mhurhangee/ep-ind-claims huggingface dataset:
An air seal for use with rotating structure in a gas turbine engine comprising: a substrate; a thermal barrier coating layer adhered to the substrate; and an abradable layer adhered to the thermal barrier coating layer; the abradable layer comprising: an agglomerated matrix of first hexagonal boron nitride and metallic alloy, and a second hexagonal boron nitride, wherein the second hexagonal boron nitride is interspersed with the matrix; and characterised in that the first hexagonal boron nitride comprises particles of 1-10 microns, the metallic alloy comprise particles of 1-25 microns, and the second hexagonal boron nitride comprises particles of 15-100 microns. a substrate; a thermal barrier coating layer adhered to the substrate; and an abradable layer adhered to the thermal barrier coating layer; the abradable layer comprising: an agglomerated matrix of first hexagonal boron nitride and metallic alloy, and a second hexagonal boron nitride, wherein the second hexagonal boron nitride is interspersed with the matrix; and characterised in that the first hexagonal boron nitride comprises particles of 1-10 microns, the metallic alloy comprise particles of 1-25 microns, and the second hexagonal boron nitride comprises particles of 15-100 microns. an agglomerated matrix of first hexagonal boron nitride and metallic alloy, and a second hexagonal boron nitride, wherein the second hexagonal boron nitride is interspersed with the matrix; and characterised in that the first hexagonal boron nitride comprises particles of 1-10 microns, the metallic alloy comprise particles of 1-25 microns, and the second hexagonal boron nitride comprises particles of 15-100 microns.
A transmission system for a propulsion system, the propulsion system comprising at least one power unit, a power transfer system and at least one propulsion element, the transmission system comprising: a summation transmission configured to receive power from the at least one power unit and/or power transfer system; a propulsion output transmission comprising a first propulsion output shaft and configured to receive power from the summation transmission and direct the power to the at least one propulsion element; and a power transfer transmission operably connected to the summation transmission and configured to transfer power between the summation transmission and the power transfer system; wherein the power transfer transmission comprises a first power transfer shaft and a power transfer coupler configured to selectively operably connect the first power transfer shaft to the first propulsion output shaft such that power is transferred directly from the power transfer system to the propulsion output transmission; wherein the summation transmission comprises a sun gear and a ring gear, the first power transfer shaft being operably connected to the sun gear and the first propulsion output shaft being operably connected to the ring gear. a summation transmission configured to receive power from the at least one power unit and/or power transfer system; a propulsion output transmission comprising a first propulsion output shaft and configured to receive power from the summation transmission and direct the power to the at least one propulsion element; and a power transfer transmission operably connected to the summation transmission and configured to transfer power between the summation transmission and the power transfer system;
A blowable insulation material comprising: a blend of polyester staple fibers including a plurality of first polyester staple fibers, a plurality of second polyester staple fibers, and a plurality of third polyester staple fibers; wherein a Denier of each of the second polyester staple fibers is greater than a Denier of each of the first polyester staple fibers; wherein a Denier of each of the third polyester staple fibers is greater than a Denier of each of the second polyester staple fibers; wherein each of the first polyester staple fibers has a Denier of not greater than about 1 Denier, each of the second polyester staple fibers has a Denier in the range of not less than about 1 Denier to not greater than about 2 Denier, and each of the third polyester staple fibers has a Denier of not less than about 2 Denier; wherein a length of substantially all of the polyester staple fibers of the blend is in the range of about 16 to about 63 mm; wherein the fibers of at least one of the first and second polyester staple fibers are polyethylene terephthalate; wherein at least a majority of the polyester staple fibers of the blend are opened; and wherein the fibers comprising the blend are separated, individualized and unbonded relative to one another. a blend of polyester staple fibers including a plurality of first polyester staple fibers, a plurality of second polyester staple fibers, and a plurality of third polyester staple fibers; wherein a Denier of each of the second polyester staple fibers is greater than a Denier of each of the first polyester staple fibers; wherein a Denier of each of the third polyester staple fibers is greater than a Denier of each of the second polyester staple fibers; wherein each of the first polyester staple fibers has a Denier of not greater than about 1 Denier, each of the second polyester staple fibers has a Denier in the range of not less than about 1 Denier to not greater than about 2 Denier, and each of the third polyester staple fibers has a Denier of not less than about 2 Denier; wherein a length of substantially all of the polyester staple fibers of the blend is in the range of about 16 to about 63 mm; wherein the fibers of at least one of the first and second polyester staple fibers are polyethylene terephthalate; wherein at least a majority of the polyester staple fibers of the blend are opened; and wherein the fibers comprising the blend are separated, individualized and unbonded relative to one another.
