mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging device including: a pixel array unit including pixels; an analog signal generation unit configured to generate an analog signal based on a temperature around the pixel array unit; an A/D conversion unit configured to convert the analog signal into a digital signal; a switch configured to cut off the analog signal to be supplied to the A/D conversion unit; and a correction unit configured to correct the digital signal, the imaging device being characterised in that the correction unit calculates a parameter of a correction calculation expression (E) for correcting the digital signal based on a first digital signal obtained through A/D conversion from the analog signal cut off by the switch and a second digital signal obtained through A/D conversion from the analog signal generated by the analog signal generation unit. a pixel array unit including pixels; an analog signal generation unit configured to generate an analog signal based on a temperature around the pixel array unit; an A/D conversion unit configured to convert the analog signal into a digital signal; a switch configured to cut off the analog signal to be supplied to the A/D conversion unit; and a correction unit configured to correct the digital signal, the imaging device being characterised in that the correction unit calculates a parameter of a correction calculation expression (E) for correcting the digital signal based on a first digital signal obtained through A/D conversion from the analog signal cut off by the switch and a second digital signal obtained through A/D conversion from the analog signal generated by the analog signal generation unit.
A control unit of an injection molding machine , comprising: a motor driving element disposed in an internal space of a control unit housing ; and a cooling unit for cooling the motor driving element , wherein the cooling unit includes a flow path member including a heat sink thermally connected to the motor driving element , and at least one first fan (F 0 , F 1 ) forming a flow path together with at least the flow path member , and configured to generate a first airflow flowing through the flow path , and wherein the flow path has an inlet in a first side surface portion of the control unit housing , has an outlet in a second side surface portion of the control unit housing , and is configured to prevent the first airflow flowing in the flow path from flowing out of the flow path in the control unit housing by an operation of the first fan (F), characterized in that the cooling unit further includes at least one duct that forms the flow path together with the flow path member and the first fan (F), and the duct is attached to the flow path member in a form of surrounding the first fan (F), and wherein the cooling unit further includes a sealing material disposed between the control unit housing and the duct . a motor driving element disposed in an internal space of a control unit housing ; and a cooling unit for cooling the motor driving element , wherein the cooling unit includes a flow path member including a heat sink thermally connected to the motor driving element , and at least one first fan (F 0 , F 1 ) forming a flow path together with at least the flow path member , and configured to generate a first airflow flowing through the flow path , and wherein the flow path has an inlet in a first side surface portion of the control unit housing , has an outlet in a second side surface portion of the control unit housing , and is configured to prevent the first airflow flowing in the flow path from flowing out of the flow path in the control unit housing by an operation of the first fan (F), characterized in that the cooling unit further includes at least one duct that forms the flow path together with the flow path member and the first fan (F), and the duct is attached to the flow path member in a form of surrounding the first fan (F), and wherein the cooling unit further includes a sealing material disposed between the control unit housing and the duct .
A light-emitting device comprising; a conductive support substrate ; a light-emitting structure disposed on the conductive support substrate , and comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer disposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer , and further comprising a plurality of first recesses passing through the second conductivity type semiconductor layer , the active layer , and a portion of the first conductivity type semiconductor layer , and a second recess passing through the light emitting structure; a first electrode electrically connected to the first conductivity type semiconductor layer inside each of the plurality of first recesses, the conductive support substrate being electrically connected to the first electrode ; a second electrode (236/2236a/236b) electrically connected to the second conductivity type semiconductor layer ; and an insulating layer disposed between the conductive support substrate and the second conductivity type semiconductor layer , wherein the second recess acts as a light extractor and includes a first light-extractor side-surface portion configured to form one side surface of the second recess adjacent to the conductive support substrate , a second light-extractor side-surface portion configured to form a remaining side surface of the second recess, and a light-extractor lower-surface portion configured to form a lower surface of the second recess, wherein the light-extractor lower-surface portion is formed by the insulating layer , wherein the first light-extractor side-surface portion has a first angle with the insulating layer , characterized in that : the light-extractor lower-surface portion is disposed to have a first width (w 12 ) for extracting light generated in the active layer , the first width (w 12 ) is equal to or greater than 3 μ m, and the first angle is equal to or less than 80 degrees.
