mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer polyethylene film comprising a core layer, a first outer layer, and a second outer layer, wherein: the core layer is positioned between the first outer layer and the second outer layer; the core layer comprises a linear low density polyethylene having a density of 0.900 g/cc to 0.935 g/cc and a melt index, I 2 , of 0.1 g/10 min to 10 g/10 min, and, optionally, a first low density polyethylene resin having a density from 0.915 g/cc to 0.935 g/cc and a melt index, I 2 , from 0.1 g/10 min to 15 g/10min; and the first outer layer and the second outer layer independently comprise a polyethylene resin having a density of 0.930 g/cc to 0.970 g/cc and a melt index, I 2 , of 0.1 g/10 min to 15 g/10 min and, optionally, a second low density polyethylene resin having a density from 0.915 g/cc to 0.935 g/cc and a melt index, I 2 , from 0.1 g/10 min to 15 g/10min; wherein the density of the linear low density polyethylene is less than the density of the polyethylene resin, wherein the first outer layer comprises from 5 wt.% to 40 wt.% of the second low density polyethylene resin, based on the total weight of polymers present in the first outer layer. the core layer is positioned between the first outer layer and the second outer layer; the core layer comprises a linear low density polyethylene having a density of 0.900 g/cc to 0.935 g/cc and a melt index, I 2 , of 0.1 g/10 min to 10 g/10 min, and, optionally, a first low density polyethylene resin having a density from 0.915 g/cc to 0.935 g/cc and a melt index, I 2 , from 0.1 g/10 min to 15 g/10min; and the first outer layer and the second outer layer independently comprise a polyethylene resin having a density of 0.930 g/cc to 0.970 g/cc and a melt index, I 2 , of 0.1 g/10 min to 15 g/10 min and, optionally, a second low density polyethylene resin having a density from 0.915 g/cc to 0.935 g/cc and a melt index, I 2 , from 0.1 g/10 min to 15 g/10min; wherein the density of the linear low density polyethylene is less than the density of the polyethylene resin, wherein the first outer layer comprises from 5 wt.% to 40 wt.% of the second low density polyethylene resin, based on the total weight of polymers present in the first outer layer.
A device for separating a patient's eyelid in procedures for the intravitreal injection of medicinal substances, comprising: - a distal sector further comprising a body and a shoulder , wherein the body comprises a curved front face intended for contacting the corneoscleral limbus of a patient's eye and wherein said body has at least one orifice adapted for introducing a needle of a syringe ; - an elongated handle extending from the body and located at the opposite end of the distal sector of the device ; the shoulder is hook-shaped for contacting the patient's upper eyelid, and wherein the handle forms a longitudinal geometry from its distal sector to the handle , characterized in that the device is suitable for pulling on the patient's upper eyelid by means of the hook-shaped shoulder with the patient in a supine decubitus position, wherein the body further comprises a viewing opening that transversely goes through the body located in the distal section and upwardly to the curved front face , which allows to examine the behavior of the eye while applying the intravitreal injection. - a distal sector further comprising a body and a shoulder , wherein the body comprises a curved front face intended for contacting the corneoscleral limbus of a patient's eye and wherein said body has at least one orifice adapted for introducing a needle of a syringe ; - an elongated handle extending from the body and located at the opposite end of the distal sector of the device ;
A therapeutic gas for use in treating or preventing mitochondrial dysfunction in a subject in need thereof, wherein said therapeutic gas comprises between 9 to 15% O 2 and wherein a therapeutically effective amount of said therapeutic gas is administered to a subject in need thereof continuously by inhalation for at least 12 hours.
