mhurhangee/ep-ind-claims huggingface dataset:
A sensor apparatus comprising: a rotor; a stator disposed outside the rotor; a sensing part configured to measure a magnetic field generated between the rotor and the stator; a housing which accommodates the rotor and the stator; a sensor module disposed in the housing; a protrusion (110, 120) which protrudes from an outer circumferential surface of the housing and includes a curved surface in point contact with an external fixing part, wherein the protrusion (110, 120) includes a first clip and a second clip which protrude from the outer circumferential surface of the housing to face each other and between which an accommodation space in which the external protrusion is accommodated is formed, characterized in that each of the first clip and the second clip includes a column portion (111a, 112a) formed on the outer circumferential surface of the housing and a tip portion (111b, 112b) which is formed at a leading end of the column portion and has the curved surface; and in that a rib is formed to protrude inward from an inner wall of a column housing, the rib being intended to be fitted in the protrusion, a side surface of the rib including a flat contact surface, and a cross section of the rib having a rectangular shape. a rotor; a stator disposed outside the rotor; a sensing part configured to measure a magnetic field generated between the rotor and the stator; a housing which accommodates the rotor and the stator; a sensor module disposed in the housing; a protrusion (110, 120) which protrudes from an outer circumferential surface of the housing and includes a curved surface in point contact with an external fixing part, wherein the protrusion (110, 120) includes a first clip and a second clip which protrude from the outer circumferential surface of the housing to face each other and between which an accommodation space in which the external protrusion is accommodated is formed, characterized in that each of the first clip and the second clip includes a column portion (111a, 112a) formed on the outer circumferential surface of the housing and a tip portion (111b, 112b) which is formed at a leading end of the column portion and has the curved surface; and in that a rib is formed to protrude inward from an inner wall of a column housing, the rib being intended to be fitted in the protrusion, a side surface of the rib including a flat contact surface, and a cross section of the rib having a rectangular shape.
A polyacrylate water-absorbing polymer for cosmetics for unevenness correction, wherein the polymer has an average swollen particle size of 10 to 150 μm after swelling with ion-exchanged water for 30 minutes or more, and an average dry particle size of 10 to 50 μm, as measured with laser diffractometry, and a water absorbency of 5 to 50 g/g, the water absorbency being calculated from the following equation: Water absorbency = weight upon water absorption g − dry weight g / dry weight g wherein weight upon water absorption is the weight after swelling with ion-exchanged water for 30 minutes or more, and dry weight is the weight after drying at 150°C for 60 minutes in a windless dryer; and wherein the polyacrylate water-absorbing polymer is a polyacrylate water-absorbing polymer selected from the group consisting of potassium polyacrylate and sodium polyacrylate.
A bearing apparatus for a wheel comprising a hub wheel (41, 41') formed with a wheel mounting flange for fastening thereon the wheel via a brake rotor and for studding a plurality of hub bolts thereon circumferentially along the periphery thereof, a constant velocity universal joint (43, 80), and a double row rolling bearing for rotatably supporting the wheel relative to a body of vehicle; the hub wheel (41, 41') and an outer joint member (55, 64) of the constant velocity universal joint (43, 80) being interfitted each other; and the rotation of the constant velocity universal joint (43, 80) being adapted to be transmitted to the hub wheel (41, 41'), characterized in that the inner surface of the hub wheel (41, 41') is formed as a hardened irregular surface portion; in that the hub wheel (41, 41') and the outer joint member (55, 64) are integrated each other via the plastic deformation of the outer surface of the outer joint member (55, 64) into the irregular surface portion of the hub wheel (41, 41') by expanding the diameter of the outer joint member (55, 64); and in that one side of the wheel mounting flange is formed as a cut-finished surface cut after the press fit of the hub bolts and said integration via the plastic deformation.
