mhurhangee/patent-ind-claim-en huggingface dataset:
A spinach plant comprising an R15 resistance conferring allele, wherein said allele confers resistance to at least Peronospora farinosa f. sp. spinaciae races Pfs:1, Pfs:2, Pfs:3, Pfs:4, Pfs:5, Pfs:6, Pfs:9, Pfs:11, Pfs:12, Pfs:13, Pfs:14, Pfs:15 and isolate UA1014 and does not confer resistance to Peronospora farinosa f. sp. spinaciae race Pfs:7, wherein said allele is the same as the allele as found in a plant grown from a seed of which a representative sample was deposited with the NCIMB under NCIMB accession number 42466, and wherein the spinach plant comprises the R15 resistance conferring allele heterozygously, wherein the heterozygous presence of said allele further confers at least intermediate resistance to Peronospora farinosa f. sp. spinaciae races Pfs:8 and Pfs:10, or comprises the R15 resistance conferring allele homozygously, wherein the homozygous presence of said allele further confers resistance to Peronospora farinosa f. sp. spinaciae race Pfs:8 and intermediate resistance to Peronospora farinosa f. sp. spinaciae race Pfs:10.
A method for controlling by a server called secure server the use by a process entity operated by a service provider of a first set of at least one data element of a data owner provided by a communication device to the process entity, the secure sever being operated by a third party trusted by the data owner and independent from the service provider operating the process entity, the method being suitable to be implemented by the secure server and comprising the steps of: - receiving at least one digital signature representative of a process authorized by the data owner and adapted to carry out a series of at least one instruction using the first set of at least one data element; - receiving , from the process entity the series of at least one instruction, and a ciphered version of the first set of at least one data element which is communicated to the process entity by the communication device ; - verifying that the series of at least one instruction correspond to a process authorized by the data owner of the communication device by comparing the at least one digital signature received by the secure server with a digital signature obtained by the secure server using as an input the series of at least one instruction received by the secure server ; - and if the series of at least one instruction correspond to an authorized process: i. deciphering the first set of at least one data element; ii. generating a result data by executing the series of at least one instruction using the first set of at least one data element as an input; iii. transmitting the result data to the process entity . - receiving at least one digital signature representative of a process authorized by the data owner and adapted to carry out a series of at least one instruction using the first set of at least one data element; - receiving , from the process entity the series of at least one instruction, and a ciphered version of the first set of at least one data element which is communicated to the process entity by the communication device ; - verifying that the series of at least one instruction correspond to a process authorized by the data owner of the communication device by comparing the at least one digital signature received by the secure server with a digital signature obtained by the secure server using as an input the series of at least one instruction received by the secure server ; - and if the series of at least one instruction correspond to an authorized process: i. deciphering the first set of at least one data element; ii. generating a result data by executing the series of at least one instruction using the first set of at least one data element as an input; iii. transmitting the result data to the process entity . i. deciphering the first set of at least one data element; ii. generating a result data by executing the series of at least one instruction using the first set of at least one data element as an input; iii. transmitting the result data to the process entity .
A radio frequency device comprising a transition unit configured to provide a radio frequency signal transition between a radio frequency hollow waveguide system and a planar transmission line , the radio frequency device comprising a substrate layer arrangement comprising the planar transmission line arranged on a first surface of a first substrate layer of the substrate layer arrangement , whereby the transition unit comprises a transition section of the transmission line that is configured as a radio frequency signal transition pattern, and whereby the transition unit further comprises the waveguide system for radio frequency electromagnetic waves comprising an end section that is attached to the substrate layer arrangement and that superposes the radio frequency signal transition pattern, whereby the transition unit comprises two or more transition sections of a corresponding number of transmission lines that are arranged adjacent to each other, wherein the hollow waveguide system comprises a distribution section wherein one input waveguide is separated into one dedicated output waveguide for each of the transition sections , wherein for each of the transition sections of the transmission lines a corresponding end section of a respective output waveguide Z P comprises wall sections made from an electroconductive material and is directed perpendicular to the first surface of the first substrate layer of the substrate layer arrangement , and whereby for each end section an open end of the end section of the waveguide system superposes the corresponding transition section , characterized in that the two or more end sections of the waveguide system are arranged adjacent to each other in order to provide for favorable boundary conditions for electromagnetic wave propagation that result in reduced radio frequency signal power leakage from the transition unit when compared to a transition unit with only one end section of the waveguide system , wherein no additional wall sections made from an electroconductive material that are not part of the end sections of the output waveguides of the waveguide system are provided.
