mhurhangee/patent-ind-claim-en huggingface dataset:
A sending device , wherein the sending device comprises: a multiplexing unit and an optical power adjustment unit ; the multiplexing unit is configured to send at least two communication optical waves to a fiber channel, wherein wavelengths of the at least two communication optical waves belong to an operating band; the multiplexing unit is further configured to receive at least two detection optical waves through the fiber channel, wherein the at least two detection optical waves comprise at least one first detection optical wave whose wavelength is less than a minimum wavelength of the operating band, and at least one second detection optical wave whose wavelength is greater than a maximum wavelength of the operating band; and the optical power adjustment unit is configured to: obtain a power control instruction, wherein the power control instruction is generated according to power change information by analyzing a power change degree between the at least two detection optical waves; and perform optical power amplification and/or attenuation on at least one communication optical wave in the at least two communication optical waves according to the power control instruction. the multiplexing unit is configured to send at least two communication optical waves to a fiber channel, wherein wavelengths of the at least two communication optical waves belong to an operating band; the multiplexing unit is further configured to receive at least two detection optical waves through the fiber channel, wherein the at least two detection optical waves comprise at least one first detection optical wave whose wavelength is less than a minimum wavelength of the operating band, and at least one second detection optical wave whose wavelength is greater than a maximum wavelength of the operating band; and the optical power adjustment unit is configured to: obtain a power control instruction, wherein the power control instruction is generated according to power change information by analyzing a power change degree between the at least two detection optical waves; and perform optical power amplification and/or attenuation on at least one communication optical wave in the at least two communication optical waves according to the power control instruction.
Storage shelf base for an item of furniture or household appliance , having - a support plate which is arranged in a stationary manner on a body of the item of furniture or household appliance , - a support which is positively guided relative to the support plate and can be moved simultaneously rotatably and translationally, - wherein the support plate is detachably fastened to the body of the item of furniture or household appliance by means of at least one adapter, or a base plate is arranged in a stationary manner on the body of the item of furniture or household appliance , to which base plate the support plate is detachably fastened, characterized in that - mutually facing bearing surfaces of the support plate and of the storage shelf have respective at least predominantly closed, circumferential running grooves in which rolling elements are guided. - a support plate which is arranged in a stationary manner on a body of the item of furniture or household appliance , - a support which is positively guided relative to the support plate and can be moved simultaneously rotatably and translationally, - wherein the support plate is detachably fastened to the body of the item of furniture or household appliance by means of at least one adapter, or a base plate is arranged in a stationary manner on the body of the item of furniture or household appliance , to which base plate the support plate is detachably fastened, characterized in that - mutually facing bearing surfaces of the support plate and of the storage shelf have respective at least predominantly closed, circumferential running grooves in which rolling elements are guided.
A metal coated steel sheet comprising a coating layer including nickel (Ni) and Ni oxide, wherein the Ni oxide is included in an amount ranging from 0.5 wt% to 5 wt% based on an amount of oxygen in the Ni oxide, and wherein the Ni and the Ni oxide are included in an amount ranging from 0.1 g/m 2 to 3 g/m 2 based on a coating weight of Ni.
A power supplier comprising a power transmitting coil for supplying power by means of a non-contact method to a power receiving coil which faces the power transmitting coil , wherein the power transmitting coil includes a magnetic body and a coil wound around the magnetic body , the magnetic body has, on both end portions, exposed regions in which the wound coil is absent, and out of the exposed regions , one which is on a face of the magnetic body for facing the power receiving coil is larger than another one which is on a face of the magnetic body for not facing the power receiving coil , characterized in that over an outer periphery of the magnetic body , a plurality of ribs are arranged at intervals in a winding direction of the coil , the interval between adjacent ones of the ribs arranged on the face facing the power receiving coil is narrower than the interval between adjacent ones of the ribs arranged on the face not facing the power receiving coil , and the coil is wound between the ribs.
