mhurhangee/patent-ind-claim-en huggingface dataset:
A method for recognizing an emotion of an individual based on Action Units, AUs, the method comprising: determining a discriminative power for each of a plurality of AUs based on statistical data; selecting a plurality of sets of AUs, each set representing one of a plurality of emotion labels, based on the discriminative power for each of the plurality of AUs, wherein each of the plurality of sets of AUs includes a same number of AUs; storing the plurality of the selected sets of AUs associated with the plurality of emotion labels as AU strings; receiving an input AU string including a plurality of AUs that represents a facial expression of an individual from an AU detector ; comparing the input AU string with each of the plurality of the selected sets of AU strings; identifying an AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings; and outputting an emotion label corresponding to the identified AU string; wherein identifying the AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings comprises: determining a common subsequence between the input AU string and each of the plurality of AU strings; and identifying a longest common subsequence from the determined common sub-sequences, and wherein the longest common subsequence is indicative of the greatest amount of similarity between the input AU string and one of the plurality of AU strings. determining a discriminative power for each of a plurality of AUs based on statistical data; selecting a plurality of sets of AUs, each set representing one of a plurality of emotion labels, based on the discriminative power for each of the plurality of AUs, wherein each of the plurality of sets of AUs includes a same number of AUs; storing the plurality of the selected sets of AUs associated with the plurality of emotion labels as AU strings; receiving an input AU string including a plurality of AUs that represents a facial expression of an individual from an AU detector ; comparing the input AU string with each of the plurality of the selected sets of AU strings; identifying an AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings; and outputting an emotion label corresponding to the identified AU string; wherein identifying the AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings comprises: determining a common subsequence between the input AU string and each of the plurality of AU strings; and identifying a longest common subsequence from the determined common sub-sequences, and determining a common subsequence between the input AU string and each of the plurality of AU strings; and identifying a longest common subsequence from the determined common sub-sequences, and wherein the longest common subsequence is indicative of the greatest amount of similarity between the input AU string and one of the plurality of AU strings.
An electronic isolator device comprising an isolator module having an input-side electrical connector connected to an input signal processing functionality of the isolator module and an output-side electrical connector connected to an output signal processing functionality of the isolator module , the input signal processing functionality arranged for communication with the output signal processing functionality by way of an isolation , and a base module having at least two connectors; wherein the isolator module is arranged for removable physical/electrical connection to the base module in at least two orientations/positions relative to the base module ; with the input-side and the output-side connectors arranged to operatively connect to one or the other connector and vice versa at the base module in the at least two orientations/positions, wherein electrical connection to the base module in each of the at least two orientations/positions serves to configure the direction of the communication between the two connectors at the base module and thus the type/functionality of the electronic isolator device. an isolator module having an input-side electrical connector connected to an input signal processing functionality of the isolator module and an output-side electrical connector connected to an output signal processing functionality of the isolator module , the input signal processing functionality arranged for communication with the output signal processing functionality by way of an isolation , and a base module having at least two connectors; wherein the isolator module is arranged for removable physical/electrical connection to the base module in at least two orientations/positions relative to the base module ; with the input-side and the output-side connectors arranged to operatively connect to one or the other connector and vice versa at the base module in the at least two orientations/positions, wherein electrical connection to the base module in each of the at least two orientations/positions serves to configure the direction of the communication between the two connectors at the base module and thus the type/functionality of the electronic isolator device.
Device for mutually positioning tools in a cutting machine for vegetables, which cutting machine comprises a machine housing , wherein in the upper part of the machine housing cutting tools are arranged to be mounted around an axis which is driven by a motor arranged in the machine housing, wherein the upper part of the machine housing is shaped as a trough , running along the periphery of the cutting tool , which trough has a bottom out from which the said axis protrudes upwards and which trough is arranged to collect cut vegetables, wherein two or more cooperating tool parts are provided, each tool part being supported directly or indirectly by one of two or several steps (16,18;12,21), arranged at a distance from each other and formed on one and the same machine element (2;14), characterised in that a dicing grid is supported on a lower one of said steps (18;21), and in that a cutting disc is supported on an upper one of said steps (12;16) Z and in that the trough is provided with a radially directed output channel for cut vegetables.
