mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation generator comprising: a generator housing , a target carried by said generator housing , wherein the target is grounded; a charged particle source carried by said generator housing to direct charged particles at said target ; and at least one voltage source coupled to said charged particle source , said at least one voltage source comprising a voltage ladder comprising a plurality of voltage multiplication stages coupled in a bi-polar configuration, wherein said voltage multiplication stages are arranged in a positive voltage branch and a negative voltage branch , the output of the positive voltage branch and the negative voltage branch being coupled to the charged particle generator ; at least one loading coil coupled at at least one respective intermediate positions along each of said positive voltage branch and said negative voltage branch of said voltage ladder ; a high voltage driver coupled to an input of each of the positive voltage branch and the negative voltage branch ; an input voltage sensor coupled to said voltage ladder for measuring an input voltage (Vin); and an output voltage sensor coupled to said voltage ladder for measuring an output voltage (Vout); and a microprocessor to control said high voltage driver based upon said input voltage and said output voltage measured by said voltage imput sensor and said output sensor . a generator housing , a target carried by said generator housing , wherein the target is grounded; a charged particle source carried by said generator housing to direct charged particles at said target ; and at least one voltage source coupled to said charged particle source , said at least one voltage source comprising a voltage ladder comprising a plurality of voltage multiplication stages coupled in a bi-polar configuration, wherein said voltage multiplication stages are arranged in a positive voltage branch and a negative voltage branch , the output of the positive voltage branch and the negative voltage branch being coupled to the charged particle generator ; at least one loading coil coupled at at least one respective intermediate positions along each of said positive voltage branch and said negative voltage branch of said voltage ladder ; a high voltage driver coupled to an input of each of the positive voltage branch and the negative voltage branch ; an input voltage sensor coupled to said voltage ladder for measuring an input voltage (Vin); and an output voltage sensor coupled to said voltage ladder for measuring an output voltage (Vout); and a microprocessor to control said high voltage driver based upon said input voltage and said output voltage measured by said voltage imput sensor and said output sensor .
In an intermediate network node, a lossless adjustment method of ODUflex channel bandwidth, characterized in that the method comprises: receiving a bandwidth adjustment indication request information; adjusting , according to the bandwidth adjustment indication request information, the number of time slots occupied by an ODUflex frame in a Higher Order Optical Channel Data Unit, HO ODU, at an egress side of the intermediate network node on an ODUflex channel; receiving a rate adjustment indication information; adjusting , according to the rate adjustment indication information, a transmission rate of the ODUflex frame of the intermediate network node on the ODUflex channel, to enable the transmission rate of each network node on the ODUflex channel to be unified. receiving a bandwidth adjustment indication request information; adjusting , according to the bandwidth adjustment indication request information, the number of time slots occupied by an ODUflex frame in a Higher Order Optical Channel Data Unit, HO ODU, at an egress side of the intermediate network node on an ODUflex channel; receiving a rate adjustment indication information; adjusting , according to the rate adjustment indication information, a transmission rate of the ODUflex frame of the intermediate network node on the ODUflex channel, to enable the transmission rate of each network node on the ODUflex channel to be unified.
An axial gap type rotary electric machine comprising a stator configured by annularly disposing a plurality of core units about an axis of rotation, each core unit at least including a core , a winding disposed around an outer periphery of the core , and a crossover wire drawn out from the winding, at least a rotor configured to face an axial end face of the core via a gap, and a rotating shaft configured to rotate with the rotor , the axial gap type rotary electric machine comprising: a plurality of wiring support portions configured to guide the crossover wire in the rotating direction and provided on an axial end face side and an outer diameter side of the stator ; characterized in that a molding resin is provided for integrally molding the wiring support portions and the stator, each wiring support portion includes a base having an arc shape and extending in a rotating direction along an annular shape on the outer diameter side of the stator and the base has a length extending in the rotating direction over the end face on the outer diameter side of adjacent two or more of the core units and a predetermined width in an axial direction. a plurality of wiring support portions configured to guide the crossover wire in the rotating direction and provided on an axial end face side and an outer diameter side of the stator ; characterized in that a molding resin is provided for integrally molding the wiring support portions and the stator, each wiring support portion includes a base having an arc shape and extending in a rotating direction along an annular shape on the outer diameter side of the stator and the base has a length extending in the rotating direction over the end face on the outer diameter side of adjacent two or more of the core units and a predetermined width in an axial direction.
