mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring vibration characteristics associated to an object, said method comprising: - illuminating said object using at least two light sources, said at least two light sources emitting light of distinct colors, wherein each of said at least two light sources are strobed at a respective delay, - capturing reflected light from said object to result into one image of said object, said image comprising at least two distinguishable color channels capable of distinguishing the distinct colors of the light, and - processing said image to compute said vibration characteristics associated with said object from positions of points on said object in said at least two distinguishable color channels of said image. - illuminating said object using at least two light sources, said at least two light sources emitting light of distinct colors, wherein each of said at least two light sources are strobed at a respective delay, - capturing reflected light from said object to result into one image of said object, said image comprising at least two distinguishable color channels capable of distinguishing the distinct colors of the light, and - processing said image to compute said vibration characteristics associated with said object from positions of points on said object in said at least two distinguishable color channels of said image.
A valve for a printing fluid supply system, the valve comprising: two rigid shells (302, 304) to provide connections to a first printing fluid supply cartridge, a second printing fluid supply cartridge and a printhead; a diaphragm with sealing elements (406, 408) disposed between the two rigid shells (302, 304) to selectively couple one of the first printing fluid supply cartridge and the second printing fluid supply cartridge to the printhead and seal other printing fluid supply cartridge using the sealing elements (406, 408); and characterized by a spring for applying a force upon the diaphragm such that the diaphragm seals the one of the first printing fluid supply cartridge and the second printing fluid supply cartridge using the sealing elements (406, 408) and couples the other printing fluid supply cartridge to the printhead when the other printing fluid supply cartridge is pressurized. two rigid shells (302, 304) to provide connections to a first printing fluid supply cartridge, a second printing fluid supply cartridge and a printhead; a diaphragm with sealing elements (406, 408) disposed between the two rigid shells (302, 304) to selectively couple one of the first printing fluid supply cartridge and the second printing fluid supply cartridge to the printhead and seal other printing fluid supply cartridge using the sealing elements (406, 408); and characterized by a spring for applying a force upon the diaphragm such that the diaphragm seals the one of the first printing fluid supply cartridge and the second printing fluid supply cartridge using the sealing elements (406, 408) and couples the other printing fluid supply cartridge to the printhead when the other printing fluid supply cartridge is pressurized.
Mobile transport device for transporting an installation frame and for introducing an installation frame into a shaft, in particular an elevator shaft, comprising - a base frame (16, 116) and - a fixing device which is arranged on the base frame (16, 116) for fixing the base frame (16, 116) to a shaft opening (50, 150) of a shaft wall of the shaft (14, 114) and for preventing the transport device (10, 110) from tilting, characterized by - a bearing frame (34, 134) on which the installation frame (11, 111) can be supported from above, wherein the bearing frame (34, 134) is supported by the base frame (16, 116) and is movably arranged in the horizontal direction relative to the base frame (16, 116) such that, when the base frame (16, 116) is arranged outside of the shaft (14, 114), the bearing frame (34, 134) can be moved into the shaft (14, 114) from outside the shaft (14, 114) through the shaft opening (50, 150). - a base frame (16, 116) and - a fixing device which is arranged on the base frame (16, 116) for fixing the base frame (16, 116) to a shaft opening (50, 150) of a shaft wall of the shaft (14, 114) and for preventing the transport device (10, 110) from tilting, - a bearing frame (34, 134) on which the installation frame (11, 111) can be supported from above,
A hydraulic shock absorber comprising a housing and an absorber unit, wherein the absorber unit is movable relative to the housing in the axis direction of an absorber unit middle axis A-A and comprises a piston which is arranged on a piston rod and which subdivides the housing into a first and a second working space (6, 7) which is filled with damping fluid, characterized in that the piston has a piston unit which comprises a piston member, said piston member comprising a multitude of piston member flow channels which are suitable for the connection of the first and second working space (6, 7) and being stationary with respect to the piston rod, and a piston ring, said piston ring being coaxially arranged on the piston member in a displaceable manner in the axis direction of the absorber unit middle axis A-A and comprising a piston ring inner lateral surface, wherein a pressure plate which comprises pressure plate flow channels is arranged axially on both sides of the piston unit, said piston unit comprising the piston member which has a piston member outer lateral surface, and is resiliently biased against the piston unit by way of a spring force, so that the piston ring which comprises a piston ring outer lateral surface is arranged between the pressure plates, and wherein the pressure plates are radially dimensioned such that a piston ring end-face which faces the pressure plates projects radially beyond the assigned pressure plate in a manner such that in the operating state the piston ring of the piston unit is displaceable by the damping fluid which presses upon the one piston ring end-face and the pressure plate on the other side is deflected against the spring force by way of the displacement of the piston ring, by which means a flow path through the piston member flow channels and the pressure plate flow channels of the pressure plate on the other side can be released for the throttled flow of the damping fluid between the two workings spaces (6, 7).
