mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a fault condition in a synchronous machine, wherein the method comprises: a) obtaining a field current signal of a current flowing through a rotor coil and a shaft voltage signal of the synchronous machine, b) transforming the field current signal and the shaft voltage signal to obtain a field current frequency spectrum and a shaft voltage frequency spectrum, and c) determining whether a fault condition is present, and in case a fault condition is present identifying a type of the fault condition, wherein the determining is based on harmonic content of the field current frequency spectrum and harmonic content of the shaft voltage frequency spectrum, wherein step c) comprises comparing the harmonic content of the field current frequency spectrum with a healthy condition field current signature spectrum and the harmonic content of the shaft voltage frequency spectrum with a healthy condition shaft voltage signature spectrum, wherein in case the harmonic content of the field current frequency spectrum does not match the healthy condition field current signature spectrum or the harmonic content of the shaft voltage frequency spectrum does not match the healthy condition shaft voltage signature spectrum, step c) comprises comparing the harmonic content of the field current frequency spectrum with fault condition field current signature spectra and comparing the harmonic content of the shaft voltage frequency spectrum with fault condition shaft voltage signature spectra. a) obtaining a field current signal of a current flowing through a rotor coil and a shaft voltage signal of the synchronous machine, b) transforming the field current signal and the shaft voltage signal to obtain a field current frequency spectrum and a shaft voltage frequency spectrum, and c) determining whether a fault condition is present, and in case a fault condition is present identifying a type of the fault condition, wherein the determining is based on harmonic content of the field current frequency spectrum and harmonic content of the shaft voltage frequency spectrum, wherein step c) comprises comparing the harmonic content of the field current frequency spectrum with a healthy condition field current signature spectrum and the harmonic content of the shaft voltage frequency spectrum with a healthy condition shaft voltage signature spectrum, wherein in case the harmonic content of the field current frequency spectrum does not match the healthy condition field current signature spectrum or the harmonic content of the shaft voltage frequency spectrum does not match the healthy condition shaft voltage signature spectrum, step c) comprises comparing the harmonic content of the field current frequency spectrum with fault condition field current signature spectra and comparing the harmonic content of the shaft voltage frequency spectrum with fault condition shaft voltage signature spectra.
A computer-implemented method for controlling service discovery and activation in a plurality of service discovery scenarios comprising: determining that a service associated with a first computing device is available for another computing device to use by receiving a registration from the service that communicates the service is available for the another computing device; encoding , into a message, instructions for accessing the service over a wireless activation protocol; selecting , based on a wireless context of the first computing device, a publication protocol from available wireless communication protocols useable by the first computing device to communicate the message, wherein the publication protocol is different from the wireless activation protocol; communicating , from the first computing device's radio, the message using the publication protocol such that the service is discoverable by a second computing device; receiving , at the first computing device's radio from the second computing device that received the message, an activation request for the service, the activation request formatted in the wireless activation protocol; and activating the service for use by the second computing device, wherein the service is accessed through wireless communications formatted according to the wireless activation protocol. determining that a service associated with a first computing device is available for another computing device to use by receiving a registration from the service that communicates the service is available for the another computing device; encoding , into a message, instructions for accessing the service over a wireless activation protocol; selecting , based on a wireless context of the first computing device, a publication protocol from available wireless communication protocols useable by the first computing device to communicate the message, wherein the publication protocol is different from the wireless activation protocol; communicating , from the first computing device's radio, the message using the publication protocol such that the service is discoverable by a second computing device; receiving , at the first computing device's radio from the second computing device that received the message, an activation request for the service, the activation request formatted in the wireless activation protocol; and activating the service for use by the second computing device, wherein the service is accessed through wireless communications formatted according to the wireless activation protocol.