A headgear assembly for use with a patient interface, the headgear assembly comprising: at least one strap , the at least one strap comprising an end with a hook tab, the hook tab being securable to a loop material of the strap, characterised in that , the hook tab comprises at least two fingers that are spaced apart from each other by a gap such that lifting one of the at least two fingers will not result in lifting of the other of the at least two fingers. at least one strap , the at least one strap comprising an end with a hook tab, the hook tab being securable to a loop material of the strap, characterised in that , the hook tab comprises at least two fingers that are spaced apart from each other by a gap such that lifting one of the at least two fingers will not result in lifting of the other of the at least two fingers.
A user equipment, UE, device comprising: a memory storing computer readable instructions; and processing circuitry configured to execute the computer readable instructions to cause the UE device to, obtain sidelink, SL, groupcast configuration information associated with a desired UE group, the SL groupcast configuration information including a SL discontinuous reception , DRX, cycle and at least one setting rule regarding the SL DRX cycle for the desired UE group, the SL DRX cycle including a SL DRX ON duration setting, the desired UE group including a plurality of UE devices including the UE device, determine whether a congestion level of the desired UE group for a current SL DRX cycle period exceeds a desired congestion threshold level, determine SL DRX reconfiguration settings based on results of the determining whether the congestion level exceeds the desired congestion threshold level and the setting rule, and perform SL DRX communication based on the determined SL DRX reconfiguration settings. a memory storing computer readable instructions; and processing circuitry configured to execute the computer readable instructions to cause the UE device to, obtain sidelink, SL, groupcast configuration information associated with a desired UE group, the SL groupcast configuration information including a SL discontinuous reception , DRX, cycle and at least one setting rule regarding the SL DRX cycle for the desired UE group, the SL DRX cycle including a SL DRX ON duration setting, the desired UE group including a plurality of UE devices including the UE device, determine whether a congestion level of the desired UE group for a current SL DRX cycle period exceeds a desired congestion threshold level, determine SL DRX reconfiguration settings based on results of the determining whether the congestion level exceeds the desired congestion threshold level and the setting rule, and perform SL DRX communication based on the determined SL DRX reconfiguration settings.
A control device of an engine (E), the engine including: a piston which is contained in a cylinder ; an intake passage which is communicated to a combustion chamber of the cylinder; an exhaust passage which is led from the combustion chamber; a fuel injection valve which is configured to inject fuel to the combustion chamber or the intake passage; and an ignition unit which is provided in the combustion chamber, the control device comprising: a low speed pre-ignition predicting unit which is configured to perform prediction of occurrence of low speed pre-ignition, based on operation condition of the engine; a lubricating oil injection controlling unit which is configured to control a lubricating oil injecting device to inject lubricating oil to the piston or a member located around the piston, based on the prediction of the occurrence of the low speed pre-ignition performed by the low speed pre-ignition predicting unit; and a self ignition index calculating unit which is configured to calculate self ignition index which indicates possibility of occurring self ignition of the fuel at a crank angle before an ignition time during a compression stroke, based on temperature and pressure inside the combustion chamber, wherein the low speed pre-ignition predicting unit is configured to perform the prediction of the occurrence of the low speed pre-ignition, based on the self ignition index calculated by the self ignition index calculating unit, characterized in that an injecting direction of the lubricating oil based on the self ignition index is different from an injecting direction of lubricating oil based on a control index for restraining an ordinary pre-ignition, the control index being other than the self ignition index. a low speed pre-ignition predicting unit which is configured to perform prediction of occurrence of low speed pre-ignition, based on operation condition of the engine; a lubricating oil injection controlling unit which is configured to control a lubricating oil injecting device to inject lubricating oil to the piston or a member located around the piston, based on the prediction of the occurrence of the low speed pre-ignition performed by the low speed pre-ignition predicting unit; and a self ignition index calculating unit which is configured to calculate self ignition index which indicates possibility of occurring self ignition of the fuel at a crank angle before an ignition time during a compression stroke, based on temperature and pressure inside the combustion chamber, wherein the low speed pre-ignition predicting unit is configured to perform the prediction of the occurrence of the low speed pre-ignition, based on the self ignition index calculated by the self ignition index calculating unit, characterized in that an injecting direction of the lubricating oil based on the self ignition index is different from an injecting direction of lubricating oil based on a control index for restraining an ordinary pre-ignition, the control index being other than the self ignition index.
