mhurhangee/patent-ind-claim-en huggingface dataset:
A method for allocating wavelength channels in a Passive Optical Network, PON, comprising: acquiring, by an Optical Line Terminal, OLT, pre-set wavelength channel priority information and Optical Network Unit, ONU, priority information (S10); and sending the wavelength channel priority information and the ONU priority information to each ONU to enable each ONU to selectively access a corresponding wavelength channel according to the wavelength channel priority information and the ONU priority information based on a pre-set rule (S20). acquiring, by an Optical Line Terminal, OLT, pre-set wavelength channel priority information and Optical Network Unit, ONU, priority information (S10); and sending the wavelength channel priority information and the ONU priority information to each ONU to enable each ONU to selectively access a corresponding wavelength channel according to the wavelength channel priority information and the ONU priority information based on a pre-set rule (S20).
Field device for process and/or automation engineering to monitor at least a chemical or physical process variable of a medium in a component which conducts medium at least partially and temporarily, said field device comprising at least an electronics unit and a sensor unit , wherein at least a component of the sensor unit is in contact with the medium at least in a partial area and at least temporarily, wherein at least the partial area of the component that is in contact with the medium is provided with a medium-resistant multi-layer coating , said coating comprising at least two layers, wherein a first layer is made from a material which is make from a densely packed atomic arrangement, and wherein said first layer provides a corrosion protection for the medium wherein a second layer is arranged around the first layer , said second layer consisting of a chemically resistant plastic and which offers a protection for the first layer against external damage and corrosion, wherein the field device is a pressure measuring cell , and wherein the component which is in contact with the medium at least in a partial area and at least partially is a membrane , characterized in that the first layer has a thickness of approximately 10 μm and is elastic, and the second layer has a thickness of approximately 300 μm.
Vehicle rear portion comprising a bumper skin , a bumper skirt and a rear crossmember placed in front of said bumper skin , the skirt being extended by at least one absorber which is interposed between the bumper skin and the crossmember , and said absorber being equipped with at least one rib which projects towards said crossmember , each absorber comprising at least one frame , the edges delimiting said frame constituting the ribs projecting towards the crossmember , characterized in that each absorber is elongated along a transverse axis of the vehicle, and in that it comprises three frames aligned along said axis and in contact with one another, each absorber comprising a central frame framed by an outer frame and by an inner frame , said inner frame being situated the closest to a longitudinal and central axis of the vehicle, and in that the thickness of the ribs delimiting the inner frame is less than that of the ribs delimiting the central frame and the outer frame .
Method of releasing artificial satellites into Earth's orbit, comprising: providing an orbital transport spacecraft able to move at orbital height and comprising a cargo bay ; hooking a plurality of satellites in said cargo bay ; wherein hooking a plurality of satellites in said cargo bay comprises providing a plurality of releasing systems and hooking each satellite with one of said releasing systems , each releasing system comprising a Picosatellite Orbital Deployer, POD, for housing one or more of said satellites , wherein said PODs serve as releasing pipes for storing, transporting and releasing said satellites and wherein said PODs are housed in said cargo bay ; housing said orbital transport spacecraft in a space launcher configured to reach an orbital height; releasing said orbital transport spacecraft at orbital height, when said space launcher reaches orbital height, by imparting a separation thrust to said orbital transport spacecraft ; releasing satellites in sequence from the cargo bay ; wherein the release of each satellite from the cargo bay occurs in a respective predetermined direction and upon the orbital transport spacecraft has reached a respective predetermined position. providing an orbital transport spacecraft able to move at orbital height and comprising a cargo bay ; hooking a plurality of satellites in said cargo bay ; wherein hooking a plurality of satellites in said cargo bay comprises providing a plurality of releasing systems and hooking each satellite with one of said releasing systems , each releasing system comprising a Picosatellite Orbital Deployer, POD, for housing one or more of said satellites , wherein said PODs serve as releasing pipes for storing, transporting and releasing said satellites and wherein said PODs are housed in said cargo bay ; housing said orbital transport spacecraft in a space launcher configured to reach an orbital height; releasing said orbital transport spacecraft at orbital height, when said space launcher reaches orbital height, by imparting a separation thrust to said orbital transport spacecraft ; releasing satellites in sequence from the cargo bay ; wherein the release of each satellite from the cargo bay occurs in a respective predetermined direction and upon the orbital transport spacecraft has reached a respective predetermined position.
