the first matrix to calculate a distance-weighted sum of the filtered plurality of values; and selecting target locations (1014,1016) from the second matrix based on the distance-weighted sum of the filtered plurality of values. filtering a plurality of values in a three-dimensional model to eliminate values which are below a threshold to create a filtered three-dimensional model; developing a first matrix from the filtered three-dimensional model representing a two-dimensional model of the reservoir, wherein the first matrix includes a plurality of cell center locations, cell areas and the filtered plurality of values; wherein developing the first matrix comprises windowing one or more cells from the filtered three-dimensional model, using a window determined based on the number of layers in the filtered three-dimensional model of the reservoir, to determine cell center locations with values of interest; developing a second matrix from the first matrix using a distance-weighted sum of the filtered plurality of values, such that the second matrix is populated by using the first matrix to calculate a distance-weighted sum of the filtered plurality of values; and selecting target locations (1014,1016) from the second matrix based on the distance-weighted sum of the filtered plurality of values.
A polynucleotide or a salt thereof, the polynucleotide comprising a sense strand polynucleotide corresponding to a target gene, and an antisense strand polynucleotide having a nucleotide sequence complementary to the sense strand polynucleotide and having a structure represented by the following formula, wherein the 5'-end of the antisense strand polynucleotide and the 3'-end of the sense strand polynucleotide are linked via a linker through phosphodiester bonds: wherein p represents an integer of 0 to 4, q represents an integer of 4 to 10, L 5 represents a single bond or -O-, L 6 represents -(C=O)-NH- or -NH-(C=O)- starting from the bond with (CH 2) p, L 5 is bonded to the benzene ring at the para or meta position, and provided that if L 5 is -O-, then p represents an integer of 1 to 4. p represents an integer of 0 to 4, q represents an integer of 4 to 10, L 5 represents a single bond or -O-, L 6 represents -(C=O)-NH- or -NH-(C=O)- starting from the bond with (CH 2) p, L 5 is bonded to the benzene ring at the para or meta position, and provided that if L 5 is -O-, then p represents an integer of 1 to 4.
A spatial separation sub-system of a distributed antenna system, the spatial separation sub-system comprising: input ports (218, 220) communicatively connectable to a base station; output ports (222, 224, 226, 228) communicatively connectable to remote antenna units (116a, 116b, 116c) of the distributed antenna system; and RF circuitry communicatively connecting the input ports (218, 220) and the output ports (222, 224, 226, 228), wherein the RF circuitry is configured to: remove a phase difference between at least two downlink signals received via at least two of the input ports (218, 220), the phase difference corresponding to a codebook index used to encode the at least two downlink signals; combine the at least two downlink signals based on the phase difference such that a combined signal power at one of the output ports (222, 224, 226, 228) is greater than signal power associated with the at least two downlink signals at other output ports (222, 224, 226, 228); and provide the combined signal power to the one of the output ports (222, 224, 226, 228) based on the phase difference between the at least two downlink signals. input ports (218, 220) communicatively connectable to a base station; output ports (222, 224, 226, 228) communicatively connectable to remote antenna units (116a, 116b, 116c) of the distributed antenna system; and RF circuitry communicatively connecting the input ports (218, 220) and the output ports (222, 224, 226, 228), wherein the RF circuitry is configured to: remove a phase difference between at least two downlink signals received via at least two of the input ports (218, 220), the phase difference corresponding to a codebook index used to encode the at least two downlink signals; combine the at least two downlink signals based on the phase difference such that a combined signal power at one of the output ports (222, 224, 226, 228) is greater than signal power associated with the at least two downlink signals at other output ports (222, 224, 226, 228); and provide the combined signal power to the one of the output ports (222, 224, 226, 228) based on the phase difference between the at least two downlink signals. remove a phase difference between at least two downlink signals received via at least two of the input ports (218, 220), the phase difference corresponding to a codebook index used to encode the at least two downlink signals; combine the at least two downlink signals based on the phase difference such that a combined signal power at one of the output ports (222, 224, 226, 228) is greater than signal power associated with the at least two downlink signals at other output ports (222, 224, 226, 228); and provide the combined signal power to the one of the output ports (222, 224, 226, 228) based on the phase difference between the at least two downlink signals.
A continuous-fiber nonwoven fabric comprising fibers containing an amorphous thermoplastic phenoxy resin as a main component, wherein the thermoplastic phenoxy resin has a weight-average molecular weight in a range of from 10,000 to 100,000 and a glass transition temperature equal to or lower than 100°C, wherein the weight-average molecular weight and the glass transition temperature of the thermoplastic phenoxy resin are determined by the measurement methods described in the description.