A method of storing a file to prevent unauthorized reconstruction of the file, the method comprising: generating an index of the file; partitioning the file into a plurality of chunks after the index of the file has been generated, storing the plurality of chunks with a plurality of storage providers, wherein the index of the file includes an assigned routing path for each of the plurality of chunks, the assigned routing paths being assigned such that, to restore the file, chunks must be retrieved from at least two of the plurality of storage providers to reassemble the plurality of chunks; and the storing comprises routing each chunk into one of the assigned storage providers through the assigned routing path. generating an index of the file; partitioning the file into a plurality of chunks after the index of the file has been generated, storing the plurality of chunks with a plurality of storage providers, wherein the index of the file includes an assigned routing path for each of the plurality of chunks, the assigned routing paths being assigned such that, to restore the file, chunks must be retrieved from at least two of the plurality of storage providers to reassemble the plurality of chunks; and the storing comprises routing each chunk into one of the assigned storage providers through the assigned routing path.
An information processing apparatus , the information processing apparatus being a first information processing apparatus and comprising: an information management unit for categorizing setting information that is obtained as a result of a connection setting process for performing wireless data communication between the first information processing apparatus and a second information processing apparatus as preferred information that is not deleted at a time of an initialization process or as non-preferred information that is deleted at a time of the initialization process, adding a flag to the setting information stored in a storage unit of the information processing apparatus to indicate the non-preferred information or the preferred information, and managing the setting information based on the flag; a connection setting processing unit for performing the connection setting process for performing the wireless data communication with the second information processing apparatus ; and an initialization processing unit for performing the initialization process, wherein the information management unit is adapted to categorize setting information that is obtained as a result of the connection setting process with the second information processing apparatus by the connection setting processing unit as the preferred information that is not deleted at a time of an initialization process or as the non-preferred information that is deleted at a time of the initialization process, and to manage the setting information. an information management unit for categorizing setting information that is obtained as a result of a connection setting process for performing wireless data communication between the first information processing apparatus and a second information processing apparatus as preferred information that is not deleted at a time of an initialization process or as non-preferred information that is deleted at a time of the initialization process, adding a flag to the setting information stored in a storage unit of the information processing apparatus to indicate the non-preferred information or the preferred information, and managing the setting information based on the flag; a connection setting processing unit for performing the connection setting process for performing the wireless data communication with the second information processing apparatus ; and an initialization processing unit for performing the initialization process, wherein the information management unit is adapted to categorize setting information that is obtained as a result of the connection setting process with the second information processing apparatus by the connection setting processing unit as the preferred information that is not deleted at a time of an initialization process or as the non-preferred information that is deleted at a time of the initialization process, and to manage the setting information.
A method for implementation by one or more data processors forming part of at least one computing system comprising: receiving, by at least one data processor, a first signal received on a plurality of antennas and comprising multiple transmission signals transmitted simultaneously on at least a same resource element in an orthogonal frequency-division multiple access OFDM communications system; determining, using at least one data processor , a final estimate of the multiple transmission signals from at least the received first signal (y) by iteratively estimating multiple transmission signals ( X̂ ) from the first signal, forming an error signal vector ( E ) using the received first signal and a channel estimate ( G Herm ), selecting a predetermined number ( K pre ) of lowest error symbols in the estimated multiple transmission signals by using the error signal vector, and feeding back the selected estimated multiple transmission signals, which satisfy a criterion, to cancel symbols of the first signal corresponding to the selected predetermined number of lowest error symbols in the estimated multiple transmission signals; and providing, using at least one data processor, the estimated multiple transmission signals, the final estimate comprising the selected estimated multiple transmission signals that are selected at a plurality of iterations (X̂ find ( i selected )). receiving, by at least one data processor, a first signal received on a plurality of antennas and comprising multiple transmission signals transmitted simultaneously on at least a same resource element in an orthogonal frequency-division multiple access OFDM communications system; determining, using at least one data processor , a final estimate of the multiple transmission signals from at least the received first signal (y) by iteratively estimating multiple transmission signals ( X̂ ) from the first signal, forming an error signal vector ( E ) using the received first signal and a channel estimate ( G Herm ), selecting a predetermined number ( K pre ) of lowest error symbols in the estimated multiple transmission signals by using the error signal vector, and feeding back the selected estimated multiple transmission signals, which satisfy a criterion, to cancel symbols of the first signal corresponding to the selected predetermined number of lowest error symbols in the estimated multiple transmission signals; and providing, using at least one data processor, the estimated multiple transmission signals, the final estimate comprising the selected estimated multiple transmission signals that are selected at a plurality of iterations (X̂ find ( i selected )).