A method of monitoring partial discharge activity in a motor (M) driven by a variable-speed drive (VSD), the method comprising: providing a high-frequency signal from a high-frequency sensor configured to sense pulses in a conductor of the system that originate from partial discharge activity; providing a low-frequency signal from a low-frequency sensor configured to sense an AC waveform in the conductor; characterized in providing a timing signal derived from the timing of successive cycles of the low-frequency signal; and digitising the high-frequency signal and capturing it as consecutive data blocks of varying duration, wherein the capturing of each data block is triggered by the timing signal. providing a high-frequency signal from a high-frequency sensor configured to sense pulses in a conductor of the system that originate from partial discharge activity; providing a low-frequency signal from a low-frequency sensor configured to sense an AC waveform in the conductor; characterized in providing a timing signal derived from the timing of successive cycles of the low-frequency signal; and digitising the high-frequency signal and capturing it as consecutive data blocks of varying duration, wherein the capturing of each data block is triggered by the timing signal.
A product inspection apparatus comprising: a) a conveyor system for transporting items, said conveyor system comprising: i) a weigh conveyor comprising a load detector for detecting the weight of items transported on the conveyor system ; and ii) a transport conveyor adjacent the weigh conveyor ; b) a support structure comprising a support beam ; characterised in that the transport conveyor is mounted to the support beam by at least one support column externally mounted to the support beam such that vibrations are suppressed by the at least one externally mounted support column . a) a conveyor system for transporting items, said conveyor system comprising: i) a weigh conveyor comprising a load detector for detecting the weight of items transported on the conveyor system ; and ii) a transport conveyor adjacent the weigh conveyor ; i) a weigh conveyor comprising a load detector for detecting the weight of items transported on the conveyor system ; and ii) a transport conveyor adjacent the weigh conveyor ; b) a support structure comprising a support beam ;
Component for lifting, lashing or stop technology for outdoor or offshore applications, particularly in the form of shackles, having an opening formed by a base body , which has at least one closable passage , a closing element , by means of which the passage is closed in a closed position , a closure , by means of which the closing element is held rotatably in the closed position with respect to the base body and is secured against opening of the passage , and a safety catch which is automatically activated in the closed position , by means of which the closure is blocked in the closed position and which has a gripping element which can be operated by hand without tools to release the safety catch , characterised in that the closure has closure members which can be brought into engagement with one another in a rotatable manner on the closing element and on a receptacle for the closing element , which receptacle is rotatably held on the base body .
A system for imaging a dental aligner, the system comprising: an optical coherence tomography (OCT) scanner ; one or more processors ; and memory coupled to the one or more processors, the memory configured to store computer-program instructions, that, when executed by the one or more processors, perform a computer-implemented method comprising: generating a three-dimensional model of a combined dental aligner and patient's teeth from an OCT scan of the patient's teeth while the dental aligner is worn on the teeth, wherein both the dental aligner and the patient's teeth are scanned together; extracting an aligner outer surface, an aligner inner surface and a tooth surface from the 3D model; identifying one or more regions of contact between the dent aligner and the patient's teeth using the extracted aligner inner surface and the tooth surface from the 3D model; and displaying the one or more regions of contact. an optical coherence tomography (OCT) scanner ; one or more processors ; and memory coupled to the one or more processors, the memory configured to store computer-program instructions, that, when executed by the one or more processors, perform a computer-implemented method comprising: generating a three-dimensional model of a combined dental aligner and patient's teeth from an OCT scan of the patient's teeth while the dental aligner is worn on the teeth, wherein both the dental aligner and the patient's teeth are scanned together; extracting an aligner outer surface, an aligner inner surface and a tooth surface from the 3D model; identifying one or more regions of contact between the dent aligner and the patient's teeth using the extracted aligner inner surface and the tooth surface from the 3D model; and displaying the one or more regions of contact. generating a three-dimensional model of a combined dental aligner and patient's teeth from an OCT scan of the patient's teeth while the dental aligner is worn on the teeth, wherein both the dental aligner and the patient's teeth are scanned together; extracting an aligner outer surface, an aligner inner surface and a tooth surface from the 3D model; identifying one or more regions of contact between the dent aligner and the patient's teeth using the extracted aligner inner surface and the tooth surface from the 3D model; and displaying the one or more regions of contact.
