mhurhangee/patent-ind-claim-en huggingface dataset:
A substrate alignment device, comprising: a multidimensional robot arm and a plurality of state detection units at a substrate detection site, wherein: the robot arm configured to receive and support the substrate and transfer the substrate to the substrate detection site; each of the plurality of state detection units is configured to move from a standby position to a detection position for detecting a positional state of a substrate and return back from the detection position to the standby position; and the robot arm configured to adjust the substrate in at least one orientation according to the detected positional state of the substrate to position the substrate to a target position. the robot arm configured to receive and support the substrate and transfer the substrate to the substrate detection site; each of the plurality of state detection units is configured to move from a standby position to a detection position for detecting a positional state of a substrate and return back from the detection position to the standby position; and the robot arm configured to adjust the substrate in at least one orientation according to the detected positional state of the substrate to position the substrate to a target position.
A cell fusion device comprising: a cell fusion container comprising: - a cell fusion region in which cell fusion of cells is carried out; - a pair of electrodes formed by a conductor and disposed opposite to each other in the cell fusion region ; a tabular spacer disposed between the pair of electrodes ; a tabular insulator disposed between the spacer and one of the electrodes and having at least one fine pore penetrating through the insulator in a direction of the pair of electrodes ; and an electronic power supply which applies an alternating-current power supply which applies an alternating voltage to the pair of electrodes characterized in that the tabular insulator has a plurality of fine pores and the electronic power supply applies to the electrodes an alternating voltage having a waveform for fixing a single cell in each fine pore . - a cell fusion region in which cell fusion of cells is carried out; - a pair of electrodes formed by a conductor and disposed opposite to each other in the cell fusion region ;
A four-wave mixing radio frequency transmission line including: an input arranged to receive: a first pump signal having a first pump frequency; a second pump signal , having a second pump frequency, different to the first pump frequency; and an input signal to be amplified ; a non-linear medium having an intrinsic dispersion relationship, the medium arranged to allow interaction between the input signal , the first pump signal and the second pump signal , such that the input signal is amplified and an idler signal is generated and amplified; and a plurality of dispersion control elements arranged periodically along the transmission line , the dispersion control elements arranged to alter the dispersion relationship of the medium to asymptotically diverge from the intrinsic dispersion relationship at a first frequency, and at a second frequency such that there are stopbands at the first and second frequencies, wherein the first pump frequency is near the first frequency and the second pump frequency is near the second frequency, such that the total phase difference between the input signal , the first pump signal , the second pump signal and the idler signal is kept at zero or substantially zero as the first pump signal , the second pump signal , the input signal and the idler signal propagate down the transmission line . an input arranged to receive: a first pump signal having a first pump frequency; a second pump signal , having a second pump frequency, different to the first pump frequency; and an input signal to be amplified ; a first pump signal having a first pump frequency; a second pump signal , having a second pump frequency, different to the first pump frequency; and an input signal to be amplified ; a non-linear medium having an intrinsic dispersion relationship, the medium arranged to allow interaction between the input signal , the first pump signal and the second pump signal , such that the input signal is amplified and an idler signal is generated and amplified; and a plurality of dispersion control elements arranged periodically along the transmission line , the dispersion control elements arranged to alter the dispersion relationship of the medium to asymptotically diverge from the intrinsic dispersion relationship at a first frequency, and at a second frequency such that there are stopbands at the first and second frequencies, wherein the first pump frequency is near the first frequency and the second pump frequency is near the second frequency, such that the total phase difference between the input signal , the first pump signal , the second pump signal and the idler signal is kept at zero or substantially zero as the first pump signal , the second pump signal , the input signal and the idler signal propagate down the transmission line .
A semiconductor device comprising: a circuit to be tested having a scan chain; and a first test control device and a second test control device that perform a scan test of the circuit to be tested by using the scan chain, wherein the second test control device performs a second scan test of the circuit to be tested , the circuit to be tested gives the first test control device an instruction to perform a first scan test after the second scan test is performed, and the first test control device performs a first scan test of the circuit to be tested in response to an instruction from the circuit to be tested . a circuit to be tested having a scan chain; and a first test control device and a second test control device that perform a scan test of the circuit to be tested by using the scan chain, wherein the second test control device performs a second scan test of the circuit to be tested , the circuit to be tested gives the first test control device an instruction to perform a first scan test after the second scan test is performed, and the first test control device performs a first scan test of the circuit to be tested in response to an instruction from the circuit to be tested .
