mhurhangee/ep-ind-claims huggingface dataset:
A method of rebuilding a damaged portion of a groove in a magnesium gearbox housing of a rotary wing aircraft, comprising: forming an area in a sidewall adjacent a recessed opening of the groove by removing all material exhibiting wear or localized corrosion and pitting; creating a deposit in the area, the deposit being integrally formed with the sidewall and an inner surface of a recessed opening of the groove; and removing any excess material from the deposit, characterized in that the area is formed in the sidewall between the inner surface of the recessed opening and the outer surface of the sidewall, and in that the groove is configured to receive an o-ring seal, the groove being arranged within one or more of a plurality of first openings or second openings, such that the sidewalls are formed by the gearbox housing of the rotary wing aircraft, the plurality of first openings being configured to provide a plurality of passageways for a lubricant to various portions of the gearbox and the plurality of second openings being configured to at least partially support an input module, in that the deposit includes one or more layers of powdered material applied to the area through a cold spray deposition process, and in that, during deposition of the powdered material, the gearbox housing may be held stationary or may be articulated or translated by any suitable means. forming an area in a sidewall adjacent a recessed opening of the groove by removing all material exhibiting wear or localized corrosion and pitting; creating a deposit in the area, the deposit being integrally formed with the sidewall and an inner surface of a recessed opening of the groove; and removing any excess material from the deposit, characterized in that the area is formed in the sidewall between the inner surface of the recessed opening and the outer surface of the sidewall, and in that the groove is configured to receive an o-ring seal, the groove being arranged within one or more of a plurality of first openings or second openings, such that the sidewalls are formed by the gearbox housing of the rotary wing aircraft, the plurality of first openings being configured to provide a plurality of passageways for a lubricant to various portions of the gearbox and the plurality of second openings being configured to at least partially support an input module, in that the deposit includes one or more layers of powdered material applied to the area through a cold spray deposition process, and in that, during deposition of the powdered material, the gearbox housing may be held stationary or may be articulated or translated by any suitable means.
A steel material excellent in corrosion resistance and soft magnetic property consisting of, in % by mass: 0.001%-0.025% C; 1.0%-4.0% Si; 0.1%-1.0% Mn; more than 0% but no more than 0.030% P; no less than 0.003% but no more than 0.10% S; no less than 0.01% but no more than 4.0% Cr; no less than 0.001% but no more than 0.010% Al; more than 0% but no more than 0.01% N; and optionally further one or more elements belonging to at least one of the following (a) and (b): (a) one or more elements selected from the group consisting of no less than 0.01% but no more than 0.5% Cu, and no less than 0.01% but no more than 0.5% Ni; and (b) no less than 0.01% but no more than 1.0% Pb, with the remainder consisting of iron and unavoidable impurities, wherein an oxide coating is formed on the steel material surface, the oxide coating including either Si or Cr, or both, including a non-crystalline layer, and having a thickness of 50-500 nm, wherein the expression "including a non-crystalline layer" means a state where a halo pattern can be observed in a nano electron beam diffraction image of an oxide coating. 0.001%-0.025% C; 1.0%-4.0% Si; 0.1%-1.0% Mn; more than 0% but no more than 0.030% P; no less than 0.003% but no more than 0.10% S; no less than 0.01% but no more than 4.0% Cr; no less than 0.001% but no more than 0.010% Al; more than 0% but no more than 0.01% N; and optionally further one or more elements belonging to at least one of the following (a) and (b): (a) one or more elements selected from the group consisting of no less than 0.01% but no more than 0.5% Cu, and no less than 0.01% but no more than 0.5% Ni; and (b) no less than 0.01% but no more than 1.0% Pb, (a) one or more elements selected from the group consisting of no less than 0.01% but no more than 0.5% Cu, and no less than 0.01% but no more than 0.5% Ni; and (b) no less than 0.01% but no more than 1.0% Pb, with the remainder consisting of iron and unavoidable impurities, wherein an oxide coating is formed on the steel material surface, the oxide coating including either Si or Cr, or both, including a non-crystalline layer, and having a thickness of 50-500 nm, wherein the expression "including a non-crystalline layer" means a state where a halo pattern can be observed in a nano electron beam diffraction image of an oxide coating.
