mhurhangee/ep-ind-claims huggingface dataset:
Magnetic device (1, 11, 21, 101) intended for capturing wear metal particles suspended in a lubrication fluid, said magnetic device (1, 11, 21, 101) being intended for being inserted in a rectilinear insertion direction of said magnetic device (1, 11, 21, 101) in a wall of a casing at a through orifice allowing an internal space of said casing containing said lubrication fluid to be placed in communication with a space external to said casing, said magnetic device (1, 11, 21, 101) having a longitudinal axis X, said longitudinal axis X being intended for corresponding coaxially with said insertion direction of said magnetic device (1, 11, 21, 101) in said casing, said magnetic device (1, 11, 21, 101) comprising: • at least one permanent magnet (10, 10', 20, 30, 30', 40, 50, 60, 70) able to attract said metal particles, said at least one permanent magnet comprising at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73) of polarities different from each other, and • at least one component (14, 14', 24, 34, 44, 64, 74, 84, 94, 104) for detecting the presence of said metal particles attracted by said at least one permanent magnet (10, 10', 20, 30, 30', 40, 50, 60, 70), said at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73) respectively extending mainly along said longitudinal axis X and said at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73) respectively each having a longitudinal dimension L parallel to said longitudinal axis X of between 1 and 50 mm (millimetres), and preferably between 5 and 30 mm (millimetres), characterised in that said at least one component (14, 14', 24, 34, 44, 64) for detecting the presence of said metal particles is arranged totally facing one of said at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73). • at least one permanent magnet (10, 10', 20, 30, 30', 40, 50, 60, 70) able to attract said metal particles, said at least one permanent magnet comprising at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73) of polarities different from each other, and • at least one component (14, 14', 24, 34, 44, 64, 74, 84, 94, 104) for detecting the presence of said metal particles attracted by said at least one permanent magnet (10, 10', 20, 30, 30', 40, 50, 60, 70), said at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73) respectively extending mainly along said longitudinal axis X and said at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73) respectively each having a longitudinal dimension L parallel to said longitudinal axis X of between 1 and 50 mm (millimetres), and preferably between 5 and 30 mm (millimetres), characterised in that said at least one component (14, 14', 24, 34, 44, 64) for detecting the presence of said metal particles is arranged totally facing one of said at least two polar sides (12, 22, 32, 42, 52, 62, 72 and 13, 23, 33, 43, 53, 63, 73).
A composition for optical materials, which comprises an episulfide compound (a), a thiol compound (b), an isocyanate compound (c) and a benzyl halide compound (d) represented by formula: wherein: X represents a halogen; L is selected from the group consisting of a hydrogen atom, a methyl group, a halogen, a mercaptomethyl group and an isocyanate methyl group; when there are a plurality of Xs and a plurality of Ls, each of said Xs and Ls is selected independently; and n is 2; wherein the thiol compound (b) is selected from the group consisting of m-xylylenedithiol, p-xylylenedithiol and o-xylylenedithiol, or the isocyanate compound (c) is selected from the group consisting of o-xylylene diisocyanate, m-xylylene diisocyanate and p-xylylene diisocyanate. wherein: X represents a halogen; L is selected from the group consisting of a hydrogen atom, a methyl group, a halogen, a mercaptomethyl group and an isocyanate methyl group; when there are a plurality of Xs and a plurality of Ls, each of said Xs and Ls is selected independently; and n is 2; wherein the thiol compound (b) is selected from the group consisting of m-xylylenedithiol, p-xylylenedithiol and o-xylylenedithiol, or the isocyanate compound (c) is selected from the group consisting of o-xylylene diisocyanate, m-xylylene diisocyanate and p-xylylene diisocyanate.
A display device, comprising a processor, a memory, a display, a transceiver, and an input device that are connected by using a bus, wherein the processor is configured to enable the device to join a device group, wherein the device group comprises N devices, any two devices in the N devices can communicate with each other, and N≥2; the input device is configured to receive a first selection operation entered by a user, wherein the first selection operation is used to trigger the device to send a first screen projection request to another device in the device group, wherein the first screen projection request is used to request to project a display interface of the another device onto a display screen of the device; the transceiver is configured to: before the another device enters a sleeping state, receive a probe message sent by the another device, wherein the probe message is used to probe whether a device in the device group has a screen projection requirement; and send a probe response to the another device to keep a service process used to receive the first screen projection request after the another device enters the sleeping state; send the first screen projection request to the another device; and receive display data in the display interface of the another device that is sent by the another device; and the display is configured to display the display interface of the another device on the display screen of the device based on the display data.
