mhurhangee/ep-ind-claims huggingface dataset:
A wireless valve manifold including a plurality of solenoid valves and being configured to perform wireless communication, wherein the wireless valve manifold is configured to be moved by a movable unit, the wireless valve manifold comprising: a battery configured to store electric power, characterized in that the battery is configured to supply the electric power to the plurality of solenoid valves; a power receiving part connected to the battery and configured to charge the battery by wireless power transfer from a feeding station for the wireless valve manifold; and the power receiving part is accommodated inside a housing disposed at an end of a row of the plurality of solenoid valves, and is disposed at a position adjacent to a side surface of the housing opposite to a side surface thereof where the solenoid valves are arranged. wherein the wireless valve manifold is configured to be moved by a movable unit, the wireless valve manifold comprising: a battery configured to store electric power, characterized in that the battery is configured to supply the electric power to the plurality of solenoid valves; a power receiving part connected to the battery and configured to charge the battery by wireless power transfer from a feeding station for the wireless valve manifold; and the power receiving part is accommodated inside a housing disposed at an end of a row of the plurality of solenoid valves, and is disposed at a position adjacent to a side surface of the housing opposite to a side surface thereof where the solenoid valves are arranged. a battery configured to store electric power, characterized in that the battery is configured to supply the electric power to the plurality of solenoid valves; a power receiving part connected to the battery and configured to charge the battery by wireless power transfer from a feeding station for the wireless valve manifold; and the power receiving part is accommodated inside a housing disposed at an end of a row of the plurality of solenoid valves, and is disposed at a position adjacent to a side surface of the housing opposite to a side surface thereof where the solenoid valves are arranged.
A method for electrophoretic separation of cells from a tissue, the method comprising: a) mincing a tissue to prepare fragments of said tissue, optionally pre-incubating said fragments in a digestion solution; b) submerging the optionally pre-digested tissue fragments in an electrophoresis gel material; c) subjecting the electrophoresis gel thus loaded with the optionally pre-digested tissue fragments to electrophoresis conditions, whereby the cells are caused to migrate out of the electrophoresis gel into an aqueous solution surrounding the electrophoresis gel. a) mincing a tissue to prepare fragments of said tissue, optionally pre-incubating said fragments in a digestion solution; b) submerging the optionally pre-digested tissue fragments in an electrophoresis gel material; c) subjecting the electrophoresis gel thus loaded with the optionally pre-digested tissue fragments to electrophoresis conditions, whereby the cells are caused to migrate out of the electrophoresis gel into an aqueous solution surrounding the electrophoresis gel.
A light diffusing solar control film comprising: a multilayer polymeric film including a plurality of alternating polymeric layers of a first polymer material and a second polymer material, at least one of the alternating polymeric layers being birefringent and oriented, wherein the alternating polymeric layers cooperate to reflect at least 50% of infrared light from 850 nm to 1100 nm and to transmit at least 50% of visible light through the multilayer polymeric film, wherein the first polymer material includes polyethylene terephthalate or a copolymer of polyethylene terephthalate (coPET) and the second polymer material includes poly(methyl methacrylate) (PMMA) or a copolymer of poly(methyl methacrylate) (coPMMA); and a light diffusing layer or a light diffusing surface adjacent to the multilayer polymeric film; wherein, the light diffusing solar control film has a haze value of 10% or greater measured according to ASTM D 1003-00; and wherein the light diffusing layer comprises particles dispersed within a binder, wherein the particles and the binder have different refractive indices; and the light diffusing surface comprises a textured surface, wherein the textured surface comprises a plurality of peaks and valleys that are randomly or non-randomly placed. a multilayer polymeric film including a plurality of alternating polymeric layers of a first polymer material and a second polymer material, at least one of the alternating polymeric layers being birefringent and oriented, wherein the alternating polymeric layers cooperate to reflect at least 50% of infrared light from 850 nm to 1100 nm and to transmit at least 50% of visible light through the multilayer polymeric film, wherein the first polymer material includes polyethylene terephthalate or a copolymer of polyethylene terephthalate (coPET) and the second polymer material includes poly(methyl methacrylate) (PMMA) or a copolymer of poly(methyl methacrylate) (coPMMA); and a light diffusing layer or a light diffusing surface adjacent to the multilayer polymeric film; wherein, the light diffusing solar control film has a haze value of 10% or greater measured according to ASTM D 1003-00; and wherein the light diffusing layer comprises particles dispersed within a binder, wherein the particles and the binder have different refractive indices; and the light diffusing surface comprises a textured surface, wherein the textured surface comprises a plurality of peaks and valleys that are randomly or non-randomly placed.
A defrost controller comprising: a housing; processing circuitry positioned within the housing, and configured operate the defrost controller so as to control a defrost cycle for a heat pump based on the configuration of the heat pump; a user interface, comprising a display and controls operatively coupled to the processing circuitry, and a plurality of electrical connectors operatively coupled to the processing circuitry and supported by the housing, wherein the processing circuitry is configured to operate the defrost controller in a demand mode during a first time, wherein the processing circuitry is configured to initiate a defrost mode of the defrost cycle based on a difference between a first measurement of a first sensor and a second measurement of a second sensor satisfying a measurement threshold, wheein the first and second sensor are operatively coupled to the defrost controller; and wherein the processing circuitry is configured to operate the defrost controller in a timing mode during a second time different from the first time, in response to determining that the first sensor is not providing the first measurement or the second sensor is not providing the second measurement. a housing; processing circuitry positioned within the housing, and configured operate the defrost controller so as to control a defrost cycle for a heat pump based on the configuration of the heat pump; a user interface, comprising a display and controls operatively coupled to the processing circuitry, and a plurality of electrical connectors operatively coupled to the processing circuitry and supported by the housing, wherein the processing circuitry is configured to operate the defrost controller in a demand mode during a first time, wherein the processing circuitry is configured to initiate a defrost mode of the defrost cycle based on a difference between a first measurement of a first sensor and a second measurement of a second sensor satisfying a measurement threshold, wheein the first and second sensor are operatively coupled to the defrost controller; and wherein the processing circuitry is configured to operate the defrost controller in a timing mode during a second time different from the first time, in response to determining that the first sensor is not providing the first measurement or the second sensor is not providing the second measurement.
