mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a film comprising a non-magnetic matrix and a plurality of three-dimensional magnetic microstructures organised within said matrix in a predetermined pattern, comprising the steps of: - providing a substrate , called the master substrate, comprising a face , called the magnetically structured face, composed of a plurality of magnetic field micro-sources , having a magnetic field gradient of between 10 2 and 10 6 T/m, - providing magnetic micro- or nano-particles on the magnetically structured face of said master substrate, said particles agglomerating into organised three-dimensional microstructures under the effect of the attractive magnetophoretic force exerted by the magnetic field gradient at the surface of the master substrate, - depositing a matrix of a non-magnetic material on the magnetically structured face of the master substrate and on the organised three-dimensional microstructures, so as to enclose said organised microstructures and form said film , - delaminating said film from the master substrate. - providing a substrate , called the master substrate, comprising a face , called the magnetically structured face, composed of a plurality of magnetic field micro-sources , having a magnetic field gradient of between 10 2 and 10 6 T/m, - providing magnetic micro- or nano-particles on the magnetically structured face of said master substrate, said particles agglomerating into organised three-dimensional microstructures under the effect of the attractive magnetophoretic force exerted by the magnetic field gradient at the surface of the master substrate, - depositing a matrix of a non-magnetic material on the magnetically structured face of the master substrate and on the organised three-dimensional microstructures, so as to enclose said organised microstructures and form said film , - delaminating said film from the master substrate.
A bogie, comprising a frame , an axle box and a bolster , whereby the frame comprises two parallel side beams and a cross beam coupled to the middle of the side beams , a primary suspension is arranged between an end of the side beam and the axle box , a secondary suspension is arranged below the bolster and between the bolster and the cross beam , a tertiary suspension that can be coupled to a vehicle body is arranged above the bolster , two ends of the secondary suspension are respectively connected to the bolster and the cross beam , characterised in that the secondary suspension only functions to handle rotation around a vertical axis, and the tertiary suspension only functions to handle a transverse displacement which is defined as a horizontal displacement perpendicular to a traveling direction of a vehicle. whereby the frame comprises two parallel side beams and a cross beam coupled to the middle of the side beams , a primary suspension is arranged between an end of the side beam and the axle box , a secondary suspension is arranged below the bolster and between the bolster and the cross beam , a tertiary suspension that can be coupled to a vehicle body is arranged above the bolster , two ends of the secondary suspension are respectively connected to the bolster and the cross beam , characterised in that the secondary suspension only functions to handle rotation around a vertical axis, and the tertiary suspension only functions to handle a transverse displacement which is defined as a horizontal displacement perpendicular to a traveling direction of a vehicle.
A gas turbine engine , comprising: an engine structure ; a towershaft ; and a towershaft support coupled to the engine structure and the towershaft , wherein the towershaft support comprises: a mount support ; and a mounting ring coupled to an aft portion of the mount support radially inward of the mount support , wherein the mounting ring and the mount support create a perimeter around a central void , wherein the mounting ring comprises a mounting flange on an outer diameter of the mounting ring and a fluid passageway on an inner diameter of the mounting ring fixedly coupled to the mounting flange , wherein the fluid passageway comprises an outer wall enclosing an internal passage configured to pass fluid therethrough. an engine structure ; a towershaft ; and a towershaft support coupled to the engine structure and the towershaft , wherein the towershaft support comprises: a mount support ; and a mounting ring coupled to an aft portion of the mount support radially inward of the mount support , wherein the mounting ring and the mount support create a perimeter around a central void , wherein the mounting ring comprises a mounting flange on an outer diameter of the mounting ring and a fluid passageway on an inner diameter of the mounting ring fixedly coupled to the mounting flange , wherein the fluid passageway comprises an outer wall enclosing an internal passage configured to pass fluid therethrough. a mount support ; and a mounting ring coupled to an aft portion of the mount support radially inward of the mount support , wherein the mounting ring and the mount support create a perimeter around a central void , wherein the mounting ring comprises a mounting flange on an outer diameter of the mounting ring and a fluid passageway on an inner diameter of the mounting ring fixedly coupled to the mounting flange , wherein the fluid passageway comprises an outer wall enclosing an internal passage configured to pass fluid therethrough.