An in vitro method for predicting outcome of multiple myeloma in an individual comprising the steps of : a) measuring the expression level of each the four markers selected in a group consisting of CD24, CD27, CD36 and CD302 in a sample obtained from the said individual, b) comparing the expression value measured at step a) with a reference value for each of the markers tested, and c) determining the predicted outcome of multiple myeloma in the said individual from the comparison performed at step b). a) measuring the expression level of each the four markers selected in a group consisting of CD24, CD27, CD36 and CD302 in a sample obtained from the said individual, b) comparing the expression value measured at step a) with a reference value for each of the markers tested, and c) determining the predicted outcome of multiple myeloma in the said individual from the comparison performed at step b).
A method for producing a mechanical locking system for a first panel and a second panel, such as building panels or floor panels, wherein the first panel and the second panels comprises a core material comprising a thermoplastic material, wherein the method comprises: • providing a tongue , comprising a first locking surface , at a first edge of the first panel ; • forming a tongue groove , comprising a second locking surface , preferably by mechanical cutting, at a second edge of the second panel, said first locking surface and second locking surface are configured to cooperate for locking the first edge to the second edge in a first direction (D1); • providing a first guiding surface at the first edge and a second guiding surface at the second edge, wherein the mechanical locking system is configured such that first guiding surface cooperates with the second guiding surface during an assembling of the first edge and the second edge; • producing the mechanical locking system by mechanical cutting, such as milling, preferably in a milling line; • working of the first guiding surface and/or the second guiding surface to reduce a coefficient of friction between the first guiding surface and the second guiding surface and/or to reduce a surface roughness of the worked guiding surface(s), characterised in that the method furthermore comprises: • the working of the first guiding surface and/or the second guiding surface is performed by pressing by a fixed tool, such as a sliding bar or pressure shoe. • providing a tongue , comprising a first locking surface , at a first edge of the first panel ; • forming a tongue groove , comprising a second locking surface , preferably by mechanical cutting, at a second edge of the second panel, said first locking surface and second locking surface are configured to cooperate for locking the first edge to the second edge in a first direction (D1); • providing a first guiding surface at the first edge and a second guiding surface at the second edge, wherein the mechanical locking system is configured such that first guiding surface cooperates with the second guiding surface during an assembling of the first edge and the second edge; • producing the mechanical locking system by mechanical cutting, such as milling, preferably in a milling line; • working of the first guiding surface and/or the second guiding surface to reduce a coefficient of friction between the first guiding surface and the second guiding surface and/or to reduce a surface roughness of the worked guiding surface(s), • the working of the first guiding surface and/or the second guiding surface is performed by pressing by a fixed tool, such as a sliding bar or pressure shoe.
Piston compressor valve , comprising a valve seat having a plurality of passage openings , comprising a closing element rotatable about a rotation axis (D) for opening and closing the passage openings , comprising an actuator drive for rotating the closing element , comprising a sensor for detecting a state variable (E) of the piston compressor valve , and comprising an actuating device which activates the actuator drive as a function of the state variable (E), wherein the valve seat has an end face into which the passage openings open, wherein the closing element is designed integral, wherein the closing element is fixedly connected to a shaft which can be rotated about the rotation axis (D), characterized in that the closing element is connected to the actuator drive so as to be movable in a self-acting manner in a profile direction of the rotation axis (D), so that the closing element can be rotated about the rotation axis (D) by the actuator drive and can also be displaced in a self-acting manner in the profile direction of the rotation axis (D) in relation to the end face .
