mhurhangee/ep-ind-claims huggingface dataset:
A method of creating a data sequence, characterized by: placing a training sequence at a beginning of a data frame; placing a plurality of the blocks of turbo encoded data (2303, 2307, 2311, 2315, 2319, 2323, 2327, 2331, 2335) within the data frame following the training sequence; interspersing a plurality of submarkers (2305, 2309, 2313, 2317, 2321, 2325, 2329, 2333) within the turbo encoded data blocks (2303, 2307, 2311, 2315, 2319, 2323, 2327, 2331, 2335); wherein each of the plurality of submarkers is a known sequence used to track the data sequence by performing correlations on the corresponding one of the plurality of submarkers; and wherein a spacing between and a size of each of the plurality of submarkers is adapted according to characteristics of a receiver that is receiving the data sequence. placing a training sequence at a beginning of a data frame; placing a plurality of the blocks of turbo encoded data (2303, 2307, 2311, 2315, 2319, 2323, 2327, 2331, 2335) within the data frame following the training sequence; interspersing a plurality of submarkers (2305, 2309, 2313, 2317, 2321, 2325, 2329, 2333) within the turbo encoded data blocks (2303, 2307, 2311, 2315, 2319, 2323, 2327, 2331, 2335); wherein each of the plurality of submarkers is a known sequence used to track the data sequence by performing correlations on the corresponding one of the plurality of submarkers; and wherein a spacing between and a size of each of the plurality of submarkers is adapted according to characteristics of a receiver that is receiving the data sequence.
A device for holding a tracheostoma device over a tracheostoma of a patient, said device comprising: a tubular portion, giving the device a distal and a proximal opening, for receiving the tracheostoma device in/at the distal opening thereof; a flange, extending laterally, caudially, and cranially from the tubular portion, said flange having a proximal side, intended to face the tracheostoma of the patient, and a distal side, intended to face outwardly from the patient, characterized by at least a part of said proximal side being skin adhesive, and said flange having a higher moment of resistance in the caudal/cranial direction than in the lateral/medial direction for said device by having a higher moment of resistance in the caudal/cranial direction than in the lateral/medial direction for at least a part of said flange.
Transmitting device for transmitting data symbols and pilot symbols of a wireless orthogonal frequency division multiplex, OFDM, transmission system having at least two transmission antennas arranged spaced apart from each other and providing transmit diversity, the device comprising symbol generating means (2; 3) for generating said data symbols and said pilot symbols, means for transmitting said data symbols and pilot symbols by using a plurality of subcarriers of said OFDM transmission system via said at least two transmission antennas (5; 6), characterized in that said symbol generating means (2; 3) generates a first pilot symbol having a first value and a second pilot symbol having a second value wherein said second value has an opposite sign than said first value of said first pilot symbol so that a first pilot symbol pattern in a frequency dimension contains at least said first value pilot symbol to be transmitted by using a predefined subcarrier and second value pilot symbol to be transmitted by using another predefined subcarrier, wherein said first pilot symbol pattern to be transmitted by using one of said at least two transmission antennas (5; 6) has a different pattern from a second pilot symbol pattern to be transmitted by using another transmission antenna, wherein the distribution in time and frequency of the pilot symbols comprised in said first pilot symbol pattern is identical to the distribution in time and frequency of the pilot symbols comprised in said second pilot symbol pattern, and wherein pairs of pilot symbols in the time direction and pairs of pilot symbols in the frequency direction comprised in said first pilot symbol pattern are respectively orthogonal to the corresponding pairs of pilot symbols in the time direction and pairs of pilot symbols in the frequency direction comprised in said second pilot symbol pattern, wherein a pair comprises either one pilot symbol and the next pilot symbol nearest in distance or spacing in the frequency domain of the same pilot symbol pattern or one pilot symbol and the next pilot symbol nearest in distance or spacing in the time domain of the same pilot symbol pattern, and wherein a pair and a corresponding pair comprise pilot symbols with the same time and frequency allocation.