A process for making a structured liquid composition, comprising the steps of: a) providing a first premix comprising surfactant and non-aqueous organic solvent, and less than 30 wt% of water, wherein the first premix is at a temperature of greater than 40°C; b) providing a crystalline structurant selected from the group consisting of: fatty acids, fatty esters, glycerides, fatty alcohols, or mixtures thereof; c) combining the crystalline structurant with a first premix to form a second premix ; d) combining the second premix with a liquid composition at a temperature of less than 40°C, to form the structured liquid composition, wherein the ratio of crystalline structurant to first premix is from 2:98 to 20:80, preferably 3:97 to 12:88, more preferably from 4:96 to 8:92. a) providing a first premix comprising surfactant and non-aqueous organic solvent, and less than 30 wt% of water, wherein the first premix is at a temperature of greater than 40°C; b) providing a crystalline structurant selected from the group consisting of: fatty acids, fatty esters, glycerides, fatty alcohols, or mixtures thereof; c) combining the crystalline structurant with a first premix to form a second premix ; d) combining the second premix with a liquid composition at a temperature of less than 40°C, to form the structured liquid composition,
A void bush for a vehicle suspension, the void bush comprising: a rubber bush filled between an inner pipe and an outer pipe , the rubber bush including a void ; and an inside stopper and an outside stopper arranged to face to each other, the void positioned between the inside stopper and the outside stopper, wherein: the inside stopper includes an inside bump portion and the outside stopper includes an outside bump portion, the inside bump portion and the outside bump portion are configured to cross each other, the inside bump portion is provided with a plurality of inside bumps , the outside bump portion is provided with a plurality of outside bumps , characterised in that among the plurality of inside bumps, a curvature (T1) of one inside bump located in a center of the plurality of inside bumps in a circumferential direction of the inner pipe is greater than a curvature (T2) of one inside bump located in an outmost side of the plurality of inside bumps in the circumferential direction. a rubber bush filled between an inner pipe and an outer pipe , the rubber bush including a void ; and an inside stopper and an outside stopper arranged to face to each other, the void positioned between the inside stopper and the outside stopper, wherein: the inside stopper includes an inside bump portion and the outside stopper includes an outside bump portion, the inside bump portion and the outside bump portion are configured to cross each other, the inside bump portion is provided with a plurality of inside bumps , the outside bump portion is provided with a plurality of outside bumps , characterised in that among the plurality of inside bumps, a curvature (T1) of one inside bump located in a center of the plurality of inside bumps in a circumferential direction of the inner pipe is greater than a curvature (T2) of one inside bump located in an outmost side of the plurality of inside bumps in the circumferential direction. the inside stopper includes an inside bump portion and the outside stopper includes an outside bump portion, the inside bump portion and the outside bump portion are configured to cross each other, the inside bump portion is provided with a plurality of inside bumps , the outside bump portion is provided with a plurality of outside bumps , characterised in that among the plurality of inside bumps, a curvature (T1) of one inside bump located in a center of the plurality of inside bumps in a circumferential direction of the inner pipe is greater than a curvature (T2) of one inside bump located in an outmost side of the plurality of inside bumps in the circumferential direction.
Method for evaluating a weld quality of a welded seam that has the end portions of at least two longitudinally extended conductor elements which are welded together by irradiating the end faces thereof, wherein the method comprises the following steps: (a) capturing an image of the end faces of the conductor elements welded together by means of the welded seam , wherein the image is recorded from the end faces of the conductor elements and the environment recorded by the image comprises at least an entire surface of the welded seam , and wherein the image is captured at different intensity levels in pixels of the image , wherein the intensity levels are an indicator of the amount of light that has been locally reflected from the recorded position during recording of the image , and the indicator is thus a measure of a local orientation of the surface of the welded seam , in particular wherein the welded seam is illuminated with light in parallel with the direction of recording of the image, (b) dividing the image into at least a first subset of pixels, the intensity levels of which are greater than a determined intensity level threshold value, and into at least a second subset of pixels, the intensity levels of which are less than or equal to the intensity level threshold value, and (c) assessing the weld quality of the welded seam by comparing a number and/or position of pixels of the first subset and/or the second subset with at least one pixel target value of a number and/or a pixel target range of a position of pixels of the first subset and/or the second subset corresponding to a welded seam of desired quality. (a) capturing an image of the end faces of the conductor elements welded together by means of the welded seam , wherein the image is recorded from the end faces of the conductor elements and the environment recorded by the image comprises at least an entire surface of the welded seam , and wherein the image is captured at different intensity levels in pixels of the image , wherein the intensity levels are an indicator of the amount of light that has been locally reflected from the recorded position during recording of the image , and the indicator is thus a measure of a local orientation of the surface of the welded seam , in particular wherein the welded seam is illuminated with light in parallel with the direction of recording of the image, (b) dividing the image into at least a first subset of pixels, the intensity levels of which are greater than a determined intensity level threshold value, and into at least a second subset of pixels, the intensity levels of which are less than or equal to the intensity level threshold value, and (c) assessing the weld quality of the welded seam by comparing a number and/or position of pixels of the first subset and/or the second subset with at least one pixel target value of a number and/or a pixel target range of a position of pixels of the first subset and/or the second subset corresponding to a welded seam of desired quality.