A bag for punches, kicks and boxing , for suspension, consisting of a containing part , preferably having a cylindrical shape, made of leather, synthetic leather or similar plastic material, in the form of a containing bag or lining, provided with a top part , opened by means of a zipper and closed by a bottom part , sewn, or welded, to the said containing part , characterized in that, it is provided along its entire central vertical axis, of an assembly composed of at least three hollow cylinders of concrete , or, at least three full cylinders of concrete , having specific weights of between 800 kg/m 3 and 2,600 kg/m 3 ± 10%, according to standards UNI EN 206-1/2006, having a diameter of 150 mm ± 10% and a height of between 100 mm and 200 mm ± 10%, separated by spacer discs made of agglomerated polyurethane foam , having a diameter of 150 mm ± 10% and a thickness of between 50 mm and 100 mm ± 10%, having a density of between 60 kg/m 3 and 120 kg/m 3 ± 10%, according to ISO Standards 845/2006, both said cylinders and discs , vertically assembled in the manner of a spine, coated by means of a hollow cylinder of agglomerated polyurethane foam having a diameter of between 300 mm and 600 mm ± 10% and a height of between 1000 mm and 1800 mm ± 10%, having a density of between 60 kg/m 3 and 180 kg/m 3 ± 10%, according to the Standards ISO 845/2006 and, alternatively, from an agglomerated polyurethane foam sheet having the same specifications of the said hollow cylinder , wrapped around said spine, said coatings , the ends of which are provided by a top layer of agglomerated polyurethane foam disc and by a bottom layer of agglomerated polyurethane foam disc , both having a diameter of between 300 mm and 600 mm ± 10% and a thickness of between 30 mm and 120 mm ± 10%, having a density of between 150 kg/m 3 and 240 kg/m 3 ± 10%, according to the Standards ISO 845/2006, so as to wrap the said spine in the form of the spine of a human being, wrapped by muscle and connective tissues, simulating in this way, a human body of various sizes.
A mat material comprising; a mat-shaped main body comprising inorganic fibers and having a first surface and a second surface; and an inorganic adhesive sheet that can be handled independently from the mat-shaped main body and is disposed on at least one surface of the first and second surfaces of the mat-shaped main body, and contains an inorganic adhesive that exhibits adhesiveness by heating. a mat-shaped main body comprising inorganic fibers and having a first surface and a second surface; and an inorganic adhesive sheet that can be handled independently from the mat-shaped main body and is disposed on at least one surface of the first and second surfaces of the mat-shaped main body, and contains an inorganic adhesive that exhibits adhesiveness by heating.
A work method of a plurality of work vehicles including at least one automatic traveling work vehicle capable of automatically traveling based on a travel path created in a farm field, the method comprising: an allocating process that divides a work area (A) of the farm field into a plurality of work blocks (B) based on each of the work vehicles, and that allocates any of the plurality of work vehicles to each of the work blocks (B); and a working process that allows the plurality of work vehicles to perform a work of the plurality of work blocks (B), whereby the plurality of work vehicles is a plurality of combine harvesters , characterized in that the combine harvesters are different in available capacity of a reservoir for reserving a grain harvested by each of the combine harvesters, and the allocating process, based on the available capacity of the reservoir of each of the combine harvesters , divides the work area (A) into the plurality of work blocks (B) and allocates the combine harvesters to the work blocks (B). an allocating process that divides a work area (A) of the farm field into a plurality of work blocks (B) based on each of the work vehicles, and that allocates any of the plurality of work vehicles to each of the work blocks (B); and a working process that allows the plurality of work vehicles to perform a work of the plurality of work blocks (B), whereby the plurality of work vehicles is a plurality of combine harvesters , characterized in that the combine harvesters are different in available capacity of a reservoir for reserving a grain harvested by each of the combine harvesters, and the allocating process, based on the available capacity of the reservoir of each of the combine harvesters , divides the work area (A) into the plurality of work blocks (B) and allocates the combine harvesters to the work blocks (B).
A method of making a polymeric composition comprising (a) providing a dispersion of initial polyolefin particles in an aqueous medium, wherein the initial polyolefin particles comprise (i) one or more hydrocarbon polyolefin in an amount from 2% to 49.5% by weight based on the total solid weight of the dispersion of initial polyolefin particles, (ii) one or more non-hydrocarbon polyolefin, and (iii) one or more crosslinking agent; (b) contacting the initial polyolefin particles with a peroxide initiator to form crosslinked polyolefin particles wherein the crosslinked polyolefin particles have a gel fraction of 10% or more by weight, wherein the gel fraction is measured in toluene at 90°C for 1 hour as set out in method B of the description. (a) providing a dispersion of initial polyolefin particles in an aqueous medium, wherein the initial polyolefin particles comprise (i) one or more hydrocarbon polyolefin in an amount from 2% to 49.5% by weight based on the total solid weight of the dispersion of initial polyolefin particles, (ii) one or more non-hydrocarbon polyolefin, and (iii) one or more crosslinking agent; (i) one or more hydrocarbon polyolefin in an amount from 2% to 49.5% by weight based on the total solid weight of the dispersion of initial polyolefin particles, (ii) one or more non-hydrocarbon polyolefin, and (iii) one or more crosslinking agent; (b) contacting the initial polyolefin particles with a peroxide initiator to form crosslinked polyolefin particles wherein the crosslinked polyolefin particles have a gel fraction of 10% or more by weight, wherein the gel fraction is measured in toluene at 90°C for 1 hour as set out in method B of the description.