A fluid delivery device comprising: a body having a body passageway, a top (32, 132), a bottom surface (22, 122), a first perimeter at the top, and a second perimeter (114, 133) close to the bottom surface, the first perimeter being positioned in a first plane that is perpendicular to an axis that is parallel to a portion of the body passageway, the second perimeter being positioned in a second plane that is parallel to the first plane, the second perimeter being greater than the first perimeter; a cannula (40, 140, 440, 540, 640, 740, 840) having a portion extending from the body, a cannula passageway, and a tapered portion; a needle guide (50, 150, 450, 550, 650, 750, 850) having a tapered portion (52, 59, 452, 552, 652, 752, 852); and a septum (60, 160, 460, 560, 660, 760, 860) having a portion positioned within the needle guide; characterized in that the tapered portion of the cannula is an upper tapered portion that is in contact with the tapered portion of the needle guide. a body having a body passageway, a top (32, 132), a bottom surface (22, 122), a first perimeter at the top, and a second perimeter (114, 133) close to the bottom surface, the first perimeter being positioned in a first plane that is perpendicular to an axis that is parallel to a portion of the body passageway, the second perimeter being positioned in a second plane that is parallel to the first plane, the second perimeter being greater than the first perimeter; a cannula (40, 140, 440, 540, 640, 740, 840) having a portion extending from the body, a cannula passageway, and a tapered portion; a needle guide (50, 150, 450, 550, 650, 750, 850) having a tapered portion (52, 59, 452, 552, 652, 752, 852); and a septum (60, 160, 460, 560, 660, 760, 860) having a portion positioned within the needle guide; characterized in that the tapered portion of the cannula is an upper tapered portion that is in contact with the tapered portion of the needle guide.
A method for manufacturing a microelectronic assembly comprising at least one first and one second microelectronic components placed one on top of the other and between which is formed at least one tight cavity, embedded in a filling material, comprising: - forming an obstacle capable of forming a bypass duct or line for the filling material; - performing a flip-chip hybridization of the first and second components, - injecting the filling material in liquid form between the two hybridized components to embed said at least one cavity and to make it tight as said filling material solidifies; characterized in that said method further comprises: - defining said cavity by means of a lateral wall forming a closed frame extending around a determined area of the first component except for an opening used as a vent; - forming within the closed frame and opposite to the vent the obstacle; capable of forming in cooperation with the lateral wall the by-pass duct or line for the filling material; - during performing the flip-chip hybridization of the first and second components, making a surface of the second component resting on the upper edge or end of the lateral wall formed on the first component to form said at least one cavity; - obstructing the vent as said filling material solidifies in order to make the said at least one cavity tight; the length of the bypass duct or line being greater than the distance traveled by the filling material between its presentation at the level of the vent and the moment when the filling material solidifies. - forming an obstacle capable of forming a bypass duct or line for the filling material; - performing a flip-chip hybridization of the first and second components, - injecting the filling material in liquid form between the two hybridized components to embed said at least one cavity and to make it tight as said filling material solidifies; - defining said cavity by means of a lateral wall forming a closed frame extending around a determined area of the first component except for an opening used as a vent; - forming within the closed frame and opposite to the vent the obstacle; capable of forming in cooperation with the lateral wall the by-pass duct or line for the filling material; - during performing the flip-chip hybridization of the first and second components, making a surface of the second component resting on the upper edge or end of the lateral wall formed on the first component to form said at least one cavity; - obstructing the vent as said filling material solidifies in order to make the said at least one cavity tight;
A method for capturing cancer cells present in biological fluid, the method comprising reducing a protein level of sampled biological fluid, followed by capturing cancer cells using a hydrophilic polymer layer, wherein the hydrophilic polymer layer has a thickness of 20 to 200 nm. reducing a protein level of sampled biological fluid, followed by capturing cancer cells using a hydrophilic polymer layer, wherein the hydrophilic polymer layer has a thickness of 20 to 200 nm.
