mhurhangee/patent-ind-claim-en huggingface dataset:
A dry composition for chemical and physical sun protection, the composition comprising a) at least one mineral material selected from the group consisting of surface reacted calcium carbonate and/or hydromagnesite, wherein the surface-reacted calcium carbonate is a reaction product of natural ground calcium carbonate or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors, wherein the carbon dioxide is formed in situ by the H 3 O + ion donors treatment and/or is supplied from an external source and b) from 0.1 wt.-% to 100 wt.-%, based on the dry weight of the at least one mineral material of step a) of at least one lignin. a) at least one mineral material selected from the group consisting of surface reacted calcium carbonate and/or hydromagnesite, wherein the surface-reacted calcium carbonate is a reaction product of natural ground calcium carbonate or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors, wherein the carbon dioxide is formed in situ by the H 3 O + ion donors treatment and/or is supplied from an external source and b) from 0.1 wt.-% to 100 wt.-%, based on the dry weight of the at least one mineral material of step a) of at least one lignin.
The use of a polishing composition for polishing a silicon wafer, wherein the polishing composition comprises an abrasive, a water-soluble polymer, a basic compound, and water, wherein the water-soluble polymer contains a structural unit derived from styrene or a derivative thereof, and is selected amonq polystyrene sulfonic acid or a salt thereof, polyvinyl benzoic acid or a salt thereof, a styrene-styrene sulfonic acid copolymer, a styrene-maleic acid copolymer, a styrene-maleic anhydride copolymer, a styrene sulfonic acid-maleic acid copolymer, a copolymer of styrene sulfonic acid salt and maleic acid, a styrene- (meth)acrylic acid copolymer, a styrene sulfonic acid-(meth)acrylic acid copolymer, a copolymer of a styrene sulfonic acid salt and (meth)acrylic acid, and wherein the abrasive is selected among silica particles, alumina particles, ceria particles, titania particles, silicon nitride particles, and polymethyl methacrylate (PMMA) particles, and wherein the basic compound is selected from the list consisting of carbonates, hydroxide of alkali metal, quaternary ammonium hydroxide or salts thereof, ammonia, methylamine, dimethylamine, trimethylamine, ethylamine, diethylamine, triethylamine, ethylenediamine, monoethanolamine, N-(β-aminoethyl) ethanolamine, hexamethylenediamine, diethylenetriamine, triethylenetetramine, anhydrous piperazine, piperazine hexahydrate, 1-(2-aminoethyl)piperazine, N-methylpiperazine, guanidine, imidazole and triazole, and wherein the polishing composition is used for polishing a silicon wafer provided with a hard laser mark. and is selected amonq polystyrene sulfonic acid or a salt thereof, polyvinyl benzoic acid or a salt thereof, a styrene-styrene sulfonic acid copolymer, a styrene-maleic acid copolymer, a styrene-maleic anhydride copolymer, a styrene sulfonic acid-maleic acid copolymer, a copolymer of styrene sulfonic acid salt and maleic acid, a styrene- (meth)acrylic acid copolymer, a styrene sulfonic acid-(meth)acrylic acid copolymer, a copolymer of a styrene sulfonic acid salt and (meth)acrylic acid, and wherein the abrasive is selected among silica particles, alumina particles, ceria particles, titania particles, silicon nitride particles, and polymethyl methacrylate (PMMA) particles, and wherein the basic compound is selected from the list consisting of carbonates, hydroxide of alkali metal, quaternary ammonium hydroxide or salts thereof, ammonia, methylamine, dimethylamine, trimethylamine, ethylamine, diethylamine, triethylamine, ethylenediamine, monoethanolamine, N-(β-aminoethyl) ethanolamine, hexamethylenediamine, diethylenetriamine, triethylenetetramine, anhydrous piperazine, piperazine hexahydrate, 1-(2-aminoethyl)piperazine, N-methylpiperazine, guanidine, imidazole and triazole, and wherein the polishing composition is used for polishing a silicon wafer provided with a hard laser mark.
