mhurhangee/ep-ind-claims huggingface dataset:
A welding joint, comprising: a pair of steel materials; and a welding metal that is formed by a high-energy density beam at a butt welding portion between the pair of steel materials, wherein the C content of the pair of steel materials is in the range of 0.01 to 0.08 mass%, wherein the transformation starting temperature Ms that is calculated by the following formula (a) using a composition in mass% of the welding metal is 250°C or less, so that the welding metal is transformed into martensite in a state of being restrained from the steel material, wherein a compressive residual stress is imparted at the butt welding portion, due to the transformation of the welding metal into martensite, wherein the thickness of the steel material is 30 mm to 200 mm, wherein the high-energy density beam is an electron beam, and wherein the tensile strength of the pair of steel materials is 690 MPa or less Ms °C = 371 − 353 C − 22 Si − 24.3 Mn − 7.7 Cu − 17.3 Ni − 17.7 Cr − 25.8 Mo a pair of steel materials; and a welding metal that is formed by a high-energy density beam at a butt welding portion between the pair of steel materials, wherein the C content of the pair of steel materials is in the range of 0.01 to 0.08 mass%, wherein the transformation starting temperature Ms that is calculated by the following formula (a) using a composition in mass% of the welding metal is 250°C or less, so that the welding metal is transformed into martensite in a state of being restrained from the steel material, wherein a compressive residual stress is imparted at the butt welding portion, due to the transformation of the welding metal into martensite, wherein the thickness of the steel material is 30 mm to 200 mm, wherein the high-energy density beam is an electron beam, and wherein the tensile strength of the pair of steel materials is 690 MPa or less Ms °C = 371 − 353 C − 22 Si − 24.3 Mn − 7.7 Cu − 17.3 Ni − 17.7 Cr − 25.8 Mo
A method of constructing and supplying a protective textile sleeve (10, 110) comprising: braiding a plurality of yarns with one another to form a seamless tubular wall (12, 112, 212,...1412) extending lengthwise along a central longitudinal axis, with at least some of the yarns being provided as heat-settable yarns (20, 120, 220,...1420); compressing the wall (12, 112, 212,...1412) to a decreased length, increased cross-sectional area first state; heat-setting the heat-settable yarns (20, 120, 220,...1420) while the wall (12, 112, 212,...1412) is in the first state so as to cause the wall to remain substantially in the first state absent some externally applied force; cutting the wall (12, 112, 212,...1412) to an as shipped, bulk supply length; and disposing the bulk length of the wall (12, 112, 212,...1412) into a package (30, 32, 34), wherein the bulk length is adapted to be subsequently cut upon being removed from the package (30, 32, 34) to form a plurality of discrete use length sleeves. braiding a plurality of yarns with one another to form a seamless tubular wall (12, 112, 212,...1412) extending lengthwise along a central longitudinal axis, with at least some of the yarns being provided as heat-settable yarns (20, 120, 220,...1420); compressing the wall (12, 112, 212,...1412) to a decreased length, increased cross-sectional area first state; heat-setting the heat-settable yarns (20, 120, 220,...1420) while the wall (12, 112, 212,...1412) is in the first state so as to cause the wall to remain substantially in the first state absent some externally applied force; cutting the wall (12, 112, 212,...1412) to an as shipped, bulk supply length; and disposing the bulk length of the wall (12, 112, 212,...1412) into a package (30, 32, 34), wherein the bulk length is adapted to be subsequently cut upon being removed from the package (30, 32, 34) to form a plurality of discrete use length sleeves.
A substrate comprising gelatin granules for use in bone regeneration, the substrate exhibiting a water absorptivity of 800% by mass or more, and a residual ratio of 60% by mass or less after three hours of decomposition treatment using 1 mol/L hydrochloric acid.
A self-contained sterilization indicator for determining the effectiveness of a sterilization process, the sterilization indicator comprising: a polymeric container for holding a concentration of microorganisms and/or an enzyme, the container having an upper end, a lower end, and an opening at the upper end; and a cap for holding a growth medium, the cap having an outer wall, an upper, closed end, a lower end, an opening adjacent the lower end of the cap, and an inner wall, which is spaced apart from the outer wall, defining an inner chamber having an opening adjacent the lower end of the cap, the inner chamber for holding a growth medium and/or a substrate reactive with the enzyme, the cap comprising a breakable barrier overlying and covering the opening of the inner chamber, and at least one projection disposed within the container for puncturing the breakable barrier formed from a polymeric material, a metal foil or a combination thereof. a polymeric container for holding a concentration of microorganisms and/or an enzyme, the container having an upper end, a lower end, and an opening at the upper end; and a cap for holding a growth medium, the cap having an outer wall, an upper, closed end, a lower end, an opening adjacent the lower end of the cap, and an inner wall, which is spaced apart from the outer wall, defining an inner chamber having an opening adjacent the lower end of the cap, the inner chamber for holding a growth medium and/or a substrate reactive with the enzyme, the cap comprising a breakable barrier overlying and covering the opening of the inner chamber, and at least one projection disposed within the container for puncturing the breakable barrier formed from a polymeric material, a metal foil or a combination thereof.
