mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound imaging apparatus comprising: a probe configured to transmit ultrasound signals to an object and receive echo signals corresponding to the ultrasound signals; a memory ; and at least one processor configured to: obtain a real-time ultrasound image of the object from the echo signals, detect a predefined first movement of a needle based on position change information of the needle, and automatically store in a memory a first ultrasound image of the object including an ultrasound image captured at a time point when the first movement of the needle is detected, wherein the needle comprises a needle inserted into the object for fine needle aspiration (FNA), wherein the first movement of the needle comprises a repeated movement of the needle for the FNA over a predetermined period of time, and wherein the at least one processor is further configured to automatically store in the memory the first ultrasound image including an ultrasound image captured at a time point when the repeated movement of the needle for the FNA is detected. a probe configured to transmit ultrasound signals to an object and receive echo signals corresponding to the ultrasound signals; a memory ; and at least one processor configured to: obtain a real-time ultrasound image of the object from the echo signals, detect a predefined first movement of a needle based on position change information of the needle, and automatically store in a memory a first ultrasound image of the object including an ultrasound image captured at a time point when the first movement of the needle is detected, wherein the needle comprises a needle inserted into the object for fine needle aspiration (FNA), wherein the first movement of the needle comprises a repeated movement of the needle for the FNA over a predetermined period of time, and wherein the at least one processor is further configured to automatically store in the memory the first ultrasound image including an ultrasound image captured at a time point when the repeated movement of the needle for the FNA is detected. obtain a real-time ultrasound image of the object from the echo signals, detect a predefined first movement of a needle based on position change information of the needle, and automatically store in a memory a first ultrasound image of the object including an ultrasound image captured at a time point when the first movement of the needle is detected, wherein the needle comprises a needle inserted into the object for fine needle aspiration (FNA), wherein the first movement of the needle comprises a repeated movement of the needle for the FNA over a predetermined period of time, and wherein the at least one processor is further configured to automatically store in the memory the first ultrasound image including an ultrasound image captured at a time point when the repeated movement of the needle for the FNA is detected.
A method for storing carbon containing compounds in a formation associated with a fracturing well formed by hydraulic fracturing, the method comprising: injecting proppant into the formation; fracturing the formation, thereby forming fractures; removing hydrocarbons from in situ loci within the formation; injecting the carbon containing compounds into the formation; and injecting a solution into the formation, the solution capable of at least partially degrading the structural integrity of the proppant positioned within the formation, thereby resealing the fractures. injecting proppant into the formation; fracturing the formation, thereby forming fractures; removing hydrocarbons from in situ loci within the formation; injecting the carbon containing compounds into the formation; and
An introducer tool kit for implantation of a subcutaneous lead for use in a cardiac therapy apparatus, the tool kit comprising: a first insertion tool for use in creating a first subcutaneous tunnel along a first line, having a distal end for insertion into a patient with an opening at or near the distal end; a first support member for placement through the first insertion tool during creation of the first subcutaneous tunnel; and a second insertion tool and a steerable insertion tool for use in creating a second subcutaneous tunnel at an angle relative to the first subcutaneous tunnel by passage through the first insertion tool and out of the opening, wherein the second insertion tool is configured to curve in a location at the opening of the first insertion tool. a first insertion tool for use in creating a first subcutaneous tunnel along a first line, having a distal end for insertion into a patient with an opening at or near the distal end; a first support member for placement through the first insertion tool during creation of the first subcutaneous tunnel; and a second insertion tool and a steerable insertion tool for use in creating a second subcutaneous tunnel at an angle relative to the first subcutaneous tunnel by passage through the first insertion tool and out of the opening, wherein the second insertion tool is configured to curve in a location at the opening of the first insertion tool.
A hospital bed having a bed frame and wireless communication circuitry operable to transmit bed status data off of the bed wirelessly to a network spaced from the bed and to receive messages wirelessly from the network, the bed having a mattress associated therewith, the bed status data including information regarding at least one feature of the mattress and at least one feature of the bed frame, wherein bed status data received by the network wirelessly from the hospital bed results in a remote computer device of the network sending a message to control a feature of the mattress based on a state of the at least one feature of the bed frame.
A method for preparing a crystal form A of a compound of formula I, comprising dissolving the compound of formula I in a reaction solvent and adding another solvent dropwise for precipitation to give the crystal form A of the compound of formula I, wherein the crystal form A exhibits an X-ray powder diffraction pattern as shown in FIG.1, wherein the reaction solvent is acetone, and wherein another solvent is water.