A motor vehicle light module comprising: - a component comprising a plurality of light guides , each of said guides extending between an input diopter of this guide and an output , adjacent light guides being joined to each other by a material junction ; - a plurality of light sources arranged facing the input diopters of some or all of the light guides ; - a projection system downstream of the guide outputs , and having a focal surface (F) projecting an image of every light ray passing through said focal surface (F); - at least two guides in which the distance (d 1 ) between the focal surface (F) and the junction of said two guides , is greater than the distance (d 2 ) between the focal surface (F) and the junction of the other guides the light module being capable of generating a pixelated light beam, characterized in that the at least two guides in which the distance (d 1 ) between the focal surface (F) and the junction of said two guides is greater than the distance (d 2 ) between the focal surface (F) and the junction of the other guides are called secondary guides , the other guides being called primary guides , each primary guide forming in the beam a primary lighting unit in the beam and the secondary guides jointly forming a single secondary lighting unit in the beam, the lighting units being arranged adjacently in at least one array and being selectively activatable, and in that the secondary lighting unit has an intensity greater than the intensity of each primary lighting unit. - a component comprising a plurality of light guides , each of said guides extending between an input diopter of this guide and an output , adjacent light guides being joined to each other by a material junction ; - a plurality of light sources arranged facing the input diopters of some or all of the light guides ; - a projection system downstream of the guide outputs , and having a focal surface (F) projecting an image of every light ray passing through said focal surface (F); - at least two guides in which the distance (d 1 ) between the focal surface (F) and the junction of said two guides , is greater than the distance (d 2 ) between the focal surface (F) and the junction of the other guides the light module being capable of generating a pixelated light beam, characterized in that the at least two guides in which the distance (d 1 ) between the focal surface (F) and the junction of said two guides is greater than the distance (d 2 ) between the focal surface (F) and the junction of the other guides are called secondary guides , the other guides being called primary guides , each primary guide forming in the beam a primary lighting unit in the beam and the secondary guides jointly forming a single secondary lighting unit in the beam, the lighting units being arranged adjacently in at least one array and being selectively activatable, and in that the secondary lighting unit has an intensity greater than the intensity of each primary lighting unit.
Polymer composition comprising: (a) 40.0 - 70.0 wt% of poly(butylene terephthalate); (b) 5.0 - 25.0 wt% of glass fibres; (c) 10.0 - 25.0 wt% of a polymer comprising moieties derived from acrylonitrile, butadiene and styrene; and (d) 1.0 - 10.0 wt% of a polymer comprising moieties derived from ethylene, methyl (meth)acrylate and glycidyl (meth)acrylate with regard to the total weight of the polymer composition. (a) 40.0 - 70.0 wt% of poly(butylene terephthalate); (b) 5.0 - 25.0 wt% of glass fibres; (c) 10.0 - 25.0 wt% of a polymer comprising moieties derived from acrylonitrile, butadiene and styrene; and (d) 1.0 - 10.0 wt% of a polymer comprising moieties derived from ethylene, methyl (meth)acrylate and glycidyl (meth)acrylate with regard to the total weight of the polymer composition.
A method for network-centric verification of a telephone number in a telephone network, wherein a caller unit sends a first telephone number and writes a Session Initiation Protocol, SIP, attribute with identity information, wherein a component of the telephone network checks the sent first telephone number on the basis of the identity information, and if the result of the check is positive, allows the transmission of the first telephone number in the telephone network; and if the result of the check is negative, suppresses the transmission of the first telephone number in the telephone network. wherein a caller unit sends a first telephone number and writes a Session Initiation Protocol, SIP, attribute with identity information, wherein a component of the telephone network checks the sent first telephone number on the basis of the identity information, and if the result of the check is positive, allows the transmission of the first telephone number in the telephone network; and if the result of the check is negative, suppresses the transmission of the first telephone number in the telephone network.
