mhurhangee/ep-ind-claims huggingface dataset:
Device for calibrating a measuring apparatus for measuring a measurement object extending along a region in meters in space, the measuring apparatus having a recording region which records the entire measurement object, the device comprising: - a computer instrument; - a light projector configured to project different calibration patterns (Mi) into the recording region of the measuring apparatus on a planar wall or planar surface; and - the measuring apparatus configured to record the different calibration patterns (Mi); characterized in that the device comprises a polarizer or a beam splitter, the polarizer or the beam splitter being configured to produce at least two calibration patterns (M1, M2) laterally spatially displaced with respect to one another by a beam offset providing a measurement reference, the beam offset corresponding to a distance between two parallel beams that emerge from the device, and the device being configured to use the beam offset as a base distance for calibrating the lateral dimensions of the measuring apparatus. - a computer instrument; - a light projector configured to project different calibration patterns (Mi) into the recording region of the measuring apparatus on a planar wall or planar surface; and - the measuring apparatus configured to record the different calibration patterns (Mi);
A gas turbine engine (10, 200, 300, 400, 500, 600, 700, 800), comprising: a first shaft coupled to a first turbine (204, 506) and a first compressor (206, 608); a second shaft coupled to a second turbine and a second compressor; a third shaft coupled to a third turbine and a fan assembly (218, 306, 318, 414, 416); a closed loop system (222, 314); a heat rejection heat exchanger (220, 402) configured to reject heat from the closed loop system (222, 314) with air passed from the fan assembly (218, 306, 318, 414, 416); a combustor positioned to receive compressed air from the second compressor as a core stream (226, 320, 418); wherein the closed-loop system (222, 314) includes the first, second, and third turbines (204, 210, 216, 506) and the first compressor (206, 608) and receives energy input from the combustor. a first shaft coupled to a first turbine (204, 506) and a first compressor (206, 608); a second shaft coupled to a second turbine and a second compressor; a third shaft coupled to a third turbine and a fan assembly (218, 306, 318, 414, 416); a closed loop system (222, 314); a heat rejection heat exchanger (220, 402) configured to reject heat from the closed loop system (222, 314) with air passed from the fan assembly (218, 306, 318, 414, 416); a combustor positioned to receive compressed air from the second compressor as a core stream (226, 320, 418); wherein the closed-loop system (222, 314) includes the first, second, and third turbines (204, 210, 216, 506) and the first compressor (206, 608) and receives energy input from the combustor.
A controller for performing presence detection with a first sensor system (41,42) and a second sensor system, said second sensor system being of a different type than said first sensor system (41,42), said controller comprising: at least one input interface; at least one output interface; and at least one processor configured to: - use said at least one input interface to receive sensor signals from said first sensor system (41,42) and said second sensor system, - determine which first one or more areas of a plurality of areas are in both said sensor range of said first sensor system (41,42) and said sensor range of said second sensor system based on said sensor signals, and - use said at least one output interface to control said second sensor system to perform, with respect to said first one or more areas, a second task other than a first task to be performed by said first sensor system (41,42), said first task comprising obtaining sensor data to be used for presence detection in said first one or more areas. at least one input interface; at least one output interface; and at least one processor configured to: - use said at least one input interface to receive sensor signals from said first sensor system (41,42) and said second sensor system, - determine which first one or more areas of a plurality of areas are in both said sensor range of said first sensor system (41,42) and said sensor range of said second sensor system based on said sensor signals, and - use said at least one output interface to control said second sensor system to perform, with respect to said first one or more areas, a second task other than a first task to be performed by said first sensor system (41,42), said first task comprising obtaining sensor data to be used for presence detection in said first one or more areas. - use said at least one input interface to receive sensor signals from said first sensor system (41,42) and said second sensor system, - determine which first one or more areas of a plurality of areas are in both said sensor range of said first sensor system (41,42) and said sensor range of said second sensor system based on said sensor signals, and - use said at least one output interface to control said second sensor system to perform, with respect to said first one or more areas, a second task other than a first task to be performed by said first sensor system (41,42), said first task comprising obtaining sensor data to be used for presence detection in said first one or more areas.