Hot beverages machine, in particular fully automatic coffee machine for domestic purposes, - with a heating device, - with a brewing chamber, - with a hot water discharge, and - with a motor driven multi-way valve, with a driven adjustment element , with a plurality of markers having a working areas, and which are distributed around the periphery of the adjustment element , - with an initialization identifier on the adjustment element which differs therefrom, - with a control device for controlling the multi-way valve, - with a detection unit which interacts with the markers and which signals detected markers, and interacts with the initialization identifier and it outputs a control signal which can be evaluated in the control device, characterized in that the working area of at least one of the markers has a cam shape profile, with a step changing cam surface, resulting in a step change of the control signal and in that the initialization identifier and the markers having a cam surface which varies in shape from a rising edge , then a plateau portion and a step edge . - with a heating device, - with a brewing chamber, - with a hot water discharge, and - with a motor driven multi-way valve, with a driven adjustment element , with a plurality of markers having a working areas, and which are distributed around the periphery of the adjustment element , - with an initialization identifier on the adjustment element which differs therefrom, - with a control device for controlling the multi-way valve, - with a detection unit which interacts with the markers and which signals detected markers, and interacts with the initialization identifier and it outputs a control signal which can be evaluated in the control device,
A computation device comprising: an operation unit , a controller unit , a conversion unit , and a storage unit , wherein: the controller unit is configured to acquire first input data and a computation instruction, and to parse the computation instruction to obtain a data conversion instruction and at least one operation instruction, and to transmit the data conversion instruction, the at least one operation instruction, and the first input data to the operation unit ; the conversion unit is configured to convert the first input data into second input data according to an opcode and an opcode field of the data conversion instruction, and to transmit the second input data to the operation unit , wherein the opcode is configured to indicate information of a function of the data conversion instruction, and the opcode field comprises information of a decimal point position of the first input data, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; and the operation unit is configured to perform operations on the second input data according to the at least one operation instruction to obtain a computation result of the computation instruction. the controller unit is configured to acquire first input data and a computation instruction, and to parse the computation instruction to obtain a data conversion instruction and at least one operation instruction, and to transmit the data conversion instruction, the at least one operation instruction, and the first input data to the operation unit ; the conversion unit is configured to convert the first input data into second input data according to an opcode and an opcode field of the data conversion instruction, and to transmit the second input data to the operation unit , wherein the opcode is configured to indicate information of a function of the data conversion instruction, and the opcode field comprises information of a decimal point position of the first input data, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; and the operation unit is configured to perform operations on the second input data according to the at least one operation instruction to obtain a computation result of the computation instruction.
A method, comprising: configuring one or more symbols of a data transmission subframe within a sweeping period as at least one sweeping block of the data transmission subframe, wherein the data transmission subframe has 14 symbols and wherein symbols of the data transmission subframe configured as sweeping blocks are located outside a predefined region of the data transmission subframe; and carrying , in the at least one sweeping block of the data transmission subframe, a sweeping signal channel for transmission, wherein the sweeping signal channel includes at least one signal and a channel to be transmitted through all beams, wherein the sweeping block comprises a downlink sweeping block. configuring one or more symbols of a data transmission subframe within a sweeping period as at least one sweeping block of the data transmission subframe, wherein the data transmission subframe has 14 symbols and wherein symbols of the data transmission subframe configured as sweeping blocks are located outside a predefined region of the data transmission subframe; and carrying , in the at least one sweeping block of the data transmission subframe, a sweeping signal channel for transmission, wherein the sweeping signal channel includes at least one signal and a channel to be transmitted through all beams, wherein the sweeping block comprises a downlink sweeping block.
A wearable device to provide at least one mechanical stimulus to a user with a neurological condition, comprising: at least one stimulating element configured to provide the at least one mechanical stimulus to the user, wherein an output of the at least one stimulating element comprises a pulsed output; a controller configured to control an output of the at least one stimulating element ; and a dissipating portion configured to increase an effective area of a mechanical stimulus provided by the at least one stimulating element ; characterized in that the pulsed output provides a combination of focused vibrotactile stimulation and cueing to the user. at least one stimulating element configured to provide the at least one mechanical stimulus to the user, wherein an output of the at least one stimulating element comprises a pulsed output; a controller configured to control an output of the at least one stimulating element ; and a dissipating portion configured to increase an effective area of a mechanical stimulus provided by the at least one stimulating element ; characterized in that the pulsed output provides a combination of focused vibrotactile stimulation and cueing to the user.