A device for three-dimensional focusing in a microscope of given resolution, comprising: - a detector - calculating means characterized in that said detector is configured to determine, in a given measurement plane, a phase and intensity image of an electromagnetic field resulting from the interaction of an incident light wave with a reference object located in a reference medium of given index, the reference object having a complex refractive index of which the real part and / or the imaginary part is different respectively from the real and / or imaginary part of the refractive index of the reference medium; and in that said calculating means are configured to determine, from said at least one phase and intensity image, a three-dimensional position variation of the reference object. - a detector - calculating means
An apparatus comprising: a controller board configured to couple to a carrier board, the carrier board including first and second Ethernet ports (628a-628b), wherein the controller board is further configured to physically and communicably couple to the carrier board through a connector; computer processing circuitry including first and second media access controls and configured to select to transmit a packet to the first Ethernet port through the first MAC and to alternatively select to transmit the packet to the second Ethernet port through the second MAC; a third PHY configured to receive the packet from the second MAC and transmit the packet to the second Ethernet port, an Ethernet switch configured to receive the packet from the first MAC and transmit the packet to the first Ethernet port, the Ethernet switch comprises: a first switch port that includes a third MAC coupled to the first MAC of the processing circuitry; a second switch port that includes an exposed PHY configured to couple the Ethernet switch to the first Ethernet port; and a third switch port that includes a non-exposed PHY configured to couple the first Ethernet port to the PHY of another controller board; wherein the computer processing circuitry, the Ethernet switch, and the third PHY are mounted on the controller board. a controller board configured to couple to a carrier board, the carrier board including first and second Ethernet ports (628a-628b), wherein the controller board is further configured to physically and communicably couple to the carrier board through a connector; computer processing circuitry including first and second media access controls and configured to select to transmit a packet to the first Ethernet port through the first MAC and to alternatively select to transmit the packet to the second Ethernet port through the second MAC; a third PHY configured to receive the packet from the second MAC and transmit the packet to the second Ethernet port, an Ethernet switch configured to receive the packet from the first MAC and transmit the packet to the first Ethernet port, the Ethernet switch comprises: a first switch port that includes a third MAC coupled to the first MAC of the processing circuitry; a second switch port that includes an exposed PHY configured to couple the Ethernet switch to the first Ethernet port; and a third switch port that includes a non-exposed PHY configured to couple the first Ethernet port to the PHY of another controller board; a first switch port that includes a third MAC coupled to the first MAC of the processing circuitry; a second switch port that includes an exposed PHY configured to couple the Ethernet switch to the first Ethernet port; and a third switch port that includes a non-exposed PHY configured to couple the first Ethernet port to the PHY of another controller board; wherein the computer processing circuitry, the Ethernet switch, and the third PHY are mounted on the controller board.
An in vitro method of identifying a target gene for cancer therapy comprising measuring an activity of an unmodified T cell and of a modified T cell; said unmodified T cell and said modified T cell each contacted with the tumor microenvironment from an irradiated tumor-bearing subject; said modified T cell having a candidate gene knocked-down or knocked-out; wherein said candidate gene is identified as a target gene for cancer therapy if said activity is increased comparing said modified T cell to said unmodified T cell; and wherein said activity is selected from the group consisting of proliferation, cell cycle activation, cell death inhibition, cytokine production, and a cytotoxic activity.
A multi-channel radio frequency generator module arranged to generate multiple RF outputs for a plasma chamber having multiple plasma electrodes, comprising: N power amplifiers (206, 208) that generate N RF outputs, respectively, wherein each RF output is applied to a respective RF channel; M drivers (210, 211, 212) that drive the N power amplifiers (206, 208) based on M driver control signals, respectively; a power supply module that receives alternating current input power and that applies L rail voltages to the N power amplifiers based on L rail voltage setpoints, respectively; and a control module that sets the L rail voltage setpoints and the M driver control signals, wherein the N RF outputs are provided to N respective plasma electrodes (220, 224) of the plasma chamber, and wherein N is an integer greater than one, L and M are integers greater than zero, and M and L are less than or equal to N. N power amplifiers (206, 208) that generate N RF outputs, respectively, wherein each RF output is applied to a respective RF channel; M drivers (210, 211, 212) that drive the N power amplifiers (206, 208) based on M driver control signals, respectively; a power supply module that receives alternating current input power and that applies L rail voltages to the N power amplifiers based on L rail voltage setpoints, respectively; and a control module that sets the L rail voltage setpoints and the M driver control signals, wherein the N RF outputs are provided to N respective plasma electrodes (220, 224) of the plasma chamber, and wherein N is an integer greater than one, L and M are integers greater than zero, and M and L are less than or equal to N.