A data recovery method performed by a management node in a cloud storage system, wherein the cloud storage system further comprises a storage node, the method comprising: constructing a blank metadata database, and setting the metadata database to an inaccessible state; reading backup data of configuration data, and adding the backup data to the metadata database, wherein the configuration data refers to basic configuration information of the cloud storage system; obtaining index data of data stored in the storage node, and adding the index data to the metadata database, wherein the index data refers to address information of a resource that is written by a user and stored in the cloud storage system; and setting the metadata database to an accessible state, so as to cause the metadata database to resume service, wherein obtaining index data of data stored in the storage node, and adding the index data to the metadata database, comprises: reading and analyzing an index export file stored in the storage node, wherein the index export file stores information of the index data of the data stored in the storage node; generating the index data of the data stored in the storage node according to an analyzed result; and adding the index data to the metadata database. constructing a blank metadata database, and setting the metadata database to an inaccessible state; reading backup data of configuration data, and adding the backup data to the metadata database, wherein the configuration data refers to basic configuration information of the cloud storage system; obtaining index data of data stored in the storage node, and adding the index data to the metadata database, wherein the index data refers to address information of a resource that is written by a user and stored in the cloud storage system; and setting the metadata database to an accessible state, so as to cause the metadata database to resume service, wherein obtaining index data of data stored in the storage node, and adding the index data to the metadata database, comprises: reading and analyzing an index export file stored in the storage node, wherein the index export file stores information of the index data of the data stored in the storage node; generating the index data of the data stored in the storage node according to an analyzed result; and adding the index data to the metadata database. reading and analyzing an index export file stored in the storage node, wherein the index export file stores information of the index data of the data stored in the storage node; generating the index data of the data stored in the storage node according to an analyzed result; and adding the index data to the metadata database.
An image processing apparatus comprising: a decoding section configured to decode an encoded stream to generate a decoded image; a determination section (110, 120) configured to determine whether to apply an extended strong filter, the extended strong filter being a deblocking filter in which an application range of the deblocking filter is extended to an extended application range, to pixels positioned near a block boundary of the decoded image generated by the decoding section, in accordance with a state of pixels, including at least one of the flatness of pixel values, the continuity of pixel values and the amount of change of pixel values, included in the extended application range; and a filtering section configured to apply the extended strong filter to pixels for which the determination section determines to apply the extended strong filter; characterised in that the filtering section applies the extended strong filter having filter coefficients obtained by combining filter coefficients related to a low-frequency component of the pixel values and filter coefficients related to a high-frequency component of the pixel values; wherein the filter coefficients related to the low-frequency component are filter coefficients with strong low-frequency characteristics and the filter coefficients related to the high-frequency component are filter coefficients with weak low-frequency characteristics. a decoding section configured to decode an encoded stream to generate a decoded image; a determination section (110, 120) configured to determine whether to apply an extended strong filter, the extended strong filter being a deblocking filter in which an application range of the deblocking filter is extended to an extended application range, to pixels positioned near a block boundary of the decoded image generated by the decoding section, in accordance with a state of pixels, including at least one of the flatness of pixel values, the continuity of pixel values and the amount of change of pixel values, included in the extended application range; and a filtering section configured to apply the extended strong filter to pixels for which the determination section determines to apply the extended strong filter; characterised in that the filtering section applies the extended strong filter having filter coefficients obtained by combining filter coefficients related to a low-frequency component of the pixel values and filter coefficients related to a high-frequency component of the pixel values; wherein the filter coefficients related to the low-frequency component are filter coefficients with strong low-frequency characteristics and the filter coefficients related to the high-frequency component are filter coefficients with weak low-frequency characteristics.
Organic molecule, comprising a structure of formula 1 where: AF1: a first chemical unit, comprising a conjugated system; AF2: a second chemical unit, comprising a conjugated system, with AF1 ≠ AF2; separator is a chemical unit, which connects AF1 and AF2; where the separator comprises a structure of formula 2 where the attachment position for the chemical units AF1 and AF2 is characterized by the placeholder #, X = #, CH 2 #, or p' = 0 or 1; q = 0 or 1; where p' ≠ q; where the chemical unit AF1 is selected from the group of the following structures, which comprise optionally at least one substituent: where #, ##: possible attachment positions to the separator; and where the chemical unit AF2 independently of each other is selected from the group of the following structures, which optionally comprise at least one substituent: and where: #, ##: possible attachment positions to the separator. AF1: a first chemical unit, comprising a conjugated system; AF2: a second chemical unit, comprising a conjugated system, with AF1 ≠ AF2; separator is a chemical unit, which connects AF1 and AF2; where the separator comprises a structure of formula 2 where the attachment position for the chemical units AF1 and AF2 is characterized by the placeholder #, X = #, CH 2 #, or p' = 0 or 1; q = 0 or 1; where p' ≠ q; where the chemical unit AF1 is selected from the group of the following structures, which comprise optionally at least one substituent: #, ##: possible attachment positions to the separator; and where the chemical unit AF2 independently of each other is selected from the group of the following structures, which optionally comprise at least one substituent: #, ##: possible attachment positions to the separator.
