mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining the position of an element of a machine from a measurement signal , which element is movable within a total range , wherein the method comprises the following steps of: - determining a first limit value of a partial range of positions of the movable element which are possible at a predefined time, said partial range being within the total range , wherein the first limit value is determined taking into account a first position of the movable element that forms a starting position and taking into account a first boundary condition for the movement of the movable element , wherein the first boundary condition indicates how far the movable element may have at most moved away from the first position by the predefined time, - determining a second limit value of the partial range of positions of the movable element which are possible at the predefined time, wherein the second limit value is determined taking into account the first position of the movable element and taking into account a second boundary condition for the movement of the movable element , wherein the second boundary condition indicates how far the movable element may have at least moved away from the first position by the predefined time, - reading in the measurement signal captured at the predefined time, - determining a second position of the movable element as an end position from the measurement signal taking into account only the partial range of the positions which are possible at the predefined time. - determining a first limit value of a partial range of positions of the movable element which are possible at a predefined time, said partial range being within the total range , wherein the first limit value is determined taking into account a first position of the movable element that forms a starting position and taking into account a first boundary condition for the movement of the movable element , wherein the first boundary condition indicates how far the movable element may have at most moved away from the first position by the predefined time, - determining a second limit value of the partial range of positions of the movable element which are possible at the predefined time, wherein the second limit value is determined taking into account the first position of the movable element and taking into account a second boundary condition for the movement of the movable element , wherein the second boundary condition indicates how far the movable element may have at least moved away from the first position by the predefined time, - reading in the measurement signal captured at the predefined time, - determining a second position of the movable element as an end position from the measurement signal taking into account only the partial range of the positions which are possible at the predefined time.
A load control system comprising: a plurality of control devices, wherein each control device includes one of a control-source device or a control-target device configured to control an amount of power provided to an electrical load, wherein each control device comprises a beacon transmitting circuit configured to transmit a respective control device beacon that comprises an identifier associated with the control device; and a network device configured to: discover the respective control device beacon for each control device of the plurality of control devices; identify a signal strength at which the respective control device beacon is received for each control device of the plurality of control devices; display the plurality of control devices in a list of control devices that is sorted according to the corresponding signal strength of each control device beacon; receive indications of user selection of at least two control devices in the list of control devices; and associate the identifiers of the selected at least two control devices to enable control of the at least two control devices upon a command subsequently received by at least one of the at least two control devices . a plurality of control devices, wherein each control device includes one of a control-source device or a control-target device configured to control an amount of power provided to an electrical load, wherein each control device comprises a beacon transmitting circuit configured to transmit a respective control device beacon that comprises an identifier associated with the control device; and a network device configured to: discover the respective control device beacon for each control device of the plurality of control devices; identify a signal strength at which the respective control device beacon is received for each control device of the plurality of control devices; display the plurality of control devices in a list of control devices that is sorted according to the corresponding signal strength of each control device beacon; receive indications of user selection of at least two control devices in the list of control devices; and associate the identifiers of the selected at least two control devices to enable control of the at least two control devices upon a command subsequently received by at least one of the at least two control devices . discover the respective control device beacon for each control device of the plurality of control devices; identify a signal strength at which the respective control device beacon is received for each control device of the plurality of control devices; display the plurality of control devices in a list of control devices that is sorted according to the corresponding signal strength of each control device beacon; receive indications of user selection of at least two control devices in the list of control devices; and associate the identifiers of the selected at least two control devices to enable control of the at least two control devices upon a command subsequently received by at least one of the at least two control devices .
A tire, comprising a tread rubber, the tread rubber satisfying the following relationship (I): a / b ≥ 0.75 wherein the symbols (a) and (b) represent minimum and maximum Martens hardnesses, respectively, of a tire tread contact portion measured in a region from 10 um to 200 um deep in a tire radial direction from a tire surface; wherein the tread rubber is formed from a rubber composition which comprises, per 100 parts by mass of a rubber component therein, 3.4 parts by mass or more of at least one phenylenediamine antioxidant; and wherein the tread rubber is formed from a rubber composition which comprises, per 100 parts by mass of a rubber component therein, 20 parts by mass or more of at least one liquid plasticizer. the tread rubber satisfying the following relationship (I): a / b ≥ 0.75 wherein the symbols (a) and (b) represent minimum and maximum Martens hardnesses, respectively, of a tire tread contact portion measured in a region from 10 um to 200 um deep in a tire radial direction from a tire surface; wherein the tread rubber is formed from a rubber composition which comprises, per 100 parts by mass of a rubber component therein, 3.4 parts by mass or more of at least one phenylenediamine antioxidant; and wherein the tread rubber is formed from a rubber composition which comprises, per 100 parts by mass of a rubber component therein, 20 parts by mass or more of at least one liquid plasticizer.