A bunyavirus of the genus Phlebovirus, in which separated NSmGn and Gc, or separated Gn and Gc, coding regions are functionally present on two separate genome segments.
Transport container made of a trough-like lower part open toward the top and an upper part arranged on the lower part and closing the open upper side of the lower part, where the upper part can be removed from the lower part or pivoted in order to open the same, where the lower part has a base, longitudinal walls and transverse walls, and the upper part correspondingly has a cover, longitudinal sides and transverse sides, where the lower part has transversely running, flat recessed strapping cutouts, at least on the longitudinal walls and the upper part, at least on the longitudinal sides, said cutouts being arranged and oriented so as to align with one another, and where the strapping cutouts arranged so as to align with one another each assume approximately the full width of the respective longitudinal wall or longitudinal side characterized in that the lower part has on the transverse walls flat recessed connecting cutouts running substantially parallel to the base and reaching as far as the strapping cutouts and also flat recessed intermediate cutouts running perpendicular to the base, reaching as far as the connecting cutouts on the transverse walls and into the strapping cutout on the base.
A handheld ultrasound imaging probe, comprising: a housing having a first side portion opposite a second side portion, the housing defining a cavity; an ultrasound transducer assembly and a circuit disposed within the cavity in the housing; a first aperture in the first side portion in fluid communication with a second aperture in the second side portion; a conduit extending through the housing from the first aperture to the second aperture, wherein the conduit includes a first conduit opening and a second conduit opening positioned adjacent the first aperture and the second aperture, respectively and further wherein the conduit includes an interior surface that defines a fluid path between the first aperture and the second aperture, wherein the interior surface is sealed from an interior portion of the housing such that air within the conduit cannot flow into the cavity in the housing, wherein the interior surface is made from a material having a thermal conductivity greater than a material from which the housing is formed such that thermal energy can be conveyed away from the ultrasound transducer assembly and circuit via air flowing through the conduit. a housing having a first side portion opposite a second side portion, the housing defining a cavity; an ultrasound transducer assembly and a circuit disposed within the cavity in the housing; a first aperture in the first side portion in fluid communication with a second aperture in the second side portion; a conduit extending through the housing from the first aperture to the second aperture, wherein the conduit includes a first conduit opening and a second conduit opening positioned adjacent the first aperture and the second aperture, respectively and further wherein the conduit includes an interior surface that defines a fluid path between the first aperture and the second aperture, wherein the interior surface is sealed from an interior portion of the housing such that air within the conduit cannot flow into the cavity in the housing, wherein the interior surface is made from a material having a thermal conductivity greater than a material from which the housing is formed such that thermal energy can be conveyed away from the ultrasound transducer assembly and circuit via air flowing through the conduit.
An air conditioning apparatus comprising a refrigerant circuit having a compressor, an outdoor heat exchanger, an indoor heat exchanger (42a, 42b), and a stored-heat heat exchanger for exchanging heat between a refrigerant and a heat storage material, being capable of performing a heat storage operation for storing heat to the heat storage material by causing the stored-heat heat exchanger to function as a radiator of the refrigerant during a heating operation in which the indoor heat exchanger is caused to function as a radiator of the refrigerant, and a stored-heat usage operation for releasing heat from the heat storage material by causing the stored-heat heat exchanger to function as an evaporator of the refrigerant during a defrosting operation for defrosting the outdoor heat exchanger by causing the outdoor heat exchanger to function as a radiator of the refrigerant: wherein the refrigerant circuit further comprises a heat storage expansion valve configured to vary the quantity of the refrigerant flowing into the stored-heat heat exchanger, and a control part configured to control the opening degree of the heat storage expansion valve the heat storage operation characterized in that the control part is configured to control the opening degree of the heat storage expansion valve in the heat storage operation by setting heat storage operation opening degree determined according to a function based on a condensation pressure that is a saturation pressure that corresponds to a condensation temperature of the refrigerant in the refrigerant circuit, a liquid pipe pressure that is a pressure of the refrigerant at an outlet of the heat storage expansion valve, and an enthalpy of the refrigerant at an inlet and outlet of the stored-heat heat exchanger.
