mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a memory storing instructions; and a processor communicatively coupled to the memory and configured to execute the instructions to: classify each pixel in a plurality of pixels included in an ultrasound image captured by an ultrasound probe located within a patient as either showing tissue or showing non-tissue; determine an average pixel classification representative of a number of pixels classified as showing tissue compared to a number of pixels classified as showing non-tissue; determine, if the average pixel classification is above a first contact state threshold, that the ultrasound probe is in a first contact state that indicates that the ultrasound probe is in operative physical contact with the tissue of the patient; and determine, if the average pixel classification is below a second contact state threshold lower than the first contact state threshold, that the ultrasound probe is in a second contact state that indicates that the ultrasound probe is not in operative physical contact with the tissue of the patient. a memory storing instructions; and a processor communicatively coupled to the memory and configured to execute the instructions to: classify each pixel in a plurality of pixels included in an ultrasound image captured by an ultrasound probe located within a patient as either showing tissue or showing non-tissue; determine an average pixel classification representative of a number of pixels classified as showing tissue compared to a number of pixels classified as showing non-tissue; determine, if the average pixel classification is above a first contact state threshold, that the ultrasound probe is in a first contact state that indicates that the ultrasound probe is in operative physical contact with the tissue of the patient; and determine, if the average pixel classification is below a second contact state threshold lower than the first contact state threshold, that the ultrasound probe is in a second contact state that indicates that the ultrasound probe is not in operative physical contact with the tissue of the patient. classify each pixel in a plurality of pixels included in an ultrasound image captured by an ultrasound probe located within a patient as either showing tissue or showing non-tissue; determine an average pixel classification representative of a number of pixels classified as showing tissue compared to a number of pixels classified as showing non-tissue; determine, if the average pixel classification is above a first contact state threshold, that the ultrasound probe is in a first contact state that indicates that the ultrasound probe is in operative physical contact with the tissue of the patient; and determine, if the average pixel classification is below a second contact state threshold lower than the first contact state threshold, that the ultrasound probe is in a second contact state that indicates that the ultrasound probe is not in operative physical contact with the tissue of the patient.
A rapeseed protein isolate comprising 40 to 65% cruciferins and 35 to 60% napins and having a solubility of at least 88% when measured over a pH range from 3 to 10 at a temperature of 23±2°C, wherein at least one of the amino acids in the cruciferins and/or napins is citrulline and wherein the rapeseed protein isolate comprises from 0.5-10% of citrulline of the rapeseed protein.
A Transmission Small Angle X-Ray Scatterometry (T-SAXS) metrology system comprising: an x-ray illumination source configured to generate an amount of x-ray radiation at an energy level of 15 kiloelectronvolts or higher; an x-ray illumination optics subsystem configured to illuminate a measurement target formed on a wafer surface with an incident focused beam of the amount of x-ray radiation; a specimen positioning system that positions the measurement target at a plurality of orientations with respect to the incident focused beam; an x-ray detector configured to detect an intensity associated with each of a plurality of diffraction orders of an amount of radiation scattered from the measurement target in response to the incident focused beam at each orientation, wherein an optical path length between the illumination source and the detector is less than three meters, wherein two or more of the diffracted orders spatially overlap on the detector; and a computing system configured to determine a value of a parameter of interest associated with the measurement target based on the detected intensities of the plurality of diffraction orders at the plurality of different orientations; and wherein the computing system is further configured to determine an intensity of each of the overlapping diffraction orders based on a beam shape of the zeroth diffraction order. an x-ray illumination source configured to generate an amount of x-ray radiation at an energy level of 15 kiloelectronvolts or higher; an x-ray illumination optics subsystem configured to illuminate a measurement target formed on a wafer surface with an incident focused beam of the amount of x-ray radiation; a specimen positioning system that positions the measurement target at a plurality of orientations with respect to the incident focused beam; an x-ray detector configured to detect an intensity associated with each of a plurality of diffraction orders of an amount of radiation scattered from the measurement target in response to the incident focused beam at each orientation, wherein an optical path length between the illumination source and the detector is less than three meters, wherein two or more of the diffracted orders spatially overlap on the detector; and a computing system configured to determine a value of a parameter of interest associated with the measurement target based on the detected intensities of the plurality of diffraction orders at the plurality of different orientations; and wherein the computing system is further configured to determine an intensity of each of the overlapping diffraction orders based on a beam shape of the zeroth diffraction order.