A resource monitoring system, comprising: a computer configured to execute an application for analyzing an operation of an industrial device , wherein the industrial device is configured to cyclically operate based on predetermined cycle information; a use status acquisition module configured to acquire a use status of a hardware resource of the computer by the application; a display control module configured to display the use status on a resource monitoring screen; a cycle acquisition module configured to acquire a cycle of the industrial device , wherein the cycle of the industrial device is a cycle of repetition of a predetermined operation that is repeated by the industrial device ; and a first determination module configured to determine whether a predetermined abnormality detection condition is satisfied based on a ratio of a period in which the use status is a predetermined situation to the cycle. a computer configured to execute an application for analyzing an operation of an industrial device , wherein the industrial device is configured to cyclically operate based on predetermined cycle information; a use status acquisition module configured to acquire a use status of a hardware resource of the computer by the application; a display control module configured to display the use status on a resource monitoring screen; a cycle acquisition module configured to acquire a cycle of the industrial device , wherein the cycle of the industrial device is a cycle of repetition of a predetermined operation that is repeated by the industrial device ; and a first determination module configured to determine whether a predetermined abnormality detection condition is satisfied based on a ratio of a period in which the use status is a predetermined situation to the cycle.
A depth map sensor comprising: a first array of first pixels , each first pixel comprising at least one first photodetector associated with a pixel circuit comprising a plurality of first bins (314-1, 314-2, 314-3, 314-4) for accumulating events; a clock source configured to generate a plurality of phase-shifted clock signals (PHI1, PHI2, PHI3, PHI4); characterized in that a first circuit having a plurality of first output lines coupled to the first array of first pixels, the first circuit receiving the plurality of phase-shifted clock signals from the clock source , the first circuit comprises a first block (506-1), which propagates the plurality of phase-shifted clock signals to a second block (508-1) during a first period determined by a first enable signal (RTN_ENABLE_OUTPUT), the propagation of the phase-shifted clock signals to the second block being interrupted at the end of the first period; and the second block is configured to select to which of the plurality of first output lines each of the plurality of phase-shifted clock signals is applied. a first array of first pixels , each first pixel comprising at least one first photodetector associated with a pixel circuit comprising a plurality of first bins (314-1, 314-2, 314-3, 314-4) for accumulating events; a clock source configured to generate a plurality of phase-shifted clock signals (PHI1, PHI2, PHI3, PHI4); characterized in that a first circuit having a plurality of first output lines coupled to the first array of first pixels, the first circuit receiving the plurality of phase-shifted clock signals from the clock source , the first circuit comprises a first block (506-1), which propagates the plurality of phase-shifted clock signals to a second block (508-1) during a first period determined by a first enable signal (RTN_ENABLE_OUTPUT), the propagation of the phase-shifted clock signals to the second block being interrupted at the end of the first period; and the second block is configured to select to which of the plurality of first output lines each of the plurality of phase-shifted clock signals is applied. the first circuit comprises a first block (506-1), which propagates the plurality of phase-shifted clock signals to a second block (508-1) during a first period determined by a first enable signal (RTN_ENABLE_OUTPUT), the propagation of the phase-shifted clock signals to the second block being interrupted at the end of the first period; and the second block is configured to select to which of the plurality of first output lines each of the plurality of phase-shifted clock signals is applied.
A force sensor for use in a powered surgical device, the force sensor comprising: a substrate including a central aperture extending along a longitudinal axis of the substrate, the substrate having a proximal surface, a distal surface, a first side surface, a second side surface, a top surface, and a bottom surface, at least one of the distal surface, the first side surface, the second side surface, the top surface, or the bottom surface including a recess defined therein; a plurality of sensing elements (Se) disposed within the recess; and a plate disposed over the recess and mounted to the substrate to hermetically seal the plurality of sensing elements within the substrate, whereby the force sensor is sealed and configured to withstand environmental stresses associated with cleaning and sterilization. a substrate including a central aperture extending along a longitudinal axis of the substrate, the substrate having a proximal surface, a distal surface, a first side surface, a second side surface, a top surface, and a bottom surface, at least one of the distal surface, the first side surface, the second side surface, the top surface, or the bottom surface including a recess defined therein; a plurality of sensing elements (Se) disposed within the recess; and a plate disposed over the recess and mounted to the substrate to hermetically seal the plurality of sensing elements within the substrate, whereby the force sensor is sealed and configured to withstand environmental stresses associated with cleaning and sterilization.
