mhurhangee/patent-ind-claim-en huggingface dataset:
(Currently Amended) A method for designing and modeling a lattice structure for additive manufacturing, the method comprising: receiving , by a processor, a parametrized lattice model providing material properties of a unit cell; identifying , with the processor, lattice zones for a density distribution of the lattice structure based on the parametrized lattice model and based on load requirements of the lattice structure; determining , with the processor, geometry sizes for trusses of the unit cell based on the density distribution and based on a sizing function of the unit cell; modeling the lattice structure for additive manufacturing, the modeling further comprising: adjusting the geometry size of the truss of the unit cell for finite-element analysis; and finite-element-modeling the lattice structure using the adjusted unit cell, the finite-element modeling comprising predicting response of the lattice structure to loads, optimizing topology of said design by repeating said acts of receiving , identifying , determining and finite-element modeling and printing a structural component using the design. receiving , by a processor, a parametrized lattice model providing material properties of a unit cell; identifying , with the processor, lattice zones for a density distribution of the lattice structure based on the parametrized lattice model and based on load requirements of the lattice structure; determining , with the processor, geometry sizes for trusses of the unit cell based on the density distribution and based on a sizing function of the unit cell; modeling the lattice structure for additive manufacturing, the modeling further comprising: adjusting the geometry size of the truss of the unit cell for finite-element analysis; and finite-element-modeling the lattice structure using the adjusted unit cell, the finite-element modeling comprising predicting response of the lattice structure to loads, optimizing topology of said design by repeating said acts of receiving , identifying , determining and finite-element modeling and printing a structural component using the design. adjusting the geometry size of the truss of the unit cell for finite-element analysis; and finite-element-modeling the lattice structure using the adjusted unit cell, the finite-element modeling comprising predicting response of the lattice structure to loads, optimizing topology of said design by repeating said acts of receiving , identifying , determining and finite-element modeling and printing a structural component using the design.
A position detecting device including a sensor having an electrode pattern formed of a plurality of first electrodes (Y1-Y40) arranged in a first direction and a plurality of second electrodes (X1-X40) arranged in a second direction intersecting with the first direction, the position detecting device supplying a drive signal to the first electrodes (Y1-Y40) and detecting a position of an indicator on the electrode pattern from a reception signal obtained from the second electrodes, the position detecting device comprising: a first selection circuit configured to select two sets of the second electrodes (XA2, XA4), which are separate from each other by a distance equivalent to a second predetermined number of electrodes, from the plurality of second electrodes (X1-X40); a second selection circuit configured to select two sets of the first electrodes (YA3, YA5), which are separate from each other by a distance equivalent to a first predetermined number of electrodes, from the plurality of first electrodes (Y1-Y40); a drive signal supply circuit configured to supply the drive signals to each of the two sets (YA3, YA5), of the first electrodes selected by the second selection circuit and to output two signals having phases inverted from each other (ASc, ASc!); a differential amplifier circuit having a non-inverting input terminal (+), to which one set of the two sets (XA2) of the second electrodes selected by the first selection circuit is connected, and an inverting input terminal (-), to which the other set of the two sets (XA4) of the second electrodes is connected; and a detection circuit configured to detect the position of the indicator on the electrode pattern from an output signal of the differential amplifier circuit . a first selection circuit configured to select two sets of the second electrodes (XA2, XA4), which are separate from each other by a distance equivalent to a second predetermined number of electrodes, from the plurality of second electrodes (X1-X40); a second selection circuit configured to select two sets of the first electrodes (YA3, YA5), which are separate from each other by a distance equivalent to a first predetermined number of electrodes, from the plurality of first electrodes (Y1-Y40); a drive signal supply circuit configured to supply the drive signals to each of the two sets (YA3, YA5), of the first electrodes selected by the second selection circuit and to output two signals having phases inverted from each other (ASc, ASc!); a differential amplifier circuit having a non-inverting input terminal (+), to which one set of the two sets (XA2) of the second electrodes selected by the first selection circuit is connected, and an inverting input terminal (-), to which the other set of the two sets (XA4) of the second electrodes is connected; and a detection circuit configured to detect the position of the indicator on the electrode pattern from an output signal of the differential amplifier circuit .
A carbon fiber bundle, wherein a ratio (n/N) of a number n of pairs where a flaw of 50 nm in size or more is present on at least one of fracture surfaces forming the pair to a total number N of pairs of fiber fracture surfaces selected at random after performing a single fiber tensile test for a gauge length of 10 mm according to the method of the description is 35% or less, a mean single-fiber diameter is 4.3 μm or more, and a specific gravity is 1.78 to 1.85, determined according to the method of description.