A cleaning agent composition for cleaning a flow channel (F) for resin in a hot runner type mold, comprising: 100 parts by weight of polyethylene oxide; 25 parts by weight to 90 parts by weight of at least one type of fatty acid ester that is selected from glycerin fatty acid ester, polyglycerin fatty acid ester, or sorbitan fatty acid ester; and 15 parts by weight to 45 parts by weight of a metal salt of a fatty acid and/or a hydroxyfatty acid. 100 parts by weight of polyethylene oxide; 25 parts by weight to 90 parts by weight of at least one type of fatty acid ester that is selected from glycerin fatty acid ester, polyglycerin fatty acid ester, or sorbitan fatty acid ester; and 15 parts by weight to 45 parts by weight of a metal salt of a fatty acid and/or a hydroxyfatty acid.
An engine case for a low pressure turbine engine or a high pressure turbine engine, comprising: an annular section, the annular section comprising a first solid wall region and a second solid wall region ; an internal region between the first and second solid wall regions , wherein the internal region defines at least one cavity, and the cavity comprises a plurality of flow paths or passages provided with one or more lattice structures that control the flow of coolant air through the section, characterised in that the one or more lattice structures are optimized to pass cooling flow for the case cooling and achieving the cooling and clearance objectives of the rotor case, wherein the one or more lattice structures produce different pressure drops in the flow of coolant air, wherein an increase of the relative thickness of at least one flow path to the engine case along the length of the engine case provides a lower pressure drop. an annular section, the annular section comprising a first solid wall region and a second solid wall region ; an internal region between the first and second solid wall regions , wherein the internal region defines at least one cavity, and the cavity comprises a plurality of flow paths or passages provided with one or more lattice structures that control the flow of coolant air through the section, characterised in that the one or more lattice structures are optimized to pass cooling flow for the case cooling and achieving the cooling and clearance objectives of the rotor case, wherein the one or more lattice structures produce different pressure drops in the flow of coolant air, wherein an increase of the relative thickness of at least one flow path to the engine case along the length of the engine case provides a lower pressure drop.
A power conversion apparatus for heat treatment, the power conversion apparatus comprising: a rectifier configured to convert AC power to DC power; a smoothing filter configured to smooth the DC power received from the rectifier to be constant; an inverter comprising a switching device made of an SiC semiconductor, said inverter being configured to convert the DC power received from the smoothing filter into high-frequency power by turning the DC power on and off; and a control unit configured to control the rectifier and the inverter, characterized in that the control unit is configured to determine a rating of output power, output from the inverter , in accordance with a frequency of the high-frequency power output from the inverter , a current-applying time t p , wherein the current-applying time t p is a time, in which the high-frequency power is output from the inverter ; and an operation rate, obtained by dividing the current-applying time by a sum of the current-applying time and a non-current-applying time, such that a junction temperature of the switching device does not exceed a given temperature. a rectifier configured to convert AC power to DC power; a smoothing filter configured to smooth the DC power received from the rectifier to be constant; an inverter comprising a switching device made of an SiC semiconductor, said inverter being configured to convert the DC power received from the smoothing filter into high-frequency power by turning the DC power on and off; and a control unit configured to control the rectifier and the inverter, characterized in that the control unit is configured to determine a rating of output power, output from the inverter , in accordance with a frequency of the high-frequency power output from the inverter , a current-applying time t p , wherein the current-applying time t p is a time, in which the high-frequency power is output from the inverter ; and an operation rate, obtained by dividing the current-applying time by a sum of the current-applying time and a non-current-applying time, such that a junction temperature of the switching device does not exceed a given temperature.
Analysis system comprising a portable diagnostic measuring device for the determination of at least one analysis parameter of a body fluid, in particular for the determination of an analyte concentration in a body fluid, and at least one test element provided for single use in the measuring device, which is designed as a carrier strip and, viewed in the longitudinal direction, has a front end, a handling end opposite thereto and a test field region with at least one test field lying between the ends, wherein the measuring device comprises a housing and a receiving surface for receiving the test element , wherein the housing has substantially the geometric shape of a cylinder with a base surface, a top surface and a lateral surface formed as narrow sides, wherein the base surface forms the back and the top surface forms the front of the housing, wherein the receiving surface is disposed on a narrow side, wherein an entire narrow side or a section of a narrow side forms the receiving surface , wherein the receiving surface has a measuring opening and at least one positioning device for positioning the test element on the receiving surface , such that the test element lies in a planar manner on the receiving surface .
Soft tissue repair implant, comprising - a flexible basic structure (2; 22; 92) having a face and - a plurality of resorbable film pieces (6; 26; 56; 66; 96) attached to the face of the basic structure (2; 22; 92), - wherein each film piece (6; 26; 56; 66; 96) comprises a plurality of solid protrusions (8; 28; 40; 58; 68) emerging from the respective film piece (6; 26; 56; 66; 96) in a direction away from the basic structure (2; 22; 92), and - wherein the protrusions are adapted for fixation to biological soft tissue. - a flexible basic structure (2; 22; 92) having a face and - a plurality of resorbable film pieces (6; 26; 56; 66; 96) attached to the face of the basic structure (2; 22; 92), - wherein each film piece (6; 26; 56; 66; 96) comprises a plurality of solid protrusions (8; 28; 40; 58; 68) emerging from the respective film piece (6; 26; 56; 66; 96) in a direction away from the basic structure (2; 22; 92), and - wherein the protrusions are adapted for fixation to biological soft tissue.