A method of configuring a capacitor having a capacitance settable by biasing, to a set point value, comprising the steps of: (a) injecting a constant current (Ic) to bias the capacitor; (b) measuring the capacitor bias voltage (Vbias) at the end of a time interval (ΔT); (c) calculating the value of the capacitance obtained at the end of the time interval, by applying the following formula: ΔC = Ic * ΔT / ΔV, where Ic represents the value of the constant current, and where ΔV and ΔC respectively represent the variation of the measured voltage and the capacitance variation between the end and the beginning of time interval ΔT; (d) comparing this value with a desired value; (e) repeating steps (a) to (d) as long as the calculated value is different from the set point value; and storing the value of the measured bias voltage as being the bias voltage to be applied to the capacitor as soon as the calculated capacitance value is equal to the set point value. (a) injecting a constant current (Ic) to bias the capacitor; (b) measuring the capacitor bias voltage (Vbias) at the end of a time interval (ΔT); (c) calculating the value of the capacitance obtained at the end of the time interval, by applying the following formula: ΔC = Ic * ΔT / ΔV, where Ic represents the value of the constant current, and where ΔV and ΔC respectively represent the variation of the measured voltage and the capacitance variation between the end and the beginning of time interval ΔT; (d) comparing this value with a desired value; (e) repeating steps (a) to (d) as long as the calculated value is different from the set point value; and
Method for lateral flow guidance of a metal melt during strip casting, wherein a) the melt flows along adjacent fixed boundaries at the outlet of a distributor device, particularly a pouring spout, and at the same time is deflected outwardly and downwardly and b) the melt is guided by way of the distributor device, particularly pouring spout, onto a moved belt, wherein the melt at the outlet region of the pouring spout is guided by way of a three-dimensional contour, which is present at the sides of the pouring spout, of a ellipsoid of revolution or aerofoil and the contour projects beyond the pouring spout so that the melt continues to be guided after leaving the pouring spout. a) the melt flows along adjacent fixed boundaries at the outlet of a distributor device, particularly a pouring spout, and at the same time is deflected outwardly and downwardly and b) the melt is guided by way of the distributor device, particularly pouring spout, onto a moved belt, wherein
A wireless control device configured to be installed on a ceiling, the wireless control device comprising: a housing comprising a light-transmissive cover and a base portion; wherein the light-transmissive cover is configured to protrude from the base portion; wherein the base portion is configured to be attached to the ceiling; a wireless communication circuit; an antenna coupled to said wireless communication circuit and configured to communicate wireless signals; a control circuit coupled to said wireless communication circuit and configured to control the generation of signals by said wireless communication circuit to be transmitted by said antenna; a visible-light-generating circuit coupled to said control circuit; and a light pipe proximate to the visible-light-generating circuit and configured to provide an amount of light energy from the visible-light-generating circuit to the light-transmissive cover; wherein a first portion of the antenna inside the base portion of the housing is surrounded by the light pipe. a housing comprising a light-transmissive cover and a base portion; wherein the light-transmissive cover is configured to protrude from the base portion; wherein the base portion is configured to be attached to the ceiling; wherein the light-transmissive cover is configured to protrude from the base portion; wherein the base portion is configured to be attached to the ceiling; a wireless communication circuit; an antenna coupled to said wireless communication circuit and configured to communicate wireless signals; a control circuit coupled to said wireless communication circuit and configured to control the generation of signals by said wireless communication circuit to be transmitted by said antenna; a visible-light-generating circuit coupled to said control circuit; and a light pipe proximate to the visible-light-generating circuit and configured to provide an amount of light energy from the visible-light-generating circuit to the light-transmissive cover; wherein a first portion of the antenna inside the base portion of the housing is surrounded by the light pipe.
An anode comprising an anode active material consisting of a mixture of a carbon material having a surface coated with amorphous carbon and SiO x (0<x≤1), wherein a crystal orientation ratio is in a range of 0.07 to 0.17, wherein the crystal orientation ratio is an area ratio ( /) obtained by measuring a plane and a plane of the anode active material included in the anode by X-ray diffraction, and integrating each measured XRD peak, wherein a density of the anode is in a range of 1.5 g/cc to 1.6 g/cc.