Harvesting conveyor for mushrooms, comprising: - A conveyor belt, having a width and extending in a length direction perpendicular to said width; - comprising at least one aperture (4, 5, 6, 7) for receiving a mushroom stipe, wherein - said aperture (4, 5, 6, 7) comprises in the length direction of the conveyor belt at least a part wherein its width decreases, wherein - the decrease in the width of the aperture extends in the length direction over a distance that is more than half of the decrease in width characterized in that the decrease in the width of the aperture extends over at least 20 mm in the length direction, preferably at least 25 mm and more preferably over at least 30 mm, and the decrease is between 10 and 20 mm and in particular between 15 and 20 mm. - A conveyor belt, having a width and extending in a length direction perpendicular to said width; - comprising at least one aperture (4, 5, 6, 7) for receiving a mushroom stipe, wherein - said aperture (4, 5, 6, 7) comprises in the length direction of the conveyor belt at least a part wherein its width decreases, - the decrease in the width of the aperture extends in the length direction over a distance that is more than half of the decrease in width
Device for filling a container with a product, comprising - at least one dispenser unit for dispensing a certain quantity of the product to be dispensed into a packing hose or bag, - a sensor unit for recording the characteristics of a product, namely a mass and/or density and/or a volume of the product, whereby the sensor unit is arranged such that it records the characteristics of the product contained within the dispenser unit, whereby at least one regulator is provided that, depending on the output signal of the sensor unit, regulates the dispenser unit, whereby the dispenser unit is regulated to alter the target quantity during the dispensing process, characterised in that the regulator receives a difference from a target flow (31, 32) and an actual flow depending on the output signal of the sensor unit, and that a mass flow of the product being dispensed is used as the target flow (31, 32) and/or the actual flow. - at least one dispenser unit for dispensing a certain quantity of the product to be dispensed into a packing hose or bag, - a sensor unit for recording the characteristics of a product, namely a mass and/or density and/or a volume of the product,
A method for spectrum aggregation, comprising: combining a first channel bandwidth, CBW, and a second CBW to form an aggregated CBW, wherein the aggregated CBW comprises a first bandwidth portion formed by the first CBW and a second bandwidth portion formed by the second CBW; and sending data to a receiving end on the aggregated CBW; characterized in that forming the first bandwidth portion by the first CBW and forming the second bandwidth portion by the second CBW comprise: changing, in a first transform proportion, a clock frequency of the first CBW to form the first bandwidth portion, and/or changing, in a second transform proportion, a clock frequency of the second CBW to form the second bandwidth portion. combining a first channel bandwidth, CBW, and a second CBW to form an aggregated CBW, wherein the aggregated CBW comprises a first bandwidth portion formed by the first CBW and a second bandwidth portion formed by the second CBW; and sending data to a receiving end on the aggregated CBW; changing, in a first transform proportion, a clock frequency of the first CBW to form the first bandwidth portion, and/or changing, in a second transform proportion, a clock frequency of the second CBW to form the second bandwidth portion.
Active matrix structure for display screen, formed on a transparent substrate, comprising pixel electrodes arranged in rows and columns, a switching device associated with each pixel electrode, and corresponding row selection lines, each selection line (Ln) being disposed between two successive rows of pixel electrodes (Rn-1, Rn), the selection lines and the pixels electrodes being implemented on a different level in the structure, characterised in that it comprises under each row (Rn) of pixel electrodes, a bus (Bn) made of conductive and transparent material, substantially of the same width as said row, implemented on a level of the structure separated from the level of the selection lines (Ln) and from the level of the pixel electrodes by at least one layer of insulating material and connected to the selection line (Ln-1) of a previous row of pixel electrodes, said bus forming a storage capacitor (Cst) with each pixel electrode of said row.
A clothes dryer comprising: a main body; a drum rotatably mounted in the main body to receive an object to be dried; an air channel connected to the drum to supply air into the drum and to guide air discharged from the drum; a dehumidification unit disposed in the air channel to condense moisture contained in the air discharged from the drum; a waterspout to collect condensed water created by the dehumidification unit; a filter to filter lint from the air discharged from the drum; a cleaning nozzle (70, 270) to spray water to the filter to remove the lint from the filter; being characterized in that the clothes dryer further comprises; a recovery water tank (80, 280) connected to the waterspout to receive water from the waterspout; and a cleaning water tank (90, 290) connected to the recovery water tank (80, 280) to receive water from the recovery water tank (80, 280) and to supply the water to the cleaning nozzle (70, 270), wherein the recovery water tank (80, 280) comprises an inlet (89, 289) to allow water from the waterspout to be introduced therethrough and a water tank filter (101, 301) disposed in the inlet (89, 289) to filter lint from the water, and wherein the filter is located in the air channel in front of the dehumidification unit. a main body; a drum rotatably mounted in the main body to receive an object to be dried; an air channel connected to the drum to supply air into the drum and to guide air discharged from the drum; a dehumidification unit disposed in the air channel to condense moisture contained in the air discharged from the drum; a waterspout to collect condensed water created by the dehumidification unit; a filter to filter lint from the air discharged from the drum; a cleaning nozzle (70, 270) to spray water to the filter to remove the lint from the filter; being characterized in that the clothes dryer further comprises; a recovery water tank (80, 280) connected to the waterspout to receive water from the waterspout; and a cleaning water tank (90, 290) connected to the recovery water tank (80, 280) to receive water from the recovery water tank (80, 280) and to supply the water to the cleaning nozzle (70, 270), wherein the recovery water tank (80, 280) comprises an inlet (89, 289) to allow water from the waterspout to be introduced therethrough and a water tank filter (101, 301) disposed in the inlet (89, 289) to filter lint from the water, and wherein the filter is located in the air channel in front of the dehumidification unit.
