mhurhangee/ep-ind-claims huggingface dataset:
A method for optical distance measurements, wherein the method comprises carrying out Radar measurements, building a grid map comprising a plurality of elements based on the Radar measurements, wherein the method comprises extracting information about the dynamic state of each element, assigning the information to the respective element and carrying out Lidar measurements resulting in a Lidar point cloud, wherein the method comprises associating the Lidar point cloud with the grid map, characterized in that associating the Lidar point cloud with the grid map comprises projecting the Lidar point cloud into the grid map, wherein the method comprises determining for each point of the Lidar point cloud the nearest elements of the grid map, wherein the method comprises for each point of the Lidar point cloud determining the average of the dynamic probabilities of the nearest elements of the grid map and comparing the average with a predetermined threshold for classifying the point as static or dynamic, and wherein the method comprises classifying each point of the Lidar point cloud as dynamic or static, thereby determining the velocity of objects on which the radar waves have been reflected. wherein the method comprises carrying out Radar measurements, building a grid map comprising a plurality of elements based on the Radar measurements, wherein the method comprises extracting information about the dynamic state of each element, assigning the information to the respective element and carrying out Lidar measurements resulting in a Lidar point cloud, wherein the method comprises associating the Lidar point cloud with the grid map, characterized in that associating the Lidar point cloud with the grid map comprises projecting the Lidar point cloud into the grid map, wherein the method comprises determining for each point of the Lidar point cloud the nearest elements of the grid map, wherein the method comprises for each point of the Lidar point cloud determining the average of the dynamic probabilities of the nearest elements of the grid map and comparing the average with a predetermined threshold for classifying the point as static or dynamic, and wherein the method comprises classifying each point of the Lidar point cloud as dynamic or static, thereby determining the velocity of objects on which the radar waves have been reflected.
A processed cheese that does not contain significant levels of emulsifying salts, the processed cheese comprising: a natural cheese or a mixture of natural cheeses providing from 5 weight percent to 30 weight percent dairy protein; 30 weight percent to 80 weight percent water; 0.5 weight percent or less of emulsifying salts so that the processed cheese does not contain significant levels of emulsifying salts; 0.1 weight percent to 10 weight percent of a non-crosslinked modified starch having a degree of substitution of less than 0.2 D.S. and containing amylopectin and less than 0.1 percent amylose, and which during cooking provides processing functionality of viscosity and water management and functionally disappears in the final product such that the processed cheese has a uniform distribution of amylopectin with less than 50 intact starch granules per 900 mm 2 of processed cheese as determined by Lugol's iodine stain at 20x magnification and no starch agglomerates, and less than 0.1 percent amylose in the processed cheese, the amylopectin and amylose from said modified starch being present in the processed cheese in a ratio of amylopectin to amylose of from 20:1 to 200:1 to provide no texture or flavor to the processed cheese. a natural cheese or a mixture of natural cheeses providing from 5 weight percent to 30 weight percent dairy protein; 30 weight percent to 80 weight percent water; 0.5 weight percent or less of emulsifying salts so that the processed cheese does not contain significant levels of emulsifying salts; 0.1 weight percent to 10 weight percent of a non-crosslinked modified starch having a degree of substitution of less than 0.2 D.S. and containing amylopectin and less than 0.1 percent amylose, and which during cooking provides processing functionality of viscosity and water management and functionally disappears in the final product such that the processed cheese has a uniform distribution of amylopectin with less than 50 intact starch granules per 900 mm 2 of processed cheese as determined by Lugol's iodine stain at 20x magnification and no starch agglomerates, and less than 0.1 percent amylose in the processed cheese, the amylopectin and amylose from said modified starch being present in the processed cheese in a ratio of amylopectin to amylose of from 20:1 to 200:1 to provide no texture or flavor to the processed cheese.
