mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a bonded SOI wafer by bonding a bond wafer and a base wafer, each composed of a silicon single crystal, via an insulator film, comprising the step of: depositing a polycrystalline silicon layer on the bonding surface side of the base wafer polishing a surface of the polycrystalline silicon layer, forming the insulator film on the bonding surface of the bond wafer, bonding the polished surface of the polycrystalline silicon layer of the base wafer and the bond wafer via the insulator film (13, S31), and thinning the bonded bond wafer to form an SOI layer (15, S32); wherein, as the base wafer, a silicon single crystal wafer having a resistivity of 100 Ω·cm or more is used, the step for depositing the polycrystalline silicon layer (12, S23) further comprises a stage for previously forming an oxide film (20, S22) on the surface of the base wafer on which the polycrystalline silicon layer is deposited, the oxide film is formed by wet cleaning, and the polycrystalline silicon layer is deposited at a temperature of 900°C or more and 1010°C or less. depositing a polycrystalline silicon layer on the bonding surface side of the base wafer polishing a surface of the polycrystalline silicon layer, forming the insulator film on the bonding surface of the bond wafer, bonding the polished surface of the polycrystalline silicon layer of the base wafer and the bond wafer via the insulator film (13, S31), and thinning the bonded bond wafer to form an SOI layer (15, S32); wherein, as the base wafer, a silicon single crystal wafer having a resistivity of 100 Ω·cm or more is used, the step for depositing the polycrystalline silicon layer (12, S23) further comprises a stage for previously forming an oxide film (20, S22) on the surface of the base wafer on which the polycrystalline silicon layer is deposited, the oxide film is formed by wet cleaning, and the polycrystalline silicon layer is deposited at a temperature of 900°C or more and 1010°C or less.
A quantum computing system comprising: a multi-dimensional array of fixed-frequency qubit devices, each qubit device having a respective qubit operating frequency that is defined by an electronic circuit of the qubit device and independent of offset electromagnetic fields experienced by the qubit device, wherein the qubit device is a transmon implemented without a superconducting SQUID loop; tunable coupler devices residing at intervals between neighboring pairs of the qubit devices in the multi-dimensional array, each coupler device being configured to produce an electromagnetic interaction between the respective neighboring pair of qubit devices, each coupler device having a tunable coupler operating frequency and configured to vary a coupling strength of the electromagnetic interaction according to an offset electromagnetic field experienced by the coupler device. a multi-dimensional array of fixed-frequency qubit devices, each qubit device having a respective qubit operating frequency that is defined by an electronic circuit of the qubit device and independent of offset electromagnetic fields experienced by the qubit device, wherein the qubit device is a transmon implemented without a superconducting SQUID loop; tunable coupler devices residing at intervals between neighboring pairs of the qubit devices in the multi-dimensional array, each coupler device being configured to produce an electromagnetic interaction between the respective neighboring pair of qubit devices, each coupler device having a tunable coupler operating frequency and configured to vary a coupling strength of the electromagnetic interaction according to an offset electromagnetic field experienced by the coupler device.
Removable holding device for manipulating cooking utensils having at least one holding lug in which is provided an opening substantially parallel to an internal edge of said lug, the device including a shell comprising an internal cavity that opens laterally onto a front face of the shell via an oblong orifice, said internal cavity being adapted to receive the lug when the lug is inserted via the oblong orifice, the holding device also comprising locking means received inside a clearance chamber provided in the shell and at least partially closed at the top, the locking means comprising a plate mounted to pivot inside the clearance chamber between a locked position and an unlocked position, said plate comprising at a front edge a nose adapted to be received in the opening in the lug in the locked position of the locking means and when the lug is received in the internal cavity, said plate also comprising a pivot positioned on a bottom face of the plate, said pivot extending substantially parallel to the oblong orifice, the holding device being characterized in that the shell is in one piece and in that a length of the pivot is less than or equal to a width of the plate to allow insertion of the plate in the clearance chamber through an insertion orifice located on a rear part of the clearance chamber in a substantially horizontal direction.
Method for fast detection scan of NB-IoT signals in a single run of Narrowband Primary Synchronization Signal NPSS search performed by a UE by applying a higher sampling rate than 240 kHz and observing a received signal at a receive bandwidth relative to a NB-IoT signal bandwidth BW within a frequency interval − BW 2 − M Δ ≤ f ≤ M Δ + BW 2, Δ = 100 kHz to support a simultaneous scan of E-UTRA absolute radio frequency channel number EARFCN -M ≤ m ≤ -1 and 1 ≤ m ≤ M in addition to the EARFCN for m = 0 relative to a carrier frequency by the UE, wherein m is a EARFCN offset, wherein a set of 2M+1 NB-IoT signals each having a different EARFCN are observed simultaneously and M is a natural number and 2M+1 indicates a number of observed channels, and by using a wider bandwidth as well as a fast Fourier transformation to transform time domain samples into frequency domain samples and using special auto-correlations in the frequency domain to detect carrier frequency candidates which carry the NB-IoT signals simultaneously.
