mhurhangee/ep-ind-claims huggingface dataset:
A winding for a stator of an electric machine, consisting of shaped strands connected to one another mechanically and electrically conductively, which for their part are built from a plurality of individually insulated and advantageously parallel running and preferably twisted individual wires and, if appropriate, an outer coating common to all individual wires, at least a few of the individual wires of each shaped strand at least at one end of the shaped strand being connected mechanically and electrically conductively by means of a sleeve, made from electrically conductive material and enclosing these individual wires, to one another and to the sleeve, and the sleeves of two shaped strands, which follow one another in the winding in the direction of current flow, being mechanically and electrically conductively connected, characterized in that the sleeves are provided with a tab at least at one end of the shaped strands and the connection of two shaped strands is produced by means of the at least one tab.
A measurement method of a differential refractive index between a sample liquid and a reference liquid by sending the sample liquid to a sample cell with a sample pump, sending the reference liquid to a reference cell with a reference pump, and detecting a change in direction of travel of light sequentially transmitted through the sample cell and the reference cell with a light detector, the measurement method comprising: an adjustment-value determination step of determining an adjustment value of a phase difference between the sample pump and the reference pump based on noise waveform informations that occur in an output signal of the light detector, so that the phase difference is adjusted according to a difference in lengths of channels of the sample liquid and the reference liquid or a difference in devices connected to the channels of the sample liquid and the reference liquid; and a phase-difference adjustment step of adjusting the phase difference between the sample pump and the reference pump before starting measurement of the differential refractive index, characterised in that the phase-difference adjustment step is a step of adjusting the phase difference between the sample pump and the reference pump so that a noise that occurs in the output signal of the light detector by propagation of pulsation from the sample pump within the sample cell and a noise that occurs in the output signal of the light detector by propagation of pulsation from the reference pump within the reference cell cancel each other. an adjustment-value determination step of determining an adjustment value of a phase difference between the sample pump and the reference pump based on noise waveform informations that occur in an output signal of the light detector, so that the phase difference is adjusted according to a difference in lengths of channels of the sample liquid and the reference liquid or a difference in devices connected to the channels of the sample liquid and the reference liquid; and a phase-difference adjustment step of adjusting the phase difference between the sample pump and the reference pump before starting measurement of the differential refractive index, characterised in that the phase-difference adjustment step is a step of adjusting the phase difference between the sample pump and the reference pump so that a noise that occurs in the output signal of the light detector by propagation of pulsation from the sample pump within the sample cell and a noise that occurs in the output signal of the light detector by propagation of pulsation from the reference pump within the reference cell cancel each other.
A method for configurating a split denture, wherein the denture is a try-in denture, the method comprising: providing a digital 3D model of a denture, the denture comprising a plurality of teeth, splitting the digital 3D model of the denture into a digital 3D model of a base part and a digital 3D model of a teeth part, the base part comprising a first artificial gingiva portion, the base part further being configured to support the teeth part, the teeth part comprising the plurality of teeth of the denture and a second gingiva portion, the teeth part being configured to be mounted on the base part, providing the digital 3D model of the split denture for generating the base part and the teeth part, generating the base part using the 3D model of the base part and the teeth part using the 3D model of the teeth part, wherein for generating the base part a different first material or different first combination of materials with a different first degree of hardness is used compared to a second material or second combination of materials with a second degree of hardness used for generating the teeth part, wherein the first material or first combination of materials used for generating the base part is harder with the first degree of hardness being higher than the second degree of hardness of the second material or second combination of materials used for generating the teeth part, the lower second degree of hardness allowing for adjustments by a dentist. providing a digital 3D model of a denture, the denture comprising a plurality of teeth, splitting the digital 3D model of the denture into a digital 3D model of a base part and a digital 3D model of a teeth part, the base part comprising a first artificial gingiva portion, the base part further being configured to support the teeth part, the teeth part comprising the plurality of teeth of the denture and a second gingiva portion, the teeth part being configured to be mounted on the base part, the base part comprising a first artificial gingiva portion, the base part further being configured to support the teeth part, the teeth part comprising the plurality of teeth of the denture and a second gingiva portion, the teeth part being configured to be mounted on the base part, providing the digital 3D model of the split denture for generating the base part and the teeth part, generating the base part using the 3D model of the base part and the teeth part using the 3D model of the teeth part, wherein for generating the base part a different first material or different first combination of materials with a different first degree of hardness is used compared to a second material or second combination of materials with a second degree of hardness used for generating the teeth part, wherein the first material or first combination of materials used for generating the base part is harder with the first degree of hardness being higher than the second degree of hardness of the second material or second combination of materials used for generating the teeth part, the lower second degree of hardness allowing for adjustments by a dentist.