An apparatus for generating information for environmental setting, the apparatus comprising: an information generator for generating information representing a tropical rain forest environment, the tropical rain forest environmental information being a super perceptual information including a perceptible first sensory information that is lower than a perceptual limit of what a human being can perceive, and an imperceptible second sensory information that is higher than the perceptual limit of what the human being can perceive, the super perceptual information including at least one of auditory information and visual information; and an applying device for applying the information generated by the information generator to the human being, characterized in that the auditory information has a density thereof having both a predetermined perceptible band and an imperceptible band which is higher than an auditory perceptual limit, the auditory information having such a complexity that a shape of a spectrum of the auditory information has the density and power thereof changing in a non-stationary manner in a time region at least ranging from 100 milliseconds to 0.5 milliseconds, and wherein the visual information has a visual stimulus density of a shape thereof such that a visual stimulus density of the shape of the visual information is higher than a predetermined spatial visual resolution threshold perceptual limit of what the human being can view, the visual information having such a complexity that a spatial fractal dimension of the shape of the visual information shows values ranging between 2.2 and 3.0. an information generator for generating information representing a tropical rain forest environment, the tropical rain forest environmental information being a super perceptual information including a perceptible first sensory information that is lower than a perceptual limit of what a human being can perceive, and an imperceptible second sensory information that is higher than the perceptual limit of what the human being can perceive, the super perceptual information including at least one of auditory information and visual information; and an applying device for applying the information generated by the information generator to the human being, characterized in that the auditory information has a density thereof having both a predetermined perceptible band and an imperceptible band which is higher than an auditory perceptual limit, the auditory information having such a complexity that a shape of a spectrum of the auditory information has the density and power thereof changing in a non-stationary manner in a time region at least ranging from 100 milliseconds to 0.5 milliseconds, and wherein the visual information has a visual stimulus density of a shape thereof such that a visual stimulus density of the shape of the visual information is higher than a predetermined spatial visual resolution threshold perceptual limit of what the human being can view, the visual information having such a complexity that a spatial fractal dimension of the shape of the visual information shows values ranging between 2.2 and 3.0.
A method for controlling a microgrid comprising at least one renewable plant of distributed renewable energy resources and at least one generator plant of distributed non-renewable energy resources , each plant having a local controller comprising: providing type and size of each plant to the local controller of each plant within the microgrid, wherein type indicates renewable or non-renewable and size indicates total amount of power that may be supplied; each local controller measuring the frequency of the microgrid; estimating the power load demanded from the plant based on the measured frequency, and the type and size of each plant; dividing the estimated power load among the energy resources available within the plant; the local controller of the at least one renewable plant : monitoring the power supplied by the plant; decreasing the frequency at which power is supplied by the renewable plant when the supplied power falls below the estimated load; increasing the frequency at which power is supplied by the renewable plant when the supplied power exceeds the estimated load; the local controller of the at least one generator plant : increasing power supply by non-renewable resources in response to detecting a decrease in frequency of the microgrid; and decreasing power supply by non-renewable resources in response to detecting an increase in frequency of the microgrid. providing type and size of each plant to the local controller of each plant within the microgrid, wherein type indicates renewable or non-renewable and size indicates total amount of power that may be supplied; each local controller measuring the frequency of the microgrid; estimating the power load demanded from the plant based on the measured frequency, and the type and size of each plant; dividing the estimated power load among the energy resources available within the plant; the local controller of the at least one renewable plant : monitoring the power supplied by the plant; decreasing the frequency at which power is supplied by the renewable plant when the supplied power falls below the estimated load; increasing the frequency at which power is supplied by the renewable plant when the supplied power exceeds the estimated load; monitoring the power supplied by the plant; decreasing the frequency at which power is supplied by the renewable plant when the supplied power falls below the estimated load; increasing the frequency at which power is supplied by the renewable plant when the supplied power exceeds the estimated load; the local controller of the at least one generator plant : increasing power supply by non-renewable resources in response to detecting a decrease in frequency of the microgrid; and decreasing power supply by non-renewable resources in response to detecting an increase in frequency of the microgrid. increasing power supply by non-renewable resources in response to detecting a decrease in frequency of the microgrid; and decreasing power supply by non-renewable resources in response to detecting an increase in frequency of the microgrid.