An information processing system comprising: a difference information acquisition section configured to acquire difference information regarding a difference between a code stored in a first repository of a local environment and a code stored in a second repository of a remote environment in correspondence with the code stored in the first repository; and a code analysis section configured to reproduce the code stored in the first repository from the code stored in the second repository, in reference to the difference information, wherein the code is reproduced in an intermediate state in the remote environment and not being uploaded to the second repository being in the intermediate state, and the code analysis section being further configured to perform code analysis on the reproduced intermediate code. a difference information acquisition section configured to acquire difference information regarding a difference between a code stored in a first repository of a local environment and a code stored in a second repository of a remote environment in correspondence with the code stored in the first repository; and a code analysis section configured to reproduce the code stored in the first repository from the code stored in the second repository, in reference to the difference information, wherein the code is reproduced in an intermediate state in the remote environment and not being uploaded to the second repository being in the intermediate state, and the code analysis section being further configured to perform code analysis on the reproduced intermediate code. wherein the code is reproduced in an intermediate state in the remote environment and not being uploaded to the second repository being in the intermediate state, and the code analysis section being further configured to perform code analysis on the reproduced intermediate code.
A method for adaptive waveform selection between a single-carrier frequency division multiplexing, SC-FDM, waveform design and an orthogonal frequency division multiplexing, OFDM, waveform design for signal transmission in a wireless communication system, the method comprising: analyzing, by a wireless device (105, 115) of the wireless communication system, a plurality of parameters of a wireless communication scheduling grant including a number of component carriers for the signal transmission, a modulation order used with respect to a component carrier, and a number of spatial layers used with respect to the component carrier; and selecting a waveform from a plurality of waveforms for the signal transmission based on a particular combination of attributes for the plurality of grant parameters of the wireless communication scheduling grant identified by the analyzing, without the wireless device (105, 115) having received signaling of a waveform selection for data transmission. analyzing, by a wireless device (105, 115) of the wireless communication system, a plurality of parameters of a wireless communication scheduling grant including a number of component carriers for the signal transmission, a modulation order used with respect to a component carrier, and a number of spatial layers used with respect to the component carrier; and selecting a waveform from a plurality of waveforms for the signal transmission based on a particular combination of attributes for the plurality of grant parameters of the wireless communication scheduling grant identified by the analyzing, without the wireless device (105, 115) having received signaling of a waveform selection for data transmission.
Method for providing a service in a communication network, in which the service comprises evaluating a request comprising an expression, the expression being a function of a plurality of context sources (B, D, E) available in the communication network and/or intermediate expressions, in which said context sources (B, D, E) use one of the following mechanisms: - a request based mechanism wherein the context source receives requests for its value and reply with its current value, or - a trigger based mechanism wherein the context source receives a request for an event and each time the value of the context source changes, the context source sends an event with its current value. the method comprising: - requesting a selected one of said context sources (B, D, E) for its value, - if the expression evaluates to a first value based on the received value for the request, then switching the selected one of said context sources (B, D, E) to a trigger mode, and - if the expression evaluates to a second value based on the received value for the request then proceeding with interrogating a further one of the plurality of context sources (B, D, E) available in the communication network. - a request based mechanism wherein the context source receives requests for its value and reply with its current value, or - a trigger based mechanism wherein the context source receives a request for an event and each time the value of the context source changes, the context source sends an event with its current value. - requesting a selected one of said context sources (B, D, E) for its value, - if the expression evaluates to a first value based on the received value for the request, then switching the selected one of said context sources (B, D, E) to a trigger mode, and - if the expression evaluates to a second value based on the received value for the request then proceeding with interrogating a further one of the plurality of context sources (B, D, E) available in the communication network.
A compound of following formula: where: *X corresponds to a repeat unit of following formula: or to a sequence of said repeat unit of formula, *R 1 and R 2 are each independently an alkyl group. *X corresponds to a repeat unit of following formula: or to a sequence of said repeat unit of formula, *R 1 and R 2 are each independently an alkyl group.