A data transmission method, comprising: receiving, by a first device, a connection establishment request and a target data feature that are sent from an analysis device, wherein the connection establishment request comprises a first connection parameter of the analysis device, wherein the target data feature is used to indicate target data, and includes a type, collection frequency, and/or a collection period of the target data, wherein the target data is to-be-analyzed data, which is data that needs to be analyzed when the analysis device performs network measurement; determining, by the first device based on the target data feature, a second device (102, 103, 104) that collects the to-be-analyzed data corresponding to the target data feature, wherein the first device and the second device (102, 103, 104) belong to a same distributed system; determining, by the first device, a second connection parameter of the second device (102, 103, 104); and sending, by the first device, the first connection parameter, the second connection parameter, and the target data feature to the second device (102, 103, 104), so that the second device (102, 103, 104) establishes a connection to the analysis device based on the first connection parameter and the second connection parameter, and transmits the to-be-analyzed data corresponding to the target data feature to the analysis device through the established connection. receiving, by a first device, a connection establishment request and a target data feature that are sent from an analysis device, wherein the connection establishment request comprises a first connection parameter of the analysis device, wherein the target data feature is used to indicate target data, and includes a type, collection frequency, and/or a collection period of the target data, wherein the target data is to-be-analyzed data, which is data that needs to be analyzed when the analysis device performs network measurement; determining, by the first device based on the target data feature, a second device (102, 103, 104) that collects the to-be-analyzed data corresponding to the target data feature, wherein the first device and the second device (102, 103, 104) belong to a same distributed system; determining, by the first device, a second connection parameter of the second device (102, 103, 104); and sending, by the first device, the first connection parameter, the second connection parameter, and the target data feature to the second device (102, 103, 104), so that the second device (102, 103, 104) establishes a connection to the analysis device based on the first connection parameter and the second connection parameter, and transmits the to-be-analyzed data corresponding to the target data feature to the analysis device through the established connection.
A transmission system (1, 1B, 1C), comprising: an acquisition section configured to detect a free band (SL1, SL2) between a target channel including a plurality of wavelength signals (SC1, SC2, SC3, SC4) contiguous to one another and a channel adjacent to the target channel; and an adjustment section configured to adjust signal power of at least one of the plurality of wavelength signals (SC1, SC2, SC3, SC4) in the target channel, based on a power adjustment amount for the wavelength signal, the power adjustment amount being provided in correspondence with the free band (SL1, SL2) detected by the acquisition section, wherein the adjustment amount is an adjustment amount provided in correspondence with a width of the free band (SL1, SL2), a number of spans from a transmission device that transmits the target channel to a control target transmission device, or a propagation distance from the transmission device that transmits the target channel to the control target transmission device. an acquisition section configured to detect a free band (SL1, SL2) between a target channel including a plurality of wavelength signals (SC1, SC2, SC3, SC4) contiguous to one another and a channel adjacent to the target channel; and an adjustment section configured to adjust signal power of at least one of the plurality of wavelength signals (SC1, SC2, SC3, SC4) in the target channel, based on a power adjustment amount for the wavelength signal, the power adjustment amount being provided in correspondence with the free band (SL1, SL2) detected by the acquisition section, wherein the adjustment amount is an adjustment amount provided in correspondence with a width of the free band (SL1, SL2), a number of spans from a transmission device that transmits the target channel to a control target transmission device, or a propagation distance from the transmission device that transmits the target channel to the control target transmission device.
