mhurhangee/ep-ind-claims huggingface dataset:
A method for data processing in a digital subscriber line environment, - wherein a Virtual Noise level for a digital subscriber line is determined based on measurement information of at least one network element connected to the digital subscriber line; - wherein the at least one network element comprises a digital subscriber line access multiplexer that is connected via the digital subscriber line to a customer premises equipment, - wherein the digital subscriber line access multiplexer determines measurement information during the customer premises equipment being offline and stores this measurement information in a database; and - wherein the digital subscriber line access multiplexer determines measurement information after the customer premises equipment has been activated but before the customer premises equipment enters a showtime state and stores this measurement information in the database; - wherein the Virtual Noise level for a digital subscriber line is determined based on the measurement information stored in the database. - wherein a Virtual Noise level for a digital subscriber line is determined based on measurement information of at least one network element connected to the digital subscriber line; - wherein the at least one network element comprises a digital subscriber line access multiplexer that is connected via the digital subscriber line to a customer premises equipment, - wherein the digital subscriber line access multiplexer determines measurement information during the customer premises equipment being offline and stores this measurement information in a database; and - wherein the digital subscriber line access multiplexer determines measurement information after the customer premises equipment has been activated but before the customer premises equipment enters a showtime state and stores this measurement information in the database; - wherein the Virtual Noise level for a digital subscriber line is determined based on the measurement information stored in the database.
An occupant determination apparatus comprising: a load sensor that detects weight of an occupant seated on a seat of a vehicle; and a determinator determining the weight of the occupant as one status among a plurality of statuses which are set corresponding to the weight based on the measurement weight measured by the load sensor, characterized in that the determinator determines the weight of the occupant as an instantaneous status among the plurality of the statuses, based on the measurement weight measured per each unit time, invalidates a determination result of the instantaneous status when an absolute value of acceleration acting on the vehicle becomes equal to or larger than a threshold value set in advance, and continues to invalidate the determination result of the instantaneous status per each unit time during a predetermined time after the absolute value of the acceleration changes from a value, which is equal to or larger than the threshold value to a value, which is smaller than the threshold value. a load sensor that detects weight of an occupant seated on a seat of a vehicle; and a determinator determining the weight of the occupant as one status among a plurality of statuses which are set corresponding to the weight based on the measurement weight measured by the load sensor, characterized in that the determinator determines the weight of the occupant as an instantaneous status among the plurality of the statuses, based on the measurement weight measured per each unit time, invalidates a determination result of the instantaneous status when an absolute value of acceleration acting on the vehicle becomes equal to or larger than a threshold value set in advance, and continues to invalidate the determination result of the instantaneous status per each unit time during a predetermined time after the absolute value of the acceleration changes from a value, which is equal to or larger than the threshold value to a value, which is smaller than the threshold value.
A method for intelligent communication management within a portable wireless communication device comprising the steps of: storing communication preference information identifying a plurality of communication means (320, 325, 330) for initiating communication with a contact; initiating a first communication connection to the contact using a first communication means of the plurality of communication means; determining whether the first communication connection is established; communicating with the contact using the first communication means when the first communication connection is established; detecting whether the first communication connection has become disconnected; identifying a second communication means associated with the contact when the first communication connection has become disconnected, wherein the second communication means is identified based on the communication preference information; and initiating a second communication connection to the contact using the second communication means, wherein said method is effected by said portable wireless communication device. storing communication preference information identifying a plurality of communication means (320, 325, 330) for initiating communication with a contact; initiating a first communication connection to the contact using a first communication means of the plurality of communication means; determining whether the first communication connection is established; communicating with the contact using the first communication means when the first communication connection is established; detecting whether the first communication connection has become disconnected; identifying a second communication means associated with the contact when the first communication connection has become disconnected, wherein the second communication means is identified based on the communication preference information; and initiating a second communication connection to the contact using the second communication means, wherein said method is effected by said portable wireless communication device.