A process for analyzing arsenic in a sample, comprising the following steps: (a) contacting a sample suspected of containing arsenic on a solid support functionalized with a DNA fragment comprising an ArsR protein binding site, site on which an ArsR protein is attached, the presence arsenic causing separation of the ArsR protein from the DNA fragment; (b) incubation of the sample in contact with the said support; (c) elimination of ArsR protein separated from the DNA fragment by washing the support after the incubation carried out in step (b); and (d) analyzing by an ELISA technique to detect the presence or absence of ArsR protein remaining attached to the DNA fragment. (a) contacting a sample suspected of containing arsenic on a solid support functionalized with a DNA fragment comprising an ArsR protein binding site, site on which an ArsR protein is attached, the presence arsenic causing separation of the ArsR protein from the DNA fragment; (b) incubation of the sample in contact with the said support; (c) elimination of ArsR protein separated from the DNA fragment by washing the support after the incubation carried out in step (b); and (d) analyzing by an ELISA technique to detect the presence or absence of ArsR protein remaining attached to the DNA fragment.
A combustion power tool comprising: first and second combustion chambers (121, 122) adapted to be respectively filled with flammable gas, a partition that separates the first combustion chamber from the second combustion chamber, openings (125, 128) that are formed in the partition and serve to communicate the first combustion chamber with the second combustion chamber, and a drive section that is adapted to be caused to move toward a front end by combustion pressure and is adapted to perform a predetermined operation, the combustion pressure being generated when a combustion gas flow caused by combustion of flammable gas in the first combustion chamber propagates to the second combustion chamber through the openings (125, 128) and bums flammable gas in the second combustion chamber, wherein the partition and openings (125, 128) are configured such that the combustion gas flows from the first combustion chamber to the second combustion chamber in a direction around a central axis of the second combustion chamber while flowing along an inner wall of the second combustion chamber, and the partition has a plurality of first openings through which the gas, when flowing from the first combustion chamber to the second combustion chamber, forms an axial flow in the direction of the central axis of the second combustion chamber, characterized in that the partition has a plurality of second openings through which the gas, when flowing from the first combustion chamber to the second combustion chamber, forms a swirl flow in a direction around the central axis. first and second combustion chambers (121, 122) adapted to be respectively filled with flammable gas, a partition that separates the first combustion chamber from the second combustion chamber, openings (125, 128) that are formed in the partition and serve to communicate the first combustion chamber with the second combustion chamber, and a drive section that is adapted to be caused to move toward a front end by combustion pressure and is adapted to perform a predetermined operation, the combustion pressure being generated when a combustion gas flow caused by combustion of flammable gas in the first combustion chamber propagates to the second combustion chamber through the openings (125, 128) and bums flammable gas in the second combustion chamber, wherein the partition and openings (125, 128) are configured such that the combustion gas flows from the first combustion chamber to the second combustion chamber in a direction around a central axis of the second combustion chamber while flowing along an inner wall of the second combustion chamber, and the partition has a plurality of first openings through which the gas, when flowing from the first combustion chamber to the second combustion chamber, forms an axial flow in the direction of the central axis of the second combustion chamber, characterized in that the partition has a plurality of second openings through which the gas, when flowing from the first combustion chamber to the second combustion chamber, forms a swirl flow in a direction around the central axis.
