mhurhangee/ep-ind-claims huggingface dataset:
A nozzle blade for an axial-flow turbine, wherein, when a differential pressure between a pressure side and a suction side of each of blades, at one same axial chord position of the blade, is defined as a load of the blade, and a ratio between axial chord length (Cx) of the blade and an axial distance from a leading edge thereof at one same vertical position of the blade where the blade load becomes a maximum is defined as a maximum load relative position, the axial chord length (Cx) of the blade is greater at a hub and tip thereof than at an intermediate vertical portion thereof, and a maximum load relative position at the hub and tip of the blade is set to be nearer to a trailing edge thereof than a maximum load relative position of the intermediate vertical portion of the blade, characterized in that a circumferential chord length is smaller at the hub and tip of the blade than at the intermediate vertical portion of the blade, and a stagger angle of the blade is smaller at the hub and tip of the blade than at the intermediate vertical portion thereof.
Method for operating an electric machine, in particular of a motor vehicle, which has a stator and a rotor, wherein the stator has a stator winding with at least three phases (U,V,W), and wherein the rotor is arranged/arrangeable on a rotor shaft, wherein a desired current value ( I Soll,fl) of the stator winding for generating a required torque and/or a required speed is determined on the basis of a time-invariant differential equation modeling the machine, wherein the desired current value ( I Soll,fl) is compared with an actual current value ( I Ist,fl) of the stator winding, which corresponds to electric phase currents ( I U, I V, I W) flowing through the phases (U,V,W), and wherein, on the basis of the comparison, the phases (U,V,W) are energized such that a deviation of the actual current value ( I Ist,fl) from the desired current value ( I Soll,fl) is reduced, characterized in that the time-invariant differential equation is determined on the basis of a periodic, linear time-variant differential equation by means of a Floquet transformation.
A method for determining a concentration of at least one analyte in bodily fluid, the method comprising the following steps: - at least one signal generation step, wherein at least one excitation voltage signal is generated by at least one signal generator device, wherein the excitation voltage signal comprises at least one poly frequent alternating current voltage and at least one direct current voltage profile, wherein the poly frequent AC voltage comprises at least two frequencies; - at least one signal application step, wherein the excitation voltage signal is applied to at least two measurement electrodes, which are in contact with the bodily fluid and which are adapted to determine the analyte electrochemically; - at least one measurement step, wherein a response is measured by using the measurement electrodes; - at least one evaluation step, wherein an AC current response for each frequency and a DC current response are evaluated from the response by at least one evaluation device, and wherein for each frequency at least one phase information and at least one impedance information is evaluated from the AC current response by the evaluation device; - at least one determination step, wherein the concentration of the analyte is determined from the DC current response and from one or both of the phase information and impedance information by using at least one predetermined relationship, wherein the AC voltage and DC profile are superimposed to form the excitation voltage signal. - at least one signal generation step, wherein at least one excitation voltage signal is generated by at least one signal generator device, wherein the excitation voltage signal comprises at least one poly frequent alternating current voltage and at least one direct current voltage profile, wherein the poly frequent AC voltage comprises at least two frequencies; - at least one signal application step, wherein the excitation voltage signal is applied to at least two measurement electrodes, which are in contact with the bodily fluid and which are adapted to determine the analyte electrochemically; - at least one measurement step, wherein a response is measured by using the measurement electrodes; - at least one evaluation step, wherein an AC current response for each frequency and a DC current response are evaluated from the response by at least one evaluation device, and wherein for each frequency at least one phase information and at least one impedance information is evaluated from the AC current response by the evaluation device; - at least one determination step, wherein the concentration of the analyte is determined from the DC current response and from one or both of the phase information and impedance information by using at least one predetermined relationship,