An imaging apparatus, comprising: a detector array with at least one detector tile, the detector tile, comprising: a photosensor array with a two dimensional array of individual photosensitive detector pixels located within a non-photosensitive area; and readout electronics coupled to the photosensor array and including individual readout channel wells (602, 604), wherein each readout channel well corresponds to only one of the individual detector pixels; wherein the readout electronics comprises a plurality of metal layers; wherein the readout electronics includes an anti-aliasing filter for each detector pixel that is located in a region of the readout electronics corresponding to the detector pixel, wherein a capacitor of the anti-aliasing filter is located in the plurality of metal layers of the readout electronics. a photosensor array with a two dimensional array of individual photosensitive detector pixels located within a non-photosensitive area; and readout electronics coupled to the photosensor array and including individual readout channel wells (602, 604), wherein each readout channel well corresponds to only one of the individual detector pixels; wherein the readout electronics comprises a plurality of metal layers; wherein the readout electronics includes an anti-aliasing filter for each detector pixel that is located in a region of the readout electronics corresponding to the detector pixel, wherein a capacitor of the anti-aliasing filter is located in the plurality of metal layers of the readout electronics.
An ultrasound source azimuth determining apparatus comprising: a camera configured to pick up an image of a measured object; an array sensor configured to measure a sound pressure of ultrasound originating from a direction of the measured object; computing means for generating a sound pressure map on the basis of sound pressure information of ultrasound acquired by the array sensor, and superimposing the sound pressure map and a picked-up image acquired by the camera to generate a composite image; and display means for displaying the composite image, wherein the array sensor includes a total of greater than or equal to 9 and less than or equal to 25 surface mount sensors, and at least some of the surface mount sensors are arranged on an X-axis and a Y-axis in the same plane, wherein spacing between surface mount sensors is greater than or equal to a half-wavelength of ultrasound to be measured, wherein the spacing between surface mount sensors is set based on a relationship between a grating lobe boundary azimuth and a non-dimensional sensor spacing, so as to suppress the occurrence of grating lobes within the search range of the array sensor, characterized in that a search range of the array sensor is a range narrower than ±90° and wider than ±8° in each of horizontal and vertical directions and that the surface mount sensors are arranged such that the non-dimensional sensor spacing is 0.90 or less, the non-dimensional sensor spacing being obtained by dividing the spacing between surface mount sensors by a wavelength of ultrasound to be measured. a camera configured to pick up an image of a measured object; an array sensor configured to measure a sound pressure of ultrasound originating from a direction of the measured object; computing means for generating a sound pressure map on the basis of sound pressure information of ultrasound acquired by the array sensor, and superimposing the sound pressure map and a picked-up image acquired by the camera to generate a composite image; and display means for displaying the composite image, wherein the array sensor includes a total of greater than or equal to 9 and less than or equal to 25 surface mount sensors, and at least some of the surface mount sensors are arranged on an X-axis and a Y-axis in the same plane, wherein spacing between surface mount sensors is greater than or equal to a half-wavelength of ultrasound to be measured, wherein the spacing between surface mount sensors is set based on a relationship between a grating lobe boundary azimuth and a non-dimensional sensor spacing, so as to suppress the occurrence of grating lobes within the search range of the array sensor, characterized in that a search range of the array sensor is a range narrower than ±90° and wider than ±8° in each of horizontal and vertical directions and that the surface mount sensors are arranged such that the non-dimensional sensor spacing is 0.90 or less, the non-dimensional sensor spacing being obtained by dividing the spacing between surface mount sensors by a wavelength of ultrasound to be measured.
An apparatus for treating a hollow anatomical structure, comprising: a fibrous implant sized for insertion into said hollow anatomical structure; a flexible outer sheath sized for insertion into said hollow anatomical structure; said outer sheath having an inner diameter, sized to contain said implant prior to delivery of said implant into said hollow anatomical structure, said outer sheath having a distal opening; and a delivery member disposed for repeatable axial movement distally and proximally within said inner diameter of said outer sheath and having a distal end configured to engage said implant to advance said implant incrementally through said outer sheath out of said distal opening for delivery of sequential portions of said implant into said hollow anatomical structure where said delivery member is moved distally within said inner diameter of said outer sheath, and to disengage from said implant where said delivery member is moved proximally within said inner diameter of said outer sheath; characterised in that said distal opening of said outer sheath is configured to prevent the proximal movement into said distal opening of the delivered sequential portions of said implant when said delivery member is moved proximally within said outer sheath. a fibrous implant sized for insertion into said hollow anatomical structure; a flexible outer sheath sized for insertion into said hollow anatomical structure; said outer sheath having an inner diameter, sized to contain said implant prior to delivery of said implant into said hollow anatomical structure, said outer sheath having a distal opening; and a delivery member disposed for repeatable axial movement distally and proximally within said inner diameter of said outer sheath and having a distal end configured to engage said implant to advance said implant incrementally through said outer sheath out of said distal opening for delivery of sequential portions of said implant into said hollow anatomical structure where said delivery member is moved distally within said inner diameter of said outer sheath, and to disengage from said implant where said delivery member is moved proximally within said inner diameter of said outer sheath; characterised in that said distal opening of said outer sheath is configured to prevent the proximal movement into said distal opening of the delivered sequential portions of said implant when said delivery member is moved proximally within said outer sheath.