An electronic device that supports a wireless charging function, the electronic device comprising: a housing (211, 312); a first sensor layer (410, 510), disposed inside the housing (211, 312) and comprising a plurality of first electrode patterns in a first direction and a plurality of first openings (414, 512, 514) formed within the first electrode pattern; a second sensor layer (420, 520), disposed below the first sensor layer (410, 510) and comprising a plurality of second electrode patterns in a second direction orthogonal with the first direction and a plurality of second openings (424, 522, 524) formed within the second electrode pattern; and a wireless charging coil, disposed below the second sensor layer (420, 520) and configured to transmit power via the plurality of first openings (414, 512, 514) and the plurality of second openings (424, 522, 524) in a wireless manner. a housing (211, 312); a first sensor layer (410, 510), disposed inside the housing (211, 312) and comprising a plurality of first electrode patterns in a first direction and a plurality of first openings (414, 512, 514) formed within the first electrode pattern; a second sensor layer (420, 520), disposed below the first sensor layer (410, 510) and comprising a plurality of second electrode patterns in a second direction orthogonal with the first direction and a plurality of second openings (424, 522, 524) formed within the second electrode pattern; and a wireless charging coil, disposed below the second sensor layer (420, 520) and configured to transmit power via the plurality of first openings (414, 512, 514) and the plurality of second openings (424, 522, 524) in a wireless manner.
Disinfectant for medical devices or parts thereof having a pH-value of less than or equal to 1 comprising at least one inorganic salt selected from the group of alkaline and/or earth alkaline chlorides, and containing at least hydrochloric acid as inorganic acid to adjust the pH-value, which is combined with a carboxylic acid, and which has a salt concentration of at least 0.1 % by weight.
Tractor (1, 21) having a loading area and/or a trailer device for at least one trailer, wherein the tractor (1, 21) has a control device for limiting a velocity of the tractor (1, 21) and a load-determining device, wherein the load-determining device is configured to determine the weight of a load and to pass on this information to the control device, characterized in that the tractor (1, 21) has a ground profile-determining device (10, 11; 24), wherein the ground profile-determining device (10, 11) is configured to determine a current ground profile and to pass on this information to the control device, and the control device is configured to limit the velocity of the tractor (1, 21) to a maximum permissible velocity in accordance with a load determined by the load-determining device and a ground profile determined by the ground profile-determining device (10, 11; 24).
An apparatus for presenting a number of packs for flow wrapping; where each pack has a lower region, an upper region and an edge region; said edge region being provided between said lower and upper regions; said apparatus displacing a number of packs from a first location where the packs are self-standing on their lower region to a second location where the packs are on edge to form a substantially horizontal stack; wherein said apparatus comprises a first conveyor and a second conveyor; both of said conveyors (11, 26) having a number of individually displaceable hands (12, 19, 32, 27, 28); at least one of said hands of said second conveyor cooperating with at least one of said hands of said first conveyor to hold packs on their edge to form a substantially horizontal stack; characterised in that said first conveyor is an endless conveyor incorporating a track along which said individually displaceable hands displace, in use; wherein the hands of said first conveyor displace packs by scooping these up from beneath from a first location where the packs are self-standing on their lower region to a second location where the packs are on edge whilst being held by said hands of said first conveyor; and a pair of individually displaceable hands of said second conveyor is located above said horizontal stack; said pair of hands being configured to hold at the forward and rearward most portions of said formed substantially horizontal stack and displace said stack towards a flow wrapping station whilst said stack rests on a further conveyor.
An improved eyewear, comprising: at least one earstem having a recessed seat along a length thereof such that the seat defines a periphery which is smaller than the periphery of an adjacent earstem portion; and at least one traction member having an inner surface and an outer surface, said inner surface releasably engaging at least a portion of the periphery of the recessed seat, and said outer surface adapted to provide a contact surface with the head of the wearer; wherein at least a portion of the traction member partially surrounds the perimeter of the earstem and at least another portion of the traction member includes a closed tubular portion that surrounds the perimeter of the earstem, the at least one traction member having a cross-sectional dimension; and wherein the at least one earstem comprises a non-recessed shoulder on a posterior end of the earstem, the non-recessed shoulder having a larger cross-sectional dimension than the cross-sectional dimension of the at least one traction member to prevent axial displacement of the at least one traction member in the posterior direction. at least one earstem having a recessed seat along a length thereof such that the seat defines a periphery which is smaller than the periphery of an adjacent earstem portion; and at least one traction member having an inner surface and an outer surface, said inner surface releasably engaging at least a portion of the periphery of the recessed seat, and said outer surface adapted to provide a contact surface with the head of the wearer; wherein at least a portion of the traction member partially surrounds the perimeter of the earstem and at least another portion of the traction member includes a closed tubular portion that surrounds the perimeter of the earstem, the at least one traction member having a cross-sectional dimension; and wherein the at least one earstem comprises a non-recessed shoulder on a posterior end of the earstem, the non-recessed shoulder having a larger cross-sectional dimension than the cross-sectional dimension of the at least one traction member to prevent axial displacement of the at least one traction member in the posterior direction.