Power steering system for a motor vehicle, comprising a steering shaft that has a carrier section and is mounted such that it can rotate about a steering shaft axis , and a sensor having a magnet assembly, wherein the magnet assembly comprises a magnet element co-rotationally connected to the steering shaft and a physically fixed sensor element interacting therewith, wherein the magnet element is made of a magnetic or magnetizable flexible tape , which is applied to a carrier section and is fixed to the steering shaft by adhesion to the carrier section , wherein the carrier section comprises a cylindrical region, onto which the flexible tape is wound in multiple layers.
A system capable of spraying an article of footwear component, the system comprising: a cradle having a support surface , a first finger , and a second finger capable to compress the article of footwear component between the first finger and the second finger ; a vision system having a field of view directed to the cradle support surface , wherein the vision system is comprised of a laser and an image capture device ; and an application station , the application station comprising: a spraying nozzle ; a multi-axis conveyance mechanism , wherein the spraying nozzle extends from the multi-axis conveyance mechanism; and a masking platform , the masking platform being moveable between a first position and a second position, wherein the masking platform at least partially surrounds the cradle when the masking platform is in the second position and is retracted from the cradle in the first position.
A method for producing a tissue product, comprising the steps of: selecting an adipose tissue; treating the tissue to remove substantially all cellular material from the tissue; suspending the tissue in a liquid to form a suspension; layering the suspension in a mold, wherein the layering is repeated in multiple cycles until a desired thickness is achieved in the mold; and freeze-drying the suspension to form a porous sponge, wherein the sponge includes a first layer having a first density and at least one additional layer having a second density that is different from the first density. selecting an adipose tissue; treating the tissue to remove substantially all cellular material from the tissue; suspending the tissue in a liquid to form a suspension; layering the suspension in a mold, wherein the layering is repeated in multiple cycles until a desired thickness is achieved in the mold; and freeze-drying the suspension to form a porous sponge, wherein the sponge includes a first layer having a first density and at least one additional layer having a second density that is different from the first density.
Method for applying adhesive to layers for producing a honeycomb body , preferably to at least partly metallic layers, comprising the following steps: a. providing at least one at least partly structured layer and optionally at least one substantially smooth layer ; b. applying adhesive at least to at least one subregion of the substantially smooth and/or the at least partly structured layer ; c. producing a honeycomb body; e. carrying out a thermal treatment step, wherein the layer is provided with a solder material which remains substantially adhered to the sub-regions of the layers provided with adhesive , wherein the adhesive is applied in the form of drops , characterized in that the adhesive is printed on in accordance with a method from the group: - drop-on-demand method, - bubble-jet method, - continuous inkjet method. a. providing at least one at least partly structured layer and optionally at least one substantially smooth layer ; b. applying adhesive at least to at least one subregion of the substantially smooth and/or the at least partly structured layer ; c. producing a honeycomb body; e. carrying out a thermal treatment step, wherein the layer is provided with a solder material which remains substantially adhered to the sub-regions of the layers provided with adhesive , wherein the adhesive is applied in the form of drops , characterized in that the adhesive is printed on in accordance with a method from the group: - drop-on-demand method, - bubble-jet method, - continuous inkjet method. - drop-on-demand method, - bubble-jet method, - continuous inkjet method.
A multi-connected heat recovery air conditioning system comprising an indoor unit , an outdoor unit , and a hydraulic module , wherein the outdoor unit includes a compressor , an outdoor heat exchanger , a first four-way valve and a second four-way valve ; the hydraulic module including a heat exchange water tank , ports d, e, c and s of the first four-way valve being connected to an output end of the compressor , one end of the indoor unit , port g of the second four-way valve , and a return end of the compressor , respectively, ports h, i, and f of the second four-way valve being connected to the outdoor heat exchanger , the return end of the compressor , and one end of a refrigerant flow path of the heat exchange water tank , respectively, the other end of the refrigerant flow path of the heat exchange water tank being connected in a bypass manner between a first solenoid valve and the outdoor heat exchanger via a first check valve , the other end of the outdoor unit being connected to the indoor unit ; the outdoor heat exchanger comprising three heat exchange coils arranged in parallel in a wind direction of the wind blades thereof, wherein the three heat exchange coils are connected together at one end to connect to port h of the second four-way valve , and the other end of the three heat exchange coils are connected to preset first outdoor expansion valve (EXV1), second outdoor expansion valve (EXV2) and third outdoor expansion valve (EXV3), respectively, and then joint together to connect to the outdoor unit ; it further comprises an indoor unit temperature unit arranged in the indoor unit for detecting and obtaining an outlet temperature value of the indoor unit , a water temperature unit arranged at the heat exchange water tank for detecting and obtaining water temperature, and a high-pressure sensor and a low-pressure sensor arranged respectively at the output end and the return end of the compressor .