A radio resource configuration method, comprising: receiving, by a user equipment, UE, a message from a first signaling radio bearer, SRB, of a first radio access technology, RAT, the first SRB established between the UE and a first network element of the first RAT, wherein the message carries information of a first configuration for a radio resource of the first RAT; and in response to determining that the UE fails to configure the radio resource of the first RAT according to the information of the first configuration, sending, by the UE, a response message of the radio resource configuration to indicate a failure of the radio resource configuration of the first RAT, wherein: the response message comprises assistance information which includes a measurement result of the UE on a radio channel of the first RAT, and a failure cause; sending the response message comprises sending the response message through a second SRB of a second RAT and reporting the assistance information to a second network element of the second RAT; and the first network element and the second network element simultaneously provide a communication service for the UE over a radio interface. receiving, by a user equipment, UE, a message from a first signaling radio bearer, SRB, of a first radio access technology, RAT, the first SRB established between the UE and a first network element of the first RAT, wherein the message carries information of a first configuration for a radio resource of the first RAT; and in response to determining that the UE fails to configure the radio resource of the first RAT according to the information of the first configuration, sending, by the UE, a response message of the radio resource configuration to indicate a failure of the radio resource configuration of the first RAT, wherein: the response message comprises assistance information which includes a measurement result of the UE on a radio channel of the first RAT, and a failure cause; sending the response message comprises sending the response message through a second SRB of a second RAT and reporting the assistance information to a second network element of the second RAT; and the first network element and the second network element simultaneously provide a communication service for the UE over a radio interface. the response message comprises assistance information which includes a measurement result of the UE on a radio channel of the first RAT, and a failure cause; sending the response message comprises sending the response message through a second SRB of a second RAT and reporting the assistance information to a second network element of the second RAT; and the first network element and the second network element simultaneously provide a communication service for the UE over a radio interface.
A precutter plate or breaker plate for multipart cutting units of comminution machines, in particular for meat mincers and the like, wherein at least some of the throughflow openings of the precutter plate or breaker plate are provided with a plurality of knife blade edges at least substantially extending in the raw material conveying direction, characterized in that those throughflow openings have an indentation zone or compression zone having an area of cross-section decreasing in the raw material conveying direction and, adjoining it, a blade zone having knife blade edges which are straight or effect a product swirl in the conveying direction.
Method of operating a motor vehicle comprising at least one brake, in which a play (d) of the brake is adjusted as a function of a speed of the motor vehicle, wherein the play (d) of the brake is increased as the speed of the motor vehicle increases, characterised in that when the engine is switched off, the play (d) is reduced to zero and is left at this value if a prespecified ambient temperature is fallen below for a predefined route after starting the motor vehicle.
A robot cleaner comprising: a body to form an external appearance of the robot cleaner; and a side brush assembly installed at the body, wherein the side brush assembly comprises: a motor installed at the body; a rotation shaft coupled to the motor, characterised in that the robot cleaner comprises further: a plurality of side brushes coupled to the rotation shaft, the plurality of side brushes including a first side brush fixed to the rotation shaft so as to be rotated and at least one second side brush (25b,25c,25d) rotatably coupled with respect to the rotation shaft so as to operate according to rotation of the first side brush; and a variable member installed between the plurality of side brushes and configured to allow intervals of the first side brush and the at least one second side brush to be changed, wherein the plurality of side brushes interoperate with each other by the variable member such that respective intervals between the plurality of side brushes are increased or decreased according to a rotation direction of the plurality of side brushes such that the side brushes are not exposed outside the body when rotation of the plurality of side brushes is stopped. a body to form an external appearance of the robot cleaner; and a side brush assembly installed at the body, a motor installed at the body; a rotation shaft coupled to the motor, a plurality of side brushes coupled to the rotation shaft, the plurality of side brushes including a first side brush fixed to the rotation shaft so as to be rotated and at least one second side brush (25b,25c,25d) rotatably coupled with respect to the rotation shaft so as to operate according to rotation of the first side brush; and a variable member installed between the plurality of side brushes and configured to allow intervals of the first side brush and the at least one second side brush to be changed, wherein the plurality of side brushes interoperate with each other by the variable member such that respective intervals between the plurality of side brushes are increased or decreased according to a rotation direction of the plurality of side brushes such that the side brushes are not exposed outside the body when rotation of the plurality of side brushes is stopped.