A measuring instrument comprising a reader arranged to read information provided on a calibration piece and a processor arranged to calibrate the instrument using information read from the calibration piece by the reader together with a measurement of a property of the calibration piece made by the instrument.
A lighting device comprising: a mount; a light-emitting module mounted on a main surface of the mount; a substrate holder covering a portion of the light-emitting module and connected with the mount, wherein the light-emitting module includes: a substrate; a plurality of light-emitting elements directly mounted on a first main surface (11 a) of the substrate; a sealant located on the first main surface of the substrate and sealing the plurality of light-emitting elements; and a padding located on the first main surface of the substrate. wherein the light-emitting module is mounted on the main surface of the mount such that a second main surface (11 b) of the substrate, which is opposite to the first main surface, comes into contact with the main surface of the mount, and wherein the light-emitting module is fixed to the mount by pressure applied from the substrate holder via the padding brought into contact with a surface of the substrate holder, the surface facing toward the main surface of the mount, characterized in that the padding is separate from and made of the same material as the sealant, and wherein the substrate of the light-emitting module is made of a ceramic-containing-material. a mount; a light-emitting module mounted on a main surface of the mount; a substrate holder covering a portion of the light-emitting module and connected with the mount, wherein the light-emitting module includes: a substrate; a plurality of light-emitting elements directly mounted on a first main surface (11 a) of the substrate; a sealant located on the first main surface of the substrate and sealing the plurality of light-emitting elements; and a padding located on the first main surface of the substrate. a substrate; a plurality of light-emitting elements directly mounted on a first main surface (11 a) of the substrate; a sealant located on the first main surface of the substrate and sealing the plurality of light-emitting elements; and a padding located on the first main surface of the substrate. wherein the light-emitting module is mounted on the main surface of the mount such that a second main surface (11 b) of the substrate, which is opposite to the first main surface, comes into contact with the main surface of the mount, and wherein the light-emitting module is fixed to the mount by pressure applied from the substrate holder via the padding brought into contact with a surface of the substrate holder, the surface facing toward the main surface of the mount, characterized in that the padding is separate from and made of the same material as the sealant, and wherein the substrate of the light-emitting module is made of a ceramic-containing-material.
Method for receiving a signal and for rejecting interferences in a multichannel receiver, said method comprising the steps of: • reception, transposition and discretization of said signal received on each of the channels of the receiver (111, 112), so as to obtain a discretized multichannel signal, • synchronization (502, 140) of the discretized multichannel signal, and characterized in that it also comprises the steps of: • computation, on the basis of the discretized and synchronized multichannel signal, of a correlation matrix R̂ of the total noise, • computation of an intercorrelation matrix R̂ XD between a training sequence and the discretized and synchronized multichannel signal, • computation, on the basis of a matrix R̂ XD, of an estimate of the directing vector associated with a path, • calculation, on the basis of said matrix R̂ of correlation of the total noise and of the estimate of the directing vector associated with a path, of a vector w comprising amplitude phase weighting coefficients (221, 222) of a multichannel filter, and • application, to the discretized and synchronized multichannel signal, of a multichannel filtering processing on the basis of the said vector w, and then of a single-channel equalization processing to the filtered signal. • reception, transposition and discretization of said signal received on each of the channels of the receiver (111, 112), so as to obtain a discretized multichannel signal, • synchronization (502, 140) of the discretized multichannel signal, • computation, on the basis of the discretized and synchronized multichannel signal, of a correlation matrix R̂ of the total noise, • computation of an intercorrelation matrix R̂ XD between a training sequence and the discretized and synchronized multichannel signal, • computation, on the basis of a matrix R̂ XD, of an estimate of the directing vector associated with a path, • calculation, on the basis of said matrix R̂ of correlation of the total noise and of the estimate of the directing vector associated with a path, of a vector w comprising amplitude phase weighting coefficients (221, 222) of a multichannel filter, and • application, to the discretized and synchronized multichannel signal, of a multichannel filtering processing on the basis of the said vector w, and then of a single-channel equalization processing to the filtered signal.