A thick steel plate for high heat input welding and having great heat-affected area toughness, wherein the thickness of the steel plate is 50-70 mm, the tensile strength of a base material of the steel plate is ≥ 510 MPa, the average Charpy V-notch impact work of the welding heat-affected area of the steel plate at -40 °C is 100 J or more under the condition that welding input energy is 200-400 kJ/cm, and the average Charpy V-notch aging impact work of the base material of 1/2 plate thickness at -40 °C is 46 J or more, the steel plate having the chemical composition in mass percentage: C: 0.05∼0.08%, Si: 0.10∼0.30%, Mn: 1.2∼1.6%, P≤0.02%, S: 0.002∼0.008%, B: 0.0005∼0.005%, Ni: 0.20∼0.40%, Cu: 0.15∼0.3%, Ti: 0.005∼0.03%, Al: 0.003∼0.03%, Ca: REM≤0.01%, Zr≤0.01%, N: 0.001∼0.006%, and optionally further comprising at least one element of Nb or Cr, wherein the amount of Nb is 0.03 mass% or less, the amount of Cr is 0.2 mass% or less, and the balance of Fe and other inevitable impurities; and the chemical composition satisfying the following relationship: 1 ≤ Ti / N ≤ 6, Ca + REM + Zr / Al ≥ 0.11; an effective S content in steel= S-0.8Ca-0.34REM-0.35Zr; an effective S content in steel: 0.0006∼0.005%; the amount of composite inclusion CaO + Al 2 O 3 + MnS + TiN in the steel plate is at a proportion of ≥ 12%, wherein the amount of composite inclusion is measured by SEM-EDS according to the description, and wherein the amount of composite inclusion refers to the ratio of the measured areal density from the composite inclusion to the measured areal density of all kinds of inclusions. C: 0.05∼0.08%, Si: 0.10∼0.30%, Mn: 1.2∼1.6%, P≤0.02%, S: 0.002∼0.008%, B: 0.0005∼0.005%, Ni: 0.20∼0.40%, Cu: 0.15∼0.3%, Ti: 0.005∼0.03%, Al: 0.003∼0.03%, Ca: REM≤0.01%, Zr≤0.01%, N: 0.001∼0.006%, and optionally further comprising at least one element of Nb or Cr, wherein the amount of Nb is 0.03 mass% or less, the amount of Cr is 0.2 mass% or less, and the balance of Fe and other inevitable impurities; and the chemical composition satisfying the following relationship: 1 ≤ Ti / N ≤ 6, Ca + REM + Zr / Al ≥ 0.11; an effective S content in steel= S-0.8Ca-0.34REM-0.35Zr; an effective S content in steel: 0.0006∼0.005%; the amount of composite inclusion CaO + Al 2 O 3 + MnS + TiN in the steel plate is at a proportion of ≥ 12%, wherein the amount of composite inclusion is measured by SEM-EDS according to the description, and wherein the amount of composite inclusion refers to the ratio of the measured areal density from the composite inclusion to the measured areal density of all kinds of inclusions. an effective S content in steel= S-0.8Ca-0.34REM-0.35Zr; an effective S content in steel: 0.0006∼0.005%; the amount of composite inclusion CaO + Al 2 O 3 + MnS + TiN in the steel plate is at a proportion of ≥ 12%, wherein the amount of composite inclusion is measured by SEM-EDS according to the description, and wherein the amount of composite inclusion refers to the ratio of the measured areal density from the composite inclusion to the measured areal density of all kinds of inclusions.
A motor control device configured to feedback-control state quantity of a motor or a mechanical load, the device comprising: a first notch filter (302, 302a) disposed inside a feedback control system and configured to change a frequency component to be removed; a first notch controller (304, 304a) configured to change a first notch frequency as a center frequency of the first notch filter (302, 302a); a change rate calculator configured to successively calculate a notch frequency change rate indicating a change amount per unit time of the first notch frequency; and a change rate monitor configured to output a signal indicating that the notch frequency change rate has a value outside a first predetermined range when the notch frequency change rate has the value outside the first predetermined range, characterized in that when the notch frequency change rate has a value outside a second predetermined range narrower than the first predetermined range, the change rate calculator is further configured to calculate the notch frequency change rate at a shorter time interval for successive calculation of the notch frequency change rate in comparison to a case where the notch frequency change rate has a value within the second predetermined range. a first notch filter (302, 302a) disposed inside a feedback control system and configured to change a frequency component to be removed; a first notch controller (304, 304a) configured to change a first notch frequency as a center frequency of the first notch filter (302, 302a); a change rate calculator configured to successively calculate a notch frequency change rate indicating a change amount per unit time of the first notch frequency; and a change rate monitor configured to output a signal indicating that the notch frequency change rate has a value outside a first predetermined range when the notch frequency change rate has the value outside the first predetermined range, characterized in that when the notch frequency change rate has a value outside a second predetermined range narrower than the first predetermined range, the change rate calculator is further configured to calculate the notch frequency change rate at a shorter time interval for successive calculation of the notch frequency change rate in comparison to a case where the notch frequency change rate has a value within the second predetermined range.