Method for the adhesive joining of at least two large surface area joining partners (1,7; 20,21) in the vehicle construction industry, in particular in the aviation construction industry, characterised by the steps: determining the geometric data of the joining partners, (1,7; 20,21) in an automated manner, determining the dimension of the join gap between the joining partners (1,7; 20,21) from the geometric data, joining the joining partners (1, 7; 20, 21) in a joining position, applying a quantity of adhesive that depends upon the dimension of the join gap to one or both joining surfaces of the two joining partners (1,7; 20,21) that are to be joined, wherein one joining partner (1,20) comprises application apertures so as to subsequently introduce a free-flowing adhesive through the application apertures into a respective join gap, and applying the joining pressure in a sequential manner onto the joining surfaces along the join gap so as to bring the joining partners (1,7; 20,21) into the final joining position. determining the geometric data of the joining partners, (1,7; 20,21) in an automated manner, determining the dimension of the join gap between the joining partners (1,7; 20,21) from the geometric data, joining the joining partners (1, 7; 20, 21) in a joining position, applying a quantity of adhesive that depends upon the dimension of the join gap to one or both joining surfaces of the two joining partners (1,7; 20,21) that are to be joined, wherein one joining partner (1,20) comprises application apertures so as to subsequently introduce a free-flowing adhesive through the application apertures into a respective join gap, and applying the joining pressure in a sequential manner onto the joining surfaces along the join gap so as to bring the joining partners (1,7; 20,21) into the final joining position.
A surgical instrument assembly comprising: a processor; a surgical instrument having: a cutting instrument defining a cutting tip, the cutting instrument configured to operate on an anatomical structure; and an accelerometer calibrated with a direction of X-ray travel from an X-ray transmitter of an imaging device to an X-ray receiver of the imaging device, wherein the accelerometer is configured to generate accelerometer information that indicates an alignment of the cutting instrument with respect to the direction of X-ray travel; a display coupled to the processor and attached to the surgical instrument, the display configured to display: 1) a first distance of the cutting tip relative to a portion of the anatomical structure, 2) fluoroscopic data of the anatomical structure, the fluoroscopic data generated by the imaging device, and 3) a visual indication of the alignment of the cutting instrument with respect to the direction of X-ray travel indicated by the accelerometer information; and a memory in communication with the processor, the memory having stored therein instructions that, upon execution by the processor, cause the surgical instrument assembly to receive the fluoroscopic data in real-time from the imaging device. a processor; a surgical instrument having: a cutting instrument defining a cutting tip, the cutting instrument configured to operate on an anatomical structure; and an accelerometer calibrated with a direction of X-ray travel from an X-ray transmitter of an imaging device to an X-ray receiver of the imaging device, wherein the accelerometer is configured to generate accelerometer information that indicates an alignment of the cutting instrument with respect to the direction of X-ray travel; a cutting instrument defining a cutting tip, the cutting instrument configured to operate on an anatomical structure; and an accelerometer calibrated with a direction of X-ray travel from an X-ray transmitter of an imaging device to an X-ray receiver of the imaging device, wherein the accelerometer is configured to generate accelerometer information that indicates an alignment of the cutting instrument with respect to the direction of X-ray travel; a display coupled to the processor and attached to the surgical instrument, the display configured to display: 1) a first distance of the cutting tip relative to a portion of the anatomical structure, 2) fluoroscopic data of the anatomical structure, the fluoroscopic data generated by the imaging device, and 3) a visual indication of the alignment of the cutting instrument with respect to the direction of X-ray travel indicated by the accelerometer information; and a memory in communication with the processor, the memory having stored therein instructions that, upon execution by the processor, cause the surgical instrument assembly to receive the fluoroscopic data in real-time from the imaging device.