A device for determining a location on an elongated workpiece and being manually movable on the workpiece the device comprising: - a frame movable in a first direction, preferably in a longitudinal direction of the workpiece, consequently moving the whole device on the workpiece in said direction, - positioning means to position the frame in relation to the sides of the workpiece, wherein the positioning means fix the frame so that the frame doesn't move in the second direction but so that the frame may move in the longitudinal direction of the workpiece, - movable means movable in a second direction, preferably in a transverse direction in relation to the workpiece and with respect to the frame , - a measuring point , the movement in first direction and second direction being used to move measuring point in said directions, - the device comprising measuring equipment for determining the location of the measuring point in transverse and longitudinal respect to the workpiece, - the measuring equipment comprising longitudinal measuring equipment for determining the longitudinal location of the measuring point with respect to the workpiece and measuring equipment for determining the transverse movement of the movable means , - characterized in that the measuring equipment comprises a further measuring equipment related to the positioning means , to detect the specific width of the workpiece. - a frame movable in a first direction, preferably in a longitudinal direction of the workpiece, consequently moving the whole device on the workpiece in said direction, - positioning means to position the frame in relation to the sides of the workpiece, wherein the positioning means fix the frame so that the frame doesn't move in the second direction but so that the frame may move in the longitudinal direction of the workpiece, - movable means movable in a second direction, preferably in a transverse direction in relation to the workpiece and with respect to the frame , - a measuring point , the movement in first direction and second direction being used to move measuring point in said directions, - the device comprising measuring equipment for determining the location of the measuring point in transverse and longitudinal respect to the workpiece, - the measuring equipment comprising longitudinal measuring equipment for determining the longitudinal location of the measuring point with respect to the workpiece and measuring equipment for determining the transverse movement of the movable means , - characterized in that the measuring equipment comprises a further measuring equipment related to the positioning means , to detect the specific width of the workpiece.
Hard magnet, comprising an intermetallic compound with hexagonal or trigonal crystal symmetry having the general composition X a X' b Y c Z d wherein X and X' independently from one another are representative of a 3d transition metal with unpaired electrons; Y is a 4d or 5d transition metal of groups 5, 8, 9, or 10 Z is a main group element of groups 13, 14 or 15; a and d independently from one another represent a number between 0.1 and 2.0; and b and c independently from one another represent a number between 0.0 and 2.0; such that a+b+c+d is between 3.0 und 4.0, and wherein the coercive field strength, expressed as B c = μ 0 H c is ≥ 0.05 T; wherein the hard magnet is in the form of a thin film. X and X' independently from one another are representative of a 3d transition metal with unpaired electrons; Y is a 4d or 5d transition metal of groups 5, 8, 9, or 10 Z is a main group element of groups 13, 14 or 15; a and d independently from one another represent a number between 0.1 and 2.0; and b and c independently from one another represent a number between 0.0 and 2.0; such that a+b+c+d is between 3.0 und 4.0, and wherein the coercive field strength, expressed as B c = μ 0 H c is ≥ 0.05 T; wherein the hard magnet is in the form of a thin film.
A metering device for use in a manufacturing device for manufacturing a three-dimensional object by means of a solidification layer by layer in z direction of a building material in powder form within a build area , which comprises a recoater movable across the build area in an xy plane for applying a layer of the building material in the build area , wherein the metering device comprises several powder feeding devices arranged perpendicularly to the movement direction of the recoater and adjacent to each other in the xy plane.