Variable compression ratio engine, comprising at least one cylinder with a piston movably arranged within the cylinder, adapted to perform a predefined piston stroke within the cylinder, and a setting unit for setting a preset compression ratio by setting a preset clearance position, wherein the VCR-engine is a large vessel engine with at least one cylinder having an inner diameter of at least 200mm, preferably a two-stroke engine or a two-stroke cross head engine, more preferably a dual fuel or a multi fuel engine, characterized in that the VCR-engine further comprises a control unit for setting at least one temporal clearance position different from the preset clearance position and for inducing at least one piston movement with the temporal clearance position according to at least one predetermined scheme to remove deposits of carbon material having built up at the inner wall of the cylinder, wherein the control unit is adapted for inducing a piston movement with a temporal clearance position - every 100-5000000 piston strokes and on demand or - every 1h - 2 months of operating time and on demand and wherein the scheme induces a repeated setting of a pis-ton movement with a temporal clearance position corresponding to a smaller clearance volume as compared to the preset clearance position. the VCR-engine further comprises a control unit for setting at least one temporal clearance position different from the preset clearance position and for inducing at least one piston movement with the temporal clearance position according to at least one predetermined scheme to remove deposits of carbon material having built up at the inner wall of the cylinder, wherein the control unit is adapted for inducing a piston movement with a temporal clearance position - every 100-5000000 piston strokes and on demand or - every 1h - 2 months of operating time and on demand and wherein the scheme induces a repeated setting of a pis-ton movement with a temporal clearance position corresponding to a smaller clearance volume as compared to the preset clearance position. - every 100-5000000 piston strokes and on demand or - every 1h - 2 months of operating time and on demand and wherein the scheme induces a repeated setting of a pis-ton movement with a temporal clearance position corresponding to a smaller clearance volume as compared to the preset clearance position.
A carbon fiber bundle having a knot strength of at least 298 N/mm 2, wherein the carbon fiber bundle is characterized in that the carbon fiber bundle has a single fiber fineness of at least 0.8 dtex to no more than 2.5 dtex, wherein the knot strength is measured as defined in the description.
A nanocomposite membrane for membrane distillation, the NCM comprising: polymer fibers aggregated into a matrix; characterized by periodic mesoporous organosilica nanoparticles disposed on the polymer fibers, the PMO nanoparticles comprising hydrophobic functional groups, said hydrophobic functional groups comprising pentafluorophenyl organic groups. polymer fibers aggregated into a matrix; characterized by periodic mesoporous organosilica nanoparticles disposed on the polymer fibers, the PMO nanoparticles comprising hydrophobic functional groups, said hydrophobic functional groups comprising pentafluorophenyl organic groups.
A polypeptide, comprising any one of amino acid sequences (i) to (iii) below, and having a copepod luciferase activity: (i) an amino acid sequence represented by SEQ ID NO: 1; (ii) an amino acid sequence represented by SEQ ID NO: 1 in which 1 to 10 amino acids are substituted, added, or deleted; or (iii) an amino acid sequence having an identity of not less than 95% with an amino acid sequence represented by SEQ ID NO: 1. (i) an amino acid sequence represented by SEQ ID NO: 1; (ii) an amino acid sequence represented by SEQ ID NO: 1 in which 1 to 10 amino acids are substituted, added, or deleted; or (iii) an amino acid sequence having an identity of not less than 95% with an amino acid sequence represented by SEQ ID NO: 1.
Rubber composition based at least on natural rubber, on a copolymer of ethylene and of a 1,3-diene, on a carbon black and on a crosslinking system, - the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, - the carbon black content in the rubber composition ranging from 20 phr to 40 phr, - the volume fraction of carbon black in the rubber composition rangingfrom 8% to 15%, - the copolymer content in the rubber composition ranging from 20 phr to less than 50 phr, - the natural rubber content in the rubber composition being greater than 50 phr. - the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, - the carbon black content in the rubber composition ranging from 20 phr to 40 phr, - the volume fraction of carbon black in the rubber composition rangingfrom 8% to 15%, - the copolymer content in the rubber composition ranging from 20 phr to less than 50 phr, - the natural rubber content in the rubber composition being greater than 50 phr.
Method for operating a water-conducting household appliance, in particular a dishwasher or washing machine, at least comprising a storage container which is connected by means of an overflow outlet in a liquid-conducting manner to a washing compartment and having a pump which is connected in a liquid-conducting manner to the washing compartment, the method comprising the two method steps of - starting the pump, and - filling the storage container with liquid, in any order or simultaneously, further comprising the additional method steps of - monitoring at least one operating parameter (i) associated with the pump after the pump has been started, and - terminating the filling of the storage container with liquid when the operating parameter (i) reaches a predefined threshold value (iS) and/or when the operating parameter (i) exceeds a predefined fluctuation range. - starting the pump, and - filling the storage container with liquid, - monitoring at least one operating parameter (i) associated with the pump after the pump has been started, and - terminating the filling of the storage container with liquid when the operating parameter (i) reaches a predefined threshold value (iS) and/or when the operating parameter (i) exceeds a predefined fluctuation range.