A stowage bin comprising: a support assembly; a bucket comprising a pivot point, said bucket rotatable about said pivot point between a closed position and an open position; and a translating mechanism coupling said bucket to said support assembly such that when said bucket is rotated between the closed and open positions, said pivot point translates with respect to said support assembly between a first pivot position and a second pivot position; wherein said translating mechanism further comprises a gear securely coupled to said bucket, a center of said gear corresponds to said pivot point; the stowage bin characterized in that said translating mechanism further comprises a rack coupled to said support assembly, said gear engages said rack and is moveable relative to said rack to translate said pivot point between the first and second pivot positions. a support assembly; a bucket comprising a pivot point, said bucket rotatable about said pivot point between a closed position and an open position; and a translating mechanism coupling said bucket to said support assembly such that when said bucket is rotated between the closed and open positions, said pivot point translates with respect to said support assembly between a first pivot position and a second pivot position; wherein said translating mechanism further comprises a gear securely coupled to said bucket, a center of said gear corresponds to said pivot point; the stowage bin characterized in that said translating mechanism further comprises a rack coupled to said support assembly, said gear engages said rack and is moveable relative to said rack to translate said pivot point between the first and second pivot positions.
A martensitic stainless steel consisting of in weight% (wt%): C 0.21 to 0.27; Si less than or equal to 0.7; Mn 0.2 to 2.5; P less than or equal to 0.03; S less than or equal to 0.05; Cr 11.9 to 14.0; Ni more than 0.5 to 3.0; Mo 0.4 to 1.5; W less than or equal to 0.5; N less than or equal to 0.060; Cu less than or equal to 1.2; Co less than or equal to 1.0; V less than or equal to 0.06; Nb less than or equal to 0.03; Zr less than or equal to 0.03; Ta less than or equal to 0.03; Hf less than or equal to 0.03; Al less than or equal to 0.050; Ti less than or equal to 0.05; and one or more-alloying elements, such as Ca, Mg, B, Pb and Ce, to improve the machinability or the hot working properties max. 0.05 wt%; balance Fe and unavoidable impurities; wherein the martensitic stainless steel comprises more than or equal to 75 % martensite phase and less than or equal to 25 % retained austenite phase and wherein said martensitic stainless steel has a PRE-value more than or equal to 14; and wherein the chemical composition of the said martensitic stainless steel is within an area formed in a Schaeffler diagram, which diagram is based on the following equations: Cr eq = Cr + Mo + 1.5 ∗ Si + 0.5 ∗ Nb x-axis Ni eq = Ni + 0.5 ∗ Mn + 30 ∗ N + 30 ∗ C y-axis; wherein the values of Cr, Mo, Si, Nb, Ni, Mn, N and C are in weight%; and which area of the martensitic stainless steel is defined by the following coordinates: Cr eq Ni eq A1 12.300 9.602 B1 12.300 11.990 B4 15.702 9.199 A3 14.482 7.864 and one or more-alloying elements, such as Ca, Mg, B, Pb and Ce, to improve the machinability or the hot working properties max. 0.05 wt%; balance Fe and unavoidable impurities;
A method of collecting mononuclear cells, comprising: separating whole blood obtained from a blood container into cellular components and platelet-rich plasma; separating the platelet-rich plasma into platelet concentrate and platelet-poor plasma; combining the cellular components with the platelet-poor plasma to form a first mixture; and separating the first mixture into mononuclear cells and at least one component. separating whole blood obtained from a blood container into cellular components and platelet-rich plasma; separating the platelet-rich plasma into platelet concentrate and platelet-poor plasma; combining the cellular components with the platelet-poor plasma to form a first mixture; and separating the first mixture into mononuclear cells and at least one component.
A method of producing a non-petroleum based electrical insulating oil having a kinematic viscosity at 40 °C in the range of 3.4 to 4.5 mm 2 /s, preferably in the range of 3.6 to 3.9 mm 2 /s, more preferably of 3.8 mm 2 /s, the method comprising: - performing distillation/stripping of a primary mixture comprising isomerised straight chain hydrocarbons; - collecting a paraffinic base oil as an intermediate distilled/stripped product; and - mixing the base oil with an antioxidant additive, characterized in that, the primary mixture comprises isomerised saturated hydrocarbons in the range C10-C20, the method further comprises controlling the collection of the paraffinic base oil in such a way that the initial boiling point of the distillation cut is chosen so that the flash point is above 135 °C and the final boiling point of the distillation cut is chosen so that the viscosity of the paraffinic base oil falls within the range of 3.4 to 4.5 mm 2 /s at 40 °C. - performing distillation/stripping of a primary mixture comprising isomerised straight chain hydrocarbons; - collecting a paraffinic base oil as an intermediate distilled/stripped product; and - mixing the base oil with an antioxidant additive, characterized in that, the primary mixture comprises isomerised saturated hydrocarbons in the range C10-C20, the method further comprises controlling the collection of the paraffinic base oil in such a way that the initial boiling point of the distillation cut is chosen so that the flash point is above 135 °C and the final boiling point of the distillation cut is chosen so that the viscosity of the paraffinic base oil falls within the range of 3.4 to 4.5 mm 2 /s at 40 °C. the primary mixture comprises isomerised saturated hydrocarbons in the range C10-C20, the method further comprises controlling the collection of the paraffinic base oil in such a way that the initial boiling point of the distillation cut is chosen so that the flash point is above 135 °C and the final boiling point of the distillation cut is chosen so that the viscosity of the paraffinic base oil falls within the range of 3.4 to 4.5 mm 2 /s at 40 °C.