A grain oriented electrical steel sheet having a plurality of beam-irradiated regions formed by performing laser irradiation or electron beam irradiation onto a steel sheet surface in a widthwise direction of the steel sheet to introduce continued strain in a linear shape or in a dot sequence shape at an angle of not more than 30° with respect to the widthwise direction thereinto, characterized in that a nature of a juncture between adjacent beam-irradiated regions in the widthwise direction of the steel sheet satisfies the following equations and: 0 ≤ α ≤ 0.3 × a − 1.2 × a + 0.02 × w − 0.5 × α − 6.5 ≤ β ≤ − 0.13 × a − 200 × 1 / w + 5.4 wherein α: rolling direction spacing, mm, at a juncture between beam-irradiated regions, β: widthwise direction spacing, mm, at a juncture between beam-irradiated regions, a: beam spacing, mm, and w: average width of magnetic domain discontinuous part, μm. wherein α: rolling direction spacing, mm, at a juncture between beam-irradiated regions, β: widthwise direction spacing, mm, at a juncture between beam-irradiated regions, a: beam spacing, mm, and w: average width of magnetic domain discontinuous part, μm.
A computer-implemented method for selecting fasteners for predictively pre-feeding into an automated drilling machine, the method comprising: at a manufacturing data center receiving historical manufacturing data comprising hole identifications and fastener grip lengths, each of the fastener grip lengths previously selected for a corresponding one of the hole identifications; at the manufacturing data center determining, from the historical manufacturing data and for each of the hole identifications, predictive model data comprising a specific grip length of the fastener grip lengths and a fastener repeatability rating, corresponding to the specific grip length; receiving holes locations, each corresponding to one of the hole identifications and each corresponding to a hole in a part being processed; and selecting, for each of the hole locations, the specific grip length when the fastener repeatability rating, corresponding to the specific grip length, exceeds an operating threshold. at a manufacturing data center receiving historical manufacturing data comprising hole identifications and fastener grip lengths, each of the fastener grip lengths previously selected for a corresponding one of the hole identifications; at the manufacturing data center determining, from the historical manufacturing data and for each of the hole identifications, predictive model data comprising a specific grip length of the fastener grip lengths and a fastener repeatability rating, corresponding to the specific grip length; receiving holes locations, each corresponding to one of the hole identifications and each corresponding to a hole in a part being processed; and selecting, for each of the hole locations, the specific grip length when the fastener repeatability rating, corresponding to the specific grip length, exceeds an operating threshold.
A panel of bacteriophages suitable for treating a bacterial infection comprising or consisting of Pseudomonas aeruginosa, wherein each member of said panel has a different strain specificity for P. aeruginosa, and wherein the panel consists of two or more bacteriophages selected from the group consisting of: (i) the deposited bacteriophage strains NCIMB 41174, NCIMB 41175, NCIMB 41176, NCIMB 41177, NCIMB 41178, NCIMB 41179, NCIMB 41180, and NCIMB 41181 (deposited at the National Collection of Industrial and Marine Bacteria, Aberdeen, United Kingdom); and (ii) mutants of the deposited strains that retain the ability to target P. aeruginosa, wherein said mutant has at least 98% or at least 99% nucleotide sequence identity across its whole genome compared to the genome of the relevant deposited strain. (i) the deposited bacteriophage strains NCIMB 41174, NCIMB 41175, NCIMB 41176, NCIMB 41177, NCIMB 41178, NCIMB 41179, NCIMB 41180, and NCIMB 41181 (deposited at the National Collection of Industrial and Marine Bacteria, Aberdeen, United Kingdom); and (ii) mutants of the deposited strains that retain the ability to target P. aeruginosa, wherein said mutant has at least 98% or at least 99% nucleotide sequence identity across its whole genome compared to the genome of the relevant deposited strain.
Cartridge for receiving an intraocular lens for an injector for introducing the intraocular lens into an eye, having two cartridge parts (7, 8) that are pivotable relative to one another about a longitudinal axis of the cartridge, wherein one cartridge part has a channel-like base element and a plate-like wing adjoining the latter, wherein said cartridge part is connected in an articulated manner to a cover, and a further cartridge part has a channel-like base element and a plate-like wing adjoining the latter, and, in the closed state of the cartridge, at least a part of a receiving chamber for the intraocular lens is formed by the two base elements (10, 12), and having a lubricant feed device with which a lubricant for the intraocular lens is feedable into the receiving chamber, wherein the cover is provided for covering the receiving chamber, and a filling hole of the lubricant feed device is formed in the cover, characterized in that a nozzle (21; 211; 212) protrudes on an outer side of the cover that faces away from the receiving chamber, the nozzle having an inlet which opens into the filling hole, and a channel-like feed duct of the lubricant feed device is formed in the wing of the further cartridge part or in the cover, said channel-like feed duct opening into the receiving chamber and, in the closed state of the cartridge, interacting with the filling hole for conducting lubricant from the filling hole to the receiving chamber.
