mhurhangee/ep-ind-claims huggingface dataset:
An end effector for use with a surgical stapler, wherein said end effector comprises: a cartridge body comprising a longitudinal axis; a plurality of staple cavities defined in said cartridge body, comprising: a first inner annular row of staple cavities extending around said longitudinal axis; and a second outer annular row of staple cavities extending around said longitudinal axis; staples (7070a, 7070b) removably stored in said staple cavities; an anvil configured to deform said staples (7070a, 7070b); and a cutting member; and characterized by a ramp rotatable about said longitudinal axis to eject said staples (7070a, 7070b) from said staple cavities and then deploy said cutting member to incise tissue captured between said cartridge body and said anvil, said end effector further comprising staple drivers (7060a, 7060b), wherein said ramp is configured to sequentially engage said staple drivers (7060a, 7060b) to sequentially eject said staples (7070a, 7070b) from said staple cavities, wherein said ramp sequentially ejects said staples stored in said inner row of staple cavities before sequentially ejecting said staples stored in said outer row of staple cavities. a cartridge body comprising a longitudinal axis; a plurality of staple cavities defined in said cartridge body, comprising: a first inner annular row of staple cavities extending around said longitudinal axis; and a second outer annular row of staple cavities extending around said longitudinal axis; a first inner annular row of staple cavities extending around said longitudinal axis; and a second outer annular row of staple cavities extending around said longitudinal axis; staples (7070a, 7070b) removably stored in said staple cavities; an anvil configured to deform said staples (7070a, 7070b); and a cutting member; and characterized by a ramp rotatable about said longitudinal axis to eject said staples (7070a, 7070b) from said staple cavities and then deploy said cutting member to incise tissue captured between said cartridge body and said anvil, said end effector further comprising staple drivers (7060a, 7060b), wherein said ramp is configured to sequentially engage said staple drivers (7060a, 7060b) to sequentially eject said staples (7070a, 7070b) from said staple cavities, wherein said ramp sequentially ejects said staples stored in said inner row of staple cavities before sequentially ejecting said staples stored in said outer row of staple cavities. a ramp rotatable about said longitudinal axis to eject said staples (7070a, 7070b) from said staple cavities and then deploy said cutting member to incise tissue captured between said cartridge body and said anvil, said end effector further comprising staple drivers (7060a, 7060b), wherein said ramp is configured to sequentially engage said staple drivers (7060a, 7060b) to sequentially eject said staples (7070a, 7070b) from said staple cavities, wherein said ramp sequentially ejects said staples stored in said inner row of staple cavities before sequentially ejecting said staples stored in said outer row of staple cavities.
Gas-tight container, in particular a silo for storing organic substances, comprising a receiving space, a base, a peripheral wall and a roof means, the roof means having a gas-tight cover which is connected in a gas-tight manner to the wall, characterized in that a bursting element is inserted between the cover and the wall of the container, which bursting element releases the gas-tight connection between the cover and the wall when a defined bursting pressure is reached.
A device for estimating central aortic pulse pressure by a pressure pulse wave oscillation signal of a cuff, comprising: - means for regulating a pressure of the cuff, which is used to control the proceeding of pressurization, maintenance and decompression in a measured location of the cuff; - means for recording and storing the pressure pulse wave oscillation signal of the cuff; and - means for analyzing the central aortic pulse pressure, comprising storing means for storing an equation for estimating the central aortic pulse pressure to calculate in real-time an estimate of the central aortic pulse pressure by a value of a predicting variable, wherein the equation comprises a plurality of predicting variables and predicting coefficients, and wherein the predicting variables comprise: end-systolic pressure, areas under a pressure tracing in systole (As), areas under a pressure tracing in diastole (Ad), diastolic blood pressure and heart rate, wherein the equation for estimating central aortic pulse pressure is: -88.2 + 0.79 ∗ ESP + 1.41 ∗ As + 0.68 ∗ Ad - 1.16 ∗ DBP + 0.84 ∗ HR. - means for regulating a pressure of the cuff, which is used to control the proceeding of pressurization, maintenance and decompression in a measured location of the cuff; - means for recording and storing the pressure pulse wave oscillation signal of the cuff; and - means for analyzing the central aortic pulse pressure, comprising storing means for storing an equation for estimating the central aortic pulse pressure to calculate in real-time an estimate of the central aortic pulse pressure by a value of a predicting variable, wherein the equation comprises a plurality of predicting variables and predicting coefficients, and wherein the predicting variables comprise: end-systolic pressure, areas under a pressure tracing in systole (As), areas under a pressure tracing in diastole (Ad), diastolic blood pressure and heart rate, wherein the equation for estimating central aortic pulse pressure is: -88.2 + 0.79 ∗ ESP + 1.41 ∗ As + 0.68 ∗ Ad - 1.16 ∗ DBP + 0.84 ∗ HR.