A method of controlling a vehicle including a front left wheel , a rear left wheel , a front right wheel , and a rear right wheel , the method comprising the steps of: providing a system having a plurality of brakes and a curve detecting mechanism , each brake of the plurality of brakes being configured to slow rotation of a respective vehicle wheel , detecting a curve in a forward travel path of the vehicle using the curve detecting mechanism and determining a direction of the curve after detecting the curve, and pre-filling brakes in response to the detection of a curve; characterized in that the step of pre-filling involves only pre-filling the brake of the front right wheel and the brake of the rear left wheel when a left hand curve is detected and only pre-filling the brake of the front left wheel and the brake of the rear right wheel when a right hand curve is detected; and the method further comprises the step of determining if the vehicle is oversteering or understeering as the vehicle is traversing the detected curve. providing a system having a plurality of brakes and a curve detecting mechanism , each brake of the plurality of brakes being configured to slow rotation of a respective vehicle wheel , detecting a curve in a forward travel path of the vehicle using the curve detecting mechanism and determining a direction of the curve after detecting the curve, and pre-filling brakes in response to the detection of a curve; characterized in that the step of pre-filling involves only pre-filling the brake of the front right wheel and the brake of the rear left wheel when a left hand curve is detected and only pre-filling the brake of the front left wheel and the brake of the rear right wheel when a right hand curve is detected; and the method further comprises the step of determining if the vehicle is oversteering or understeering as the vehicle is traversing the detected curve.
An aerosol generating device comprising: a heater configured to heat an aerosol generating material by power supplied; a battery configured to store power to be supplied to the heater ; and a controller configured to control power supply to the heater and the battery by performing operations of: monitoring a heating state of the heater when the aerosol generating device is electrically connected to an external power supply source ; characterized in that the controller is further configured to perform the operations of: heating the heater without charging of the battery by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater increases to a target temperature; and charging the battery and heating the heater simultaneously by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater is maintained at a preset temperature. a heater configured to heat an aerosol generating material by power supplied; a battery configured to store power to be supplied to the heater ; and a controller configured to control power supply to the heater and the battery by performing operations of: monitoring a heating state of the heater when the aerosol generating device is electrically connected to an external power supply source ; characterized in that the controller is further configured to perform the operations of: heating the heater without charging of the battery by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater increases to a target temperature; and charging the battery and heating the heater simultaneously by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater is maintained at a preset temperature. monitoring a heating state of the heater when the aerosol generating device is electrically connected to an external power supply source ; characterized in that the controller is further configured to perform the operations of: heating the heater without charging of the battery by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater increases to a target temperature; and charging the battery and heating the heater simultaneously by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater is maintained at a preset temperature. heating the heater without charging of the battery by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater increases to a target temperature; and charging the battery and heating the heater simultaneously by the external power supply source based on the monitored heating state being a heating state in which the temperature of the heater is maintained at a preset temperature.
Electric drive unit for a drum motor , comprising: - an electric drive device having a stator and a rotor , said stator and said rotor being disposed in a stator housing which extends along a longitudinal axis (X); - a cable , wherein a first portion of the cable is connected to the drive device, and a liquid encapsulation is disposed on a second portion of the cable that has individual lines which are litz wires; - wherein a rear flange is disposed on an axial end of the stator housing , wherein the rear flange comprises ∘ an annular space which is disposed on an end side that in the operating state faces away from an interior of the stator housing and which is disposed and configured for receiving a liquid encapsulation of the cable that is connected to the drive device; ∘ wherein the first portion of the cable is connected to the drive device, and the liquid encapsulation is disposed on the second portion of the cable that has individual lines which are litz wires; - and wherein the liquid encapsulation is disposed in the annular space ; - and wherein the end regions of the first and the second portion of the cable that adjoin the liquid encapsulation are disposed in the annular space . - an electric drive device having a stator and a rotor , said stator and said rotor being disposed in a stator housing which extends along a longitudinal axis (X); - a cable , wherein a first portion of the cable is connected to the drive device, and a liquid encapsulation is disposed on a second portion of the cable that has individual lines which are litz wires; - wherein a rear flange is disposed on an axial end of the stator housing , wherein the rear flange comprises ∘ an annular space which is disposed on an end side that in the operating state faces away from an interior of the stator housing and which is disposed and configured for receiving a liquid encapsulation of the cable that is connected to the drive device; ∘ wherein the first portion of the cable is connected to the drive device, and the liquid encapsulation is disposed on the second portion of the cable that has individual lines which are litz wires; ∘ an annular space which is disposed on an end side that in the operating state faces away from an interior of the stator housing and which is disposed and configured for receiving a liquid encapsulation of the cable that is connected to the drive device; ∘ wherein the first portion of the cable is connected to the drive device, and the liquid encapsulation is disposed on the second portion of the cable that has individual lines which are litz wires; - and wherein the liquid encapsulation is disposed in the annular space ; - and wherein the end regions of the first and the second portion of the cable that adjoin the liquid encapsulation are disposed in the annular space .