A process for preparing vilazodone, in particular in the form of hydrochloride, comprising the steps of A) reacting 3-(4-chloro-1-hydroxy-butyl)-1H-indol-5-carbonitrile of formula with 5-piperazin-1-yl-benzofuran-2-carboxylate methyl hydrochloride of formula to give 5-{4-[4-(5-cyano-1H-indol-3-yl)4-hydroxybutyl]-piperazin-1-yl} benzofuran-2-carboxylate methyl of formula B) treating the compound of formula, obtained from step A, with an acidification agent to obtain 5-{4-[ -4-(5-cyano-1H-indol-3-yl)-but-3-enyl]-piperazin-1-yl}-benzofuran-2-carboxylic acid methyl ester of formula C) hydrogenating the compound of formula with H 2 to obtain 5-{4-[4-(5-cyano-1H-indol-3-yl)-butyl]-piperazin-1-yl}-benzofuran-2-carboxylic acid methyl ester of formula D) treating the compound of formula obtained from step C) with ammonia to obtain 5-(4-[4-(5-cyano-1H-indol-3-yl)butyl]piperazin-1-yl)benzo-furan-2-carboxamide of formula, E) optionally treating the compound of formula with hydrochloric acid to obtain vilazodone hydrochloride of formula A) reacting 3-(4-chloro-1-hydroxy-butyl)-1H-indol-5-carbonitrile of formula with 5-piperazin-1-yl-benzofuran-2-carboxylate methyl hydrochloride of formula to give 5-{4-[4-(5-cyano-1H-indol-3-yl)4-hydroxybutyl]-piperazin-1-yl} benzofuran-2-carboxylate methyl of formula B) treating the compound of formula, obtained from step A, with an acidification agent to obtain 5-{4-[ -4-(5-cyano-1H-indol-3-yl)-but-3-enyl]-piperazin-1-yl}-benzofuran-2-carboxylic acid methyl ester of formula C) hydrogenating the compound of formula with H 2 to obtain 5-{4-[4-(5-cyano-1H-indol-3-yl)-butyl]-piperazin-1-yl}-benzofuran-2-carboxylic acid methyl ester of formula D) treating the compound of formula obtained from step C) with ammonia to obtain 5-(4-[4-(5-cyano-1H-indol-3-yl)butyl]piperazin-1-yl)benzo-furan-2-carboxamide of formula, E) optionally treating the compound of formula with hydrochloric acid to obtain vilazodone hydrochloride of formula
Straightening machine for metal structural shapes comprising: - at least one rotation shaft supported by a first bearing and a second bearing associated with respective chocks (18, 19); - a group of straightening discs installed on said shaft between said chocks (18, 19); - one drive side shoulder and one operator side shoulder on each of which one of said chocks (18, 19) is installed; - drive members associated with said drive side shoulder to make said shaft rotate; - a movement unit configured to move said operator side shoulder with respect to said drive side shoulder to allow to replace said group of straightening discs; - a clamping unit installed on said operator side shoulder and configured to selectively constrain said second bearing to said shaft and to the respective chock; characterized in that said clamping unit comprises: - a support tube associated with said shaft and installed on the chock supporting said second bearing; - a mobile tube installed in said support tube and selectively able to be coupled/decoupled with an abutment portion of said shaft to prevent or respectively allow the movement of said operator side shoulder, and - a drive device configured to move said mobile tube with respect to said support tube and to define a condition of constraint or release between said support tube and said shaft. - at least one rotation shaft supported by a first bearing and a second bearing associated with respective chocks (18, 19); - a group of straightening discs installed on said shaft between said chocks (18, 19); - one drive side shoulder and one operator side shoulder on each of which one of said chocks (18, 19) is installed; - drive members associated with said drive side shoulder to make said shaft rotate; - a movement unit configured to move said operator side shoulder with respect to said drive side shoulder to allow to replace said group of straightening discs; - a clamping unit installed on said operator side shoulder and configured to selectively constrain said second bearing to said shaft and to the respective chock; - a support tube associated with said shaft and installed on the chock supporting said second bearing; - a mobile tube installed in said support tube and selectively able to be coupled/decoupled with an abutment portion of said shaft to prevent or respectively allow the movement of said operator side shoulder, and - a drive device configured to move said mobile tube with respect to said support tube and to define a condition of constraint or release between said support tube and said shaft.