A method for generating fingerprints for audio content information, comprising: generating a frequency representation of the audio content information; wherein the frequency representation represents information about at least a number of frequencies within a time range containing a number of time frames of the audio content information and a level associated with each of said frequencies; selecting at least one area of data points in said frequency representation, wherein said area comprises information about a sub-range of frequencies and a sub-range of time frames of the audio content information; generating a fingerprint for each selected area of data points by applying a trained neural network onto said selected area of data points thereby converting the area of data points into a vector in a metric space. generating a frequency representation of the audio content information; wherein the frequency representation represents information about at least a number of frequencies within a time range containing a number of time frames of the audio content information and a level associated with each of said frequencies; selecting at least one area of data points in said frequency representation, wherein said area comprises information about a sub-range of frequencies and a sub-range of time frames of the audio content information; generating a fingerprint for each selected area of data points by applying a trained neural network onto said selected area of data points thereby converting the area of data points into a vector in a metric space.
An information processing program comprising instructions which, when the program is executed by a computer , cause the computer to perform processing, the processing including: dividing data into a plurality of partial data to store each of the plurality of partial data into an associated data area among a plurality of data areas (A, B) in a database; receiving at least one operation of any one of addition, update, and deletion for at least one data area of the plurality of data areas (A, B); storing, for each of the at least one received operation which is an addition, information regarding the operation of the addition in a data area-specific file associated with the at least one data area in which the at least one addition is performed; storing, for each of the at least one received operation which is either an update or a deletion, information regarding the operation of the update or the deletion in a common file ; executing, in response to a database restart, restoration processing related to the additions in parallel for the plurality of data areas (A, B) on the basis of information regarding the addition operations in the respective data area-specific file associated with each of the plurality of data areas (A, B) ; and executing, after the restoration processing related to the additions, restoration processing related to the updates or the deletions on the basis of the information regarding the operation of the updates or the deletions in the common file . dividing data into a plurality of partial data to store each of the plurality of partial data into an associated data area among a plurality of data areas (A, B) in a database; receiving at least one operation of any one of addition, update, and deletion for at least one data area of the plurality of data areas (A, B); storing, for each of the at least one received operation which is an addition, information regarding the operation of the addition in a data area-specific file associated with the at least one data area in which the at least one addition is performed; storing, for each of the at least one received operation which is either an update or a deletion, information regarding the operation of the update or the deletion in a common file ; executing, in response to a database restart, restoration processing related to the additions in parallel for the plurality of data areas (A, B) on the basis of information regarding the addition operations in the respective data area-specific file associated with each of the plurality of data areas (A, B) ; and executing, after the restoration processing related to the additions, restoration processing related to the updates or the deletions on the basis of the information regarding the operation of the updates or the deletions in the common file .
Method for spreading material for distributing on an agricultural surface by means of a centrifugal spreader , wherein the centrifugal spreader has at least one spreading device , wherein the spreading width covered by the at least one spreading device is divided into a plurality of partial widths , and wherein the spreading quantity of the material for distributing is set, preferably separately, for each partial width of the centrifugal spreader , wherein the amount of material for distributing that is spread by the centrifugal spreader is detected partial width by partial width, characterized in that , upon repeated spreading of a material for distributing over the surface for fertilizing the surface with a partial overlapping of the scattering regions of adjacent tram lines, the previously detected measured values of the spreading quantity are at least partially taken into consideration partial width by partial width during the fertilizing in the overlapping region.
A method for averting a danger, wherein the method is performed by a control apparatus for an unmanned vehicle , and wherein the method comprises: - obtaining multiple pieces of sensor information; - determining , at least partially depending on the obtained pieces of sensor information, whether a danger exists; - determining (303-304), if it is determined that a danger exists, at least one averting measure for averting the danger, wherein the at least one averting measure belongs to a plurality of averting measures which fix the unmanned vehicle or a part of the unmanned vehicle , wherein the at least one averting measure from the plurality of averting measures comprises the following action: triggering a fixation mechanism, and wherein for the fixation mechanism means are provided for anchoring the vehicle to the ground and/or for chaining the unmanned vehicle to a surrounding object; - performing and/or causing the performing of the at least one averting measure. - obtaining multiple pieces of sensor information; - determining , at least partially depending on the obtained pieces of sensor information, whether a danger exists; - determining (303-304), if it is determined that a danger exists, at least one averting measure for averting the danger, wherein the at least one averting measure belongs to a plurality of averting measures which fix the unmanned vehicle or a part of the unmanned vehicle , wherein the at least one averting measure from the plurality of averting measures comprises the following action: triggering a fixation mechanism, and wherein for the fixation mechanism means are provided for anchoring the vehicle to the ground and/or for chaining the unmanned vehicle to a surrounding object; - performing and/or causing the performing of the at least one averting measure.