Method for coupling a rotary device, in particular a steam turbine, and a shaft device, in particular a gas turbine, having the following steps: - accelerating the rotary device up to an output rotational speed below the rotational speed of the shaft device, wherein, on reaching the output rotational speed, the shaft device and the rotary device are rotated with respect to one another by a difference angle (Δφ) and, after coupling, an optimum difference angle (Δφ) of Δφ = Δφ opt is achieved; - detecting the difference angle (Δφ) between the shaft device and the rotary device; wherein a rotational speed difference (Δn), formed from the difference between the rotational speed of the rotary device (n DT ) and the rotational speed of the shaft device (n GT ), is determined; - changing the rotational speed of the rotary device (n DT ) by a setpoint rotational speed difference (Δn soll ) to a rotational speed setpoint value, wherein the setpoint rotational speed difference (Δn soll ) is dependent on the difference angle (Δφ) and on the predicted acceleration value, and the rotational speed setpoint value is determined from the dependency between the setpoint rotational speed difference (Δn soll ) and the difference angle (Δφ), wherein when determining the rotational speed setpoint value (Δn DT ) the determined rotational speed difference (Δn) is also taken into account. - accelerating the rotary device up to an output rotational speed below the rotational speed of the shaft device, wherein, on reaching the output rotational speed, the shaft device and the rotary device are rotated with respect to one another by a difference angle (Δφ) and, after coupling, an optimum difference angle (Δφ) of Δφ = Δφ opt is achieved; - detecting the difference angle (Δφ) between the shaft device and the rotary device; wherein a rotational speed difference (Δn), formed from the difference between the rotational speed of the rotary device (n DT ) and the rotational speed of the shaft device (n GT ), is determined; - changing the rotational speed of the rotary device (n DT ) by a setpoint rotational speed difference (Δn soll ) to a rotational speed setpoint value, wherein the setpoint rotational speed difference (Δn soll ) is dependent on the difference angle (Δφ) and on the predicted acceleration value, and the rotational speed setpoint value is determined from the dependency between the setpoint rotational speed difference (Δn soll ) and the difference angle (Δφ), wherein when determining the rotational speed setpoint value (Δn DT ) the determined rotational speed difference (Δn) is also taken into account.
A system comprising: a current generator configured to: generate a DC of a polarity with an amplitude that is above a block threshold of a nerve for the polarity for a time, wherein the time is two minutes or more; and after the time, generate another DC with an opposite polarity and another amplitude for another time, wherein the other amplitude is below the block threshold of the nerve for the opposite polarity; and an electrode , coupled to the current generator , configured to deliver the DC to the nerve to block conduction in the nerve for the time and then deliver the other DC to the nerve for the other time so the nerve enters a repolarization cycle to accelerate a recovery time for the nerve. a current generator configured to: generate a DC of a polarity with an amplitude that is above a block threshold of a nerve for the polarity for a time, wherein the time is two minutes or more; and after the time, generate another DC with an opposite polarity and another amplitude for another time, wherein the other amplitude is below the block threshold of the nerve for the opposite polarity; and generate a DC of a polarity with an amplitude that is above a block threshold of a nerve for the polarity for a time, wherein the time is two minutes or more; and after the time, generate another DC with an opposite polarity and another amplitude for another time, wherein the other amplitude is below the block threshold of the nerve for the opposite polarity; and an electrode , coupled to the current generator , configured to deliver the DC to the nerve to block conduction in the nerve for the time and then deliver the other DC to the nerve for the other time so the nerve enters a repolarization cycle to accelerate a recovery time for the nerve.