A device for introducing a gas for an analysis device, which includes: a gas synthesis unit for synthesizing a plurality of types of gases in a mixing chamber; a pressure adjusting unit for introducing the gas synthesized in the gas synthesis unit for pressure reduction; a gas switching unit including a gas switching valve for introducing the depressurized gas from the pressure adjusting unit to the analysis device; a gas analysis device for analyzing a component of the synthesized gas; and a gas controlling unit; wherein the gas synthesis unit includes a plurality of gas introducing paths leading from a plurality of gas sources to the mixing chamber via a pressure valve, a path for exhaustion from the mixing chamber to exterior via an open/close valve, and a path for introduction from the mixing chamber to the pressure adjusting unit via a flow-adjusting valve; wherein the pressure adjusting unit includes an introducing chamber for introducing gas from the gas synthesis unit, a path provided with a pump for reducing the pressure of the gas introduced in the introducing chamber to a pressure ranging from 0.1 Pa to 0.1 MPa, and a path leading from the introducing chamber to the gas switching unit; wherein the gas switching unit includes a path for guiding the gas from the pressure adjusting unit to the analysis device via the gas switching valve, and a path for exhaustion to exterior via a pump; wherein the device for introducing a gas for an analysis device is characterized in that the gas switching valve is configured to introduce a desired gas in a desired path selected from among a plurality of paths to the analysis device; and the gas controlling unit is adapted to perform during use the functions of introducing inert gas from a gas supply source filled with the inert gas to the mixing chamber, opening the open/close valve of the gas synthesis unit, driving the pump of the gas switching unit, and discharging a gas in the path from the mixing chamber to the switching valve in order to change a gas to be supplied to the analysis device. a gas synthesis unit for synthesizing a plurality of types of gases in a mixing chamber; a pressure adjusting unit for introducing the gas synthesized in the gas synthesis unit for pressure reduction; a gas switching unit including a gas switching valve for introducing the depressurized gas from the pressure adjusting unit to the analysis device; a gas analysis device for analyzing a component of the synthesized gas; and a gas controlling unit;
A subtilase variant comprising a set of alterations comprising the substitutions X62D ( e.g., N62D) and X262E ( e.g., L262E), and one or more substitutions selected from the group consisting of X101H ( e.g., S101H), X104T ( e.g., V104T), X156D ( e.g., S156D), X163G ( e.g., S163G), X170S ( e.g., R170S), X170L ( e.g., R170L), X209W ( e.g., Y209W), X238E ( e.g., N238E) and X245R ( e.g. Q245R), wherein (i) the positions correspond to the positions of the polypeptide of SEQ ID NO: 2; (ii) the variant has protease activity; (iii) the variant has at least 80% but less than 100% sequence identity to the polypeptide of SEQ ID NO: 1; and (iv) the variant has an improved wash performance compared to SEQ ID NO: 1 when measured in the AMSA assay. (i) the positions correspond to the positions of the polypeptide of SEQ ID NO: 2; (ii) the variant has protease activity; (iii) the variant has at least 80% but less than 100% sequence identity to the polypeptide of SEQ ID NO: 1; and (iv) the variant has an improved wash performance compared to SEQ ID NO: 1 when measured in the AMSA assay.
A walk-behind power equipment, comprising: a main body provided with a front wheel and a rear wheel; a work unit provided on the main body; a work motor that drives the work unit; a travel motor that rotates the rear wheel; a handle provided on the main body to extend rearward and upward; and a control unit that drive-controls the work motor and the travel motor, characterized in that the walk-behind power equipment further comprises a posture detection means (38 or 41) that detects a rearward tilted state of the main body in which the rear wheel is in contact with a ground and the front wheel is spaced from the ground, and that includes a tilt angle detection means that detects a tilt angle of the main body about a lateral axis, wherein when the main body is in the rearward tilted state, the control unit causes a rotational speed of the travel motor to be reduced compared to when the front wheel is in contact with the ground, or causes a rotational speed of the work motor to be reduced compared to when the front wheel is in contact with the ground, and during a period from when the tilt angle becomes greater than or equal to a predetermined tilt angle determination value and a change rate of the tilt angle becomes greater than or equal to a predetermined change rate determination value to when the tilt angle becomes smaller than or equal to a predetermined restoration determination value, the control unit causes the speed of the travel motor to be reduced compared to when the tilt angle is smaller than the tilt angle determination value. a main body provided with a front wheel and a rear wheel; a work unit provided on the main body; a work motor that drives the work unit; a travel motor that rotates the rear wheel; a handle provided on the main body to extend rearward and upward; and a control unit that drive-controls the work motor and the travel motor, characterized in that the walk-behind power equipment further comprises a posture detection means (38 or 41) that detects a rearward tilted state of the main body in which the rear wheel is in contact with a ground and the front wheel is spaced from the ground, and that includes a tilt angle detection means that detects a tilt angle of the main body about a lateral axis, wherein when the main body is in the rearward tilted state, the control unit causes a rotational speed of the travel motor to be reduced compared to when the front wheel is in contact with the ground, or causes a rotational speed of the work motor to be reduced compared to when the front wheel is in contact with the ground, and during a period from when the tilt angle becomes greater than or equal to a predetermined tilt angle determination value and a change rate of the tilt angle becomes greater than or equal to a predetermined change rate determination value to when the tilt angle becomes smaller than or equal to a predetermined restoration determination value, the control unit causes the speed of the travel motor to be reduced compared to when the tilt angle is smaller than the tilt angle determination value.