A catch mechanism including: a first member pivotably connected to a second member, the first member including a first portion that, in a first configuration, extends into a path of a moveable device in use and is arranged such that when a lower part of the moveable device strikes the first portion when travelling in a first direction, the first member is pivoted to a second configuration where it is engageable with an upper part of the moveable device and prevents movement of the moveable device in an opposite direction until the catch mechanism is disengaged, the catch mechanism being characterized by a disengaging member arranged so that if the moveable member is moved in the first direction after the catch mechanism has been engaged, the moveable member strikes the disengaging member, which pivots the first member out of the second configuration such that the first portion is moved out of the path of the moveable device, thereby allowing the moveable device to be moved in the opposite direction. a first member pivotably connected to a second member, the first member including a first portion that, in a first configuration, extends into a path of a moveable device in use and is arranged such that when a lower part of the moveable device strikes the first portion when travelling in a first direction, the first member is pivoted to a second configuration where it is engageable with an upper part of the moveable device and prevents movement of the moveable device in an opposite direction until the catch mechanism is disengaged, the catch mechanism being characterized by a disengaging member arranged so that if the moveable member is moved in the first direction after the catch mechanism has been engaged, the moveable member strikes the disengaging member, which pivots the first member out of the second configuration such that the first portion is moved out of the path of the moveable device, thereby allowing the moveable device to be moved in the opposite direction.
A gas turbine engine comprising: a combustor section arranged between a compressor section and a turbine section; a fan section having an array of twenty-six or fewer fan blades, wherein the fan section has a fan pressure ratio of less than 1.55; a geared architecture coupling the fan section to the turbine section or the compressor section, wherein the compressor section includes at least a low pressure compressor and a high pressure compressor, and the high pressure compressor is arranged immediately upstream of the combustor section, the low pressure compressor is counter-rotating relative to the fan blades, and immediately downstream from the fan section; and a compressor airfoil arranged in the low pressure compressor, and comprising pressure and suction sides (72, 74) extending in a radial direction from a 0% span position to a 100% span position, characterised in that the airfoil has a relationship between a tangential stacking offset (Y d) and span position that defines a curve that is non-linear, wherein the tangential stacking offset (Y d) is the tangential distance between a centre of gravity (Y CG) for a particular section at a given span location and a reference point corresponding to a tangential centre of an airfoil root. a combustor section arranged between a compressor section and a turbine section; a fan section having an array of twenty-six or fewer fan blades, wherein the fan section has a fan pressure ratio of less than 1.55; a geared architecture coupling the fan section to the turbine section or the compressor section, wherein the compressor section includes at least a low pressure compressor and a high pressure compressor, and the high pressure compressor is arranged immediately upstream of the combustor section, the low pressure compressor is counter-rotating relative to the fan blades, and immediately downstream from the fan section; and a compressor airfoil arranged in the low pressure compressor, and comprising pressure and suction sides (72, 74) extending in a radial direction from a 0% span position to a 100% span position, characterised in that the airfoil has a relationship between a tangential stacking offset (Y d) and span position that defines a curve that is non-linear, wherein the tangential stacking offset (Y d) is the tangential distance between a centre of gravity (Y CG) for a particular section at a given span location and a reference point corresponding to a tangential centre of an airfoil root.
A method of communications, comprising: determining, at a network entity, whether a home evolved NodeB, HeNB, supports device to device, D2D, communications by determining whether the HeNB is operable to communicate system information to a user equipment, UE, wherein the system information includes D2D resource allocations for D2D communications useable by the UE for direct D2D communications with another UE; and transmitting the system information to the UE via the network entity upon a determination that the HeNB is not operable to communicate the system information, or transmitting the system information to the HeNB to allow the HeNB to convey the system information to the UE upon a determination that the HeNB is operable to communicate the system information. determining, at a network entity, whether a home evolved NodeB, HeNB, supports device to device, D2D, communications by determining whether the HeNB is operable to communicate system information to a user equipment, UE, wherein the system information includes D2D resource allocations for D2D communications useable by the UE for direct D2D communications with another UE; and transmitting the system information to the UE via the network entity upon a determination that the HeNB is not operable to communicate the system information, or transmitting the system information to the HeNB to allow the HeNB to convey the system information to the UE upon a determination that the HeNB is operable to communicate the system information.