A vacuum cell apparatus for an atomic sensor, the apparatus comprising: a cell wall encircling an enclosed volume, the cell wall having a first open end and a second open end opposite from the first open end; a first panel over the first open end of the cell wall and having a first surface, the first surface facing the enclosed volume and having a first set of diffractive optics therein; and a second panel over to the second open end of the cell wall and having a second surface, the second surface facing the enclosed volume and having a second set of diffractive optics therein; wherein the first set of diffractive optics and the second of diffractive optics are configured to reflect at least one optical beam within the enclosed volume along a predetermined optical path. a cell wall encircling an enclosed volume, the cell wall having a first open end and a second open end opposite from the first open end; a first panel over the first open end of the cell wall and having a first surface, the first surface facing the enclosed volume and having a first set of diffractive optics therein; and a second panel over to the second open end of the cell wall and having a second surface, the second surface facing the enclosed volume and having a second set of diffractive optics therein; wherein the first set of diffractive optics and the second of diffractive optics are configured to reflect at least one optical beam within the enclosed volume along a predetermined optical path.
A method of manufacturing a multi physical properties part, the method comprising: forming a single heated steel by using two or more separated die sets, or positioning a single heated formed article, in particular made of steel, in two or more separated die sets; and then manufacturing the single heated steel or the single heated formed article, respectively, into a multi physical properties part including two or more regions having different physical properties by differing cooling conditions in the respective die set, wherein a critical cooling rate, a minimum cooling rate able to form a martensite phase in a continuous cooling transformation curve, of the steel or the article, respectively, is greater than 50 °C/s and less than 600 °C/s wherein the method further comprises: forming and pre-quenching the steel by using two or more separated die sets, after heating the steel above an Ac3 transformation point; air cooling a region to obtain a relatively low-strength region, in which the die set and a formed article are not allowed to be in contact with each other, and then post-quenching while the die set and the formed article are in contact with each other again; and die quenching a region to obtain a relatively high-strength region, in which the die set and the formed article are continuously in contact with each other after the forming and pre-quenching, and wherein martensite is formed to 80 vol% or more in the high-strength region, and one or more of ferrite, bainite, and pearlite or one or more of ferrite, bainite, and pearlite and 50 vol% or less of martensite are formed in the low-strength region. forming a single heated steel by using two or more separated die sets, or positioning a single heated formed article, in particular made of steel, in two or more separated die sets; and then manufacturing the single heated steel or the single heated formed article, respectively, into a multi physical properties part including two or more regions having different physical properties by differing cooling conditions in the respective die set, wherein a critical cooling rate, a minimum cooling rate able to form a martensite phase in a continuous cooling transformation curve, of the steel or the article, respectively, is greater than 50 °C/s and less than 600 °C/s forming and pre-quenching the steel by using two or more separated die sets, after heating the steel above an Ac3 transformation point; air cooling a region to obtain a relatively low-strength region, in which the die set and a formed article are not allowed to be in contact with each other, and then post-quenching while the die set and the formed article are in contact with each other again; and die quenching a region to obtain a relatively high-strength region, in which the die set and the formed article are continuously in contact with each other after the forming and pre-quenching, and wherein martensite is formed to 80 vol% or more in the high-strength region, and one or more of ferrite, bainite, and pearlite or one or more of ferrite, bainite, and pearlite and 50 vol% or less of martensite are formed in the low-strength region.