A Compound of Formula I wherein (i) R 1 and R 2 together with the nitrogen atom form a heteroC 3-7 cycloalkyl (e.g., forms an azetidin-1-yl); (ii) R 3 is H or C 1-4 alkyl (e.g., methyl); (iii) R 4 is heteroaryl or aryl (e.g., phenyl) optionally substituted with one or more groups selected from C 1-4 alkyl (e.g., ethyl), C 3-7 cycloalkyl (e.g., cyclopropyl), C 1-4 alkoxy (e.g., methoxy) and haloC 1-4 alkyl (e.g., trifluoromethyl); (iv) R 6 is H or C 1-4 alkyl (e.g., methyl); in free or salt form. (i) R 1 and R 2 together with the nitrogen atom form a heteroC 3-7 cycloalkyl (e.g., forms an azetidin-1-yl); (ii) R 3 is H or C 1-4 alkyl (e.g., methyl); (iii) R 4 is heteroaryl or aryl (e.g., phenyl) optionally substituted with one or more groups selected from C 1-4 alkyl (e.g., ethyl), C 3-7 cycloalkyl (e.g., cyclopropyl), C 1-4 alkoxy (e.g., methoxy) and haloC 1-4 alkyl (e.g., trifluoromethyl); (iv) R 6 is H or C 1-4 alkyl (e.g., methyl);
A refrigerating machine oil comprising: a base oil which is at least one selected from a mineral oil-based base oil and a synthesized oil-based oil, wherein the synthesized oil-based base oil is selected from esters, ethers, poly-α-olefins, ethylene-α-olefin oligomers, alkylbenzenes and alkylnaphthalenes, and wherein the esters are selected from the group consisting of diesters of a dibasic acid and a monohydric alcohol, polyol esters of a polyol and a monocarboxylic acid, and complex esters of a polyol, a polybasic acid and a monohydric alcohol or a monocarboxylic acid; a sulfide compound selected from the group consisting of diphenyl sulfide, dibenzyl sulfide, didecyl sulfide, didodecyl sulfide and thiobisphenol compounds, and a gallate containing an alkyl group having 1 to 18 carbon atoms, wherein a content of the sulfide compound is 0.01 to 2.0% by mass and a content of the gallate is 10 to 500 ppm by mass based on a total amount of the refrigerating machine oil, and the refrigerating machine oil having a kinematic viscosity at 40°C of 3 to 500 mm 2 /s. a base oil which is at least one selected from a mineral oil-based base oil and a synthesized oil-based oil, wherein the synthesized oil-based base oil is selected from esters, ethers, poly-α-olefins, ethylene-α-olefin oligomers, alkylbenzenes and alkylnaphthalenes, and wherein the esters are selected from the group consisting of diesters of a dibasic acid and a monohydric alcohol, polyol esters of a polyol and a monocarboxylic acid, and complex esters of a polyol, a polybasic acid and a monohydric alcohol or a monocarboxylic acid; a sulfide compound selected from the group consisting of diphenyl sulfide, dibenzyl sulfide, didecyl sulfide, didodecyl sulfide and thiobisphenol compounds, and a gallate containing an alkyl group having 1 to 18 carbon atoms, wherein a content of the sulfide compound is 0.01 to 2.0% by mass and a content of the gallate is 10 to 500 ppm by mass based on a total amount of the refrigerating machine oil, and the refrigerating machine oil having a kinematic viscosity at 40°C of 3 to 500 mm 2 /s.
A network slice management method of a mobile communication system, comprising: determining, by a first management unit , subnet requirement information based on network slice requirement information, wherein a network slice comprises at least one subnet; sending, by the first management unit to a second management unit , a first negotiation request for querying for a support status of the second management unit for the subnet requirement information; wherein the first negotiation request comprises the subnet requirement information; receiving, by the first management unit from the second management unit , a negotiation response comprising indication information, wherein the indication information indicates whether the second management unit supports the subnet requirement information or not; and sending, by the first management unit to the second management unit , a subnet request for creation of the subnet or modification of an existing subnet if the indication information indicates that the second management unit supports the subnet requirement information, wherein the subnet request comprises the subnet requirement information; or sending, by the first management unit to the second management unit , a second negotiation request for querying for a support status of the second management unit for updated subnet requirement information if the support status indicates that the second management unit does not support the subnet requirement information; wherein the second negotiation request comprises the updated subnet requirement information. determining, by a first management unit , subnet requirement information based on network slice requirement information, wherein a network slice comprises at least one subnet; sending, by the first management unit to a second management unit , a first negotiation request for querying for a support status of the second management unit for the subnet requirement information; wherein the first negotiation request comprises the subnet requirement information; receiving, by the first management unit from the second management unit , a negotiation response comprising indication information, wherein the indication information indicates whether the second management unit supports the subnet requirement information or not; and sending, by the first management unit to the second management unit , a subnet request for creation of the subnet or modification of an existing subnet if the indication information indicates that the second management unit supports the subnet requirement information, wherein the subnet request comprises the subnet requirement information; or sending, by the first management unit to the second management unit , a second negotiation request for querying for a support status of the second management unit for updated subnet requirement information if the support status indicates that the second management unit does not support the subnet requirement information; wherein the second negotiation request comprises the updated subnet requirement information.