An automated metallographic system for preparing and analyzing specimens, the system comprising: a programmable controller, a cutting compartment , a mounting device , a polishing station , a microscope, and an analyzer ; wherein_the cutting compartment comprises a sectioning saw for cutting the specimen to expose a cross-section of a coating on the surface of the specimen; wherein_the programmable controller is communicatively coupled to the sectioning saw and operable to control the sectioning saw ; wherein_the mounting device comprises a mold configured to receive the specimen processed at the cutting station , a resin supply , and a mixing head configured to dispense resin from the supply into the mold ; wherein_the analyzer is communicably coupled to a processor and memory, the system is characterized in that : a robotic arm configured to move a specimen within the system; the processor is configured to algorithmically evaluate at least one output obtained by the microscope with regard to the specimen to make a pass/fail determination based upon the evaluation of the coating; and transmit a result of the pass/fail determination. a programmable controller, a cutting compartment , a mounting device , a polishing station , a microscope, and an analyzer ; wherein_the cutting compartment comprises a sectioning saw for cutting the specimen to expose a cross-section of a coating on the surface of the specimen; wherein_the programmable controller is communicatively coupled to the sectioning saw and operable to control the sectioning saw ; wherein_the mounting device comprises a mold configured to receive the specimen processed at the cutting station , a resin supply , and a mixing head configured to dispense resin from the supply into the mold ; wherein_the analyzer is communicably coupled to a processor and memory, the system is characterized in that : a robotic arm configured to move a specimen within the system; the processor is configured to algorithmically evaluate at least one output obtained by the microscope with regard to the specimen to make a pass/fail determination based upon the evaluation of the coating; and transmit a result of the pass/fail determination. wherein_the programmable controller is communicatively coupled to the sectioning saw and operable to control the sectioning saw ; wherein_the mounting device comprises a mold configured to receive the specimen processed at the cutting station , a resin supply , and a mixing head configured to dispense resin from the supply into the mold ; wherein_the analyzer is communicably coupled to a processor and memory, the system is characterized in that : a robotic arm configured to move a specimen within the system; the processor is configured to algorithmically evaluate at least one output obtained by the microscope with regard to the specimen to make a pass/fail determination based upon the evaluation of the coating; and transmit a result of the pass/fail determination.
Cleaning arrangement for a rotatable cleaning member of a vacuum cleaner nozzle wherein the cleaning arrangement being configured and adapted to at least loosen debris entangled to the rotatable cleaning member and characterized in that the cleaning arrangement comprises a cleaning element configured to repeatedly engage and disengage the rotatable cleaning member in the course of operating a cleaning process. the cleaning arrangement being configured and adapted to at least loosen debris entangled to the rotatable cleaning member and characterized in that the cleaning arrangement comprises a cleaning element configured to repeatedly engage and disengage the rotatable cleaning member in the course of operating a cleaning process.