A process of purifying a polycarbonate comprising: polymerizing a dihydroxy compound and a carbonate source via an interfacial reaction in the presence of a catalyst to form a product mixture comprising an aqueous phase and an organic phase, wherein the organic phase comprises the polycarbonate, the catalyst, ions, and a solvent having a boiling point T b at atmospheric pressure; heating the product mixture to a temperature greater than or equal to the boiling point T b to form a heated product mixture having an elevated temperature; separating the aqueous phase and the organic phase of the heated product mixture at an elevated temperature greater than or equal to the boiling point T b + 10°C to form a separated organic phase and a separated aqueous phase; extracting the catalyst from the separated organic phase; and extracting the ions from the separated organic phase to form a purified polycarbonate; wherein if a centrifuge is used in the extracting of the catalyst, the extracting of the ions, or both, the process further comprises cooling a stream entering the centrifuge to a temperature less than the boiling point T b . polymerizing a dihydroxy compound and a carbonate source via an interfacial reaction in the presence of a catalyst to form a product mixture comprising an aqueous phase and an organic phase, wherein the organic phase comprises the polycarbonate, the catalyst, ions, and a solvent having a boiling point T b at atmospheric pressure; heating the product mixture to a temperature greater than or equal to the boiling point T b to form a heated product mixture having an elevated temperature; separating the aqueous phase and the organic phase of the heated product mixture at an elevated temperature greater than or equal to the boiling point T b + 10°C to form a separated organic phase and a separated aqueous phase; extracting the catalyst from the separated organic phase; and extracting the ions from the separated organic phase to form a purified polycarbonate; wherein if a centrifuge is used in the extracting of the catalyst, the extracting of the ions, or both, the process further comprises cooling a stream entering the centrifuge to a temperature less than the boiling point T b .
A data center, wherein the data center comprises N computing devices and T power modules; each power module in the T power modules comprises a first power device and a bus; the bus comprises a first electrical connection end (p1), N intermediate ends (k 1 , k 2 , ..., k N ), and a second electrical connection end (p2); the first electrical connection end (p1) is connected to the first power device; the N intermediate ends (k 1 , k 2 , ..., k N ) are respectively connected to the N computing devices; characterized in that : the bus further comprises a plug-in node disposed between an (I-1) th intermediate end (k I-1 ) and an I th intermediate end (k I ) of the N intermediate ends (k 1 , k 2 , ..., k N ); wherein the plug-in node is configured to divide the bus into a first subline and a second subline, wherein T is a positive integer, N and I are positive integers greater than or equal to 2, and it is satisfied that I<N; and for at least one power module in the T power modules, when the data center needs to be expanded, a second power device for expansion is configured to be added to the data center, such that: before the data center is expanded, the plug-in node of the at least one power module is configured to communicate the first subline with the second subline, and the second electrical connection end (p2) of the at least one power module is idle; and after the data center is expanded, the plug-in node of the at least one power module is configured to disconnect the first subline and the second subline, and the second electrical connection end (p2) of the at least one power module is connected to the second power device for expansion. the bus further comprises a plug-in node disposed between an (I-1) th intermediate end (k I-1 ) and an I th intermediate end (k I ) of the N intermediate ends (k 1 , k 2 , ..., k N ); wherein the plug-in node is configured to divide the bus into a first subline and a second subline, wherein T is a positive integer, N and I are positive integers greater than or equal to 2, and it is satisfied that I<N; and for at least one power module in the T power modules, when the data center needs to be expanded, a second power device for expansion is configured to be added to the data center, such that: before the data center is expanded, the plug-in node of the at least one power module is configured to communicate the first subline with the second subline, and the second electrical connection end (p2) of the at least one power module is idle; and after the data center is expanded, the plug-in node of the at least one power module is configured to disconnect the first subline and before the data center is expanded, the plug-in node of the at least one power module is configured to communicate the first subline with the second subline, and the second electrical connection end (p2) of the at least one power module is idle; and after the data center is expanded, the plug-in node of the at least one power module is configured to disconnect the first subline and the second subline, and the second electrical connection end (p2) of the at least one power module is connected to the second power device for expansion.