A method for detecting a failure in a signal light , comprising: monitoring operation of one or more light emitting diodes, LEDs, of the signal light coupled to a constant current driver; detecting a short circuit in at least one of the one or more LEDs , wherein the detecting the short circuit comprises: setting a voltage threshold for the signal light ; measuring a voltage across the one or more LEDs of the signal light ; and characterised by determining the short circuit has occurred when the voltage falls below the voltage threshold, when a first transistor (Q3) turns off in response to a zener diode (ZD2) in communication with the first transistor (Q3) that stops conducting; and signaling the failure in the signal light when the short circuit is detected, wherein the signaling comprises placing the signal light in a high impedance state by blowing a fuse in response to the voltage falling below the voltage threshold, wherein the fuse is blown by a second transistor (Q5) in communication with the first transistor (Q3) that turns on in response to the first transistor (Q3) turning off. monitoring operation of one or more light emitting diodes, LEDs, of the signal light coupled to a constant current driver; detecting a short circuit in at least one of the one or more LEDs , wherein the detecting the short circuit comprises: setting a voltage threshold for the signal light ; measuring a voltage across the one or more LEDs of the signal light ; and characterised by determining the short circuit has occurred when the voltage falls below the voltage threshold, when a first transistor (Q3) turns off in response to a zener diode (ZD2) in communication with the first transistor (Q3) that stops conducting; and setting a voltage threshold for the signal light ; measuring a voltage across the one or more LEDs of the signal light ; and characterised by determining the short circuit has occurred when the voltage falls below the voltage threshold, when a first transistor (Q3) turns off in response to a zener diode (ZD2) in communication with the first transistor (Q3) that stops conducting; and signaling the failure in the signal light when the short circuit is detected, wherein the signaling comprises placing the signal light in a high impedance state by blowing a fuse in response to the voltage falling below the voltage threshold, wherein the fuse is blown by a second transistor (Q5) in communication with the first transistor (Q3) that turns on in response to the first transistor (Q3) turning off.
A method, performed by an electronic device , of adjusting a state of an access network including at least one cell, the method comprising: obtaining state history information of the access network at a first time point; determining , based on the obtained state history information, a first time period required to adjust a state of the access network; determining , based on the first time point and the first time period, a second time point, the second time point being a reference time point at which the state of the access network is to be adjusted; estimating a state of the access network at the second time point based on the obtained state history information; determining , based on the estimated state of the access network at the second time point, values of state control parameters for adjusting the state of the access network; and transmitting the determined values of the state control parameters to the access network, wherein the values of the state control parameters transmitted to the access network are applied, at the second time point, to the state control parameters of the access network, to adjust the state of the access network. obtaining state history information of the access network at a first time point; determining , based on the obtained state history information, a first time period required to adjust a state of the access network; determining , based on the first time point and the first time period, a second time point, the second time point being a reference time point at which the state of the access network is to be adjusted; estimating a state of the access network at the second time point based on the obtained state history information; determining , based on the estimated state of the access network at the second time point, values of state control parameters for adjusting the state of the access network; and transmitting the determined values of the state control parameters to the access network, wherein the values of the state control parameters transmitted to the access network are applied, at the second time point, to the state control parameters of the access network, to adjust the state of the access network.