Knitted net comprising an identification and traceability system composed by a color scheme distributed across the width of the net and comprising a plurality of longitudinal warp chains with knitted stitches and a plurality of transverse weft tapes and by the angle formed between the warp and the weft is between 35° - 50°, the knitted net being characterized in that the identification and traceability system enables the left-right orientation for net positioning as well as, year, month, week and loom of production.
A signal processing device comprising: an acquisition unit configured to acquire audio data of an audio object and metadata including position information indicating a position of the audio object, direction information indicating a direction of the audio object and sound source type information indicating a type of the audio object serving as the sound source, the direction information indicating an absolute direction in which the object at the position indicated by the position information faces; and a signal generation unit configured to generate a reproduction signal for reproducing a sound of the audio object at a listening position on a basis of directional characteristic data indicating a directional characteristic of the audio object, listening position information indicating the listening position, listener direction information indicating a direction of a listener at the listening position, the position information, the direction information, and the audio data, the listener direction information indicating an absolute direction in which the listener at the position indicated by the listener position information faces, the directional characteristic data indicating a directional characteristic of the object of the sound source type indicated by the sound source type information. an acquisition unit configured to acquire audio data of an audio object and metadata including position information indicating a position of the audio object, direction information indicating a direction of the audio object and sound source type information indicating a type of the audio object serving as the sound source, the direction information indicating an absolute direction in which the object at the position indicated by the position information faces; and a signal generation unit configured to generate a reproduction signal for reproducing a sound of the audio object at a listening position on a basis of directional characteristic data indicating a directional characteristic of the audio object, listening position information indicating the listening position, listener direction information indicating a direction of a listener at the listening position, the position information, the direction information, and the audio data, the listener direction information indicating an absolute direction in which the listener at the position indicated by the listener position information faces, the directional characteristic data indicating a directional characteristic of the object of the sound source type indicated by the sound source type information.
Use of a photocatalytic composition in the removal of trimethylamine, said photocatalytic composition consisting of: a WO 3 photocatalyst; an adsorbent material; and a co-catalyst; wherein the adsorbent material is ZrO 2, and the co-catalyst is CeO 2.
A mixture for storage and delivery of a gas comprising: an ionic liquid comprising an anion and a cation wherein the cation is selected from the group consisting of 1-butyl-2,3-dimethylimidazolium, N-hexylpyridinium, 1-butyl-3-methylpyrrolidinium, 1-butyl-1-methylpyrrolidinium, trihexyl-(tetradecyl)-phosphonium, methyl(trioctyl)ammonium, 1-alkyl-3-(3-cyanopropyl)-imidazolium, 1-methoxyethyl-3-methylimidazolium, and -4-isopropyl-2-ethyl-3-methyl-4,5-dihydrooxazol-3-ium, pyrrolidinium, guanidinium and isouronium, the gas disposed within the ionic liquid comprising at least one selected from the group consisting of a boron-containing gas, an aluminum-containing gas, a phosphorous-containing gas, an arsenic-containing gas, an ether-containing gas, a nitrogen-containing gas, an antimony-containing gas, a bismuth-containing gas, a selenium-containing gas, a gallium-containing gas, a silicon-containing gas, a germanium-containing gas, a tin-containing gas, a tellurium-containing gas, a halogen-containing gas, a halocarbonyl-containing gas, and an oxygen-containing gas wherein at least a portion of the gas is chemically reacted with the ionic liquid to provide a chemically reacted gas; and optionally an unreacted gas selected from an additive gas, an inert gas, an unreacted portion of the chemically reacted gas, and mixtures thereof. an ionic liquid comprising an anion and a cation wherein the cation is selected from the group consisting of 1-butyl-2,3-dimethylimidazolium, N-hexylpyridinium, 1-butyl-3-methylpyrrolidinium, 1-butyl-1-methylpyrrolidinium, trihexyl-(tetradecyl)-phosphonium, methyl(trioctyl)ammonium, 1-alkyl-3-(3-cyanopropyl)-imidazolium, 1-methoxyethyl-3-methylimidazolium, and -4-isopropyl-2-ethyl-3-methyl-4,5-dihydrooxazol-3-ium, pyrrolidinium, guanidinium and isouronium, the gas disposed within the ionic liquid comprising at least one selected from the group consisting of a boron-containing gas, an aluminum-containing gas, a phosphorous-containing gas, an arsenic-containing gas, an ether-containing gas, a nitrogen-containing gas, an antimony-containing gas, a bismuth-containing gas, a selenium-containing gas, a gallium-containing gas, a silicon-containing gas, a germanium-containing gas, a tin-containing gas, a tellurium-containing gas, a halogen-containing gas, a halocarbonyl-containing gas, and an oxygen-containing gas wherein at least a portion of the gas is chemically reacted with the ionic liquid to provide a chemically reacted gas; and optionally an unreacted gas selected from an additive gas, an inert gas, an unreacted portion of the chemically reacted gas, and mixtures thereof.