A method for enabling operations for an integrated access and backhaul, IAB, node, the method comprising: receiving, at a first network node, a system information block of a New Radio, NR, non-standalone cell including a first indication and a second indication , wherein the first network node is the IAB node, and wherein the first indication indicates whether NR standalone capable user equipments, UEs, are barred from accessing the NR non-standalone cell, and the second indication indicates whether IAB nodes can access the NR non-standalone cell using NR standalone operations; and identifying, at the first network node, whether IAB nodes can access the NR non-standalone cell using NR standalone operations, wherein if the first indication indicates that NR standalone capable UEs are barred from accessing the NR non-standalone cell, the first network node checks whether IAB nodes can access the NR non-standalone cell using NR standalone operations based on the second indication in the system information block . receiving, at a first network node, a system information block of a New Radio, NR, non-standalone cell including a first indication and a second indication , wherein the first network node is the IAB node, and wherein the first indication indicates whether NR standalone capable user equipments, UEs, are barred from accessing the NR non-standalone cell, and the second indication indicates whether IAB nodes can access the NR non-standalone cell using NR standalone operations; and identifying, at the first network node, whether IAB nodes can access the NR non-standalone cell using NR standalone operations, wherein if the first indication indicates that NR standalone capable UEs are barred from accessing the NR non-standalone cell, the first network node checks whether IAB nodes can access the NR non-standalone cell using NR standalone operations based on the second indication in the system information block .
A method of notifying a user terminal (UE) of multimedia broadcast multicast service MBMS service information of at least one neighboring cell of a cell of a base station where the user terminal (UE) camps, comprising: in a system information block SIB, which is independent with a SIB 13, transmitting (S202), by the base station where the user terminal (UE) camps, to the user terminal (UE) the multimedia broadcast multicast service MBMS service information of the at least one neighboring cell, wherein the multimedia broadcast multicast service MBMS service information of the at least one neighboring cell comprises a carrier frequency; and a list of an identifier of an MBMS service supported at the carrier frequency; the base station where the user terminal camps indicating (S205) to the user terminal (UE) a change of the multimedia broadcast multicast service MBMS service information of the at least one neighboring cell included in the system information block by setting bits in a downlink control information DCI format 1C to be all zero.
An apparatus , comprising: at least one processing core configured to compile a message; the at least one processing core being configured to perform a first determination, that a second user equipment is in an idle mode with respect to a cellular communication network and is engaged in a device-to-device session with a first user equipment; the at least one processing core being configured to, responsive to the first determination, include in the message information concerning the second user equipment, and a transmitter configured to cause the message to be transmitted toward a network node, characterized in that the message comprises a radio resource usage report comprising information concerning radio resources that have been used in the device-to-device session in the cellular communication network. at least one processing core configured to compile a message; the at least one processing core being configured to perform a first determination, that a second user equipment is in an idle mode with respect to a cellular communication network and is engaged in a device-to-device session with a first user equipment; the at least one processing core being configured to, responsive to the first determination, include in the message information concerning the second user equipment, and a transmitter configured to cause the message to be transmitted toward a network node,
A generation device for generating three-dimensional shape data comprising: a first acquisition means for acquiring a plurality of object images indicating an object area within a plurality of images obtained by image capturing from a plurality of image capturing directions; a second acquisition means for acquiring a plurality of images of a stationary structure existing within an image capturing scene indicating a structure area having a possibility of preventing the object from being captured in a case of image capturing from at least one image capturing direction of the plurality of image capturing directions; and a generation means for generating three-dimensional shape data corresponding to the object in the capturing scene and the structure based on both the plurality of object images indicating the object area acquired by the first acquisition means and the plurality of structure images indicating the structure area acquired by the second acquisition means and for removing three-dimensional shape data corresponding to the structure from the generated three-dimensional shape data corresponding to the object and the structure. a first acquisition means for acquiring a plurality of object images indicating an object area within a plurality of images obtained by image capturing from a plurality of image capturing directions; a second acquisition means for acquiring a plurality of images of a stationary structure existing within an image capturing scene indicating a structure area having a possibility of preventing the object from being captured in a case of image capturing from at least one image capturing direction of the plurality of image capturing directions; and a generation means for generating three-dimensional shape data corresponding to the object in the capturing scene and the structure based on both the plurality of object images indicating the object area acquired by the first acquisition means and the plurality of structure images indicating the structure area acquired by the second acquisition means and for removing three-dimensional shape data corresponding to the structure from the generated three-dimensional shape data corresponding to the object and the structure.