A method for a wireless device for operating in a wireless communication system, the method comprising: triggering (S1101) a buffer status reporting, BSR, based on expected uplink data, wherein the expected uplink data is data not generated yet and expected to be generated within a certain time period; triggering a scheduling request, SR; receiving a first uplink grant in response to the SR; transmitting (S1105) the BSR on the first uplink grant, wherein the BSR includes a size of the expected uplink data; receiving (S1107) a second uplink grant in response to the BSR; and transmitting (S1109) uplink data on the second uplink grant based on the uplink data being generated, characterised in that the triggered BSR further includes information informing that the triggered BSR is for the expected uplink data, and the SR includes information informing that the SR is triggered by the BSR which is for the expected uplink data. triggering (S1101) a buffer status reporting, BSR, based on expected uplink data, wherein the expected uplink data is data not generated yet and expected to be generated within a certain time period; triggering a scheduling request, SR; receiving a first uplink grant in response to the SR; transmitting (S1105) the BSR on the first uplink grant, wherein the BSR includes a size of the expected uplink data; receiving (S1107) a second uplink grant in response to the BSR; and transmitting (S1109) uplink data on the second uplink grant based on the uplink data being generated, characterised in that the triggered BSR further includes information informing that the triggered BSR is for the expected uplink data, and the SR includes information informing that the SR is triggered by the BSR which is for the expected uplink data.
A fuel supply system for a gas turbine engine comprising: a fuel tank ; a main fuel pump for receiving fuel from said fuel tank ; an electric pump for receiving fuel from said fuel tank , wherein said main fuel pump and said electric pump both deliver fuel to a sharing valve , and said sharing valve is configured to selectively deliver fuel downstream into a gas generator portion of a gas turbine engine and to an augmentor ; and a controller programmed to control said sharing valve such that fuel can flow from said main fuel pump to the augmentor and the gas generator at higher demand operation, and cannot flow from said main fuel pump at lower demand operation, characterised in that : said main fuel pump and said electric pump are configured to both supply fuel to said augmentor and to said gas generator during higher demand operation. a fuel tank ; a main fuel pump for receiving fuel from said fuel tank ; an electric pump for receiving fuel from said fuel tank , wherein said main fuel pump and said electric pump both deliver fuel to a sharing valve , and said sharing valve is configured to selectively deliver fuel downstream into a gas generator portion of a gas turbine engine and to an augmentor ; and a controller programmed to control said sharing valve such that fuel can flow from said main fuel pump to the augmentor and the gas generator at higher demand operation, and cannot flow from said main fuel pump at lower demand operation, characterised in that : said main fuel pump and said electric pump are configured to both supply fuel to said augmentor and to said gas generator during higher demand operation.
A mixing method using a manufacturing apparatus comprising a mixing machine comprising a support defining a receiving housing , the receiving housing comprising a first receiving location configured to receive a first deformable capsule and a second receiving location configured to receive a second deformable capsule , the first and second capsules being intended to be fluidly linked to each other and containing respectively a first formulation and a second formulation, the manufacturing apparatus comprising an actuation system configured to transmit a pressure force to the first and second capsules in order to move the content of the first capsule in the second capsule , and vice versa, the mixing machine comprising a heater element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , characterized in that the method comprises the following steps: - Heating step (Em3) and/or kneading step (Em4, Em5) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element up to a target temperature (Tc); then - Step of cooling with kneading (Em6) through setting in motion of the actuation system up to a withdrawal temperature (Tr) from which the kneading is stopped. the manufacturing apparatus comprising an actuation system configured to transmit a pressure force to the first and second capsules in order to move the content of the first capsule in the second capsule , and vice versa, the mixing machine comprising a heater element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , characterized in that the method comprises the following steps: - Heating step (Em3) and/or kneading step (Em4, Em5) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element up to a target temperature (Tc); then - Step of cooling with kneading (Em6) through setting in motion of the actuation system up to a withdrawal temperature (Tr) from which the kneading is stopped. - Heating step (Em3) and/or kneading step (Em4, Em5) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element up to a target temperature (Tc); then - Step of cooling with kneading (Em6) through setting in motion of the actuation system up to a withdrawal temperature (Tr) from which the kneading is stopped.