Moisture-crosslinkable sealant composition comprising: - at least one polyurethane P comprising at least two NCO end functions; - at least one polyimine A obtained via a process comprising a step of reaction between at least: a) a (poly)urethane-aldehyde comprising at least 2 aldehyde functions; b) a primary diamine; c) optionally in the presence of a primary monoamine or a monoaldehyde if the -CHO/NH 2 molar ratio is other than 1. - at least one polyurethane P comprising at least two NCO end functions; - at least one polyimine A obtained via a process comprising a step of reaction between at least: a) a (poly)urethane-aldehyde comprising at least 2 aldehyde functions; b) a primary diamine; c) optionally in the presence of a primary monoamine or a monoaldehyde if the -CHO/NH 2 molar ratio is other than 1. a) a (poly)urethane-aldehyde comprising at least 2 aldehyde functions; b) a primary diamine; c) optionally in the presence of a primary monoamine or a monoaldehyde if the -CHO/NH 2 molar ratio is other than 1.
A method for impregnating a polymer granulate with a predefined mass of a gaseous blowing agent, wherein - the polymer granulate is arranged in an interior space of a pressure vessel , - a gaseous blowing agent is initially introduced into the interior space of the pressure vessel , wherein blowing agent is absorbed by the polymer granulate and an instantaneous pressure (p 2 ) prevailing in the interior space is measured, characterized in that an instantaneous mass (Δm) of the blowing agent absorbed by the polymer granulate is determined as the difference between the total mass (mi) of the blowing agent initially introduced into the interior space of the pressure vessel and the mass (m 2 ) of a non-absorbed part of the blowing agent located in the interior space at the moment, and wherein the method is stopped when the instantaneous mass (Δm) of the absorbed blowing agent is greater than or equal to the predefined mass. - the polymer granulate is arranged in an interior space of a pressure vessel , - a gaseous blowing agent is initially introduced into the interior space of the pressure vessel , wherein blowing agent is absorbed by the polymer granulate and an instantaneous pressure (p 2 ) prevailing in the interior space is measured, characterized in that an instantaneous mass (Δm) of the blowing agent absorbed by the polymer granulate is determined as the difference between the total mass (mi) of the blowing agent initially introduced into the interior space of the pressure vessel and the mass (m 2 ) of a non-absorbed part of the blowing agent located in the interior space at the moment, and wherein the method is stopped when the instantaneous mass (Δm) of the absorbed blowing agent is greater than or equal to the predefined mass.
A method of verifying permissioning rights to one or more data resources associated with a data processing platform, the method being performed using one or more processors and comprising: receiving , from a client device, an assertion statement identifying a user, a data resource via a resource identifer and an operation performable with respect to the data resource, wherein the assertion statement is a single statement conforming to one or more predetermined syntaxes, and wherein the resource identifier of the assertion statement defines a plurality of resources dependent on a parent resource; applying the received assertion statement to a network database storing an access control list defining, for each of a plurality of data resources associated with the data processing platform, one or more users having permission to perform one or more operations on the respective data resource, wherein applying the assertion statement is effective to determine if the received assertion statement is true or false in relation to said data resources defined by the assertion statement; characterized in that in the event that the assertion statement is false, generating an error message for output; and blocking the identified user's permission to perform one or more operations on the identified resource in the event that the assertion statement identifies a user not having permission to perform the identified operation on the identified data resource, and the error message is indicative that the user currently does have permission to perform the identified operation on the identified data resource. receiving , from a client device, an assertion statement identifying a user, a data resource via a resource identifer and an operation performable with respect to the data resource, wherein the assertion statement is a single statement conforming to one or more predetermined syntaxes, and wherein the resource identifier of the assertion statement defines a plurality of resources dependent on a parent resource; applying the received assertion statement to a network database storing an access control list defining, for each of a plurality of data resources associated with the data processing platform, one or more users having permission to perform one or more operations on the respective data resource, wherein applying the assertion statement is effective to determine if the received assertion statement is true or false in relation to said data resources defined by the assertion statement; characterized in that in the event that the assertion statement is false, generating an error message for output; and blocking the identified user's permission to perform one or more operations on the identified resource in the event that the assertion statement identifies a user not having permission to perform the identified operation on the identified data resource, and the error message is indicative that the user currently does have permission to perform the identified operation on the identified data resource.