Autonomous working device , in particular autonomous lawnmower, having at least one capture apparatus , which is provided for the purpose of capturing a working area which is initially at least approximately defined by means of at least one temporary marking apparatus (14, 14', 14", 16, 16', 16'', 18, 18', 18", 20, 20', 20", 21, 21', 21", 22, 22', 22", 23), and having at least one open-loop and/or closed-loop control unit which is provided for the purpose of at least partially mapping the working area , wherein, in a regular operating phase , the open-loop and/or closed-loop control unit is intended to navigate the autonomous working device independently of the at least one temporary marking apparatus (14, 14', 14", 16, 16', 16", 18, 18', 18", 20, 20', 20", 21, 21', 21", 22, 22', 22", 23) and on the basis of a mapped working area , characterized in that the at least one capture apparatus has at least one sensor unit which is provided for the purpose of capturing at least one characteristic variable of the at least one temporary marking apparatus (14, 14', 14", 16, 16', 16", 18, 18', 18", 20, 20', 20", 21, 21', 21", 22, 22', 22", 23), which characteristic variable is designed as the type of the temporary marking apparatus (14, 14', 14", 16, 16', 16", 18, 18', 18", 20, 20', 20", 21, 21', 21", 22, 22', 22'', 23), wherein, during mapping, the open-loop and/or closed-loop control unit is intended to evaluate the data from the sensor unit of the capture apparatus with regard to the type of the temporary marking apparatus (14, 14', 14'', 16, 16', 16'', 18, 18', 18", 20, 20', 20", 21, 21', 21", 22, 22', 22"), wherein different types of temporary marking apparatuses (14, 14', 14", 16, 16', 16", 18, 18', 18", 20, 20', 20", 21, 21', 21", 22, 22', 22", 23) are respectively provided for defining different sections of the working area.
Variable carrier for the installation on two vertical carrier profiles of a rack, wherein - the two vertical carrier profiles of the rack comprise openings in a standardized grid, - the variable carrier can be secured to the vertical carrier profiles via the openings , and - the variable carrier comprises a snap-in device, which can be automatically snapped-into one of the openings on the vertical carrier profiles during the installation, characterized in that the variable carrier comprises at least one retaining hook rigidly connected to the variable carrier , opposite the snap-in device, for being hooked into one of the openings of a vertical carrier profile of the two vertical carrier profiles , such that the variable carrier can be hooked into the opening by means of the retaining hook , wherein the retaining hook , in the mounted state, engages laterally behind a vertical edge of the opening provided to that end of the one vertical carrier profile , and - a resilient length compensation , wherein the resilient length compensation can be tensioned and the variable carrier can be pivoted about the retaining hook in a horizontal plane in the direction of the opposite other vertical carrier profile of the two vertical carrier profiles and subsequently the resilient length compensation can be relaxed and the snap-in device can snap into one of the openings on the opposite other vertical carrier profile . - the two vertical carrier profiles of the rack comprise openings in a standardized grid, - the variable carrier can be secured to the vertical carrier profiles via the openings , and - the variable carrier comprises a snap-in device, which can be automatically snapped-into one of the openings on the vertical carrier profiles during the installation, characterized in that the variable carrier comprises at least one retaining hook rigidly connected to the variable carrier , opposite the snap-in device, for being hooked into one of the openings of a vertical carrier profile of the two vertical carrier profiles , such that the variable carrier can be hooked into the opening by means of the retaining hook , wherein the retaining hook , in the mounted state, engages laterally behind a vertical edge of the opening provided to that end of the one vertical carrier profile , and - a resilient length compensation , wherein the resilient length compensation can be tensioned and the variable carrier can be pivoted about the retaining hook in a horizontal plane in the direction of the opposite other vertical carrier profile of the two vertical carrier profiles and subsequently the resilient length compensation can be relaxed and the snap-in device can snap into one of the openings on the opposite other vertical carrier profile .
A control apparatus for a machine tool that replaces a tool and machines a workpiece based on a machining program , comprising: a machining program analysis part that analyzes the machining program and extracts measurement related information, which includes at least one of the presence of a correction of a tool length or the presence of a correction of a tool diameter, on size measurement of the tool from the machining program ; a storage part that stores the measurement related information, including at least one of the presence of a correction of a tool length or the presence of a correction of a tool diameter; and a measurement program creation part that creates a measurement program for measuring a size of the tool based on the measurement related information, including at least one of the presence of a correction of a tool length or the presence of a correction of a tool diameter, and basic information of the tool inputted in advance, characterised in that the storage part stores rules for creating the measurement program, and the measurement program creation part selects one rule corresponding to the basic information on the tool , and creates the measurement program based on the selected rule. a machining program analysis part that analyzes the machining program and extracts measurement related information, which includes at least one of the presence of a correction of a tool length or the presence of a correction of a tool diameter, on size measurement of the tool from the machining program ; a storage part that stores the measurement related information, including at least one of the presence of a correction of a tool length or the presence of a correction of a tool diameter; and a measurement program creation part that creates a measurement program for measuring a size of the tool based on the measurement related information, including at least one of the presence of a correction of a tool length or the presence of a correction of a tool diameter, and basic information of the tool inputted in advance, characterised in that the storage part stores rules for creating the measurement program, and the measurement program creation part selects one rule corresponding to the basic information on the tool , and creates the measurement program based on the selected rule.