A method for partitioning, by an eNodeB (110, 130) serving a cell, user equipments (170, 180) within the cell between multiple radio access technologies integrated within the cell, the method comprising: scheduling transmissions, for a measurement period, over at least one of the multiple radio access technologies; estimating, based on the transmissions, an on-time throughput for the user equipments (170, 180) within the cell, the on-time throughput being a measure of an amount of data that arrives at a destination before a delay threshold has been reached and at a bit-rate greater than or equal to a target bit-rate; and based on the estimated on-time throughput for the user equipments (170, 180) within the cell, assigning user equipments (170, 180) within the cell to an air interface of one of the multiple radio access technologies of the cell to maximize the on-time throughput. scheduling transmissions, for a measurement period, over at least one of the multiple radio access technologies; estimating, based on the transmissions, an on-time throughput for the user equipments (170, 180) within the cell, the on-time throughput being a measure of an amount of data that arrives at a destination before a delay threshold has been reached and at a bit-rate greater than or equal to a target bit-rate; and based on the estimated on-time throughput for the user equipments (170, 180) within the cell, assigning user equipments (170, 180) within the cell to an air interface of one of the multiple radio access technologies of the cell to maximize the on-time throughput.
Production method for a rotor for an electric motor, comprising the following steps: - inserting a magnetizable powder into a hollow rotor sleeve, wherein the powder contains magnetizable particles which are coated with an electrically insulating material (b); - pressing the powder into the rotor sleeve, wherein a magnet core, which is pressed against the inner walls of the rotor sleeve, is produced by pressing the magnetizable powder; - and magnetizing the pressed-in powder; - wherein the rotor sleeve is heated before the pressing-in operation, and wherein, when the rotor sleeve is cooled down, the radius of the rotor sleeve shrinks, as a result of which the contact pressure of the magnet core is increased. - inserting a magnetizable powder into a hollow rotor sleeve, wherein the powder contains magnetizable particles which are coated with an electrically insulating material (b); - pressing the powder into the rotor sleeve, wherein a magnet core, which is pressed against the inner walls of the rotor sleeve, is produced by pressing the magnetizable powder; - and magnetizing the pressed-in powder; - wherein the rotor sleeve is heated before the pressing-in operation, and wherein, when the rotor sleeve is cooled down, the radius of the rotor sleeve shrinks, as a result of which the contact pressure of the magnet core is increased.
Cash dispenser, ATM and the like comprising: a safe for banknotes, an outer face, a dispensing duct for said banknotes, comprising a dispensing mouth opening on said outer face, an inner opening facing the inside of said safe, an elongated body defining a passage between said dispensing mouth and said inner opening, a conveying device, movable along said elongated body and suitable to convey said banknotes, characterised by comprising sensor means of external stresses acting on said conveying device and pressing from the outside towards the inside of said cash dispenser, ATM and the like or in an opposite direction which would permit the introduction of explosive material inside said cash dispenser, ATM and the like, and a safety system, operatively connected to said sensor means and comprising blocking elements, suitable to block said conveying device and to prevent at least partially its movement.
Levodopa, carbidopa and entacapone for use in a method for the treatment of Parkinson's disease by simultaneous or sequential oral administration to a patient of (i) levodopa in an amount ranging from 75 mg to 175 mg, (ii) carbidopa in an amount ranging from 65 mg to 105 mg, and (iii) entacapone in an amount ranging from 100 mg to 200 mg, wherein the proportion of entacapone to carbidopa ranges from 0.95:1.0 to 3.08:1.0 by weight. (i) levodopa in an amount ranging from 75 mg to 175 mg, (ii) carbidopa in an amount ranging from 65 mg to 105 mg, and (iii) entacapone in an amount ranging from 100 mg to 200 mg,
Container for the packaging of a liquid to be dispensed drop by drop, comprising - a reservoir with an elastically deformable wall that is reversible by the admission of air inside the container in order to deliver the liquid under the effect of pressure exerted against this wall and to allow spontaneous return of the container to its initial conformation after delivery of a dose of liquid, - a base on which the container can stand in a position of rest between two deliveries of liquid; - a dispensing head comprising a hollowed-out body that is provided with a nozzle for delivering liquid and an anti-bacterial filtering membrane that is disposed upstream of the nozzle, - the container being configured such that when it rests on its base the dispensing head is uppermost; and the container being characterized in that it comprises a hydrophobic microporous pad that is placed downstream of the reservoir inside the body, said body being assembled irreversibly inside a neck of the container, said filtering membrane being disposed between the nozzle and the pad, the membrane being partially hydrophilic for allowing the liquid to pass through it under the effect of the overpressure created in the container by pressure of its wall, and partially hydrophobic to allow the passage of air through it under the effect of