A watercraft having a jet drive module , wherein the watercraft comprises modules which can be connected to one another, wherein a stern module and a bow module are provided, which can be detachably connected by means of a first connecting mechanism (15-18), wherein, in addition, the jet drive module can be detachably connected to the stern module , wherein a power supply module , which is arranged in the stern module above the jet drive module and which can be detachably connected to the stern module , is provided, wherein the power supply module provides the power supply of the jet drive module , wherein a flushing mechanism is provided, which, when the watercraft is operating, conducts water at least partially around the power supply module in order to dissipate heat, characterized in that the flushing mechanism comprises a gap between the stern module and the power supply module , wherein a discharge line is provided from the gap through the stern module .
A drive device comprising; a housing in which a gas is sealed, wherein density of the gas is lower than density of air; a phosphor wheel housed inside the housing; a driver configured to rotate the phosphor wheel; a current detector configured to detect a value of a current flowing into the driver while the phosphor wheel is rotated by the driver; and a determinator configured to determine a concentration of the gas inside the housing based on the value of the current detected. a housing in which a gas is sealed, wherein density of the gas is lower than density of air; a phosphor wheel housed inside the housing; a driver configured to rotate the phosphor wheel; a current detector configured to detect a value of a current flowing into the driver while the phosphor wheel is rotated by the driver; and a determinator configured to determine a concentration of the gas inside the housing based on the value of the current detected.
A pump comprising: a molded stator including a board on which a magnetic pole position detection element is mounted; and a rotor including a rotor portion that is rotatably accommodated in a cup-shaped partition wall component , the rotor portion opposing the magnetic pole position detection element at one end and having an impeller attachment portion for attaching an impeller at other end, wherein, in the rotor portion , a first magnet , a magnetic pole position detection resin magnet formed in a ring shape, and a sleeve bearing disposed inside the first magnet are assembled together by using a thermoplastic resin , and the impeller attachment portion is formed of the thermoplastic resin , wherein the first magnet has a cylindrical shape, characterized in that the first magnet includes a first projection that serves as a base for the magnetic pole position detection resin magnet , wherein the magnetic pole position detection resin magnet is opposed to the first projection , and wherein the first magnet includes a plurality of second projections arranged in a circumferential direction on an inner periphery of the first magnet , the second projections extending in an axial direction toward an end surface of the first magnet on a side of the impeller , and including a protruding portion (68a-1) that protrudes toward the end surface of the first magnet on the side of the impeller . a molded stator including a board on which a magnetic pole position detection element is mounted; and a rotor including a rotor portion that is rotatably accommodated in a cup-shaped partition wall component , the rotor portion opposing the magnetic pole position detection element at one end and having an impeller attachment portion for attaching an impeller at other end, wherein, in the rotor portion , a first magnet , a magnetic pole position detection resin magnet formed in a ring shape, and a sleeve bearing disposed inside the first magnet are assembled together by using a thermoplastic resin , and the impeller attachment portion is formed of the thermoplastic resin , wherein the first magnet has a cylindrical shape, characterized in that the first magnet includes a first projection that serves as a base for the magnetic pole position detection resin magnet , wherein the magnetic pole position detection resin magnet is opposed to the first projection , and wherein the first magnet includes a plurality of second projections arranged in a circumferential direction on an inner periphery of the first magnet , the second projections extending in an axial direction toward an end surface of the first magnet on a side of the impeller , and including a protruding portion (68a-1) that protrudes toward the end surface of the first magnet on the side of the impeller .