A medicament for use in the treatment of cancer comprising a compound of formula : [N-[4-(2-amino-5-{4-[ -1,4-dioxan-2-ylmethoxy]-3-methoxyphenyl}pyridin-3-yl)-3-fluorophenyl]-5-methyl-4'-oxo-1'-(tetrahydro-2H-pyran-4-ylmethyl)-1',4'-dihydro-2,3'-bipyridine-5'-carboxamideJ, a pharmaceutically acceptable salt thereof, or a hydrate of the compound of formula or a pharmaceutically acceptable salt thereof and an EGFR tyrosine kinase inhibitor which are administered in combination; wherein the EGFR tyrosine kinase inhibitor is osimertinib or a pharmaceutically acceptable salt thereof and the cancer is non-small cell lung cancer having one or more of exon19del, L858R and T790M mutations in the EGFR gene.
A method for manufacturing a part, the method comprising: feeding a void free core reinforced filament into an extrusion nozzle , wherein the core reinforced filament comprises a multistranded reinforcing core and a matrix material surrounding the multistranded core; heating the core reinforced filament to a temperature greater than a melting temperature of the matrix material and less than a melting temperature of the multistranded core; extruding the core reinforced filament through a rounded outlet of the extrusion nozzle to form the part; and characterized by pulling the core reinforced filament out of the rounded nozzle when a dragging force applied to the core reinforced filament is greater than a force threshold of an associated feeding mechanism. feeding a void free core reinforced filament into an extrusion nozzle , wherein the core reinforced filament comprises a multistranded reinforcing core and a matrix material surrounding the multistranded core; heating the core reinforced filament to a temperature greater than a melting temperature of the matrix material and less than a melting temperature of the multistranded core; extruding the core reinforced filament through a rounded outlet of the extrusion nozzle to form the part; and characterized by pulling the core reinforced filament out of the rounded nozzle when a dragging force applied to the core reinforced filament is greater than a force threshold of an associated feeding mechanism.
A flooding composition comprising in weight percent (wt%) based on the weight of the composition: (A) from 1 wt% to less than 5 wt% of a polytetrafluoroethylene (PTFE) powder; (B) a styrene-ethylene/propylene block copolymer; and (C) a mineral oil having a kinematic viscosity from 32 cSt to 100 cSt at 40°C; wherein kinematic viscosity is measured at 40°C in accordance with ASTM D445. (A) from 1 wt% to less than 5 wt% of a polytetrafluoroethylene (PTFE) powder; (B) a styrene-ethylene/propylene block copolymer; and (C) a mineral oil having a kinematic viscosity from 32 cSt to 100 cSt at 40°C; wherein kinematic viscosity is measured at 40°C in accordance with ASTM D445.
A black coating comprising: a resin film; a black pigment comprising thermally produced graphenic carbon particles in an amount up to 20 weight percent based on the total dry film weight of the coating; and a polymeric dispersant; wherein the black coating has a minimum absorbance of 80 percent throughout a wavelength range of 400 to 700 nm; and wherein the graphenic carbon particles are functionalized. a resin film; a black pigment comprising thermally produced graphenic carbon particles in an amount up to 20 weight percent based on the total dry film weight of the coating; and a polymeric dispersant; wherein the black coating has a minimum absorbance of 80 percent throughout a wavelength range of 400 to 700 nm; and wherein the graphenic carbon particles are functionalized.
An implantable device , comprising: a metallic device container ; and a thermoset polymer header , characterized by a textured surface on a portion of the metallic device container , having an area root mean square roughness value [S q ] between 3.05 μm and 10.2 μm; and the thermoset polymer header forming an interface with at least a portion of the textured surface. a metallic device container ; and a thermoset polymer header , characterized by a textured surface on a portion of the metallic device container , having an area root mean square roughness value [S q ] between 3.05 μm and 10.2 μm; and the thermoset polymer header forming an interface with at least a portion of the textured surface.
An in-wheel motor drive device including an electric motor to drive a wheel , a motor controller to control the electric motor in accordance with a supplied torque command, a wheel support bearing assembly to support the wheel , and a speed reducer to reduce the rotation of the electric motor and then to transmit it to the wheel support bearing assembly , the speed reducer being lubricated by a lubricant oil supplied under pressure by an oil pump , which in-wheel motor drive device comprises: - a temperature detector (Sa) to detect the temperature of the lubricant oil or the temperature of the electric motor; and - an output limitter to limit the output of the electric motor in the event that the temperature detected by the temperature detector (Sa) attains a value not higher than a predetermined threshold value, the output limiter being comprised in the motor controller . - a temperature detector (Sa) to detect the temperature of the lubricant oil or the temperature of the electric motor; and - an output limitter to limit the output of the electric motor in the event that the temperature detected by the temperature detector (Sa) attains a value not higher than a predetermined threshold value, the output limiter being comprised in the motor controller .