A refrigeration cycle apparatus, comprising a refrigerant circuit configured to circulate refrigerant, the refrigerant circuit comprising a compressor , a load-side heat exchanger , an expansion device , and a heat source-side heat exchanger , as the refrigerant, the refrigeration cycle apparatus employing an HFO-based refrigerant having a critical point of less than 70 degrees C or a mixed refrigerant including the HFO-based refrigerant having the critical point of less than 70 degrees C in the refrigerant circuit, the load-side heat exchanger and the heat source-side heat exchanger each comprising tubes with inner grooves, each of the tubes having the inner grooves extending obliquely with respect to a direction of an axis of each of the tubes , and inner fins each being formed between the inner grooves , wherein a first relationship of θ1 <θ2 is satisfied and wherein at least one of a second relationship, and a third relationship described below is also satisfied: the second relationship of α1>α2; and the third relationship of H1 >H2; where α1 and α2 represent a lead angle of each of the inner grooves of the load-side heat exchanger and a lead angle of each of the inner grooves of the heat source-side heat exchanger , respectively, H1 and H2 represent a height of each of the inner fins of the load-side heat exchanger and a height of each of the inner fins of the heat source-side heat exchanger , respectively, and θ1 and θ2 represent an apex angle of each of the inner fins of the load-side heat exchanger and an apex angle of each of the inner fins of the heat source-side heat exchanger , respectively. the second relationship of α1>α2; and the third relationship of H1 >H2; where α1 and α2 represent a lead angle of each of the inner grooves of the load-side heat exchanger and a lead angle of each of the inner grooves of the heat source-side heat exchanger , respectively, H1 and H2 represent a height of each of the inner fins of the load-side heat exchanger and a height of each of the inner fins of the heat source-side heat exchanger , respectively, and θ1 and θ2 represent an apex angle of each of the inner fins of the load-side heat exchanger and an apex angle of each of the inner fins of the heat source-side heat exchanger , respectively.
A colored optical fiber , which comprises a primary coating layer and a secondary coating layer , wherein either one of the primary coating layer or the secondary coating layer is colored; characterized in that both coating layers have equilibrium elastic moduli of 60 MPa or less; and the secondary coating layer has a relaxation modulus of 410 MPa or more, wherein the relaxation modulus is the elastic modulus calculated from the tensile stress on the secondary coating layer , which is obtained by heating the secondary coating layer to a temperature higher than the glass transition temperature of the secondary coating layer under no stress, gradually cooling at a rate of 1°C/min while adding tensile strain at a rate of 0.02%/min so that the tensile strain becomes 2% when cooled to room temperature, and leaving for 300 minutes while holding the tensile strain at 2%.
Pneumatic brake booster having a booster housing , having at least one vacuum chamber and at least one working chamber which are provided in the booster housing and which are pneumatically separated from one another by an elastic diaphragm , wherein the diaphragm bears in regions against a substantially circular diaphragm plate which is axially displaceable in the booster housing between a zero position (N) and a maximum stroke (M), wherein an axial spacing between the zero position (N) and the maximum stroke (M) defines a stroke range (H) of the brake booster , wherein the diaphragm has a rolling fold which, during the displacement of the diaphragm plate , rolls on a rolling region on an inner wall of the booster housing , characterized in that the booster housing has, in the rolling region , a tapered, conical portion with a cone angle (α) ≥ 8° and an axial extent (A) > 1/3 * stroke range (H).