An adaptive reflected light touch sensor comprising: an emitter that emits light in a direction such that the light (RLI, RLO) can be reflected from a window and an object that is one of proximate to and pressed against the window ; a sensor positioned to measure a light amplitude of the reflected light (RLI, RLO); and a processor board coupled to the sensor , the processor board being configured to: compare the measured light amplitude to an assert threshold; and if the measured light amplitude is less than the assert threshold, then: calculate a moving average of the measured light amplitude of the reflected light (RLI, RLO) by averaging two or more of the most recent measured light amplitudes in an averaging period; and calculate the assert threshold based on the moving average; and if the measured light amplitude is greater than the assert threshold, then increment an assert count, and reset an averaging period of the moving average. an emitter that emits light in a direction such that the light (RLI, RLO) can be reflected from a window and an object that is one of proximate to and pressed against the window ; a sensor positioned to measure a light amplitude of the reflected light (RLI, RLO); and a processor board coupled to the sensor , the processor board being configured to: compare the measured light amplitude to an assert threshold; and if the measured light amplitude is less than the assert threshold, then: calculate a moving average of the measured light amplitude of the reflected light (RLI, RLO) by averaging two or more of the most recent measured light amplitudes in an averaging period; and calculate the assert threshold based on the moving average; and if the measured light amplitude is greater than the assert threshold, then increment an assert count, and reset an averaging period of the moving average. compare the measured light amplitude to an assert threshold; and if the measured light amplitude is less than the assert threshold, then: calculate a moving average of the measured light amplitude of the reflected light (RLI, RLO) by averaging two or more of the most recent measured light amplitudes in an averaging period; and calculate the assert threshold based on the moving average; and calculate a moving average of the measured light amplitude of the reflected light (RLI, RLO) by averaging two or more of the most recent measured light amplitudes in an averaging period; and calculate the assert threshold based on the moving average; and if the measured light amplitude is greater than the assert threshold, then increment an assert count, and reset an averaging period of the moving average.
A method for manufacturing a 3D item with a fused deposition modeling 3D printer , the method comprising: - providing a thermoplastic material comprising (a) a first polymer having a mass fraction of at least 90 %, and (b) an additive having a mass fraction of 0-6 %, wherein the first polymer is a semi-crystalline aromatic polyester; - generating in a generation stage an intermediate 3D printed item by printing the thermoplastic material , wherein the thermoplastic material is heated to a temperature equal to or above a melting temperature (T m ) of the thermoplastic material , while maintaining during printing an ambient temperature (T a ) of the 3D printed item under construction below the glass temperature (T g ) of the first polymer ; and - generating in an annealing stage said 3D item by heating the intermediate 3D printed item to a temperature equal to or above the glass temperature (T g ) of the first polymer , wherein the method further comprises a design stage, comprising determining dimensions of the 3D item and defining dimensions of the intermediate 3D printed item taking into account a shrinkage during the annealing stage. - providing a thermoplastic material comprising (a) a first polymer having a mass fraction of at least 90 %, and (b) an additive having a mass fraction of 0-6 %, wherein the first polymer is a semi-crystalline aromatic polyester; - generating in a generation stage an intermediate 3D printed item by printing the thermoplastic material , wherein the thermoplastic material is heated to a temperature equal to or above a melting temperature (T m ) of the thermoplastic material , while maintaining during printing an ambient temperature (T a ) of the 3D printed item under construction below the glass temperature (T g ) of the first polymer ; and - generating in an annealing stage said 3D item by heating the intermediate 3D printed item to a temperature equal to or above the glass temperature (T g ) of the first polymer ,
An in vitro method for the diagnosis of ovarian carcinoma in a patient, comprising the following steps: a) determining the concentration C of anti-TUBB3 autoantibodies in a serum sample of said patient; b) comparing said concentration C of autoantibodies to a threshold value x , wherein a concentration of said autoantibodies higher than said threshold value identifies the presence of ovarian carcinoma in said patient. a) determining the concentration C of anti-TUBB3 autoantibodies in a serum sample of said patient; b) comparing said concentration C of autoantibodies to a threshold value x , wherein a concentration of said autoantibodies higher than said threshold value identifies the presence of ovarian carcinoma in said patient.
A system (106; 200; 300) comprising: a display alignment sensing assembly (104; 220; 320) configured to receive a portion of a first signal output from a first display assembly (110; 202; 302); a waveguide (130; 210; 310) configured to receive a portion of a second signal output from a second display assembly (108; 204; 304) and to redirect the portion of the second signal to the display alignment sensing assembly (104; 220; 320), the display alignment sensing assembly configured to receive the portion of the second signal received from the waveguide, the display alignment sensing assembly including an optical sensor (222; 322) configured to receive a combined signal including the portion of the first signal received from the first display assembly and the portion of the second signal received from the waveguide; and a display alignment tracker stored in memory and executable to detect a positioning disparity between the first signal and the second signal within the combined signal and to output a rendering position adjustment instruction to correct for the detected positioning disparity. a display alignment sensing assembly (104; 220; 320) configured to receive a portion of a first signal output from a first display assembly (110; 202; 302); a waveguide (130; 210; 310) configured to receive a portion of a second signal output from a second display assembly (108; 204; 304) and to redirect the portion of the second signal to the display alignment sensing assembly (104; 220; 320), the display alignment sensing assembly configured to receive the portion of the second signal received from the waveguide, the display alignment sensing assembly including an optical sensor (222; 322) configured to receive a combined signal including the portion of the first signal received from the first display assembly and the portion of the second signal received from the waveguide; and the display alignment sensing assembly configured to receive the portion of the second signal received from the waveguide, the display alignment sensing assembly including an optical sensor (222; 322) configured to receive a combined signal including the portion of the first signal received from the first display assembly and the portion of the second signal received from the waveguide; and a display alignment tracker stored in memory and executable to detect a positioning disparity between the first signal and the second signal within the combined signal and to output a rendering position adjustment instruction to correct for the detected positioning disparity.