An actuator assembly, comprising: a housing, an input shaft, an output shaft, a limited angle electromagnetic actuator coupled to the input shaft for rotating the input shaft to generate an input torque profile over an input stroke, a rotatable input element adapted to couple to said input shaft to rotate therewith, said rotatable input element having a first cam profile, a rotatable output element adapted to couple to said output shaft to rotate therewith, said rotatable output element having a second cam profile, at least one coupling element (40/42) for rotationally coupling said rotatable input element to said rotatable output element to transfer a rotary motion of the input shaft to the output shaft to generate an output torque profile over an output stroke, said at least one coupling element comprising an inferior portion (40a/42a) engaged with said first cam profile and a superior portion (40b/42b) engaged with said second cam profile so as to transfer rotary motion of the rotatable input element to the rotatable output element, and a pin to which said at least one coupling element is slidably coupled, said pin being fixedly attached to said housing, wherein said first and second cam profiles are configured such that said output profile is different than said input torque profile, and wherein said at least one coupling element (40/42) is configured to remain rotationally fixed relative to an axis of rotation of the input and the output shafts. a housing, an input shaft, an output shaft, a limited angle electromagnetic actuator coupled to the input shaft for rotating the input shaft to generate an input torque profile over an input stroke, a rotatable input element adapted to couple to said input shaft to rotate therewith, said rotatable input element having a first cam profile, a rotatable output element adapted to couple to said output shaft to rotate therewith, said rotatable output element having a second cam profile, at least one coupling element (40/42) for rotationally coupling said rotatable input element to said rotatable output element to transfer a rotary motion of the input shaft to the output shaft to generate an output torque profile over an output stroke, said at least one coupling element comprising an inferior portion (40a/42a) engaged with said first cam profile and a superior portion (40b/42b) engaged with said second cam profile so as to transfer rotary motion of the rotatable input element to the rotatable output element, and a pin to which said at least one coupling element is slidably coupled, said pin being fixedly attached to said housing, wherein said first and second cam profiles are configured such that said output profile is different than said input torque profile, and wherein said at least one coupling element (40/42) is configured to remain rotationally fixed relative to an axis of rotation of the input and the output shafts.
A method for producing cholesteric liquid crystal resin fine particles, wherein a volume average particle diameter of the cholesteric liquid crystal resin fine particles is in a range of 1 μm or more and 30 μm or less, wherein the production method comprises a fine particle forming step of forming droplets comprising a cholesteric liquid crystal compound into fine particles by shearing a cholesteric liquid crystal mixture comprising a cholesteric liquid crystal composition comprising the cholesteric liquid crystal compound and an organic solvent, an inorganic colloid, and an aqueous medium by a disperser, wherein the production method further comprises a polymerization step of producing the cholesteric liquid crystal resin fine particles by, after the fine particle forming step, increasing a temperature of the cholesteric liquid crystal mixture to a coloring temperature range of the cholesteric liquid crystal compound and subjecting the cholesteric liquid crystal mixture to at least one polymerization process selected from the group consisting of photopolymerization and thermal polymerization, and wherein the production method further comprises a stripping step of removing, after the fine particle forming step and before the polymerization step, the organic solvent from the cholesteric liquid crystal mixture by a stripping treatment. wherein a volume average particle diameter of the cholesteric liquid crystal resin fine particles is in a range of 1 μm or more and 30 μm or less, wherein the production method comprises a fine particle forming step of forming droplets comprising a cholesteric liquid crystal compound into fine particles by shearing a cholesteric liquid crystal mixture comprising a cholesteric liquid crystal composition comprising the cholesteric liquid crystal compound and an organic solvent, an inorganic colloid, and an aqueous medium by a disperser, wherein the production method further comprises a polymerization step of producing the cholesteric liquid crystal resin fine particles by, after the fine particle forming step, increasing a temperature of the cholesteric liquid crystal mixture to a coloring temperature range of the cholesteric liquid crystal compound and subjecting the cholesteric liquid crystal mixture to at least one polymerization process selected from the group consisting of photopolymerization and thermal polymerization, and wherein the production method further comprises a stripping step of removing, after the fine particle forming step and before the polymerization step, the organic solvent from the cholesteric liquid crystal mixture by a stripping treatment.
A computer-implemented method for creating an account for a transaction activity in a blockchain system (100, 506), the method comprising: receiving (302, 514) activity data for creating an account for the transaction activity from a user, wherein the activity data includes at least an identifier of a smart contract in a blockchain and an expiration time of the transaction activity, and the smart contract includes computer-readable instructions for conducting the transaction activity; sending (304, 516) the activity data to an authentication server for requesting a digital certificate of the activity data, wherein the digital certificate stores the identifier of the smart contract, and an expiration time of the digital certificate is set to be the expiration time of the transaction activity; receiving the digital certificate from the authentication server, and causing (306, 522) the blockchain system to perform: determining (524, 526) whether the digital certificate is valid using a public key associated with the authentication server; and creating the account for the transaction activity based on a determination that the digital certificate is valid, wherein the created account is associated with the identifier of the smart contract; receiving, from the blockchain system, an identifier of the account for the transaction activity; and sending an indication that the account has been created to the user. receiving (302, 514) activity data for creating an account for the transaction activity from a user, wherein the activity data includes at least an identifier of a smart contract in a blockchain and an expiration time of the transaction activity, and the smart contract includes computer-readable instructions for conducting the transaction activity; sending (304, 516) the activity data to an authentication server for requesting a digital certificate of the activity data, wherein the digital certificate stores the identifier of the smart contract, and an expiration time of the digital certificate is set to be the expiration time of the transaction activity; receiving the digital certificate from the authentication server, and causing (306, 522) the blockchain system to perform: determining (524, 526) whether the digital certificate is valid using a public key associated with the authentication server; and creating the account for the transaction activity based on a determination that the digital certificate is valid, wherein the created account is associated with the identifier of the smart contract; determining (524, 526) whether the digital certificate is valid using a public key associated with the authentication server; and creating the account for the transaction activity based on a determination that the digital certificate is valid, wherein the created account is associated with the identifier of the smart contract; receiving, from the blockchain system, an identifier of the account for the transaction activity; and sending an indication that the account has been created to the user.