A system, comprising: an ablation device (1330, 1450) including a set of electrodes disposable near tissue of a subj ect; a signal generator (1309, 1405) configured to generate a voltage pulse waveform for irreversible electroporation, the signal generator coupleable to the set of electrodes and configured to deliver the voltage pulse waveform to the set of electrodes to ablate the tissue by irreversible electroporation, the set of electrodes configured to induce currents and voltages in an intracardiac device disposed in proximity to the ablation device in response to receiving the voltage pulse waveform; and a protection device (1314, 1407) coupleable between the intracardiac device and an external electronic device, the protection device configured to reduce the currents and voltages induced in the intracardiac device. an ablation device (1330, 1450) including a set of electrodes disposable near tissue of a subj ect; a signal generator (1309, 1405) configured to generate a voltage pulse waveform for irreversible electroporation, the signal generator coupleable to the set of electrodes and configured to deliver the voltage pulse waveform to the set of electrodes to ablate the tissue by irreversible electroporation, the set of electrodes configured to induce currents and voltages in an intracardiac device disposed in proximity to the ablation device in response to receiving the voltage pulse waveform; and a protection device (1314, 1407) coupleable between the intracardiac device and an external electronic device, the protection device configured to reduce the currents and voltages induced in the intracardiac device.
An ice maker for a home appliance, in particular for a refrigerator or freezer, comprising: an upper tray having a plurality of upper chamber parts; a lower tray having a plurality of lower chamber parts, the lower tray being movable with respect to the upper tray between an open position and a closed position, such that in the closed position, the lower chamber parts and the upper chamber parts form a plurality of ice chambers in which ice is to be formed; and an upper case including an upper plate and a first side wall extending perpendicular to the upper plate, wherein the first side wall includes a cool air hole and the upper plate includes a tray opening, the upper tray being mounted to the upper plate to be exposed by the tray opening; wherein the upper case further includes a cool air guide configured to guide cool air passing through the cool air hole toward the tray opening. an upper tray having a plurality of upper chamber parts; a lower tray having a plurality of lower chamber parts, the lower tray being movable with respect to the upper tray between an open position and a closed position, such that in the closed position, the lower chamber parts and the upper chamber parts form a plurality of ice chambers in which ice is to be formed; and an upper case including an upper plate and a first side wall extending perpendicular to the upper plate, wherein the first side wall includes a cool air hole and the upper plate includes a tray opening, the upper tray being mounted to the upper plate to be exposed by the tray opening; wherein the upper case further includes a cool air guide configured to guide cool air passing through the cool air hole toward the tray opening.
A filter holder for a filter cartridge of one of claims 4 to 7 of a fluid filter system, the filter holder being integrated in a filter housing cover or configured for being attached to a filter housing cover, wherein the filter holder comprises at least: a. a rear side configured to mate with the filter cartridge, and b. a front side being opposite to the rear side and configured to mate with the housing cover of the fluid filter system, wherein the front side and the rear side define a longitudinal axis, c. at least one tongue extending from the rear side of the filter holder, wherein the tongue has at least one protrusion, said protrusion facing radially outwards and being configured to engage into a space behind the rim of the filter cartridge to thereby fasten the filter holder to the rim, d. at least one bearing surface facing away from the rear side of the filter holder, wherein the bearing surface is spaced at a first radial distance ( R 1) from the axis, e. at least one abutment being positioned on the rear side at a second radial distance ( R 2) from said axis, wherein the second radial distance ( R 2) is greater or equal the first radial distance ( R 1), i.e. R 2 ≥ R 1, characterized in that the bearing surface is a section of a sphere having its center on the axis and configured to enable to pivot the filter holder relative to the filter cartridge. a. a rear side configured to mate with the filter cartridge, and b. a front side being opposite to the rear side and configured to mate with the housing cover of the fluid filter system, wherein the front side and the rear side define a longitudinal axis, c. at least one tongue extending from the rear side of the filter holder, wherein the tongue has at least one protrusion, said protrusion facing radially outwards and being configured to engage into a space behind the rim of the filter cartridge to thereby fasten the filter holder to the rim, d. at least one bearing surface facing away from the rear side of the filter holder, wherein the bearing surface is spaced at a first radial distance ( R 1) from the axis, e. at least one abutment being positioned on the rear side at a second radial distance ( R 2) from said axis, wherein the second radial distance ( R 2) is greater or equal the first radial distance ( R 1), i.e. R 2 ≥ R 1,