An activated carbon, having a pore volume (A) of 0.3 to 0.7 mL/g at a pore diameter of 6.5 to 50 nm as determined by mercury intrusion porosimetry, a pore volume (B) of 0.23 mL/g or less at a pore diameter of 750 to 4,000 nm as determined by mercury intrusion porosimetry, and a pore volume ratio (A)/(B) of 1.7 or higher.
A weighing apparatus comprising: a weighing hopper that temporarily receives an article in order to weigh the article and sorts and discharges the article weighed in either a first direction (FD) or a second direction (SD); a booster hopper that temporarily receives the article discharged in the first direction (FD) and discharges the article received, downstream; a sorting chute that discharges the article discharged in the second direction (SD), downstream; a discharge chute in which the article discharged from the booster hopper or the sorting chute slides down; and a drive unit that switches a position of the sorting chute , wherein the sorting chute : discharges, at a first position, the article discharged in the second direction (SD) to the discharge chute , and discharges, at a second position, the article discharged in the second direction (SD), outside the discharge chute , and the drive unit moves the sorting chute upward to selectively switch the position of the sorting chute between the first position and the second position. a weighing hopper that temporarily receives an article in order to weigh the article and sorts and discharges the article weighed in either a first direction (FD) or a second direction (SD); a booster hopper that temporarily receives the article discharged in the first direction (FD) and discharges the article received, downstream; a sorting chute that discharges the article discharged in the second direction (SD), downstream; a discharge chute in which the article discharged from the booster hopper or the sorting chute slides down; and a drive unit that switches a position of the sorting chute , wherein the sorting chute : discharges, at a first position, the article discharged in the second direction (SD) to the discharge chute , and discharges, at a second position, the article discharged in the second direction (SD), outside the discharge chute , and discharges, at a first position, the article discharged in the second direction (SD) to the discharge chute , and discharges, at a second position, the article discharged in the second direction (SD), outside the discharge chute , and the drive unit moves the sorting chute upward to selectively switch the position of the sorting chute between the first position and the second position.
An electronic device , comprising: a housing ; a light-permeable display screen received in the housing and comprising a display area and a black matrix area surrounding the display area , the black matrix area comprising a first window region ; an emitter received in the housing and arranged between the light-permeable display screen and the housing ; and a receiver received in the housing , arranged between the light-permeable display screen and the housing , and configured to communicate with the emitter , wherein the emitter is arranged opposite to the first window region of the black matrix area and configured to emit an infrared light through the first window region , characterized in that the receiver is arranged opposite to the display area of the light-permeable display screen , and is configured to receive the infrared light through the display area of the light-permeable display screen , the display area comprises a second window region, and the receiver is arranged opposite to the second window region of the display area , and configured to receive the infrared light through the second window region of the display area . a housing ; a light-permeable display screen received in the housing and comprising a display area and a black matrix area surrounding the display area , the black matrix area comprising a first window region ; an emitter received in the housing and arranged between the light-permeable display screen and the housing ; and a receiver received in the housing , arranged between the light-permeable display screen and the housing , and configured to communicate with the emitter , wherein the emitter is arranged opposite to the first window region of the black matrix area and configured to emit an infrared light through the first window region , characterized in that the receiver is arranged opposite to the display area of the light-permeable display screen , and is configured to receive the infrared light through the display area of the light-permeable display screen , the display area comprises a second window region, and the receiver is arranged opposite to the second window region of the display area , and configured to receive the infrared light through the second window region of the display area .