A turbine stator blade comprising: a stator blade body extending in a radial direction intersecting a flow direction of steam; a collecting portion (13; 14) formed on a surface of the stator blade body and collecting a liquid film flowing along the surface; and a central region formed on the surface of the stator blade body and formed with a plurality of first fine grooves extending from an upstream side in the flow direction toward the collecting portion (13; 14), wherein intervals between the first fine grooves adjacent to each other decrease from the upstream side toward the collecting portion (13; 14), characterized in that a turning angle, which is an angle formed by a direction in which the first fine grooves extend with respect to the flow direction, gradually decreases toward the collecting portion (13; 14). a stator blade body extending in a radial direction intersecting a flow direction of steam; a collecting portion (13; 14) formed on a surface of the stator blade body and collecting a liquid film flowing along the surface; and a central region formed on the surface of the stator blade body and formed with a plurality of first fine grooves extending from an upstream side in the flow direction toward the collecting portion (13; 14), wherein intervals between the first fine grooves adjacent to each other decrease from the upstream side toward the collecting portion (13; 14), characterized in that a turning angle, which is an angle formed by a direction in which the first fine grooves extend with respect to the flow direction, gradually decreases toward the collecting portion (13; 14).
A grounding structure for an internal combustion engine, comprising: a resinous body configured to be fastened to an engine body by a bolt ; an electric component attached to the body ; and a conductive member electrically connecting the electric component to the bolt in order to ground the electric component to the engine body ; characterised in that the electric component has a conduction surface portion configured to face the body while being spaced therefrom when the electric component is attached to the body , and the conductive member has a spring portion configured to be provided in a compressed state between the body and the conduction surface portion . a resinous body configured to be fastened to an engine body by a bolt ; an electric component attached to the body ; and a conductive member electrically connecting the electric component to the bolt in order to ground the electric component to the engine body ; characterised in that the electric component has a conduction surface portion configured to face the body while being spaced therefrom when the electric component is attached to the body , and the conductive member has a spring portion configured to be provided in a compressed state between the body and the conduction surface portion .
A balloon-launching apparatus comprising a plurality of housing sections each formed in a box shape having an opening at an upper part of the housing section and configured to house a balloon , each housing section configured to launch the balloon from the opening , wherein the plurality of housing sections are arranged in a matrix shape, the balloon-launching apparatus further comprises: a container ; and a holdingmember that has a plurality of openings , each of the housing sections being fitted in an opening and being removably attached to the holding member , the container has a balloon-launching chamber and a preparation chamber divided by a partition , the partition including a communicating opening that allows the balloon-launching chamber and the preparation chamber to be in communication with each other, and a balloon-launching port provided on a top surface of the balloon-launching chamber and positioned above all the openings of the housing sections when the plurality of housing sections arranged in a matrix shape are placed in the balloon-launching chamber , and the balloon-launching apparatus further comprises: a first rail extending over the balloon-launching chamber and the preparation chamber through the communicating opening ; and a carriage that is configured to be moved by an operator to run on the first rail and move the holding member along the first rail . the plurality of housing sections are arranged in a matrix shape, the balloon-launching apparatus further comprises: a container ; and a holdingmember that has a plurality of openings , each of the housing sections being fitted in an opening and being removably attached to the holding member , a container ; and a holdingmember that has a plurality of openings , each of the housing sections being fitted in an opening and being removably attached to the holding member , the container has a balloon-launching chamber and a preparation chamber divided by a partition , the partition including a communicating opening that allows the balloon-launching chamber and the preparation chamber to be in communication with each other, and a balloon-launching port provided on a top surface of the balloon-launching chamber and positioned above all the openings of the housing sections when the plurality of housing sections arranged in a matrix shape are placed in the balloon-launching chamber , and the balloon-launching apparatus further comprises: a first rail extending over the balloon-launching chamber and the preparation chamber through the communicating opening ; and a carriage that is configured to be moved by an operator to run on the first rail and move the holding member along the first rail . a first rail extending over the balloon-launching chamber and the preparation chamber through the communicating opening ; and a carriage that is configured to be moved by an operator to run on the first rail and move the holding member along the first rail .