A recombinant clostridial neurotoxin comprising (i) at least two protein segments consisting of alanine, serine and proline residues, wherein each of said protein segments consists of at least 50 amino acid residues, or (ii) at least two domains having a polyproline II helix conformation, wherein each of said domains comprises an amino acid sequence consisting of at least 50 amino acid residues forming said polyproline II helix conformation.
Method for modelling a sedimentary basin, said sedimentary basin having undergone a plurality of geological events defining a sequence of states { A i} of the basin, each of said states extending between two successive geological events, the method comprising the implementation by data processing means of steps of: (a) obtaining measurements of physical quantities of said basin, which are acquired from sensors; (b) for each of said states A i, constructing a meshed representation of said basin depending on said measurements of physical quantities; characterized in that: (c) for each of said states A i, and for each cell of said meshed representation, (c).0 a first overpressure in said cell is computed based on an assumption that the overpressure is solely of hydrostatic origin, and if said first overpressure has changed during the state A i with respect to the preceding state by more than a first preset threshold in said cell, a second overpressure in the cell at the end of the state A i is computed by solving an empirical law expressing the flow rate of a fluid filtering through a porous medium. (a) obtaining measurements of physical quantities of said basin, which are acquired from sensors; (b) for each of said states A i, constructing a meshed representation of said basin depending on said measurements of physical quantities;
A system for sending packet traffic, comprising: an access device, configured to transmit, according to a forwarding path of to-be-transmitted traffic, a first part of the to-be-transmitted traffic to a forwarding controller for check, and after the check is passed, forward the first part to a destination of the to-be-transmitted traffic, wherein a check policy is deployed on the forwarding controller, and the check policy is used to check access permission and/or a forwarding policy of the to-be-transmitted traffic, wherein the access device is further configured to transmit a second part of the to-be-transmitted traffic to a first forwarding node, wherein the first forwarding node is located on the forwarding path of the to-be-transmitted traffic, the first forwarding node is configured to send the second part of the to-be-transmitted traffic to the destination of the to-be-transmitted traffic based on received forwarding indication information, the forwarding indication information indicates the first forwarding node to send the to-be-transmitted traffic to the destination, and the second part of the to-be-transmitted traffic is different from the first part of the to-be-transmitted traffic an access device, configured to transmit, according to a forwarding path of to-be-transmitted traffic, a first part of the to-be-transmitted traffic to a forwarding controller for check, and after the check is passed, forward the first part to a destination of the to-be-transmitted traffic, wherein a check policy is deployed on the forwarding controller, and the check policy is used to check access permission and/or a forwarding policy of the to-be-transmitted traffic, wherein the access device is further configured to transmit a second part of the to-be-transmitted traffic to a first forwarding node, wherein the first forwarding node is located on the forwarding path of the to-be-transmitted traffic, the first forwarding node is configured to send the second part of the to-be-transmitted traffic to the destination of the to-be-transmitted traffic based on received forwarding indication information, the forwarding indication information indicates the first forwarding node to send the to-be-transmitted traffic to the destination, and the second part of the to-be-transmitted traffic is different from the first part of the to-be-transmitted traffic
A base station device capable of 5G wireless communication, comprising: a transmitter configured to transmit, for each logical channel, first data of a first type and second data of a second type; and processor circuitry configured to: omit information about a data length of the second data from a medium access control, MAC, header of the second data, when the data length of the second data in a MAC protocol data unit, PDU, is fixed, place the MAC header in front of a MAC service data unit, MSDU, of the second data, and multiplex the first data and the second data, wherein a reserved bit, R bit, is set in the second bit of the first octet in the MAC header. a transmitter configured to transmit, for each logical channel, first data of a first type and second data of a second type; and processor circuitry configured to: omit information about a data length of the second data from a medium access control, MAC, header of the second data, when the data length of the second data in a MAC protocol data unit, PDU, is fixed, place the MAC header in front of a MAC service data unit, MSDU, of the second data, and multiplex the first data and the second data, wherein a reserved bit, R bit, is set in the second bit of the first octet in the MAC header. omit information about a data length of the second data from a medium access control, MAC, header of the second data, when the data length of the second data in a MAC protocol data unit, PDU, is fixed, place the MAC header in front of a MAC service data unit, MSDU, of the second data, and multiplex the first data and the second data, wherein a reserved bit, R bit, is set in the second bit of the first octet in the MAC header.