Process for the manufacture of an end-product made of wood, wooden material and similar, where an initial part with a rectangular cross-section is made of base elements that have a angular cross-section and are firmly connected to the outer sides lying flatly against one another, wherein recesses , which extend across the length of the base element , are inserted into the outer side of each base element in such a way that, when putting together the base elements , cavities result in the initial part , into which cuts are made from outer sides lying opposite to one another, said cuts extending across the length of the initial part , are guided up into the cavities and have a different spacing from the other longitudinal sides of the initial part lying opposite to one another and running in parallel to one another, which is separated into components by the cuts in such a way that these have a different thickness across their width, characterized in that other cuts are performed between adjacent cavities , which are made perpendicularly to the outer sides of the initial part lying opposite to one another and cut through the initial part , and that end-products are formed out of the components .
A bandwidth part, BWP, adjustment method, comprising: receiving (S401), by a terminal device, in a first BWP, first indication information from a network side device, wherein the first indication information is used to indicate information about a second BWP to be used by the terminal device to receive and/or send data, and is used to indicate the terminal device to enter a sleep state; wherein the first indication information is a go to sleep, GTS, signal, and the GTS signal comprises the information about the second BWP; determining (S402), by the terminal device, that the first BWP is different from the second BWP; controlling (S404), by the terminal device, the terminal device to enter the sleep state, and switching, by the terminal device, an operating BWP from the first BWP to the second BWP; and receiving and/or sending (S405), by the terminal device, the data in the second BWP immediately after being woken up. receiving (S401), by a terminal device, in a first BWP, first indication information from a network side device, wherein the first indication information is used to indicate information about a second BWP to be used by the terminal device to receive and/or send data, and is used to indicate the terminal device to enter a sleep state; wherein the first indication information is a go to sleep, GTS, signal, and the GTS signal comprises the information about the second BWP; determining (S402), by the terminal device, that the first BWP is different from the second BWP; controlling (S404), by the terminal device, the terminal device to enter the sleep state, and switching, by the terminal device, an operating BWP from the first BWP to the second BWP; and receiving and/or sending (S405), by the terminal device, the data in the second BWP immediately after being woken up.
An enclosure for distributing trunk cable to jumper cables, comprising: a compartment divider with a main panel , a top wall , a bottom wall , opposed side walls , at least one dividing wall that spans the side walls, and a guide wall that spans the top and bottom walls, the compartment divider including a plurality of compartments , each formed by the main panel , the guide wall , one of the side walls , and at least two of the top wall , the bottom wall , and the at least one dividing wall; and a cover that covers the compartment divider to enclose the compartments ; wherein the guide wall is configured to form a convex area and a concave area in each compartment; the enclosure further comprising a jumper cable entry aperture on the main panel in each compartment and a jumper cable exit aperture in each compartment, located on one of the side walls. a compartment divider with a main panel , a top wall , a bottom wall , opposed side walls , at least one dividing wall that spans the side walls, and a guide wall that spans the top and bottom walls, the compartment divider including a plurality of compartments , each formed by the main panel , the guide wall , one of the side walls , and at least two of the top wall , the bottom wall , and the at least one dividing wall; and a cover that covers the compartment divider to enclose the compartments ; wherein the guide wall is configured to form a convex area and a concave area in each compartment; the enclosure further comprising a jumper cable entry aperture on the main panel in each compartment and a jumper cable exit aperture in each compartment, located on one of the side walls.
Authorization token for an electronic identification document of a person, wherein the authorization token comprises an electronic circuit , which has a first circuit state and a second circuit state, wherein the electronic circuit is configured to indicate in the first circuit state an entry, transit, exit and/or residence authorization of the person, and wherein the electronic circuit is transferable from the first circuit state to the second circuit state in order to delete the entry, transit, exit and/or residence authorization, wherein the electronic circuit is configured to automatically switch from the first circuit state to the second circuit state after a predefined duration, characterized in that the authorization token further comprises a display , wherein the display is configured to indicate how the electronic circuit is manually transferable from the first circuit state to the second circuit state.
A seaworthy craft having a structure for mooring the craft against a set of pylons , comprising a fender with a layer of compressible material having an exposed surface; anchor points secured at laterally spaced locations on the craft; two draw mechanisms also secured on the craft, each mechanism being associated with a respective anchor point; and a tie for extending from each anchor point to its associated draw mechanism, each mechanism being operable to draw its respective tie from an anchor point around a said pylon to urge the fender thereagainst; characterised in that the location of each anchor point on the craft is vertically spaced from its associated draw mechanism such that, in use, a length of each tie extends around a said pylon diagonally, at an angle to the horizontal or longitudinal axis of the craft.