Consumption value recording unit having at least one radio interface (F), comprising a number of different radio operating modes (A1, A2) for transmitting radio telegrams (T1 to Tn) to mobile and stationary data recording devices , wherein - the radio operating modes (A1, A2) differ at least in terms of transmission power and transmission frequency, - at least one transmission period is assigned to each radio operating mode (A1, A2), and characterized in that - each of the radio operating modes (A1, A2) is configured to transmit a plurality of different radio telegrams (T1 to Tn) both to mobile and to stationary data recording devices in periodic or non-periodic alternation on the basis of the respectively assigned transmission period, wherein a first radio operating mode (A1) and a second radio operating mode (A2) are settable or set in such a manner that a transmission power and a transmission frequency in the first radio operating mode (A1) are each higher than a transmission power and a transmission frequency in the second radio operating mode (A2), and - the radio operating modes (A1, A2) are configured such that they emit the radio telegrams (T1 to Tn) both for stationary reception and for mobile reception. - the radio operating modes (A1, A2) differ at least in terms of transmission power and transmission frequency, - at least one transmission period is assigned to each radio operating mode (A1, A2), and characterized in that - each of the radio operating modes (A1, A2) is configured to transmit a plurality of different radio telegrams (T1 to Tn) both to mobile and to stationary data recording devices in periodic or non-periodic alternation on the basis of the respectively assigned transmission period, wherein a first radio operating mode (A1) and a second radio operating mode (A2) are settable or set in such a manner that a transmission power and a transmission frequency in the first radio operating mode (A1) are each higher than a transmission power and a transmission frequency in the second radio operating mode (A2), and - the radio operating modes (A1, A2) are configured such that they emit the radio telegrams (T1 to Tn) both for stationary reception and for mobile reception.
A method for calculating an antiskid controller desired pressure, comprising: receiving , by an antiskid controller (ASK), a first wheel speed; calculating , by the ASK, a first wheel reference speed (WRS), said WRS comprising a value corresponding to said first wheel speed when no brakes are applied; receiving, by the ASK, a second wheel speed; and calculating, by the ASK, a second WRS; calculating , by the ASK, a first wheel reference estimate (WRE), said WRE using the first WRS and the second WRS and being the average of the WRS; determining , by the ASK, if the first WRS is within a threshold value of the first WRE; calculating, by the ASK, an ASK desired pressure, wherein, in response to the first WRS being within the threshold value of the first WRE, the ASK desired pressure is calculated using the first WRS; calculating, by the ASK, an ASK desired pressure, wherein, in response to the first WRS being outside the threshold value of the first WRE, the ASK desired pressure is calculated using the first WRE. receiving , by an antiskid controller (ASK), a first wheel speed; calculating , by the ASK, a first wheel reference speed (WRS), said WRS comprising a value corresponding to said first wheel speed when no brakes are applied; receiving, by the ASK, a second wheel speed; and calculating, by the ASK, a second WRS; calculating , by the ASK, a first wheel reference estimate (WRE), said WRE using the first WRS and the second WRS and being the average of the WRS; determining , by the ASK, if the first WRS is within a threshold value of the first WRE; calculating, by the ASK, an ASK desired pressure, wherein, in response to the first WRS being within the threshold value of the first WRE, the ASK desired pressure is calculated using the first WRS; calculating, by the ASK, an ASK desired pressure, wherein, in response to the first WRS being outside the threshold value of the first WRE, the ASK desired pressure is calculated using the first WRE.