the negative pressure created in the container by releasing the pressure exerted on its wall, and in that it comprises an intermediate chamber for regularising the delivery of the liquid, which is provided interposed between the microporous pad and the membrane, said intermediate chamber extending over the entire surface of the membrane and at a sufficient axial distance to accommodate the liquid that has not yet passed through the membrane when pressure ceases to be exerted on the wall of the container and thus to assist the drying of the membrane between two deliveries of liquid, such that any residue of liquid, which, having not been expelled does not succeed in wetting the membrane by capillarity when the container is placed in its position of rest standing on its base. - a reservoir with an elastically deformable wall that is reversible by the admission of air inside the container in order to deliver the liquid under the effect of pressure exerted against this wall and to allow spontaneous return of the container to its initial conformation after delivery of a dose of liquid, - a base on which the container can stand in a position of rest between two deliveries of liquid; - a dispensing head comprising a hollowed-out body that is provided with a nozzle for delivering liquid and an anti-bacterial filtering membrane that is disposed upstream of the nozzle, - the container being configured such that when it rests on its base the dispensing head is uppermost; and
An ammonia decomposition catalyst, comprising: cobalt; one or more rare earth elements selected from cerium, yttrium and lanthanum; one or more alkaline-earth metal elements selected from barium and strontium; zirconium; and one or more calcium compounds selected from calcium carbonate, calcium oxide and calcium hydroxide; wherein the ammonia decomposition catalyst comprises the cobalt, the rare earth element, the alkaline-earth metal element and the zirconium as metals or oxides. cobalt; one or more rare earth elements selected from cerium, yttrium and lanthanum; one or more alkaline-earth metal elements selected from barium and strontium; zirconium; and one or more calcium compounds selected from calcium carbonate, calcium oxide and calcium hydroxide; wherein the ammonia decomposition catalyst comprises the cobalt, the rare earth element, the alkaline-earth metal element and the zirconium as metals or oxides.
A fluid control valve comprising: a body including an input port and an output port; and a valve element configured to abut against a valve seat of the body, wherein a first diaphragm and a second diaphragm are disposed between the valve element and the body, a diaphragm chamber is formed between the first diaphragm and the second diaphragm, the first diaphragm separates a valve chamber from the diaphragm chamber, the second diaphragm separates the diaphragm chamber from a back pressure chamber, the diaphragm chamber communicates with the output port, the valve chamber and the back pressure chamber communicate with the input port, characterized in that a difference between an effective pressure receiving area of the first diaphragm and an effective pressure receiving area of the second diaphragm is equivalent to a passage area in the valve seat, and the effective receiving area of the first diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the first diaphragm and the effective receiving area of the second diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the second diaphragm. a body including an input port and an output port; and a valve element configured to abut against a valve seat of the body, wherein a first diaphragm and a second diaphragm are disposed between the valve element and the body, a diaphragm chamber is formed between the first diaphragm and the second diaphragm, the first diaphragm separates a valve chamber from the diaphragm chamber, the second diaphragm separates the diaphragm chamber from a back pressure chamber, the diaphragm chamber communicates with the output port, the valve chamber and the back pressure chamber communicate with the input port, characterized in that a difference between an effective pressure receiving area of the first diaphragm and an effective pressure receiving area of the second diaphragm is equivalent to a passage area in the valve seat, and the effective receiving area of the first diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the first diaphragm and the effective receiving area of the second diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the second diaphragm.
A computing device including: a processor; a communication interface; and a storage device; wherein the computing device is configured to (i) request map tiles as needed from a tile serving system, (ii) receive map tiles associated with a requested map image from the tile serving system, and (iii) combine the map tiles that form the requested map image, and display the map image; Characterised In That: receive map tiles includes use of locally available uni-color map tiles to avoid requesting uni-colored tiles from the tile serving system. a processor; a communication interface; and a storage device; wherein the computing device is configured to (i) request map tiles as needed from a tile serving system, (ii) receive map tiles associated with a requested map image from the tile serving system, and (iii) combine the map tiles that form the requested map image, and display the map image; Characterised In That: receive map tiles includes use of locally available uni-color map tiles to avoid requesting uni-colored tiles from the tile serving system. receive map tiles includes use of locally available uni-color map tiles to avoid requesting uni-colored tiles from the tile serving system.