A "cold box" process for forming a foundry shape, comprising the steps of: introducing a foundry mix into a pattern to form the foundry shape, the foundry mix comprising a foundry aggregate and an uncured binder; contacting, in a sequential manner, the formed foundry shape with a first and at least a second vaporous curing catalyst, each curing catalyst capable of curing the formed foundry shape, until the formed foundry shape is sufficiently cured to be handleable; and removing the formed and cured foundry shape from the pattern. introducing a foundry mix into a pattern to form the foundry shape, the foundry mix comprising a foundry aggregate and an uncured binder; contacting, in a sequential manner, the formed foundry shape with a first and at least a second vaporous curing catalyst, each curing catalyst capable of curing the formed foundry shape, until the formed foundry shape is sufficiently cured to be handleable; and removing the formed and cured foundry shape from the pattern.
A control method for controlling a quantum system, the control method comprising: accessing a quantum system model representing a quantum system, the quantum system comprising qubits that respond to a control signal generated by a control system, the quantum system model comprising a control parameter representing the control signal, the control system configured to generate the control signal in response to an input signal received by the control system; accessing an uncertainty model representing uncertainty in a parameter of the control system; accessing a distortion model representing a non-linear relationship between the control signal and the input signal; defining a target operation to be applied to one or more of the qubits by operation of the control system; generating a control sequence comprising a sequence of values for the input signal, the control sequence based on the target operation, the quantum system model, the distortion model and the uncertainty model; and applying the control sequence to the quantum system by operation of the control system. accessing a quantum system model representing a quantum system, the quantum system comprising qubits that respond to a control signal generated by a control system, the quantum system model comprising a control parameter representing the control signal, the control system configured to generate the control signal in response to an input signal received by the control system; accessing an uncertainty model representing uncertainty in a parameter of the control system; accessing a distortion model representing a non-linear relationship between the control signal and the input signal; defining a target operation to be applied to one or more of the qubits by operation of the control system; generating a control sequence comprising a sequence of values for the input signal, the control sequence based on the target operation, the quantum system model, the distortion model and the uncertainty model; and applying the control sequence to the quantum system by operation of the control system.
A totem-pole single-phase PFC converter configured to be connected to an AC power supply and comprising: an inductor, a high frequency side node connected to the inductor, a low frequency side node, a high frequency switching side half bridge (Q1,Q2) including the high frequency side node, the PFC converter being further characterised by a controller configured to linearly control the low frequency-side node voltage (Vn) within control periods (Vn CTRL), during which the low frequency-side node voltage (Vn) changes from zero volt to the output voltage (Vout) of the PFC converter or the reverse, by controlling a switching duty of the high frequency switching side half bridge (Q1, Q2), wherein the switching duty is reduced during some switching periods and increased in others within the control periods (Vn CTRL), so that a rising waveform or a falling waveform of the low frequency side node voltage (Vn) is a linear shape. an inductor, a high frequency side node connected to the inductor, a low frequency side node, a high frequency switching side half bridge (Q1,Q2) including the high frequency side node, the PFC converter being further characterised by a controller configured to linearly control the low frequency-side node voltage (Vn) within control periods (Vn CTRL), during which the low frequency-side node voltage (Vn) changes from zero volt to the output voltage (Vout) of the PFC converter or the reverse, by controlling a switching duty of the high frequency switching side half bridge (Q1, Q2), wherein the switching duty is reduced during some switching periods and increased in others within the control periods (Vn CTRL), so that a rising waveform or a falling waveform of the low frequency side node voltage (Vn) is a linear shape.
Truss comprising - at least a lower stringer (111, 311, 411), - at least an upper continuous stringer (110, 310, 410) with length equal to the whole length of the truss, - a plurality of cores (112, 312, 412) connecting said lower (111, 311, 411) and upper stringers, said cores (112, 312, 412) being connected to the upper stringers at well defined geometrical intervals, with a constant pitch (p) along the development of the truss, characterized in that it comprises further, at the two ends of its own longitudinal development, additional upper stringers (114, 314, 414), integrally connected to said cores (112, 312, 412), the length of said additional upper stringers (114, 314, 414) being equal to a multiple of said pitch (p) and lower than the length of said truss. - at least a lower stringer (111, 311, 411), - at least an upper continuous stringer (110, 310, 410) with length equal to the whole length of the truss, - a plurality of cores (112, 312, 412) connecting said lower (111, 311, 411) and upper stringers, said cores (112, 312, 412) being connected to the upper stringers at well defined geometrical intervals, with a constant pitch (p) along the development of the truss, characterized in that it comprises further, at the two ends of its own longitudinal development, additional upper stringers (114, 314, 414), integrally connected to said cores (112, 312, 412), the length of said additional upper stringers (114, 314, 414) being equal to a multiple of said pitch (p) and lower than the length of said truss.