A drill insert which is detachably attached to a distal portion of a drill body which is rotated around an axis (O), wherein a polygon face of a polygonal plate-shaped insert body is a rake face , a side face of the insert body disposed around the rake face is a flank face , and a cutting blade is formed on a ridge portion in which the rake face and the flank face intersect each other, wherein the cutting blade includes a honing face which is formed on a first cutting blade portion continuous with at least one end portion of both end portions of the cutting blade and which gradually rises from the flank face toward the rake face , wherein the honing face includes a first convex curved face continuous with the rake face and a second convex curved face continuous with the flank face , and wherein in a cross section orthogonal to the cutting blade , a curvature radius (R1) of the first convex curved face is larger than a curvature radius (R2) of the second convex curved face , characterised in that a positive land which gradually retreats from the flank face side toward the rake face is formed on a second cutting blade portion continuous with the other end portion (B) of both end portions of the cutting blade .
A display device comprising: a display panel including a folding area (FDA) and a metal plate disposed at the rear of the display panel , the metal plate including: a first plate and a second plate which are spaced apart from and face each other; at least one spacer disposed between the first plate and the second plate ; and a space between the first plate and the second plate , the space excluding the at least one spacer , the space being occupied by air; wherein the display panel includes a touch member; and a stack structure disposed at the front of the display panel , the stack structure comprising a cover window . a display panel including a folding area (FDA) and a metal plate disposed at the rear of the display panel , the metal plate including: a first plate and a second plate which are spaced apart from and face each other; at least one spacer disposed between the first plate and the second plate ; and a space between the first plate and the second plate , the space excluding the at least one spacer , the space being occupied by air; a first plate and a second plate which are spaced apart from and face each other; at least one spacer disposed between the first plate and the second plate ; and a space between the first plate and the second plate , the space excluding the at least one spacer , the space being occupied by air; wherein the display panel includes a touch member; and a stack structure disposed at the front of the display panel , the stack structure comprising a cover window .
A standard device for mobile equipment, the standard device being provided with a scanner for measuring structural deformation of a nuclear fuel assembly , wherein the standard device further comprises: a container, a measuring equipment and a fixing frame for fixing a standard member , wherein the fixing frame is fixed to one side of the measuring equipment accommodated in the container of the equipment; and the standard member configured to be detachable from the fixing frame, to rotate around one end portion of the fixing frame, and to correspond to a nuclear fuel assembly standard specification, wherein an upper plate provided with a coupling means configured to be coupled with a transport means is coupled on one end portion of the standard member, and a lower plate configured to be erected upright on and fixed to one side of the measuring equipment is coupled on an opposite end portion of the standard member, wherein the standard member is a standard specification member for calibrating the scanner for measuring the nuclear fuel assembly to enhance the accuracy of measuring the nuclear fuel assembly. a container, a measuring equipment and a fixing frame for fixing a standard member , wherein the fixing frame is fixed to one side of the measuring equipment accommodated in the container of the equipment; and the standard member configured to be detachable from the fixing frame, to rotate around one end portion of the fixing frame, and to correspond to a nuclear fuel assembly standard specification, wherein an upper plate provided with a coupling means configured to be coupled with a transport means is coupled on one end portion of the standard member, and a lower plate configured to be erected upright on and fixed to one side of the measuring equipment is coupled on an opposite end portion of the standard member, wherein the standard member is a standard specification member for calibrating the scanner for measuring the nuclear fuel assembly to enhance the accuracy of measuring the nuclear fuel assembly.