A semiconductor device comprising: a semiconductor substrate ; one or more replacement active regions disposed over a top surface of the semiconductor substrate , wherein the replacement active regions are a first III-V semiconductor material; a gate structure formed above one or more replacement active regions ; source/drain, S/D, recesses in the replacement active regions ; and replacement S/D regions formed in the S/D recesses, wherein the replacement S/D regions comprise a second III-V semiconductor material having a lattice constant smaller than a lattice constant of the first III-V semiconductor material; and a shallow trench isolation, STI, layer formed between adjacent replacement active regions, wherein at least a portion of the replacement S/D regions extends above a top surface of the STI layer and contacts a top surface of the STI layer . a semiconductor substrate ; one or more replacement active regions disposed over a top surface of the semiconductor substrate , wherein the replacement active regions are a first III-V semiconductor material; a gate structure formed above one or more replacement active regions ; source/drain, S/D, recesses in the replacement active regions ; and replacement S/D regions formed in the S/D recesses, wherein the replacement S/D regions comprise a second III-V semiconductor material having a lattice constant smaller than a lattice constant of the first III-V semiconductor material; and a shallow trench isolation, STI, layer formed between adjacent replacement active regions, wherein at least a portion of the replacement S/D regions extends above a top surface of the STI layer and contacts a top surface of the STI layer .
A cleaning tool, having a cleaning sheet and a holder for holding the cleaning sheet , wherein: the cleaning sheet is configured to extend in a longitudinal direction which is defined by a direction of insertion of the holder into the cleaning sheet , and in a transverse direction which is defined by a direction crossing the longitudinal direction, the holder has a holding part for holding the cleaning sheet , and a grip part which is connected to the holding part and designed to be held by a user, the cleaning sheet has ends in the longitudinal direction, ends in the transverse direction, a brush part capable of cleaning an object to be cleaned, a base connected with the brush part , and an insertion part which is formed on the base and into which the holding part is inserted, characterized in that the brush part comprises a fiber assembly of fibers having the same length and having orientation in a prescribed direction and includes a first brush region and a second brush region , and the second brush region is configured to be longer than the first brush region and has a protruding region. the cleaning sheet is configured to extend in a longitudinal direction which is defined by a direction of insertion of the holder into the cleaning sheet , and in a transverse direction which is defined by a direction crossing the longitudinal direction, the holder has a holding part for holding the cleaning sheet , and a grip part which is connected to the holding part and designed to be held by a user, the cleaning sheet has ends in the longitudinal direction, ends in the transverse direction, a brush part capable of cleaning an object to be cleaned, a base connected with the brush part , and an insertion part which is formed on the base and into which the holding part is inserted, characterized in that the brush part comprises a fiber assembly of fibers having the same length and having orientation in a prescribed direction and includes a first brush region and a second brush region , and the second brush region is configured to be longer than the first brush region and has a protruding region.
A method for performing radio measurements in a wireless device in a communications system comprising at least one network node , the method comprising: obtaining an indication of a first cell carrier frequency associated with a first altitude range and an indication of a second cell carrier frequency associated with a second altitude range wherein the first altitude range is indicated by a first altitude value and a first threshold parameter, wherein the first threshold parameter indicates whether the first altitude range is above or below the first altitude value and the second altitude range is indicated by a second altitude value and a second threshold parameter, wherein the second threshold parameter indicates whether the second altitude range is above or below the second altitude value; determining an altitude of the wireless device; performing a radio measurement on a signal received from a cell operating on the first cell carrier frequency only when the altitude of the wireless device is within the first altitude range and performing a radio measurement on a signal received from a cell operating on the second cell carrier frequency only when the altitude of the wireless device is within the second altitude range, and reporting an information about the altitude or the altitude range of the wireless device at which the wireless device performed the radio measurement. obtaining an indication of a first cell carrier frequency associated with a first altitude range and an indication of a second cell carrier frequency associated with a second altitude range wherein the first altitude range is indicated by a first altitude value and a first threshold parameter, wherein the first threshold parameter indicates whether the first altitude range is above or below the first altitude value and the second altitude range is indicated by a second altitude value and a second threshold parameter, wherein the second threshold parameter indicates whether the second altitude range is above or below the second altitude value; determining an altitude of the wireless device; performing a radio measurement on a signal received from a cell operating on the first cell carrier frequency only when the altitude of the wireless device is within the first altitude range and performing a radio measurement on a signal received from a cell operating on the second cell carrier frequency only when the altitude of the wireless device is within the second altitude range, and reporting an information about the altitude or the altitude range of the wireless device at which the wireless device performed the radio measurement.