Method of producing an aluminium or aluminium alloy strip with a heat-seal lacquer on a first surface and an epoxide based stove lacquer on the second surface, characterised in that a chromium-free conversion coating is produced on the first and second surface of the aluminium or aluminium alloy strip in a continuous production line before applying the heat-seal lacquer and the stove lacquer, the chromium-free conversion coating is produced by a no-rinse process by treatment with a solution of silanes in a polar organic solvent, or a no-rinse process by treatment with an aqueous solution of 5 to 10 wt.-% hexafluorotitanic acid (H 2 TiF 6) and 2.5 to 5 wt.-% hexafluorozirconic acid (H 2 ZrF 6), or a rinse process by treatment with an aqueous solution of < 1 wt.-% diammonium dimolybdate ((NH 4) 2 Mo 2 O 7) and 5 to 10 wt.-% hexafluorozirconic acid (H 2 ZrF 6). a no-rinse process by treatment with a solution of silanes in a polar organic solvent, or a rinse process by treatment with an aqueous solution of < 1 wt.-% diammonium dimolybdate ((NH 4) 2 Mo 2 O 7) and 5 to 10 wt.-% hexafluorozirconic acid (H 2 ZrF 6).
A wearable device configured to oscillate a chest of a user, comprising: a chest wall oscillator configured to be mounted on the chest of the user and to oscillate the chest of the user; a sound detector configured to detect sound from the chest of the user, when the wearable device is worn by the user, and to output signals corresponding to the sound, wherein the sound detector comprises a plurality of sound detection elements (50, 51, 52, 53, 54) positioned to come in contact with different regions of the chest; and a controller configured to receive the output signals from the sound detector, the controller being configured to generate output signals based upon the output signals from the sound detector, the output signals of the controller being communicated to the chest wall oscillator to control one or more of a frequency of oscillations, intensity of oscillations, and duration of a therapy output by the chest wall oscillator. a chest wall oscillator configured to be mounted on the chest of the user and to oscillate the chest of the user; a sound detector configured to detect sound from the chest of the user, when the wearable device is worn by the user, and to output signals corresponding to the sound, wherein the sound detector comprises a plurality of sound detection elements (50, 51, 52, 53, 54) positioned to come in contact with different regions of the chest; and a controller configured to receive the output signals from the sound detector, the controller being configured to generate output signals based upon the output signals from the sound detector, the output signals of the controller being communicated to the chest wall oscillator to control one or more of a frequency of oscillations, intensity of oscillations, and duration of a therapy output by the chest wall oscillator.
A computer-based method for content data management and provision, the computer-based method being performed by a computer system comprising one or more computers, the method comprising: receiving, by the computer system, a content request message from a registered user, wherein the content request message is addressed to an address associated with a broadcast entity; determining, by the computer system, an identity of the user based upon the received content request message and identification information of the user stored in a database; identifying, by the computer system, at least one piece of content data based upon the content request message; and transmitting, by the computer system, the at least one piece of identified content data to the user; characterised by: determining, by the computer system, at least one of a date or a time of transmission of the content request message; comparing, by the computer system, the at least one determined date or time of transmission of the content request message with content broadcast information associated with the broadcast entity; and wherein said identifying, by the computer system, the at least one piece of content data is based upon a result of the comparing. receiving, by the computer system, a content request message from a registered user, wherein the content request message is addressed to an address associated with a broadcast entity; determining, by the computer system, an identity of the user based upon the received content request message and identification information of the user stored in a database; identifying, by the computer system, at least one piece of content data based upon the content request message; and transmitting, by the computer system, the at least one piece of identified content data to the user; characterised by: determining, by the computer system, at least one of a date or a time of transmission of the content request message; comparing, by the computer system, the at least one determined date or time of transmission of the content request message with content broadcast information associated with the broadcast entity; and wherein said identifying, by the computer system, the at least one piece of content data is based upon a result of the comparing. determining, by the computer system, at least one of a date or a time of transmission of the content request message; comparing, by the computer system, the at least one determined date or time of transmission of the content request message with content broadcast information associated with the broadcast entity; and wherein said identifying, by the computer system, the at least one piece of content data is based upon a result of the comparing.