Stopper for a container , wherein the stopper has a lateral portion which can be inserted into the container , wherein the lateral portion has a through-opening formed in an axial direction (Z), wherein the stopper has at least two segments , wherein the respective segment has a free end, wherein a first portion of the free end of the respective segment forms a subregion of the lateral portion , a second portion of the free end of the respective segment projects radially inwardly with respect to the lateral portion , and a third portion of the free end of the respective segment projects radially outwardly with respect to the lateral portion , wherein the second portions form a covering portion which can be penetrated in the axial direction (Z) and which closes the through-opening , wherein the third portions form a bearing portion of the stopper , wherein the second portions of the free end of the respective segment are deformable independently of the second portions of the free ends of the other segments , as a result of which the axial penetration of the covering portion is made possible.
A compound selected from: or a pharmaceutically acceptable salt, a stereoisomer, a mixture of stereoisomers, or a tautomer thereof.
A surface-enhanced Raman scattering element comprising: a substrate having a principal surface ; a molded layer having a support part formed on the principal surface of the substrate so as to extend along the principal surface and a fine structure part formed on the support part ; and a conductor layer formed on the fine structure part and constituting an optical functional part for generating surface-enhanced Raman scattering; characterized in that the fine structure part includes a plurality of projections formed integrally with the support part , wherein the projections are arranged into a two-dimensional array on the support part , wherein the molded layer is relatively thinner in a direction intersecting the principal surface of the substrate at the projections in a center part of a fine structure area (A5) formed with the fine structure part in the molded layer than at the projections in an outer edge part of the fine structure area (A5), wherein the molded layer is made relatively thinner in the direction intersecting the principal surface of the substrate at the center part of the fine structure area (A5) than at the outer edge part of the fine structure area (A5) due to a gradient in thickness of the support part . a substrate having a principal surface ; a molded layer having a support part formed on the principal surface of the substrate so as to extend along the principal surface and a fine structure part formed on the support part ; and a conductor layer formed on the fine structure part and constituting an optical functional part for generating surface-enhanced Raman scattering; characterized in that the fine structure part includes a plurality of projections formed integrally with the support part , wherein the projections are arranged into a two-dimensional array on the support part , wherein the molded layer is relatively thinner in a direction intersecting the principal surface of the substrate at the projections in a center part of a fine structure area (A5) formed with the fine structure part in the molded layer than at the projections in an outer edge part of the fine structure area (A5), wherein the molded layer is made relatively thinner in the direction intersecting the principal surface of the substrate at the center part of the fine structure area (A5) than at the outer edge part of the fine structure area (A5) due to a gradient in thickness of the support part .
A method for capturing and processing a digital panoramic image by projecting a panorama onto an image sensor by means of a panoramic objective lens to obtain a raw image and creating a set of N output images based on the raw image , wherein N is greater than or equal to two, each output image represents a gnomonic projection of the panorama with a given focal length, the focal length of the first output image (8.1) has a predetermined focal length value, and the focal length of each other output image (8.2; 8.3) is shorter than that of the previous output image (8.1; 8.2), characterized in that the output images have a common predetermined resolution, and H creating the output images, except for the first output image, comprises downsampling the previous output image by a factor of the focal length of the previous output image divided by the focal length of the current output image and assigning the downsampled result to the corresponding area of the current output image. projecting a panorama onto an image sensor by means of a panoramic objective lens to obtain a raw image and creating a set of N output images based on the raw image , wherein N is greater than or equal to two, each output image represents a gnomonic projection of the panorama with a given focal length, the focal length of the first output image (8.1) has a predetermined focal length value, and the focal length of each other output image (8.2; 8.3) is shorter than that of the previous output image (8.1; 8.2), characterized in that the output images have a common predetermined resolution, and H creating the output images, except for the first output image, comprises downsampling the previous output image by a factor of the focal length of the previous output image divided by the focal length of the current output image and assigning the downsampled result to the corresponding area of the current output image. N is greater than or equal to two, each output image represents a gnomonic projection of the panorama with a given focal length, the focal length of the first output image (8.1) has a predetermined focal length value, and the focal length of each other output image (8.2; 8.3) is shorter than that of the previous output image (8.1; 8.2), the output images have a common predetermined resolution, and H creating the output images, except for the first output image, comprises downsampling the previous output image by a factor of the focal length of the previous output image divided by the focal length of the current output image and assigning the downsampled result to the corresponding area of the current output image. downsampling the previous output image by a factor of the focal length of the previous output image divided by the focal length of the current output image and assigning the downsampled result to the corresponding area of the current output image.