Process for making an electrode active material wherein said process comprises the following steps: (a) Providing a hydroxide TM(OH) 2 or an oxyhydroxide of TM wherein TM is one or more metals and contains Mn and, optionally, Co, and from 85 to 95 mol% Ni, referring to the sum of Ni, Co and Mn, (b) Drying said hydroxide TM(OH) 2 or oxyhydroxide of TM at a temperature in the range of from 400 to 600°C, thereby obtaining an oxide or oxyhydroxide of TM with a residual moisture content of from 200 to 500 ppm, (c) mixing said oxide or oxyhydroxide from step (b) with a source of lithium and with at least one compound of Mg or Al and with at least one compound of Ti or Zr, (d) treating the mixture obtained from step (c) thermally at a temperature in the range of from 550 to 875°C. (a) Providing a hydroxide TM(OH) 2 or an oxyhydroxide of TM wherein TM is one or more metals and contains Mn and, optionally, Co, and from 85 to 95 mol% Ni, referring to the sum of Ni, Co and Mn, (b) Drying said hydroxide TM(OH) 2 or oxyhydroxide of TM at a temperature in the range of from 400 to 600°C, thereby obtaining an oxide or oxyhydroxide of TM with a residual moisture content of from 200 to 500 ppm, (c) mixing said oxide or oxyhydroxide from step (b) with a source of lithium and with at least one compound of Mg or Al and with at least one compound of Ti or Zr, (d) treating the mixture obtained from step (c) thermally at a temperature in the range of from 550 to 875°C.
A method for optimizing Robust Header Compression, ROHC, compression applied to IP headers of a data packet sequence, performed by a terminal of a cellular communication network, the method comprising: adding values representing respective header fields of a sequence of IP data packets to a compression window; performing a Window-based Least Significant Bit, W-LSB, encoding of the values; and sending data packets including said encoded values for receipt by a Radio Network Controller, RNC; characterized in that : when new values are transmitted no values are removed from the compression window, when a handover or mobility procedure is in progress. adding values representing respective header fields of a sequence of IP data packets to a compression window; performing a Window-based Least Significant Bit, W-LSB, encoding of the values; and sending data packets including said encoded values for receipt by a Radio Network Controller, RNC; characterized in that : when new values are transmitted no values are removed from the compression window, when a handover or mobility procedure is in progress.
Oven (1; 41; 51; 61) having - an oven appliance , which encloses a cooking compartment , and an outer housing , - a sensor device (2; 42; 52; 62), directed into the cooking compartment , which is arranged in an interior between the oven appliance and the outer housing , and - at least one sensor fan (20; 53) which is designed to ventilate the sensor device (2; 42; 52; 62) with cooling air (S1), characterised in that - the sensor device (2; 42; 52; 62) has a tube-shaped sensor housing (17; 44) which is open on the face side, in which at least one sensor element is accommodated and the front face side of which is directed in the direction of the cooking compartment , - the sensor device (2; 42; 52; 62) has at least one window (8-10; 54) arranged between the sensor element and the cooking compartment , - a rear face side of the sensor housing (17; 44) is used as an air inlet opening for letting in the cooling air (S1), - a pressure side of the sensor fan (20; 53) is connected to the rear face side for the purpose of ventilation, - the sensor housing (17; 44) has at least one lateral air outlet opening for letting out the cooling air (S1) and - a suction side of the sensor fan (20; 53) is connected to a compartment (A) for the purpose of ventilation, which is separated from a compartment in which the sensor device (2; 42; 52; 62) is located. - an oven appliance , which encloses a cooking compartment , and an outer housing , - a sensor device (2; 42; 52; 62), directed into the cooking compartment , which is arranged in an interior between the oven appliance and the outer housing , and - at least one sensor fan (20; 53) which is designed to ventilate the sensor device (2; 42; 52; 62) with cooling air (S1), - the sensor device (2; 42; 52; 62) has a tube-shaped sensor housing (17; 44) which is open on the face side, in which at least one sensor element is accommodated and the front face side of which is directed in the direction of the cooking compartment , - the sensor device (2; 42; 52; 62) has at least one window (8-10; 54) arranged between the sensor element and the cooking compartment , - a rear face side of the sensor housing (17; 44) is used as an air inlet opening for letting in the cooling air (S1), - a pressure side of the sensor fan (20; 53) is connected to the rear face side for the purpose of ventilation, - the sensor housing (17; 44) has at least one lateral air outlet opening for letting out the cooling air (S1) and - a suction side of the sensor fan (20; 53) is connected to a compartment (A) for the purpose of ventilation, which is separated from a compartment in which the sensor device (2; 42; 52; 62) is located.