A mutated arylsulfatase A (ARSA) enzyme, or a functional fragment thereof, comprising an amino acid sequence with at least 90% sequence identity to SEQ ID NO: 1, wherein the amino acid sequence of the mutated ARSA enzyme, or of the functional fragment thereof, when aligned to the sequence of SEQ ID NO: 1, comprises at least the mutations M202V, T286L and R291N compared to SEQ ID NO: 1.
Supply system for supplying bulk material and/or ready-mix concrete in a track bed portion, comprising: - an intermodal mixing container unit , in particular a ready-mix concrete mixer, having a coupling frame , - a first rail vehicle , in particular a track construction trailer, and - a second rail vehicle , in particular a railroad excavator, the coupling frame having connection interfaces (19; 19') and being designed to be releasably coupled to a hook-liftable transshipment frame so that the mixing-container unit can be transported and transshipped by means of a hook-lift road vehicle, the first rail vehicle having corresponding receiving elements (20; 20') and it being possible for the connection interfaces (19; 19') of the coupling frame to be releasably coupled to the receiving elements (20; 20') and the second rail vehicle being optionally operable as a transshipment device, a switcher locomotive and/or a hydraulic drive unit, characterized in that the coupling frame comprises two coupling tracks which, in a position coupled to the transshipment frame , rest on transshipment tracks of the transshipment frame . - an intermodal mixing container unit , in particular a ready-mix concrete mixer, having a coupling frame , - a first rail vehicle , in particular a track construction trailer, and - a second rail vehicle , in particular a railroad excavator, the coupling frame having connection interfaces (19; 19') and being designed to be releasably coupled to a hook-liftable transshipment frame so that the mixing-container unit can be transported and transshipped by means of a hook-lift road vehicle, the first rail vehicle having corresponding receiving elements (20; 20') and it being possible for the connection interfaces (19; 19') of the coupling frame to be releasably coupled to the receiving elements (20; 20') and the second rail vehicle being optionally operable as a transshipment device, a switcher locomotive and/or a hydraulic drive unit, characterized in that the coupling frame comprises two coupling tracks which, in a position coupled to the transshipment frame , rest on transshipment tracks of the transshipment frame .
A sole structure for an article of footwear, the sole structure comprising: a cushioning element having a top surface , a bottom surface formed on an opposite side of the cushioning element from the top surface , a ramp surface spaced apart from the bottom surface in a heel region of the cushioning element , a heel pocket extending through the cushioning element from a top opening formed through the top surface to a bottom opening formed through the bottom surface , wherein the ramp surface is formed around the bottom opening , and a plurality of pillars (166a-166c) extending from the ramp surface and arranged around the bottom opening of the heel pocket ; a plurality of cushioning particles disposed within the heel pocket ; an outsole attached to the cushioning element and enclosing a first end of the heel pocket ; and an upper barrier layer attached to the top surface of the cushioning element and covering a second end of the heel pocket , wherein the outsole includes an outsole element attached to an opposite side of the cushioning element from the upper barrier layer to enclose the cushioning particles , and wherein each of the pillars (166a-166c) extends from a first end (168a-168c) attached to the ramp surface to a terminal end (170a-170c) aligned with the bottom surface . a cushioning element having a top surface , a bottom surface formed on an opposite side of the cushioning element from the top surface , a ramp surface spaced apart from the bottom surface in a heel region of the cushioning element , a heel pocket extending through the cushioning element from a top opening formed through the top surface to a bottom opening formed through the bottom surface , wherein the ramp surface is formed around the bottom opening , and a plurality of pillars (166a-166c) extending from the ramp surface and arranged around the bottom opening of the heel pocket ; a plurality of cushioning particles disposed within the heel pocket ; an outsole attached to the cushioning element and enclosing a first end of the heel pocket ; and an upper barrier layer attached to the top surface of the cushioning element and covering a second end of the heel pocket , wherein the outsole includes an outsole element attached to an opposite side of the cushioning element from the upper barrier layer to enclose the cushioning particles , and wherein each of the pillars (166a-166c) extends from a first end (168a-168c) attached to the ramp surface to a terminal end (170a-170c) aligned with the bottom surface .