A cylinder housing for an actuator for lifting a bonnet hood in the event of a collision, wherein the actuator includes the cylinder housing fixed to a vehicle body of a vehicle and extending in a center axis line direction, a piston portion accommodated in the cylinder housing to be slidable, a rod portion extending forward in a sliding direction of the piston portion from the piston portion and protruding from the cylinder housing , and a drive source for moving the piston portion forward in the sliding direction, the cylinder housing comprising: a cylindrical cylinder portion extending in the center axis line direction, wherein the cylinder portion includes a first cylinder portion , and a second cylinder portion , and wherein a thickness of the second cylinder portion is larger than a thickness of the first cylinder portion , characterized by a bent portion bent with respect to the cylinder portion and extending inward in a radial direction from an end portion of the cylinder portion , wherein the second cylinder portion is located on the side of the bent portion in the first cylinder portion and is connected to the bent portion , wherein the inner diameter of the second cylinder portion is the same as the inner diameter of the first cylinder portion , wherein the outer diameter of the second cylinder portion is larger than the outer diameter of the first cylinder portion , and wherein a thickness of the bent portion is larger than the thickness of the first cylinder portion . a cylindrical cylinder portion extending in the center axis line direction, wherein the cylinder portion includes a first cylinder portion , and a second cylinder portion , and a first cylinder portion , and a second cylinder portion , and wherein a thickness of the second cylinder portion is larger than a thickness of the first cylinder portion , characterized by a bent portion bent with respect to the cylinder portion and extending inward in a radial direction from an end portion of the cylinder portion , wherein the second cylinder portion is located on the side of the bent portion in the first cylinder portion and is connected to the bent portion , wherein the inner diameter of the second cylinder portion is the same as the inner diameter of the first cylinder portion , wherein the outer diameter of the second cylinder portion is larger than the outer diameter of the first cylinder portion , and wherein a thickness of the bent portion is larger than the thickness of the first cylinder portion .
A computer implemented method for analyzing a condition of a heart of a person or animal, comprising receiving a plurality of electrical signals , which are acquired by non-invasive measurement on the skin of a person or animal, each signal representing electrical activity in a respective region of the heart of the person or animal, wherein the electrical activity contributes to controlling mechanical activation of the heart, and characterized in further comprising calculating a derivative value of each signal at a plurality of time instances, wherein the plurality of time instances is within a time domain of a heartbeat of the heart, and wherein the derivative value is calculated as a slope at a point of a continuous curve, selecting a plurality of the calculated derivative values of a first signal among the plurality of signals and determining at least a first point in time of a first event based on the selected derivative values of the first signal , selecting a plurality of the calculated derivative values of a second signal among the plurality of signals and determining at least a second point in time of a second event, corresponding to the first event, based on the selected derivative values of the second signal , calculating a time difference between the at least first point in time and the at least second point in time , and calculating at least one measure based on said time difference. receiving a plurality of electrical signals , which are acquired by non-invasive measurement on the skin of a person or animal, each signal representing electrical activity in a respective region of the heart of the person or animal, wherein the electrical activity contributes to controlling mechanical activation of the heart, and characterized in further comprising calculating a derivative value of each signal at a plurality of time instances, wherein the plurality of time instances is within a time domain of a heartbeat of the heart, and wherein the derivative value is calculated as a slope at a point of a continuous curve, selecting a plurality of the calculated derivative values of a first signal among the plurality of signals and determining at least a first point in time of a first event based on the selected derivative values of the first signal , selecting a plurality of the calculated derivative values of a second signal among the plurality of signals and determining at least a second point in time of a second event, corresponding to the first event, based on the selected derivative values of the second signal , calculating a time difference between the at least first point in time and the at least second point in time , and calculating at least one measure based on said time difference.
A method, comprising: determining channel state information at a wireless access point, AP, corresponding to a wireless station, STA, comprising determining using a plurality of angle of arrival, AoA, antennas at the AP: i) a channel stability measurement corresponding to the AP and the STA and ii) a delay spread measurement corresponding to the AP and the STA; determining, at the AP based on the channel state information comprising the channel stability measurement and the delay spread measurement, one or more fine timing measurement, FTM, parameters; and transmitting, based on the one or more FTM parameters, a plurality of FTM messages between the AP and the STA, wherein the STA is configured to determine an estimated range to the AP based on the plurality of FTM messages. determining channel state information at a wireless access point, AP, corresponding to a wireless station, STA, comprising determining using a plurality of angle of arrival, AoA, antennas at the AP: i) a channel stability measurement corresponding to the AP and the STA and ii) a delay spread measurement corresponding to the AP and the STA; determining, at the AP based on the channel state information comprising the channel stability measurement and the delay spread measurement, one or more fine timing measurement, FTM, parameters; and transmitting, based on the one or more FTM parameters, a plurality of FTM messages between the AP and the STA, wherein the STA is configured to determine an estimated range to the AP based on the plurality of FTM messages.