Cermet comprising: a hard phase which contains carbonitride containing Ti and Nb; a metallic binder phase containing an iron-group element; and optionally a WC phase composed of WC, the content of the WC phase being not higher than 1 volume %, the hard phase including a granular core portion and a peripheral portion which covers at least a part of the core portion, the core portion containing composite carbonitride expressed as Ti 1-x-Y Nb X W Y C 1-Z N Z, where X is 0.1 or more and 0.6 or less, Y is 0 or more and 0.05 or less and Z is 0.3 or more and 0.6 or less, and the peripheral portion being composed to be higher in content of W than the core portion, wherein: in the core portion, a total amount of V, Cr, and Mo occupied in a total amount of Ti, Nb, W, V, Cr, and Mo is smaller than 2 atomic %; and the core portion has an average crystal grain size not smaller than 0.5 μm and not greater than 3 μm, the average crystal grain size being measured by the method described in the description. a hard phase which contains carbonitride containing Ti and Nb; a metallic binder phase containing an iron-group element; and optionally a WC phase composed of WC, the content of the WC phase being not higher than 1 volume %, the hard phase including a granular core portion and a peripheral portion which covers at least a part of the core portion, the core portion containing composite carbonitride expressed as Ti 1-x-Y Nb X W Y C 1-Z N Z, where X is 0.1 or more and 0.6 or less, Y is 0 or more and 0.05 or less and Z is 0.3 or more and 0.6 or less, and the peripheral portion being composed to be higher in content of W than the core portion, in the core portion, a total amount of V, Cr, and Mo occupied in a total amount of Ti, Nb, W, V, Cr, and Mo is smaller than 2 atomic %; and the core portion has an average crystal grain size not smaller than 0.5 μm and not greater than 3 μm, the average crystal grain size being measured by the method described in the description.
Mobile communication terminal including a narrow-band communication module, a broad-band communication module, a first operating module and a second operating module, said first operating module being configured to establish a communication through a narrow-band communication network via said narrow-band communication module, said second operating module being configured to establish a communication through said narrow-band communication network via the narrow-band communication module and to establish a communication through a broad-band communication network via said broad-band communication module, the mobile communication terminal being characterized in that said first operating module includes a first operating system configured to execute instructions making it possible to establish a communication through a narrow-band communication network via the narrow-band communication module, said first operating system including a limited number of booting tasks so as to be operational within a time period less than ten seconds after the booting of the terminal.
A transmitter for transmitting control characters to a display device via an interface said transmitter comprising: a transmitter portion configured to transmit at least one control character having a plurality of bit values to the display device, wherein the at least one control character is at least a portion of a vertical and horizontal synchronization information; the transmitter portion further being configured to transmit at least one separate rebalancing control character to the display device during a time interval when active display data is not transmitted to the display device; and logic configured to determine values of the bits in the at least one control character and construct the at least one rebalancing control character based on the determination of the values of the bits in the at least one control character, the at least one separate rebalancing control character constructed to have bit values selected such that the combination of the at least one control character and the at least one separate rebalancing control character are DC balanced; characterised in that the interface operates according to the PCI Express standard. a transmitter portion configured to transmit at least one control character having a plurality of bit values to the display device, wherein the at least one control character is at least a portion of a vertical and horizontal synchronization information; the transmitter portion further being configured to transmit at least one separate rebalancing control character to the display device during a time interval when active display data is not transmitted to the display device; and logic configured to determine values of the bits in the at least one control character and construct the at least one rebalancing control character based on the determination of the values of the bits in the at least one control character, the at least one separate rebalancing control character constructed to have bit values selected such that the combination of the at least one control character and the at least one separate rebalancing control character are DC balanced;
A method for manufacturing a bonded substrate where an active layer wafer is bonded to a support substrate wafer, comprising: a first step of providing a groove on an inner side on a surface of the active layer wafer along an outer peripheral portion over an entire circumference; a second step of determining a surface where the groove is formed as a bonding surface and bonding the active layer wafer to the support substrate wafer; and a third step of reducing a film thickness of the active layer wafer and removing an unbonded portion on an outer side of the groove of the active layer wafer, characterized in that the groove provided on the inner side on the surface of the active layer wafer along the outer peripheral portion is machined by using a water jet guided laser. a first step of providing a groove on an inner side on a surface of the active layer wafer along an outer peripheral portion over an entire circumference; a second step of determining a surface where the groove is formed as a bonding surface and bonding the active layer wafer to the support substrate wafer; and a third step of reducing a film thickness of the active layer wafer and removing an unbonded portion on an outer side of the groove of the active layer wafer, characterized in that the groove provided on the inner side on the surface of the active layer wafer along the outer peripheral portion is machined by using a water jet guided laser.