A blow molding device , comprising: a tubular-shaped nozzle ; a pressurized fluid supply source configured to supply a pressurized incompressive fluid to the nozzle ; a tubular-shaped sealing body configured to be displaced in an up-and-down direction between a closing position in which the sealing body closes the nozzle and an opening position in which the sealing body opens the nozzle ; and a stretching rod surrounded by the sealing body and configured to be displaced in the up-and-down direction, wherein the sealing body includes a tubular wall having an outer circumferential surface configured to face the nozzle when the sealing body is in the closing position, characterized in that the tubular wall is provided with a drawing-in hole extending from one end to another end , the one end being open at a lower end of the tubular wall , and the other end being open at the outer circumferential surface of the tubular wall , and the nozzle is provided with a drawing-in path configured to communicate with the other end of the drawing-in hole when the sealing body is in the closing position, and wherein the blow molding device further comprises a fluid drawing-in source configured to draw in the incompressive fluid from the drawing-in path . a tubular-shaped nozzle ; a pressurized fluid supply source configured to supply a pressurized incompressive fluid to the nozzle ; a tubular-shaped sealing body configured to be displaced in an up-and-down direction between a closing position in which the sealing body closes the nozzle and an opening position in which the sealing body opens the nozzle ; and a stretching rod surrounded by the sealing body and configured to be displaced in the up-and-down direction, wherein the sealing body includes a tubular wall having an outer circumferential surface configured to face the nozzle when the sealing body is in the closing position, characterized in that the tubular wall is provided with a drawing-in hole extending from one end to another end , the one end being open at a lower end of the tubular wall , and the other end being open at the outer circumferential surface of the tubular wall , and the nozzle is provided with a drawing-in path configured to communicate with the other end of the drawing-in hole when the sealing body is in the closing position, and wherein the blow molding device further comprises a fluid drawing-in source configured to draw in the incompressive fluid from the drawing-in path .
A method for manufacturing a mirror device comprising a structure including a base portion and a movable portion 1 supported on the base portion, and a mirror layer provided to the movable portion, the method comprising: a first step of preparing a wafer having a support layer and a device layer ; a second step of forming a slit in the wafer such that the movable portion becomes movable with respect to the base portion by removing a part of each of the support layer and the device layer from the wafer by etching and forming a plurality of parts each corresponding to the structure in the wafer, after the first step; a third step of performing wet cleaning for cleaning the wafer using a cleaning liquid after the second step; and a fourth step of cutting out each of the plurality of parts from the wafer after the third step, wherein in the second step, a circulation hole penetrating the wafer is formed at a part other than the slit in the wafer by the etching. a first step of preparing a wafer having a support layer and a device layer ; a second step of forming a slit in the wafer such that the movable portion becomes movable with respect to the base portion by removing a part of each of the support layer and the device layer from the wafer by etching and forming a plurality of parts each corresponding to the structure in the wafer, after the first step; a third step of performing wet cleaning for cleaning the wafer using a cleaning liquid after the second step; and a fourth step of cutting out each of the plurality of parts from the wafer after the third step, wherein in the second step, a circulation hole penetrating the wafer is formed at a part other than the slit in the wafer by the etching.
A method of bonding composite structures, said method comprising: positioning a second structure at a bonding site on a first structure ; coupling a first vacuum bag to the first structure such that the first vacuum bag covers the bonding site; applying a vacuum to the first vacuum bag to induce a first mechanical force (F1) to the second structure via the first vacuum bag; coupling a second vacuum bag to the first structure such that the second vacuum bag covers the second structure and at least a portion of the first vacuum bag; and applying a vacuum to the second vacuum bag to induce a second mechanical force (F2) to the second structure via the second vacuum bag; and at least partially venting the first vacuum bag to remove at least a portion of the first mechanical force (F1) on the second structure , and maintaining the vacuum of the second vacuum bag after at least partially venting of the first vacuum bag to maintain the second mechanical force (F2) on the second structure . positioning a second structure at a bonding site on a first structure ; coupling a first vacuum bag to the first structure such that the first vacuum bag covers the bonding site; applying a vacuum to the first vacuum bag to induce a first mechanical force (F1) to the second structure via the first vacuum bag; coupling a second vacuum bag to the first structure such that the second vacuum bag covers the second structure and at least a portion of the first vacuum bag; and applying a vacuum to the second vacuum bag to induce a second mechanical force (F2) to the second structure via the second vacuum bag; and at least partially venting the first vacuum bag to remove at least a portion of the first mechanical force (F1) on the second structure , and maintaining the vacuum of the second vacuum bag after at least partially venting of the first vacuum bag to maintain the second mechanical force (F2) on the second structure .