A heat transfer plate comprising an upper end portion, a center portion and a lower end portion arranged in succession along a longitudinal center axis of the heat transfer plate, the upper end portion comprising a first and a second porthole (9, 11) and an upper distribution area provided with an upper distribution corrugation pattern, the lower end portion comprising a third and a fourth porthole (21, 23) and a lower distribution area provided with a lower distribution corrugation pattern, and the center portion comprising a heat transfer area provided with a heat transfer corrugation pattern differing from the upper and lower distribution corrugation patterns, wherein the heat transfer plate further comprises, on a front side thereof, a front gasket groove including an annular front groove part extending around the heat transfer area, the upper and lower distribution areas (13, 25), and the first and third portholes (9, 21), a second ring groove part enclosing the second porthole and a fourth ring groove part enclosing the fourth porthole, wherein the upper end portion further comprises a second adiabatic area extending between the annular front groove part and the second ring groove part and the lower end portion further comprises a fourth adiabatic area extending between the annular front groove part and the fourth ring groove part, an upper front groove portion of the front gasket groove extending between the second porthole and the upper distribution area and comprising a bottom (67u, 69), and a lower front groove portion of the front gasket groove extending between the fourth porthole and the lower distribution area and comprising a bottom (67l, 81), characterized in that the bottom (67u, 69) of the upper front groove portion is inclined such that a depth of the front gasket groove, within the upper front groove portion, increases in a direction towards the second adiabatic area, and the bottom (67l, 81) of the lower front groove portion is inclined such that a depth of the front gasket groove, within the lower front groove portion, increases in a direction towards the fourth adiabatic area.
Method for classifying radar objects, - a received signal being processed in an input channel within a plurality of consecutive coherent integration intervals and object detection being carried out using Doppler filter amplitudes, range reports being generated - a plurality of range reports being compiled by means of a cluster algorithm to form a plot, characterized in that - Doppler filter amplitudes of the two azimuthally adjacent coherent integration intervals from the same range cell are added to each range report - a subset of the range reports is formed by, starting with the range report at the location of a plot centroid, arranging adjacent range reports from a defined number of coherent integration intervals sorted according to azimuthal position in a matrix of the dimension azimuth x range so as to have the plot centroid in the center - the Doppler filter amplitudes assigned to the range reports from the region of the plot centroid +/- a defined number of coherent integration intervals are arranged according to the sequence of coherent integration intervals - a composite plot spectrum is formed as a vector using range reports from said matrix, which vector is initiated using the range cell of the plot centroid - the nearest range report is then inserted into adjacent range cells for all positions of the coherent integration intervals for which there is no range report in said range cell - remaining gaps are filled with the adjacent Doppler filter amplitudes of the range reports used - gaps still remaining are then filled with a suitable noise value. - a received signal being processed in an input channel within a plurality of consecutive coherent integration intervals and object detection being carried out using Doppler filter amplitudes, range reports being generated - a plurality of range reports being compiled by means of a cluster algorithm to form a plot, characterized in that - Doppler filter amplitudes of the two azimuthally adjacent coherent integration intervals from the same range cell are added to each range report - a subset of the range reports is formed by, starting with the range report at the location of a plot centroid, arranging adjacent range reports from a defined number of coherent integration intervals sorted according to azimuthal position in a matrix of the dimension azimuth x range so as to have the plot centroid in the center - the Doppler filter amplitudes assigned to the range reports from the region of the plot centroid +/- a defined number of coherent integration intervals are arranged according to the sequence of coherent integration intervals - a composite plot spectrum is formed as a vector using range reports from said matrix, which vector is initiated using the range cell of the plot centroid - the nearest range report is then inserted into adjacent range cells for all positions of the coherent integration intervals for which there is no range report in said range cell - remaining gaps are filled with the adjacent Doppler filter amplitudes of the range reports used - gaps still remaining are then filled with a suitable noise value.