A compound of formula, wherein R 1, R 2, and R 3 are each independently selected from the group consisting of hydrogen, alkylenyl, alkenylenyl, alkynylenyl, alkyl, alkenyl, and alkynyl, wherein said alkylenyl, alkenylenyl, alkynylenyl, alkyl, alkenyl, and alkynyl are each independently, at each occurrence, substituted or unsubstituted with one or more suitable substituents; k, l, and m are each independently an integer selected from the group consisting of 0 to 25, wherein k + I + m is > 0; and x, y, and z are each independently an integer selected from the group consisting of 0 and 1, wherein x + y + z is 1; provided that: when x is 0, R 1 is hydrogen, alkyl, alkenyl, or alkynyl; and when x is 1, R 1 is alkylenyl, alkenylenyl, or alkynylenyl; when y is 0, R 2 is hydrogen, alkyl, alkenyl, or alkynyl; and when y is 1, R 2 is alkylenyl, alkenylenyl, or alkynylenyl; when z is 0, R 3 is hydrogen, alkyl, alkenyl, or alkynyl; and when z is 1, R 3 is alkylenyl, alkenylenyl, or alkynylenyl. R 1, R 2, and R 3 are each independently selected from the group consisting of hydrogen, alkylenyl, alkenylenyl, alkynylenyl, alkyl, alkenyl, and alkynyl, wherein said alkylenyl, alkenylenyl, alkynylenyl, alkyl, alkenyl, and alkynyl are each independently, at each occurrence, substituted or unsubstituted with one or more suitable substituents; k, l, and m are each independently an integer selected from the group consisting of 0 to 25, wherein k + I + m is > 0; and x, y, and z are each independently an integer selected from the group consisting of 0 and 1, wherein x + y + z is 1; provided that: when x is 0, R 1 is hydrogen, alkyl, alkenyl, or alkynyl; and when x is 1, R 1 is alkylenyl, alkenylenyl, or alkynylenyl; when y is 0, R 2 is hydrogen, alkyl, alkenyl, or alkynyl; and when y is 1, R 2 is alkylenyl, alkenylenyl, or alkynylenyl; when z is 0, R 3 is hydrogen, alkyl, alkenyl, or alkynyl; and when z is 1, R 3 is alkylenyl, alkenylenyl, or alkynylenyl. when x is 0, R 1 is hydrogen, alkyl, alkenyl, or alkynyl; and when x is 1, R 1 is alkylenyl, alkenylenyl, or alkynylenyl; when y is 0, R 2 is hydrogen, alkyl, alkenyl, or alkynyl; and when y is 1, R 2 is alkylenyl, alkenylenyl, or alkynylenyl; when z is 0, R 3 is hydrogen, alkyl, alkenyl, or alkynyl; and when z is 1, R 3 is alkylenyl, alkenylenyl, or alkynylenyl.
A pharmaceutical composition comprising dicycloplatin for use in a method of treating or preventing a disease in a subject, wherein the disease is selected from the group consisting of rheumatoid arthritis, gout, lupus, osteoporosis, psoriasis, prostatitis, benign prostatic hyperplasia, multiple sclerosis, coeliac disease, Sjogren gren's syndrome, Hashimoto's thyroiditis, Graves' disease and graft-versus-host disease (GVHD).
Disk colter for an agricultural implement, in particular a sowing machine and/or a soil tillage implement, comprising at least one colter holder, at least one disk rotatably mounted on the colter holder, and at least two scraper elements, each of which is assigned to one side of the disk, at least two scraper elements being combined to form a scraper assembly, preferably U-shaped, and the scraper elements being designed to be compressible against the disk by means of at least one tensioning device, preferably with adjustable pressure, and the tensioning device being set up by means of at least one spring element to automatically adjust the pressure exerted by the scraper elements on the disk, characterized in that at least two of the scraper elements of a scraper assembly can be inserted into one another, preferably detachably.
A method performed by a base station of a radio network, for supporting a D2D communication between a first wireless device and a second wireless device over a relay, the method comprising: - receiving from the first wireless device an identity of a candidate relay wireless device and a first quality metric (G eq) pertaining to a first relay link between the first wireless device and the candidate relay wireless device and to a second relay link between the second wireless device and the candidate relay wireless device, - obtaining a second quality metric pertaining to a D2D link between the first wireless device and the second wireless device, - obtaining a third quality metric (G1BS) pertaining to a cellular link between the base station and the first wireless device, - when the first quality metric (G eq) indicates a better link quality than both the second quality metric and the third quality metric (G1BS), selecting a relay mode for the D2D communication with the candidate relay wireless device acting as the relay, and - instructing the first wireless device, the second wireless device and the candidate relay wireless device to communicate according to the relay mode. - receiving from the first wireless device an identity of a candidate relay wireless device and a first quality metric (G eq) pertaining to a first relay link between the first wireless device and the candidate relay wireless device and to a second relay link between the second wireless device and the candidate relay wireless device, - obtaining a second quality metric pertaining to a D2D link between the first wireless device and the second wireless device, - obtaining a third quality metric (G1BS) pertaining to a cellular link between the base station and the first wireless device, - when the first quality metric (G eq) indicates a better link quality than both the second quality metric and the third quality metric (G1BS), selecting a relay mode for the D2D communication with the candidate relay wireless device acting as the relay, and - instructing the first wireless device, the second wireless device and the candidate relay wireless device to communicate according to the relay mode.
A method for producing a protective gear, in which a mesh covering the entire facial portion of the head is used, the mesh is shaped to enclose one's head entirely and is extended in length to cover the neck, at least one cutout is made in the mesh matching the shape of spectacle lenses, characterized in that the edge of the cutout the mesh is connected to an elastic material in which a recess is provided, the size of the recess is selected to be sufficient for the outer edge of the lens to be inserted therein.