A particle detection method for detecting contaminants in a fluid, the fluid contaminated with particles being conveyed by a first metering pump to a device for measuring the contamination or particle density in the contaminated fluid, characterised in that before entering the device for measuring the contamination, the fluid contaminated with the particles is mixed with cleaned fluid in a defined mixing ratio, the particle density or the contamination of the mixed fluid is measured, and the particle density or the contamination of the contaminated fluid is determined by a computing unit.
An integrated air-conditioning and hot-water system comprising: at least one heat source unit equipped with at least an air-conditioning compressor and a heat source side heat exchanger; a plurality of indoor units (B, C) connected in parallel to the heat source unit and each equipped with at least a use-side heat exchanger; a plurality of hot-water units connected in parallel to the heat source unit and equipped with at least a refrigerant-refrigerant heat exchanger, a heat medium-refrigerant heat exchanger, and a hot-water-supply compressor; and at least one relay unit interposed between the heat source unit and the indoor units (B, C) and the hot-water units for transferring heating energy or cooling energy generated in the at least one heat source side unit to the indoor units (B, C) and the hot-water units, characterized in that the system is configured to, at least in the case where the cooling load of the plurality of indoor units (B, C) and the heating load of the plurality of hot-water units exist at once, if the cooling load of the plurality of indoor units (B, C) is large, increase the set temperature of the plurality of hot-water units, perform the heating operation, and comprises control means configured to control the plurality of hot-water units to balance a load in the plurality of indoor units (B, C) and a load in the plurality of hot-water units. at least one heat source unit equipped with at least an air-conditioning compressor and a heat source side heat exchanger; a plurality of indoor units (B, C) connected in parallel to the heat source unit and each equipped with at least a use-side heat exchanger; a plurality of hot-water units connected in parallel to the heat source unit and equipped with at least a refrigerant-refrigerant heat exchanger, a heat medium-refrigerant heat exchanger, and a hot-water-supply compressor; and at least one relay unit interposed between the heat source unit and the indoor units (B, C) and the hot-water units for transferring heating energy or cooling energy generated in the at least one heat source side unit to the indoor units (B, C) and the hot-water units, characterized in that the system is configured to, at least in the case where the cooling load of the plurality of indoor units (B, C) and the heating load of the plurality of hot-water units exist at once, if the cooling load of the plurality of indoor units (B, C) is large, increase the set temperature of the plurality of hot-water units, perform the heating operation, and comprises control means configured to control the plurality of hot-water units to balance a load in the plurality of indoor units (B, C) and a load in the plurality of hot-water units.
Tamping machine for compacting the ballast bed of a track, with tamping units for tamping under a track, with a lifting-straightening device arranged between running gears, preferably in front of the tamping units in the working direction, for lifting and straightening tracks and railroad switches, having at least one height-adjustable lifting roller and having at least one lifting hook which is height-adjustable independently of the lifting roller, the lifting roller and the lifting hook being arranged on a common console which is guided displaceably transversely to the longitudinal axis of the tamping machine by means of an adjusting drive, characterized in that the console is arranged on a guiding slide, with which it is displaceable transversely to the longitudinal axis of the tamping machine along a transverse guide, and in that the console is mounted on the guiding slide so as to be pivotally adjustable about a pivot axis parallel to the longitudinal axis of the tamping machine by means of a swivel drive.