An imaging catheter assembly, comprising: an interposer including a multi-layered substrate structure wherein the multi-layered substrate structure includes a first plurality of conductive contact pads coupled to a second plurality of conductive contact pads via a plurality of conductive lines ; an imaging component coupled to the interposer via the first plurality of conductive contact pads ; and an electrical cable coupled to the interposer via the second plurality of conductive contact pads and in communication with the imaging component , characterized in that the interposer is mounted to a portion of a backing layer of the imaging component that extends beyond the imaging component . an interposer including a multi-layered substrate structure wherein the multi-layered substrate structure includes a first plurality of conductive contact pads coupled to a second plurality of conductive contact pads via a plurality of conductive lines ; an imaging component coupled to the interposer via the first plurality of conductive contact pads ; and an electrical cable coupled to the interposer via the second plurality of conductive contact pads and in communication with the imaging component , characterized in that the interposer is mounted to a portion of a backing layer of the imaging component that extends beyond the imaging component .
A ceiling-embedded air conditioner comprising: a ceiling-embedded casing body that has an air suction path at the center of a lower surface and has an air blowoff path around the air suction path ; a turbo fan that is disposed inside the casing body ; a heat exchanger that is disposed inside the casing body on an outer peripheral side of the turbo fan ; a bell-mouth that guides air sucked from the air suction path toward the inside of the turbo fan ; and a first rectifier that is erected on a back surface of the bell-mouth at the air suction path side opposite to an air suction surface of the bell-mouth , the first rectifier configured to suppress swirling airflows generated by part of air blown from the turbo fan swirling along the back surface of the bell-mouth in the same direction as a rotation direction of the turbo fan , wherein the first rectifier has a first rectifying side vertically erected on the back surface of the bell-mouth as a base end and a second rectifying side horizontally extended from the leading end of the first rectifying side , and the first rectifying side is formed in parallel to a ventilation surface of the heat exchanger . a ceiling-embedded casing body that has an air suction path at the center of a lower surface and has an air blowoff path around the air suction path ; a turbo fan that is disposed inside the casing body ; a heat exchanger that is disposed inside the casing body on an outer peripheral side of the turbo fan ; a bell-mouth that guides air sucked from the air suction path toward the inside of the turbo fan ; and a first rectifier that is erected on a back surface of the bell-mouth at the air suction path side opposite to an air suction surface of the bell-mouth , the first rectifier configured to suppress swirling airflows generated by part of air blown from the turbo fan swirling along the back surface of the bell-mouth in the same direction as a rotation direction of the turbo fan , wherein the first rectifier has a first rectifying side vertically erected on the back surface of the bell-mouth as a base end and a second rectifying side horizontally extended from the leading end of the first rectifying side , and the first rectifying side is formed in parallel to a ventilation surface of the heat exchanger .
An adhesive article comprising: a substrate having first and second opposed major surfaces; first and second tacky latent adhesive layers disposed on the respective first and second opposed major surfaces of the substrate, wherein each of the first and second tacky latent adhesive layers independently comprises: at least one polymerizable component, and a redox initiator system comprising: a transition metal complex that participates in a redox cycle; an oxidizing agent; and a blocked reducing agent represented by the formula wherein each of R 1 and R 2 are independently H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo represents a photoremovable group; each of R 3 and R 4 independently represents H, an alkyl group, or an aryl group comprising a monovalent ester, ether, urethane, or carbonate group. a substrate having first and second opposed major surfaces; first and second tacky latent adhesive layers disposed on the respective first and second opposed major surfaces of the substrate, wherein each of the first and second tacky latent adhesive layers independently comprises: at least one polymerizable component, and a redox initiator system comprising: a transition metal complex that participates in a redox cycle; an oxidizing agent; and a blocked reducing agent represented by the formula wherein each of R 1 and R 2 are independently H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo represents a photoremovable group; each of R 3 and R 4 independently represents H, an alkyl group, or an aryl group comprising a monovalent ester, ether, urethane, or carbonate group. at least one polymerizable component, and a redox initiator system comprising: a transition metal complex that participates in a redox cycle; an oxidizing agent; and a blocked reducing agent represented by the formula wherein each of R 1 and R 2 are independently H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo represents a photoremovable group; each of R 3 and R 4 independently represents H, an alkyl group, or an aryl group comprising a monovalent ester, ether, urethane, or carbonate group. a transition metal complex that participates in a redox cycle; an oxidizing agent; and a blocked reducing agent represented by the formula wherein each of R 1 and R 2 are independently H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo represents a photoremovable group; each of R 3 and R 4 independently represents H, an alkyl group, or an aryl group comprising a monovalent ester, ether, urethane, or carbonate group. each of R 1 and R 2 are independently H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo represents a photoremovable group; each of R 3 and R 4 independently represents H, an alkyl group, or an aryl group comprising a monovalent ester, ether, urethane, or carbonate group.