A computer-implemented method for detecting errors in an in-cylinder pressure sensor (114,126), said method implemented by a pressure estimation computing device including a processor and a memory device coupled to the processor, said method comprising: receiving a first pressure measurement from a first sensor (114,126) associated with a gas cylinder; receiving a design schema describing an intake manifold and a plurality of gas cylinders associated with the intake manifold, the intake manifold included within the gas engine; segmenting the design schema into a plurality of segments; defining a fluid dynamics model associated with each of the plurality of segments; defining a plurality of interconnected 2-port elements based on the plurality of fluid dynamics models, wherein the plurality of interconnected 2-port elements form a network along the gas engine, wherein the network includes points of intersection between interconnected 2-port elements with zero net flow and equal pressure; estimating a second pressure measurement for the gas cylinder based on the plurality of interconnected 2-port elements; comparing the first pressure measurement to the second pressure measurement; and determining that the first sensor (114,126) is in an anomalous state based on the comparison of the first pressure measurement to the second pressure measurement. receiving a first pressure measurement from a first sensor (114,126) associated with a gas cylinder; receiving a design schema describing an intake manifold and a plurality of gas cylinders associated with the intake manifold, the intake manifold included within the gas engine; segmenting the design schema into a plurality of segments; defining a fluid dynamics model associated with each of the plurality of segments; defining a plurality of interconnected 2-port elements based on the plurality of fluid dynamics models, wherein the plurality of interconnected 2-port elements form a network along the gas engine, wherein the network includes points of intersection between interconnected 2-port elements with zero net flow and equal pressure; estimating a second pressure measurement for the gas cylinder based on the plurality of interconnected 2-port elements; comparing the first pressure measurement to the second pressure measurement; and determining that the first sensor (114,126) is in an anomalous state based on the comparison of the first pressure measurement to the second pressure measurement.
Handling device for handling a sealing device for sealing a receptacle, the sealing device comprising: - a base structured to be mounted to the receptacle, the base comprising a sleeve forming a discharge conduit; - a valve including a valve housing arranged on the base, wherein when the base is mounted to the receptacle, the receptacle is located upstream of the valve and the discharge direction of the receptacle defines a downstream direction, opposite an upstream direction, wherein the valve further comprises a discharge pipe at least partially protruding in the sleeve of the base and being axially movable therein in the upstream and downstream direction between a storage position wherein the valve is closed and one more utility positions wherein the valve is closed or opened; wherein the handling device is configured to position the discharge pipe of the valve of the sealing device into a storage position, the handling device comprising: - a support (150,152) to be arranged at the downstream side of the base and configured to support handling device; - a pushing device to be arranged at the upstream side of the base and configured to apply a first pushing force on the base and/or on the valve housing so to urge at least the base and the valve against the support (150,152) and to apply a second pushing force on the discharge pipe of the valve to urge the discharge pipe to its storage position, wherein the pushing device is configured to apply the first pushingforce on the base independently from applying the second pushing force on the discharge pipe to displace the discharge pipe independently from the displacement of the base to the storage position. - a base structured to be mounted to the receptacle, the base comprising a sleeve forming a discharge conduit; - a valve including a valve housing arranged on the base, wherein when the base is mounted to the receptacle, the receptacle is located upstream of the valve and the discharge direction of the receptacle defines a downstream direction, opposite an upstream direction, wherein the valve further comprises a discharge pipe at least partially protruding in the sleeve of the base and being axially movable therein in the upstream and downstream direction between a storage position wherein the valve is closed and one more utility positions wherein the valve is closed or opened; - a support (150,152) to be arranged at the downstream side of the base and configured to support handling device; - a pushing device to be arranged at the upstream side of the base and configured to apply a first pushing force on the base and/or on the valve housing so to urge at least the base and the valve against the support (150,152) and to apply a second pushing force on the discharge pipe of the valve to urge the discharge pipe to its storage position,
An operative instrument comprising: forceps having a treating section for treating an anatomy held at an extremity thereof and including a heat-generating body for generating heat to be provided to the anatomy for coagulating and incising same, and a power supply unit that provides electrical energy to the heat-generating body, characterized in that the power supply unit is adapted to supply substantially constant electric power to the heat-generating body of the forceps to increase the temperature of the heat-generating body to a predetermined temperature, wherein the power supply unit is adapted to stop energization of the heat-generating body when a change of voltage or current supplied, or a value of resistance of the heat-generating body with time exceeds a predetermined value. forceps having a treating section for treating an anatomy held at an extremity thereof and including a heat-generating body for generating heat to be provided to the anatomy for coagulating and incising same, and a power supply unit that provides electrical energy to the heat-generating body, characterized in that the power supply unit is adapted to supply substantially constant electric power to the heat-generating body of the forceps to increase the temperature of the heat-generating body to a predetermined temperature, wherein the power supply unit is adapted to stop energization of the heat-generating body when a change of voltage or current supplied, or a value of resistance of the heat-generating body with time exceeds a predetermined value.