A power supply device comprising: a plurality of battery units (30a-30d) replaceably connected to a battery connection part; an output unit for outputting electric power from one of the battery units (30a-30d) to a load; an input unit for supplying electric power to one of the battery units (30a-30d); and a control unit for controlling connection of the plurality of battery units (30a-30d) with respect to the output unit and the input unit; wherein the control unit is configured to select a battery unit (30a-30d) having a remaining charge amount that is smallest among the plurality of battery units (30a-30d) and equal to or greater than a first predetermined amount, and to connect the selected battery unit (30a-30d) to the output unit such that the selected battery unit (30a-30d) is discharged by supplying electric power to the load connected to the output unit, wherein the control unit is configured to select a battery unit (30a-30d) having a remaining charge amount that is the largest among the plurality of battery units (30a-30d) and less than a second predetermined amount, and to connect the selected battery unit (30a-30d) to the input unit, wherein the control unit is configured to detect connection states of the input unit, the output unit, and the plurality of battery units (30a-30d), and to reselect the battery units (30a-30d) to be connected to the input unit and the output unit in a case where any of the connection states changes. a plurality of battery units (30a-30d) replaceably connected to a battery connection part; an output unit for outputting electric power from one of the battery units (30a-30d) to a load; an input unit for supplying electric power to one of the battery units (30a-30d); and a control unit for controlling connection of the plurality of battery units (30a-30d) with respect to the output unit and the input unit; wherein the control unit is configured to select a battery unit (30a-30d) having a remaining charge amount that is smallest among the plurality of battery units (30a-30d) and equal to or greater than a first predetermined amount, and to connect the selected battery unit (30a-30d) to the output unit such that the selected battery unit (30a-30d) is discharged by supplying electric power to the load connected to the output unit, wherein the control unit is configured to select a battery unit (30a-30d) having a remaining charge amount that is the largest among the plurality of battery units (30a-30d) and less than a second predetermined amount, and to connect the selected battery unit (30a-30d) to the input unit, wherein the control unit is configured to detect connection states of the input unit, the output unit, and the plurality of battery units (30a-30d), and to reselect the battery units (30a-30d) to be connected to the input unit and the output unit in a case where any of the connection states changes.
A detection device for recognizing the epidural space, comprising: an upper case having a predetermined shape; and a lower case coupled to the upper case to form a predetermined space part, wherein a connection tube is accommodated in the space part, wherein one end of the connection tube can communicate with a paracentesis needle part, wherein a cap part is provided for sealing the other end of the connection tube, which cap part is detachable from the connection tube, wherein the one end and the other end of the connection tube protrude from the space part, and wherein the one end of the connection tube horizontally communicates with the paracentesis needle part, and wherein a pressure sensor is in communication with an opening formed at a predetermined position on the outer peripheral part of the connection tube, whereby the pressure measurement being performed when the paracentesis needle and the connection tube are connected to each other and the other end is sealed by the cap part, whereby the pressure sensor is located in the space part, and wherein the device allows to insert a drug injection catheter into the connection tube with the connection tube and the paracentesis needle part being connected to each other after the epidural space is accurately located and after the cap part is detached from the other end of the connection tube, wherein the cap part and the other end of the connection tube are connected by a male and a female screw engagement. an upper case having a predetermined shape; and a lower case coupled to the upper case to form a predetermined space part, wherein a connection tube is accommodated in the space part, wherein one end of the connection tube can communicate with a paracentesis needle part, wherein a cap part is provided for sealing the other end of the connection tube, which cap part is detachable from the connection tube, wherein the one end and the other end of the connection tube protrude from the space part, and wherein the one end of the connection tube horizontally communicates with the paracentesis needle part, and wherein a pressure sensor is in communication with an opening formed at a predetermined position on the outer peripheral part of the connection tube, whereby the pressure measurement being performed when the paracentesis needle and the connection tube are connected to each other and the other end is sealed by the cap part, whereby the pressure sensor is located in the space part, and wherein the device allows to insert a drug injection catheter into the connection tube with the connection tube and the paracentesis needle part being connected to each other after the epidural space is accurately located and after the cap part is detached from the other end of the connection tube, wherein the cap part and the other end of the connection tube are connected by a male and a female screw engagement.
A fixing device provided to fix a toner image on a sheet, and comprising a nozzle unit that sprays a fixing solution to the sheet on which the toner image is formed and an opposite electrode located at an interval from the nozzle unit, a voltage being applied to the opposite electrode, wherein the opposite electrode comprises: a first flat plate extending in a first direction; and a plurality of first projections aligned in the first direction and extending from the first flat plate in a second direction that is a direction facing from the opposite electrode toward the nozzle unit; characterised in that, the opposite electrode further comprises a connection terminal electrically connected to a power supply of an image forming apparatus and located at one end portion of the opposite electrode in the first direction, wherein a tip end of each of the plurality of first projections is located between the nozzle unit and the connection terminal in the second direction. wherein the opposite electrode comprises: a first flat plate extending in a first direction; and a plurality of first projections aligned in the first direction and extending from the first flat plate in a second direction that is a direction facing from the opposite electrode toward the nozzle unit; a first flat plate extending in a first direction; and a plurality of first projections aligned in the first direction and extending from the first flat plate in a second direction that is a direction facing from the opposite electrode toward the nozzle unit; characterised in that, the opposite electrode further comprises a connection terminal electrically connected to a power supply of an image forming apparatus and located at one end portion of the opposite electrode in the first direction, wherein a tip end of each of the plurality of first projections is located between the nozzle unit and the connection terminal in the second direction.