An antenna assembly, comprising: a non-conductive housing having an open end; an antenna element positioned inside the non-conductive housing; an electrical cable having a first end electrically coupled to the antenna element and a second end extending out from the open end of the non-conductive housing; one or more dielectric materials (204, 206, 208) positioned inside the non-conductive housing; and a conductive gasket coupled to a portion of the electrical cable positioned adjacent to the open end and outside the non-conductive housing, wherein the electrical cable is a coaxial cable comprising a non-conductive jacket, an inner shield, and a conductive core, and the inner shield is the portion of the electrical cable coupled to the conductive gasket, and wherein the conductive gasket comprises a central slot sized and shaped to securely fit around and contact the inner shield, and wherein the conductive gasket is thereby configured to seal the inner shield of the electrical cable from radio frequency, RF, interference. a non-conductive housing having an open end; an antenna element positioned inside the non-conductive housing; an electrical cable having a first end electrically coupled to the antenna element and a second end extending out from the open end of the non-conductive housing; one or more dielectric materials (204, 206, 208) positioned inside the non-conductive housing; and a conductive gasket coupled to a portion of the electrical cable positioned adjacent to the open end and outside the non-conductive housing, wherein the electrical cable is a coaxial cable comprising a non-conductive jacket, an inner shield, and a conductive core, and the inner shield is the portion of the electrical cable coupled to the conductive gasket, and wherein the conductive gasket comprises a central slot sized and shaped to securely fit around and contact the inner shield, and wherein the conductive gasket is thereby configured to seal the inner shield of the electrical cable from radio frequency, RF, interference.
A pneumatic method of separating mineral raw materials, which comprises placing raw materials which are to be separated on an air-permeable surface which traverses a separation chamber with a rising air flow that lifts light fractions from the air-permeable surface, the latter being in the form of a conveyor passing beneath the lower base of the separation chamber, in which, by selection of the velocity of the air flow, a dilute fluidized bed layer is formed from particles of a specified density, into which less dense particles enter and through which said particles pass without obstruction before being transferred with the rising air flow out of the separation chamber into a gravitational deposition chamber, wherein the separation chamber is installed inclined towards the conveyor plane, and the acute angle formed by longitudinal walls of the separation chamber and its base is directed towards the conveyor motion, characterized in that the plane of the lower base of the separation chamber is parallel to the conveyor plane.
A defective injection detection device for a fuel injection system configured to inject fuel, which is accumulated in a pressure-accumulation vessel, from a fuel injection valve, the defective injection detection device comprising: the pressure-accumulation vessel; the fuel injection valve; a fuel passage, which extends from the pressure-accumulation vessel to a nozzle hole of the fuel injection valve; a pressure sensor located in the fuel passage and configured to detect pressure, which is fluctuated by injection of fuel through the nozzle hole, the pressure sensor being located closer to a nozzle hole than the pressure-accumulation vessel; instruction signal output means for outputting an injection instruction signal so as to instruct an injection mode of fuel to the fuel injection valve; detecting means for detecting a sensor output of the fuel pressure sensor successively at an interval, the interval being sufficiently short to draw a locus of a pressure transition waveform of the sensor output which corresponds to the injection rate change between the actual injection start and the actual injection end; and defective injection determination means (S23, S24) for determining whether a detected pressure of the fuel pressure sensor is fluctuated in a fluctuation mode in a range assumed from the injection instruction signal based on the pressure transition waveform, wherein the defective injection determination means (S23, S24) is configured to determine that a defective injection occurs when determining that the detected pressure is out of the fluctuation mode in the assumed range with respect to an estimated fluctuation mode. the pressure-accumulation vessel; the fuel injection valve; a fuel passage, which extends from the pressure-accumulation vessel to a nozzle hole of the fuel injection valve; a pressure sensor located in the fuel passage and configured to detect pressure, which is fluctuated by injection of fuel through the nozzle hole, the pressure sensor being located closer to a nozzle hole than the pressure-accumulation vessel; instruction signal output means for outputting an injection instruction signal so as to instruct an injection mode of fuel to the fuel injection valve; detecting means for detecting a sensor output of the fuel pressure sensor successively at an interval, the interval being sufficiently short to draw a locus of a pressure transition waveform of the sensor output which corresponds to the injection rate change between the actual injection start and the actual injection end; and defective injection determination means (S23, S24) for determining whether a detected pressure of the fuel pressure sensor is fluctuated in a fluctuation mode in a range assumed from the injection instruction signal based on the pressure transition waveform, wherein the defective injection determination means (S23, S24) is configured to determine that a defective injection occurs when determining that the detected pressure is out of the fluctuation mode in the assumed range with respect to an estimated fluctuation mode.