A pallet collar made of a single paperbased sheet with a uniform thickness, said sheet having four consecutive sections (6a-d) each having a substantially rectangular, or rectangular mid part (7a-d) joined to a mid part (7a-d) of an adjacent section (6a-d) by a main folding line (8a-c) by making a right angle to that section (6a-d) so that each section (6a-d) forms a wall of the pallet collar , each pallet collar wall having an outer wall portion and an inner wall portion extending in parallel therewith and spaced apart therefrom, the outer wall portion being formed by said mid part (7a-d), the mid part (7a-d) having at each of opposite borders thereof as seen in the direction of the extension of said main folding line (8a-c) a series of four consecutive parts (11a-b, 12a-b, 13a-b, 14a-b) each folded along a folding line (15a-b, 16a-b, 17a-b, 18a-b) perpendicular to said main folding line (8a-c) in the same sense while making a right angle to the preceding part (11a-b, 12a-b, 13a-b, 14a-b) and in the opposite sense with respect to the sense in which the parts (11a-b, 12a-b, 13a-b, 14a-b) of the other series of four consecutive parts (11a-b, 12a-b, 13a-b, 14a-b) are folded, so that following upon each other a first part (11a-b) of each series next to said mid part (7a-d) forms a first spacer between said outer and inner wall portions, a second part (12a-b) extends in parallel with the mid part (7a-d) and forms half of the inner wall portion , to a position in which it is substantially in contact with the second part (12a-b) of the other series at the center of the respective pallet collar wall, a third part (13a-b) extends to an inner side of the mid part (7a-d) to form a second spacer between said outer and inner wall portions, and a fourth part (14a-b) extends along the inner side of the mid part (7a-d) and is secured thereto. a first part (11a-b) of each series next to said mid part (7a-d) forms a first spacer between said outer and inner wall portions, a second part (12a-b) extends in parallel with the mid part (7a-d) and forms half of the inner wall portion , to a position in which it is substantially in contact with the second part (12a-b) of the other series at the center of the respective pallet collar wall, a third part (13a-b) extends to an inner side of the mid part (7a-d) to form a second spacer between said outer and inner wall portions, and a fourth part (14a-b) extends along the inner side of the mid part (7a-d) and is secured thereto.
A sheet-fed printing press, comprising a wrong sheet sensor, wherein the wrong sheet sensor has a measuring device for detecting a wrong sheet, wherein the measuring device for detecting a wrong sheet is assigned to the moved substrate sheets (B1 - B3), wherein at least one timing roller is provided for sequentially conveying substrate sheets, which have been separated from a sheet stack, and to a sheet-processing machine in combination with a belt roller assigned to a belt table and/or a transport roller , and wherein at least one measuring device is provided for detecting a number of sheets located on top of one another by means of measurements, wherein the measuring device is formed to detect a supporting height (X) of the or of all timing rollers on the belt roller or transport roller by means of measurements, wherein the measuring device is embodied to act magnetically to detect the position of the or of all timing rollers , wherein the position of a signal magnet is scanned by the measuring device, characterized in that the measuring device has one or several Hall sensors, and wherein the measuring device is formed for a continuous measurement, the constant measuring signal of which is sequentially recorded, wherein the measuring device is coupled to a microcontroller in such a way that measurement and measurement analysis work fully-automatically and that the measuring device calibrates independently in an automatic manner by means of signal-processing algorithms.