A method of receiving a downlink control information, DCI, by a user equipment, UE, in a Long Term Evolution-Advanced, LTE-A, Release 10 wireless access system, the method comprising: restricting the number of configurable LTE-A Release 10 transmission modes to a restricted transmission mode set based on a performance of the UE defined by a UE category of the UE, where the restricted transmission mode set includes a single antenna port transmission mode, a transmit diversity transmission mode, a closed-loop rank 1 precoding transmission mode and a single layer beam forming transmission mode, performing a blind decoding of the DCI by using DCI formats associated with the transmission modes included in the restricted transmission mode set in a search space assigned to the user equipment; and receiving the DCI through a physical downlink control channel, PDCCH, found by the blind decoding. restricting the number of configurable LTE-A Release 10 transmission modes to a restricted transmission mode set based on a performance of the UE defined by a UE category of the UE, where the restricted transmission mode set includes a single antenna port transmission mode, a transmit diversity transmission mode, a closed-loop rank 1 precoding transmission mode and a single layer beam forming transmission mode, performing a blind decoding of the DCI by using DCI formats associated with the transmission modes included in the restricted transmission mode set in a search space assigned to the user equipment; and receiving the DCI through a physical downlink control channel, PDCCH, found by the blind decoding.
Isolated nucleic acid molecule comprising (a) a nucleotide sequence having the sequence of SEQ ID NO: 211 or a precursor of SEQ ID NO: 211 having the sequence CUCUUGUCCUUCAUUCCACCGGAGUCUGUCUUAUGCCAACCAGAU UUCAGUGGAGUGAAGCUCAGGAG, and/or (b) a nucleotide sequence which is the complement of (a), and/or (c) a nucleotide sequence comprising an miRNA or miRNA precursor, which has an identity of at least 80% to the sequence of (a) or (b), wherein the identity is determined as I = n: L, wherein I is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NO: 211 or a precursor thereof having the sequence CUCUUGUCCUUCAUUCCACCGGAGUCUGUCUUAUGCCAACCAGAU UUCAGUGGAGUGAAGCUCAGGAG, or a complement of SEQ ID NO: 211 or said precursor, and L is the length of the comparative sequence, wherein said isolated nucleic acid comprising (a), (b) or (c) has a length of 18-80 nucleotides. (a) a nucleotide sequence having the sequence of SEQ ID NO: 211 or a precursor of SEQ ID NO: 211 having the sequence CUCUUGUCCUUCAUUCCACCGGAGUCUGUCUUAUGCCAACCAGAU UUCAGUGGAGUGAAGCUCAGGAG, and/or (b) a nucleotide sequence which is the complement of (a), and/or (c) a nucleotide sequence comprising an miRNA or miRNA precursor, which has an identity of at least 80% to the sequence of (a) or (b), wherein the identity is determined as I = n: L, wherein I is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NO: 211 or a precursor thereof having the sequence CUCUUGUCCUUCAUUCCACCGGAGUCUGUCUUAUGCCAACCAGAU UUCAGUGGAGUGAAGCUCAGGAG, or a complement of SEQ ID NO: 211 or said precursor, and L is the length of the comparative sequence,
A method of printing a three-dimensional "3D" object and a removable support construction for the 3D object, the method comprising: generating 3D cross sectional digital data comprising a set of horizontal slices (310; 320; 330; 340; 350), wherein each of the slices includes one or more body regions representing a horizontal cross section of the 3D object, and at least each of some of the slices further includes one or more support regions (312; 322; 332; 342; 352) being adjacent to the body regions (314; 324; 334; 344; 354) and representing a corresponding horizontal cross section of the support construction; manipulating the 3D digital data to create a set of shifted slices (310a; 320a; 330a; 340a; 350a) by performing vertical shifts between the body region and the support region of a same horizontal slice to create printing digital data, wherein at least each of some of the shifted slices include a body region of one of the horizontal slices together with a support region of another one of the horizontal slices; and depositing, in layers, from printing heads, a body material and a support material based on the printing digital data, wherein in a same scan, droplets of the support material and droplets of the body material travel different distances. generating 3D cross sectional digital data comprising a set of horizontal slices (310; 320; 330; 340; 350), wherein each of the slices includes one or more body regions representing a horizontal cross section of the 3D object, and at least each of some of the slices further includes one or more support regions (312; 322; 332; 342; 352) being adjacent to the body regions (314; 324; 334; 344; 354) and representing a corresponding horizontal cross section of the support construction; manipulating the 3D digital data to create a set of shifted slices (310a; 320a; 330a; 340a; 350a) by performing vertical shifts between the body region and the support region of a same horizontal slice to create printing digital data, wherein at least each of some of the shifted slices include a body region of one of the horizontal slices together with a support region of another one of the horizontal slices; and depositing, in layers, from printing heads, a body material and a support material based on the printing digital data, wherein in a same scan, droplets of the support material and droplets of the body material travel different distances.