Method for producing at least one three-dimensional component for the bi-, tri- or multi-directional measurement and/or generation of vector fields, wherein - on a substrate - at least one sacrificial and/or adhesion layer and - thereon at least one layer composed of a carrier material for a carrier in a helical, tubular, elliptical, hyperbolic, toroidal, wavy or polygonal shape are applied, - and thereon wholly or partly at least one or more layers composed of material systems for at least two component parts for the measurement and/or generation of vector fields in at least two different directions, and layers composed of electrically conductive material for electrical contacts of the component parts are applied, - wherein the individual layers are applied wholly or partly over the entire surface area, and - wherein the arrangement of the one or more layers composed of material systems for the component parts on the carrier layer at the position on the carrier layer is selected in a targeted manner to the effect that after the production of the three-dimensional component, the respective component part is situated at the three-dimensionally desired position, and - afterwards the sacrificial and/or adhesion layer is at least partly removed from the substrate or modified for detachment from the substrate, and by means of the removal or initiation of the modification of the sacrificial and/or adhesion layer, the deformation of all applied layers is carried out in a single production process, and - further method steps can be carried out. - on a substrate - at least one sacrificial and/or adhesion layer and - thereon at least one layer composed of a carrier material for a carrier in a helical, tubular, elliptical, hyperbolic, toroidal, wavy or polygonal shape are applied, - and thereon wholly or partly at least one or more layers composed of material systems for at least two component parts for the measurement and/or generation of vector fields in at least two different directions, and layers composed of electrically conductive material for electrical contacts of the component parts are applied, - wherein the individual layers are applied wholly or partly over the entire surface area, and - wherein the arrangement of the one or more layers composed of material systems for the component parts on the carrier layer at the position on the carrier layer is selected in a targeted manner to the effect that after the production of the three-dimensional component, the respective component part is situated at the three-dimensionally desired position, and - afterwards the sacrificial and/or adhesion layer is at least partly removed from the substrate or modified for detachment from the substrate, and by means of the removal or initiation of the modification of the sacrificial and/or adhesion layer, the deformation of all applied layers is carried out in a single production process, and - further method steps can be carried out.
A control device for an air-conditioning system configured to detect low pressure of a refrigerant during cooling and high pressure of the refrigerant during heating by a compressor sensor, each as a pressure detection value, and to perform pressure regulating control for regulating the pressure detection value by controlling the rotation speed of a compressor to be constant such that the pressure detection value becomes a predetermined target pressure independently of an indoor load, the control device, comprising: a pressure control means configured to perform energy-saving control to reduce a rotation speed of the compressor when the indoor load decreases, such that the pressure detection value becomes a newly adjusted target pressure; and a compression ratio control means configured to control the high pressure of the refrigerant during cooling and the low pressure of the refrigerant during heating to control a pressure ratio between the high pressure and the low pressure of the refrigerant after control by the pressure control means , in order to provide an operational point that improves efficiency of the compressor; wherein the control device is configured so that during cooling, the compression ratio control means controls the high pressure of the refrigerant and the pressure control means controls the low pressure of the refrigerant, and during heating, the pressure control means controls the high pressure of the refrigerant and the compression ratio control means controls the low pressure of the refrigerant, and the compression ratio control means controls the pressure ratio by controlling a rotation speed of a fan provided to an outdoor unit and/or by controlling the degree of opening of an expansion valve provided to an outdoor unit . a pressure control means configured to perform energy-saving control to reduce a rotation speed of the compressor when the indoor load decreases, such that the pressure detection value becomes a newly adjusted target pressure; and a compression ratio control means configured to control the high pressure of the refrigerant during cooling and the low pressure of the refrigerant during heating to control a pressure ratio between the high pressure and the low pressure of the refrigerant after control by the pressure control means , in order to provide an operational point that improves efficiency of the compressor; wherein the control device is configured so that during cooling, the compression ratio control means controls the high pressure of the refrigerant and the pressure control means controls the low pressure of the refrigerant, and during heating, the pressure control means controls the high pressure of the refrigerant and the compression ratio control means controls the low pressure of the refrigerant, and the compression ratio control means controls the pressure ratio by controlling a rotation speed of a fan provided to an outdoor unit and/or by controlling the degree of opening of an expansion valve provided to an outdoor unit .
Method for operating an internal combustion engine, wherein the internal combustion engine has an intake duct which opens via a first valve into a crankcase of the internal combustion engine , wherein the first valve opens with a first frequency (f1), and wherein the internal combustion engine has a second valve which controls the amount of fuel supplied to the intake duct , wherein the amount of fuel supplied is controlled by controlling a period of time , during which the second valve is open in each engine cycle (x), wherein a control device is provided to control the amount of fuel supplied, characterized in that the first valve is formed by a piston skirt of a piston which is mounted reciprocally in a cylinder of the internal combustion engine and which interacts with an inlet opening of the intake duct into the crankcase , in that , in a first operating state, the second valve is opened with a second frequency (f2, f3, f4), which is matched to the first frequency (f1), and in that , in a second operating state, the second valve is opened independently of the first frequency (f1), wherein the first operating state comprises a first speed range , and wherein the second operating state comprises a second speed range , wherein the speed ranges do not overlap and speeds (n) of the first speed range are lower than the speeds (n) of the second speed range .