An electric power system comprising: a power input configured to receive input power; a power output configured to couple to an electric utility grid and to provide output power to the electric utility grid; power conversion circuitry coupled to the power input and the power output and configured to convert the input power into the output power; and island detection circuitry coupled to the power output and the power conversion circuitry, the island detection circuitry configured to: inject a perturbation current at the power output based upon a perturbation current signal; receive a voltage signal from the power output; cross-correlate the perturbation current signal with the voltage signal to provide a cross-correlation signal; and determine an island condition based upon the cross-correlation signal; wherein determining an island condition based upon the cross-correlation signal includes comparing the cross-correlation signal to a threshold value; and wherein the island detection circuitry is further configured to adjust the threshold value based on previous values of the cross-correlation signal. a power input configured to receive input power; a power output configured to couple to an electric utility grid and to provide output power to the electric utility grid; power conversion circuitry coupled to the power input and the power output and configured to convert the input power into the output power; and island detection circuitry coupled to the power output and the power conversion circuitry, the island detection circuitry configured to: inject a perturbation current at the power output based upon a perturbation current signal; receive a voltage signal from the power output; cross-correlate the perturbation current signal with the voltage signal to provide a cross-correlation signal; and determine an island condition based upon the cross-correlation signal; wherein determining an island condition based upon the cross-correlation signal includes comparing the cross-correlation signal to a threshold value; and wherein the island detection circuitry is further configured to adjust the threshold value based on previous values of the cross-correlation signal. inject a perturbation current at the power output based upon a perturbation current signal; receive a voltage signal from the power output; cross-correlate the perturbation current signal with the voltage signal to provide a cross-correlation signal; and determine an island condition based upon the cross-correlation signal; wherein determining an island condition based upon the cross-correlation signal includes comparing the cross-correlation signal to a threshold value; and wherein the island detection circuitry is further configured to adjust the threshold value based on previous values of the cross-correlation signal.
A roof window comprising a frame, a sash, and a pane, in which the frame comprises a set of frame members including a top frame member, two side frame members (22, 23) and a bottom frame member and the sash comprises a set of sash members including a top sash member, two side sash members (32, 33) and a bottom sash member, the roof window furthermore comprising a plurality of mounting brackets and an insulating frame, wherein each frame member (21, 22, 23, 24) comprises a plurality of receiving structures at an interior, exterior, inner and/or outer side of the respective frame member, each said receiving structure being configured to interact with auxiliary equipment in an assembled condition of the frame, wherein a third receiving structure comprises a first outer groove in an outer side of the frame member (21, 22, 23, 24), wherein said first outer groove is configured to interact with a protrusion on a piece (71, 72, 73, 74) of the insulating frame and optionally with engagement means one of the mounting brackets, characterised in that a sixth receiving structure comprises a second outer groove in an outer side of at least the side frame members (22, 23), configured to interact with engagement means (624, 629) one of the mounting brackets, and that the engagement means (624, 629) of said mounting bracket engage with the second outer groove, specifically also with the first outer groove. the frame comprises a set of frame members including a top frame member, two side frame members (22, 23) and a bottom frame member and the sash comprises a set of sash members including a top sash member, two side sash members (32, 33) and a bottom sash member, the roof window furthermore comprising a plurality of mounting brackets and an insulating frame, wherein each frame member (21, 22, 23, 24) comprises a plurality of receiving structures at an interior, exterior, inner and/or outer side of the respective frame member, each said receiving structure being configured to interact with auxiliary equipment in an assembled condition of the frame, wherein a third receiving structure comprises a first outer groove in an outer side of the frame member (21, 22, 23, 24), wherein said first outer groove is configured to interact with a protrusion on a piece (71, 72, 73, 74) of the insulating frame and optionally with engagement means one of the mounting brackets, characterised in that a sixth receiving structure comprises a second outer groove in an outer side of at least the side frame members (22, 23), configured to interact with engagement means (624, 629) one of the mounting brackets, and that the engagement means (624, 629) of said mounting bracket engage with the second outer groove, specifically also with the first outer groove.