Method for the manufacture of reduced graphene oxide from Kish graphite comprising: - The provision of Kish graphite, - The intercalation of Kish graphite with a persulfate salt and an acid at room temperature to obtain intercalated Kish graphite, - Leaving the mixture of the intercalated Kish graphite, persulfate salt and acid at room temperature to obtain expanded Kish graphite, - Less than eight hours after the start of the expansion step, mixing the expanded Kish graphite with at least an acid and an oxidizing agent while the gases generated during the expansion step, that comprise O 2, are still at least partially present so that the expanded Kish graphite is simultaneously oxidized, exfoliated and reduced into reduced graphene oxide, the acid being chosen among H 2 SO 4, HCl, HNO 3, H 3 PO 4, C 2 H 2 Cl 2 O 2, alkylsulfonic acid and mixtures thereof and the oxidizing agent being chosen among KMnO 4, H 2 O 2, O 3, H 2 S 2 O 8, H 2 SO 5, KNO 3, NaClO and mixtures thereof. - The provision of Kish graphite, - The intercalation of Kish graphite with a persulfate salt and an acid at room temperature to obtain intercalated Kish graphite, - Leaving the mixture of the intercalated Kish graphite, persulfate salt and acid at room temperature to obtain expanded Kish graphite, - Less than eight hours after the start of the expansion step, mixing the expanded Kish graphite with at least an acid and an oxidizing agent while the gases generated during the expansion step, that comprise O 2, are still at least partially present so that the expanded Kish graphite is simultaneously oxidized, exfoliated and reduced into reduced graphene oxide, the acid being chosen among H 2 SO 4, HCl, HNO 3, H 3 PO 4, C 2 H 2 Cl 2 O 2, alkylsulfonic acid and mixtures thereof and the oxidizing agent being chosen among KMnO 4, H 2 O 2, O 3, H 2 S 2 O 8, H 2 SO 5, KNO 3, NaClO and mixtures thereof.
A magnetic resonance imaging method of simultaneously estimating multiple physical parameters using a single gradient echo acquisition type, wherein the multiple physical parameters are a longitudinal relaxation rate R1, a transverse relaxation rate R2, and a proton density PD, characterized by comprising: obtaining (401, 405, 411) at least three parallel, segmented gradient-echo acquisitions, wherein the acquisitions are performed in parallel by dividing each acquisition into segments, and repeating for each segment until the acquisitions are completed; interleaving (403, 407, 409) the segmented gradient-echo acquisitions with a R 1 -sensitizing phase, a R 2 sensitizing phase and a delay time, and generating measures for the longitudinal relaxation rate R1, the transverse relaxation rate R2, and the proton density PD from the at least three acquisitions. obtaining (401, 405, 411) at least three parallel, segmented gradient-echo acquisitions, wherein the acquisitions are performed in parallel by dividing each acquisition into segments, and repeating for each segment until the acquisitions are completed; interleaving (403, 407, 409) the segmented gradient-echo acquisitions with a R 1 -sensitizing phase, a R 2 sensitizing phase and a delay time, and generating measures for the longitudinal relaxation rate R1, the transverse relaxation rate R2, and the proton density PD from the at least three acquisitions.
A zirconia sintered body comprising a crystal grain having a cubic domain and a tetragonal domain, a stabilizer and lanthanum being dissolved as a solid solution in the zirconia sintered body, wherein the stabilizer is at least one type selected from the group consisting of yttria, scandia, calcia, magnesia, and ceria, and wherein an average crystal grain size is from 20 μm to 100 μm.