A system for delivering laser energy to an eye of a patient, the system comprising: a microphone for capturing audio data; a voice control module for receiving the captured audio data and generating voice command information based on the captured audio data; a parameter regulation module for generating parameter information based on the voice command information; and a control module for receiving the parameter information and setting the parameters for the delivered laser energy based on the parameter information; characterized in that the parameter regulation module is for generating the parameter information based on the voice command information and a predetermined safety policy; and that the voice control module generates the voice command information by recognizing spoken language indicating 1) whether a pulse duration should be incrementally increased or decreased; and 2) whether a power level should be incrementally increased or decreased, wherein the safety policy indicates maximum percentages by which the parameters can be increased and/or decreased, wherein the parameter regulation module is configured to generate the parameter information based on whether the voice command information indicates that current parameters should be changed incrementally and to calculate new values for the parameters being changed based on the maximum percentages according to the safety policy. a microphone for capturing audio data; a voice control module for receiving the captured audio data and generating voice command information based on the captured audio data; a parameter regulation module for generating parameter information based on the voice command information; and a control module for receiving the parameter information and setting the parameters for the delivered laser energy based on the parameter information; characterized in that the parameter regulation module is for generating the parameter information based on the voice command information and a predetermined safety policy; and that the voice control module generates the voice command information by recognizing spoken language indicating 1) whether a pulse duration should be incrementally increased or decreased; and 2) whether a power level should be incrementally increased or decreased, wherein the safety policy indicates maximum percentages by which the parameters can be increased and/or decreased, wherein the parameter regulation module is configured to generate the parameter information based on whether the voice command information indicates that current parameters should be changed incrementally and to calculate new values for the parameters being changed based on the maximum percentages according to the safety policy.
A method of processing a biological sample, the method comprising: disrupting a biological sample in a sample disrupter to produce a first disrupted biological sample; and acoustically separating larger components from smaller components in the first disrupted biological sample in an acoustic separator comprising an inlet and an outlet that are in fluid communication with the sample disrupter; characterized in that the method further comprises assessing, by feedback monitoring, the degree of disruption of the acoustically separated larger components and smaller components with a detector at the outlet of the acoustic separator that is configured to convey the acoustically separated larger components back to the sample disrupter in response to the feedback monitoring. disrupting a biological sample in a sample disrupter to produce a first disrupted biological sample; and acoustically separating larger components from smaller components in the first disrupted biological sample in an acoustic separator comprising an inlet and an outlet that are in fluid communication with the sample disrupter; characterized in that the method further comprises assessing, by feedback monitoring, the degree of disruption of the acoustically separated larger components and smaller components with a detector at the outlet of the acoustic separator that is configured to convey the acoustically separated larger components back to the sample disrupter in response to the feedback monitoring.
A wire seal for sealing a gap between two components of a gas turbine, the wire seal comprising - a first core (12, 25) and a second core (14, 26) spaced apart from one another, - a wire pack extending around the first core and the second core, and - a fastener for securing the wire pack to the first core and the second core, - wherein the wire seal is curved; the wire seal comprising a plate with a first face, a second face, a first edge comprising the first core, a second edge comprising the second core and two end edges, wherein the first edge is opposite the second edge, - wherein the wire pack extends around the first face, the first edge, the second face and the second edge of the plate, and - wherein the fastener (18, 20, 60, 70) secures the wire pack around the plate; characterised in that the first and second core being a first and a second core wire; the first core wire being attached to the first edge and the second core wire being attached to the second edge. - a first core (12, 25) and a second core (14, 26) spaced apart from one another, - a wire pack extending around the first core and the second core, and - a fastener for securing the wire pack to the first core and the second core, - wherein the wire seal is curved; - wherein the wire pack extends around the first face, the first edge, the second face and the second edge of the plate, and - wherein the fastener (18, 20, 60, 70) secures the wire pack around the plate;
An epilatory composition comprising an admixture of a hydrocarbon resin material and a mineral oil in weight ratio of 1.3:1 to 2.8:1, particulate silica, and a polyethylene in the form of a homopolymer.