Composition containing an isocyanate component A) comprising at least one cycloaliphatic or araliphatic diisocyanate, a polyol component B) comprising at least one polyol having an OH number of 80 to 1000 mg KOH/g, an additive component C) comprising at least one internal demoulding agent, wherein the demoulding agent is at least one mono- and/or dialkyl phosphate having 8 to 12 carbon atoms in the alkyl radical, and a catalyst component D) comprising at least one inorganic metal complex compound as a thermolatent catalyst, characterized in that the thermolatent catalyst has a quotient of the reaction rates between catalysed reaction and uncatalysed reaction of ≤ 5.0 at 30°C and of ≥ 1.1 at 60°C, wherein said quotient is determined in a model reaction between a hexamethylene diisocyanate-based isocyanurate and 2-ethylhexanol performed in a dry nitrogen atmosphere, in which isocyanate groups and hydroxyl groups are present in an equimolar ratio; the catalyst concentration is between 160 and 200 μmol of metal atom per kg of polyisocyanate; and the concentration of the isocyanate groups is determined according to DIN 53 185 at the time of mixing and after 2 hours at 30°C. isocyanate component A) comprising at least one cycloaliphatic or araliphatic diisocyanate, a polyol component B) comprising at least one polyol having an OH number of 80 to 1000 mg KOH/g, an additive component C) comprising at least one internal demoulding agent, wherein the demoulding agent is at least one mono- and/or dialkyl phosphate having 8 to 12 carbon atoms in the alkyl radical, and a catalyst component D) comprising at least one inorganic metal complex compound as a thermolatent catalyst, characterized in that the thermolatent catalyst has a quotient of the reaction rates between catalysed reaction and uncatalysed reaction of ≤ 5.0 at 30°C and of ≥ 1.1 at 60°C, wherein said quotient is determined in a model reaction between a hexamethylene diisocyanate-based isocyanurate and 2-ethylhexanol performed in a dry nitrogen atmosphere, in which isocyanate groups and hydroxyl groups are present in an equimolar ratio; the catalyst concentration is between 160 and 200 μmol of metal atom per kg of polyisocyanate; and the concentration of the isocyanate groups is determined according to DIN 53 185 at the time of mixing and after 2 hours at 30°C.
A data generation system for generating data representing content to be displayed, the system comprising: a content dividing unit operable to divide content to be displayed into a plurality of polyhedra and generate polyhedron position information and polyhedron identification information for each of the polyhedra; an intersection detecting unit operable to generate intersection information that describes the intersection of one or more surfaces within the content with the plurality of polyhedra; a polyhedron classifying unit operable to classify each of the polyhedra in dependence upon the intersection information, the classification indicating the properties of the surface within the respective polyhedra; a data generating unit operable to generate data comprising the polyhedron position information, polyhedron identification information, and the polyhedron classification information characterised by a group of pictures generation unit operable to generate key frames and predicted frames to store the generated data, wherein key frames comprise polyhedron position information, polyhedron identification information, and polyhedron classification information, and wherein predicted frames comprise polyhedron identification information, position change information indicating a difference in polyhedron position information between frames, and polyhedron classification change information indicating a change in polyhedron classification information between frames. a content dividing unit operable to divide content to be displayed into a plurality of polyhedra and generate polyhedron position information and polyhedron identification information for each of the polyhedra; an intersection detecting unit operable to generate intersection information that describes the intersection of one or more surfaces within the content with the plurality of polyhedra; a polyhedron classifying unit operable to classify each of the polyhedra in dependence upon the intersection information, the classification indicating the properties of the surface within the respective polyhedra; a data generating unit operable to generate data comprising the polyhedron position information, polyhedron identification information, and the polyhedron classification information characterised by a group of pictures generation unit operable to generate key frames and predicted frames to store the generated data, wherein key frames comprise polyhedron position information, polyhedron identification information, and polyhedron classification information, and wherein predicted frames comprise polyhedron identification information, position change information indicating a difference in polyhedron position information between frames, and polyhedron classification change information indicating a change in polyhedron classification information between frames.
A combination comprising spirulina and palmitoylethanolamide and/or pharmaceutically acceptable salts thereof, wherein the percentages of spirulina and palmitoylethanolamide are, respectively: 65% and 35%, or 55% and 45%, or 70% and 30 %, or 35% and 65%, or 40% and 60%, wherein the said percentages refer to the total weight of the combination.