Method of determining a substitute value of a primary-side power consumption of a power supply unit, comprising the steps: - repeated detecting of a first measuring value with respect to a primary-side power consumption over one measuring time period (T 1) respectively; - repeated detecting of a second measuring value with respect to at least one secondary-side output power in first time intervals (T 2), wherein the first time interval (T 2) is smaller than the measuring time period (T 1); - determining an efficiency of the power supply unit based upon the first measuring value and at least one second measuring value for one measuring time period (T 1) respectively; and - calculating a substitute value for the primary-side power consumption based upon the efficiency determined in the step of the determining, and at least one detected second measuring value. - repeated detecting of a first measuring value with respect to a primary-side power consumption over one measuring time period (T 1) respectively; - repeated detecting of a second measuring value with respect to at least one secondary-side output power in first time intervals (T 2), wherein the first time interval (T 2) is smaller than the measuring time period (T 1); - determining an efficiency of the power supply unit based upon the first measuring value and at least one second measuring value for one measuring time period (T 1) respectively; and - calculating a substitute value for the primary-side power consumption based upon the efficiency determined in the step of the determining, and at least one detected second measuring value.
An x-ray window comprising a plurality of layers stacked together, including: a) a thin film layer comprising a material selected from the group consisting of diamond, diamond-like carbon, beryllium, and combinations thereof; b) a boron hydride layer; and c) a polymer layer. a) a thin film layer comprising a material selected from the group consisting of diamond, diamond-like carbon, beryllium, and combinations thereof; b) a boron hydride layer; and c) a polymer layer.
Circular plug-in connector socket for a printed circuit board which can be arranged thereon, wherein the circular plug-in connector socket has, on a rear side facing away from its plug-in side, a printed circuit board contact element which forms at least one spring contact by way of which each socket contact of the circular plug-in connector socket can be electrically conductively connected to a respective contact area of the printed circuit board, wherein the circular plug-in connector socket comprises a circular plug-in connector socket housing which has at least one fastening means and one orientation means for orientation and mounting on a housing, and wherein a further spring contact of the printed circuit board contact element is situated opposite the spring contact and the spring contacts are spaced apart from one another, the printed circuit board can be arranged between the spring contact and the further spring contact and one spring contact can be brought into contact with the contact area on a top side of the printed circuit board and the further spring contact can be brought into contact with a further contact area on a bottom side of the printed circuit board, so that a spring force of a respective spring contact presses the spring contact with spring action against a respective contact area of the printed circuit board, characterized in that the fastening means and the orientation means are of integral design in the form of an elongate hole.
A compound selected from N-{5-[(6,7-dimethoxy-4-quinolinyl)oxy]-2-pyridinyl}-2,5-dioxo-1-phenyl-1,2,5,6,7,8-hexahydro-3-quinolinecarboxamide and a salt thereof.
A magnetostrictive torque sensor device which detects a torque applied to a rotary shaft, comprising: a magnetostrictive portion provided on a surface of the rotary shaft; a coil comprising: a bobbin arranged in outer periphery of the magnetostrictive portion; and a wire wound around the bobbin; a cylindrical back-yoke disposed in outer periphery of the coil, wherein a slit (43a, 143a) extending in an axial direction is provided on the back-yoke (43, 143), characterized in that the magnetostrictive torque sensor device further comprises: a pair of yoke rings, having no slit (43a, 143a), disposed at both axial ends of the back-yoke (43, 143), wherein the back-yoke (43, 143) and the yoke rings are disposed with a gap so as not to contact with each other. a magnetostrictive portion provided on a surface of the rotary shaft; a coil comprising: a bobbin arranged in outer periphery of the magnetostrictive portion; and a wire wound around the bobbin; a bobbin arranged in outer periphery of the magnetostrictive portion; and a wire wound around the bobbin; a cylindrical back-yoke disposed in outer periphery of the coil, wherein a slit (43a, 143a) extending in an axial direction is provided on the back-yoke (43, 143), characterized in that the magnetostrictive torque sensor device further comprises: a pair of yoke rings, having no slit (43a, 143a), disposed at both axial ends of the back-yoke (43, 143), wherein the back-yoke (43, 143) and the yoke rings are disposed with a gap so as not to contact with each other. a pair of yoke rings, having no slit (43a, 143a), disposed at both axial ends of the back-yoke (43, 143), wherein the back-yoke (43, 143) and the yoke rings are disposed with a gap so as not to contact with each other.