Suspension arm for a wheel of a motor vehicle, said arm being defined in particular by a zero-torsion plane and being of the type having the shape of a boomerang, one of the ends of which is intended to be coupled to a wheel, the other end and the median part of the arm being intended to be pivotably mounted on a cradle integral with the chassis of said vehicle, said arm also having means for coupling to at least one anti-roll bar having a bent part bypassing a tie rod, characterised in that it comprises a cavity extending from the vicinity of said pivotably mounted end as far as the vicinity of the means for coupling to said anti-roll bar which are situated on the other end, said cavity being provided for at least partially receiving said bent part beneath said zero-torsion plane when said arm occupies a rebound position, and in that it also comprises rigidifying means enabling compensation for a loss of rigidity induced by the presence of said cavity, said cavity having a substantially circular cross-section which decreases going towards the ends of said cavity.
A shaft coupling comprising a flexible annular sleeve, a driver end piece, and a driven end piece; both said end pieces (12a, 12b) adapted to connect to a shaft and said driver end piece having at least four axially extending driver prongs, and said driven end piece having a number of axially extending driven prongs that is equal to the number of driver prongs; the driver prongs fitting loosely into the spaces between the driven prongs with a gap between each pair of adjacent prongs, and said sleeve fitting snugly around the periphery of the prongs; each prong having at least one prong grooves in its outer periphery; said sleeve comprising a plurality of axially extending teeth on its inner periphery including a plurality of groove teeth and a plurality of gap teeth arranged so that a number of groove teeth equal to said number of prong grooves per prong alternate with a single gap tooth; said groove teeth meshing with said prong grooves; and said gap teeth meshing with said gaps; characterised in that: the shaft coupling has from four to sixty-four prongs on each coupling member, and wherein the number of prong grooves in each prong is one or two.
An environmental control system, comprising: an air cycle machine comprising a compressor and a turbine; a direct path configured to connect a source to the air cycle machine, wherein the direct path comprises a first valve and a flow of bleed air from the source, wherein the source is an engine of an aircraft providing the bleed air to the air cycle machine, wherein the first valve is configured to control the flow of the bleed air; and a recirculation path comprising a second valve and a flow of recirculated air from a chamber, wherein the second valve is configured to control the flow of the recirculated air, wherein the first valve causes the flow of the bleed air to directly enter the turbine of the air cycle machine from the source to enable the direct path to comprise a lowest possible pressure drop, wherein the bleed air expands across the turbine to drive the compressor. an air cycle machine comprising a compressor and a turbine; a direct path configured to connect a source to the air cycle machine, wherein the direct path comprises a first valve and a flow of bleed air from the source, wherein the source is an engine of an aircraft providing the bleed air to the air cycle machine, wherein the first valve is configured to control the flow of the bleed air; and a recirculation path comprising a second valve and a flow of recirculated air from a chamber, wherein the second valve is configured to control the flow of the recirculated air, wherein the first valve causes the flow of the bleed air to directly enter the turbine of the air cycle machine from the source to enable the direct path to comprise a lowest possible pressure drop, wherein the bleed air expands across the turbine to drive the compressor.
Process comprising reacting polyisocyanate with active hydrogen-containing compound being polyol in the presence of Z-1,1,1,4,4,4-hexafluoro-2-butene at a temperature of at least 135°F(57.2°C) to obtain as a result thereof, foamed reaction product.