A composition for producing a glass fiber, comprising the following components with corresponding percentage amounts by weight: SiO 2 57.4-60.9% Al 2 O 3 >17% and ≤19.8% MgO >9% and ≤12.8% CaO 8.1-11.3% SrO 0-1.6% Na 2 O+K 2 O 0.1-1.1% Li 2 O 0-0.55% Fe 2 O 3 0.05-1% TiO 2 <0.8% SiO 2 +Al 2 O 3 ≤79.4% wherein a total weight percentage of the above components is greater than 99%; a weight percentage ratio C1= (Al 2 O 3 +MgO)/SiO 2 is between 0.43 and 0.56; and a weight percentage ratio C2= (CaO+MgO)/(SiO 2 +Al 2 O 3 ) is greater than 0.205. a total weight percentage of the above components is greater than 99%; a weight percentage ratio C1= (Al 2 O 3 +MgO)/SiO 2 is between 0.43 and 0.56; and a weight percentage ratio C2= (CaO+MgO)/(SiO 2 +Al 2 O 3 ) is greater than 0.205.
A device for generating an electron beam, the device comprising: a pulsed electron source configured to generate an electron pulse ; a first resonant microwave cavity configured to accelerate the electron pulse; a second resonant microwave cavity configured to correct an energy spread of the accelerated electron pulse; a drift space separating the first resonant microwave cavity from the second resonant microwave cavity ; and a phase shifter connected to the first resonant microwave cavity and the second resonant microwave cavity , configured to adjust an RF phase difference between the first resonant microwave cavity and the second resonant microwave cavity to 90 degrees. a pulsed electron source configured to generate an electron pulse ; a first resonant microwave cavity configured to accelerate the electron pulse; a second resonant microwave cavity configured to correct an energy spread of the accelerated electron pulse; a drift space separating the first resonant microwave cavity from the second resonant microwave cavity ; and a phase shifter connected to the first resonant microwave cavity and the second resonant microwave cavity , configured to adjust an RF phase difference between the first resonant microwave cavity and the second resonant microwave cavity to 90 degrees.
A laminated glass set that is a set of a plurality of laminated glasses, each of the plurality of laminated glasses including a first lamination glass member, a second lamination glass member, and an interlayer film part arranged between the first lamination glass member and the second lamination glass member, the interlayer film part having one end, and the other end at the opposite side of the one end, the interlayer film part having a colored part, the colored part having a gradation part where visible light transmittance increases from the one end side toward the other end side of the interlayer film part, the gradation part forming a tip of the colored part on the other end side of the interlayer film part, when distance X from the one end of the interlayer film part to a tip of the colored part on the other end side of the interlayer film part is measured in each of the plurality of laminated glasses, a maximum value of distance X is denoted by X max , a minimum value of distance X is denoted by X min , and an average value of distance X is denoted by X ave , the laminated glass set satisfying the following formula , or when distance Y of the colored part in a direction connecting the one end and the other end of the interlayer film part is measured in each of the plurality of laminated glasses, a maximum value of distance Y is denoted by Y max , a minimum value of distance Y is denoted by Y min , and an average value of distance Y is denoted by Y ave , the laminated glass set satisfying the following formula : X max − X min / X ave ≤ 0.1 Y max − Y min / Y ave ≤ 0.1 each of the plurality of laminated glasses including a first lamination glass member, a second lamination glass member, and an interlayer film part arranged between the first lamination glass member and the second lamination glass member, the interlayer film part having one end, and the other end at the opposite side of the one end, the interlayer film part having a colored part, the colored part having a gradation part where visible light transmittance increases from the one end side toward the other end side of the interlayer film part, the gradation part forming a tip of the colored part on the other end side of the interlayer film part, when distance X from the one end of the interlayer film part to a tip of the colored part on the other end side of the interlayer film part is measured in each of the plurality of laminated glasses, a maximum value of distance X is denoted by X max , a minimum value of distance X is denoted by X min , and an average value of distance X is denoted by X ave , the laminated glass set satisfying the following formula , or when distance Y of the colored part in a direction connecting the one end and the other end of the interlayer film part is measured in each of the plurality of laminated glasses, a maximum value of distance Y is denoted by Y max , a minimum value of distance Y is denoted by Y min , and an average value of distance Y is denoted by Y ave , the laminated glass set satisfying the following formula : X max − X min / X ave ≤ 0.1 Y max − Y min / Y ave ≤ 0.1