A liquid detecting system for an electronic cigarette, the system comprising: a light source (110, 3110); a light detector (120, 3120); a liquid store (130, 3130, 4130) comprising an internal cavity (131, 3131, 4131) for holding liquid; a light guide (140, 3140, 4140) optically coupled to both the light source and the light detector such that light emitted from the light source propagates towards the light detector along an optical path comprising an internal reflection within the light guide at a boundary with the cavity, such that light received by the light detector along said optical path varies depending on contents of the cavity; and a vaporizer, wherein the light guide is located in a position offset from the vaporizer and wherein the light guide is provided with a channel configured to permit flow of vapor out of the vaporizer during use of the electronic cigarette. a light source (110, 3110); a light detector (120, 3120); a liquid store (130, 3130, 4130) comprising an internal cavity (131, 3131, 4131) for holding liquid; a light guide (140, 3140, 4140) optically coupled to both the light source and the light detector such that light emitted from the light source propagates towards the light detector along an optical path comprising an internal reflection within the light guide at a boundary with the cavity, such that light received by the light detector along said optical path varies depending on contents of the cavity; and a vaporizer, wherein the light guide is located in a position offset from the vaporizer and wherein the light guide is provided with a channel configured to permit flow of vapor out of the vaporizer during use of the electronic cigarette.
A system for compensating a power transmission grid, comprising: one or more non-conventional power generating sources connected to said power transmission grid, the one or more non-conventional power generating sources comprising one or more of a wind turbine, a wind farm and a solar power generating station; one or more power transformers connected to at least one or one or more non-conventional power generating sources; at least one series compensation circuit connected to at least a portion of said power transmission grid, said at least one series compensation circuit compensating said power transmission grid; and at least one damping circuit comprising at least one resistor connected in parallel with a series-connected capacitor and inductor, and a bypass switch connected in parallel with the at least one resistor and with the series-connected capacitor and inductor; wherein, said at least one damping circuit is tuned to decrease or eliminate sub synchronous resonance caused by said at least one series compensation circuit on said power transmission grid; and wherein said at least one damping circuit is connected in series with said at least one series compensation circuit. one or more non-conventional power generating sources connected to said power transmission grid, the one or more non-conventional power generating sources comprising one or more of a wind turbine, a wind farm and a solar power generating station; one or more power transformers connected to at least one or one or more non-conventional power generating sources; at least one series compensation circuit connected to at least a portion of said power transmission grid, said at least one series compensation circuit compensating said power transmission grid; and at least one damping circuit comprising at least one resistor connected in parallel with a series-connected capacitor and inductor, and a bypass switch connected in parallel with the at least one resistor and with the series-connected capacitor and inductor; wherein, said at least one damping circuit is tuned to decrease or eliminate sub synchronous resonance caused by said at least one series compensation circuit on said power transmission grid; and wherein said at least one damping circuit is connected in series with said at least one series compensation circuit.
A method of adjusting a transmit power for a device-to-device communication, the method comprising: detecting, by a user equipment (4; 150) which performs the device-to-device communication using the transmit power, that the user equipment (4; 150) enters a coverage area of a radio communication unit (11; 23-25), and selectively decreasing the transmit power of the user equipment (4; 150) for the device-to-device communication in response to detecting that the user equipment (4; 150) enters the coverage area of the radio communication unit (11; 23-25), characterized by transmitting, by the user equipment (4; 150), a report message to an other user equipment using the device-to-device communication to indicate that the user equipment (4; 150) has entered the coverage area of the radio communication unit (11; 23-25). detecting, by a user equipment (4; 150) which performs the device-to-device communication using the transmit power, that the user equipment (4; 150) enters a coverage area of a radio communication unit (11; 23-25), and selectively decreasing the transmit power of the user equipment (4; 150) for the device-to-device communication in response to detecting that the user equipment (4; 150) enters the coverage area of the radio communication unit (11; 23-25), characterized by transmitting, by the user equipment (4; 150), a report message to an other user equipment using the device-to-device communication to indicate that the user equipment (4; 150) has entered the coverage area of the radio communication unit (11; 23-25).