A vehicular system comprising: a control system configured to autonomously control a vehicle based on vehicular control instructions; and a connector coupled to a roof of the vehicle configured to enable a housing of a sensor unit to couple to the vehicle, wherein the connector comprises: a power supply connection ; and a data bus , wherein the data bus is coupled to the control system and configured to provide the vehicular control instructions from the sensor unit to the control system, wherein the vehicular control instructions indicate a path for the vehicle to autonomously navigate based on objects determined to be in an environment of the vehicle, wherein the vehicular control instructions are determined by a processing system positioned locally in the housing of the sensor unit based on sensor data from a plurality of sensors positioned in the housing of the sensor unit. a control system configured to autonomously control a vehicle based on vehicular control instructions; and a connector coupled to a roof of the vehicle configured to enable a housing of a sensor unit to couple to the vehicle, wherein the connector comprises: a power supply connection ; and a data bus , wherein the data bus is coupled to the control system and configured to provide the vehicular control instructions from the sensor unit to the control system, wherein the vehicular control instructions indicate a path for the vehicle to autonomously navigate based on objects determined to be in an environment of the vehicle, wherein the vehicular control instructions are determined by a processing system positioned locally in the housing of the sensor unit based on sensor data from a plurality of sensors positioned in the housing of the sensor unit. a power supply connection ; and a data bus , wherein the data bus is coupled to the control system and configured to provide the vehicular control instructions from the sensor unit to the control system, wherein the vehicular control instructions indicate a path for the vehicle to autonomously navigate based on objects determined to be in an environment of the vehicle, wherein the vehicular control instructions are determined by a processing system positioned locally in the housing of the sensor unit based on sensor data from a plurality of sensors positioned in the housing of the sensor unit.
A pharmaceutical composition for use in the prevention or treatment of cancer, the pharmaceutical composition comprising (a) lomitapide, a pharmaceutically acceptable salt thereof, or an optical isomer thereof, and (b) fluorouracil, irinotecan, or an anti-PD1 antibody as an active ingredient, wherein the cancer is colorectal cancer or melanoma.
A method for mitigating tin whisker growth on a substrate surface comprising the steps of: preparing a solution comprising an amount of a germanium-containing compound and a water soluble tin-containing compound and a complexing agent; immersing an anodic electrode into the solution, immersing a cathodic substrate into the solution, said cathodic substrate comprising a cathodic substrate surface; connecting the anodic electrode and the cathodic substrate to an electrical power source capable of providing an electrical current; activating the electrical power source to provide the electrical current to the anodic electrode, the cathodic substrate and the solution; and co-depositing an amount of germanium and tin onto the cathodic substrate surface, wherein the germanium and tin are co-deposited onto the substrate surface at a concentration of from about 0.5 to about 5% by weight germanium, and wherein the complexing agent is selected from citric acid, succinic acid, aspartic acid, EDTA, mannitol, or any organic compound with carboxylic acid groups, or other groups capable of complexing metal ions in solution. preparing a solution comprising an amount of a germanium-containing compound and a water soluble tin-containing compound and a complexing agent; immersing an anodic electrode into the solution, immersing a cathodic substrate into the solution, said cathodic substrate comprising a cathodic substrate surface; connecting the anodic electrode and the cathodic substrate to an electrical power source capable of providing an electrical current; activating the electrical power source to provide the electrical current to the anodic electrode, the cathodic substrate and the solution; and co-depositing an amount of germanium and tin onto the cathodic substrate surface, wherein the germanium and tin are co-deposited onto the substrate surface at a concentration of from about 0.5 to about 5% by weight germanium, and wherein the complexing agent is selected from citric acid, succinic acid, aspartic acid, EDTA, mannitol, or any organic compound with carboxylic acid groups, or other groups capable of complexing metal ions in solution.
A method for safely disconnecting an electrical load, comprising the steps - Providing a multi-channel control unit , a single-channel data transmission link and an output unit with a first and a second processing unit and with safe outputs ; - Receiving and evaluating of an input signal by the multi-channel control unit and generation of an enable signal depending on the evaluation; - Transmitting of the enable signal via the single-channel data transmission link to the output unit ; - Receiving the enable signal by the first processing unit and generating an output signal in response to the enable signal ; - Providing at least a portion of the enable signal from the first processing unit for evaluation by the second processing unit characterised by - Generating a dynamic clock signal independent of the output signal by the second processing unit based on the enable signal ; - Providing the dynamic clock signal from the second processing unit to a rectifier that generates a constant analog signal from the dynamic clock signal ; and - Linking the constant analog signal with the output signal and activating the safe outputs only if both the output signal and the constant analog signal are present. - Providing a multi-channel control unit , a single-channel data transmission link and an output unit with a first and a second processing unit and with safe outputs ; - Receiving and evaluating of an input signal by the multi-channel control unit and generation of an enable signal depending on the evaluation; - Transmitting of the enable signal via the single-channel data transmission link to the output unit ; - Receiving the enable signal by the first processing unit and generating an output signal in response to the enable signal ; - Providing at least a portion of the enable signal from the first processing unit for evaluation by the second processing unit - Generating a dynamic clock signal independent of the output signal by the second processing unit based on the enable signal ; - Providing the dynamic clock signal from the second processing unit to a rectifier that generates a constant analog signal from the dynamic clock signal ; and - Linking the constant analog signal with the output signal and activating the safe outputs only if both the output signal and the constant analog signal are present.