A method for fabricating a dry energy storage device super-fibrillized electrode film comprising: forming a first dry electrode mixture comprising dry carbon particles and dry fibrillizable binder particles; super-fibrillizing the binder in the dry electrode film mixture to form a super-fibrillized matrix within the electrode film mixture, wherein super-fibrillizing the binder comprises: fibrillizing the binder in the dry electrode film mixture to form a first fibrillized matrix; destructuring the first fibrillized matrix to form a powdered mixture of carbon particles and fibrillized binder particles, wherein destructuring is performed by passing the first fibrillized matrix through a strainer, sifter, mesh, riddle, screen, sieve, or a combination thereof; and fibrillizing the powdered mixture to form a second fibrillized matrix, wherein the second fibrillized matrix comprises the super-fibrillized matrix; and calendaring the super-fibrillized electrode film mixture to form a free-standing super-fibrillized electrode film. forming a first dry electrode mixture comprising dry carbon particles and dry fibrillizable binder particles; super-fibrillizing the binder in the dry electrode film mixture to form a super-fibrillized matrix within the electrode film mixture, wherein super-fibrillizing the binder comprises: fibrillizing the binder in the dry electrode film mixture to form a first fibrillized matrix; destructuring the first fibrillized matrix to form a powdered mixture of carbon particles and fibrillized binder particles, wherein destructuring is performed by passing the first fibrillized matrix through a strainer, sifter, mesh, riddle, screen, sieve, or a combination thereof; and fibrillizing the powdered mixture to form a second fibrillized matrix, wherein the second fibrillized matrix comprises the super-fibrillized matrix; and fibrillizing the binder in the dry electrode film mixture to form a first fibrillized matrix; destructuring the first fibrillized matrix to form a powdered mixture of carbon particles and fibrillized binder particles, wherein destructuring is performed by passing the first fibrillized matrix through a strainer, sifter, mesh, riddle, screen, sieve, or a combination thereof; and fibrillizing the powdered mixture to form a second fibrillized matrix, wherein the second fibrillized matrix comprises the super-fibrillized matrix; and calendaring the super-fibrillized electrode film mixture to form a free-standing super-fibrillized electrode film.
A tyre for vehicle wheels, comprising a tread band on which a radially external tread surface and a tread pattern are defined, and in which the following are defined: - a central region of said tread band, extending circumferentially about an equatorial plane of said tyre over a width equal to at least 30% of an effective width of said tread band; - a first and a second shoulder region (6, 7) extending, respectively, on opposite sides of said central region, in an axially outer position of said tread band, each over a width equal to at least 20% of an effective width of said tread band, wherein said tread pattern comprises, on each of said first and second shoulder regions (6, 7) and on said central region, a respective plurality of transverse grooves (20; 30; 40; 50) arranged successively along the circumferential extension of said tread band, and wherein each of said transverse grooves comprises a bottom (23; 33; 43; 53) and a pair of lateral walls (24, 25; 34, 35; 44, 45; 54, 55) facing one another, said lateral walls of each transverse groove extending from said bottom towards said tread surface with a first inclination relative to a radial direction defined in said tyre and being joined, at least in one portion, to said tread surface by a respective chamfer (26, 27; 36, 37; 46, 47; 56, 57) having a second inclination, relative to said radial direction, which is greater than said first inclination, characterised in that a void-to-rubber ratio of said chamfers formed on said plurality of transverse grooves and, if present, on any circumferential groove provided on said tread pattern, is at least equal to 10% of the void-to-rubber ratio of said tread pattern. - a central region of said tread band, extending circumferentially about an equatorial plane of said tyre over a width equal to at least 30% of an effective width of said tread band; - a first and a second shoulder region (6, 7) extending, respectively, on opposite sides of said central region, in an axially outer position of said tread band, each over a width equal to at least 20% of an effective width of said tread band,
Fence structure, comprising a plurality of transverse elements arranged on one or more superimposed horizontal rows and supported by vertical uprights, whereby said uprights are constituted by first tubular metallic sections with substantially rectilinear axis, characterized in that said first metallic sections are made of COR-TEN steel.
Method for the assisted driving of a vehicle, - wherein a setpoint trajectory, to be travelled along in a car park, for the vehicle is determined in accordance with a vehicle type of the vehicle, - wherein the determined setpoint trajectory is transmitted to the vehicle via a communications network, - wherein a digital map of the car park is transmitted to the vehicle via the communication network, - so that the vehicle can travel autonomously in the car park on the basis of the setpoint trajectory and of the digital map, - wherein the vehicle is monitored during its autonomous travel in the car park by means of a vehicle-external monitoring system, characterized in that the monitoring comprises that the actual trajectory of the vehicle is monitored for deviation from the determined setpoint trajectory, wherein in the case of a deviation a stop signal is transmitted to the vehicle via the communication network, so that the vehicle can stop in response to reception of the stop signal. - wherein a setpoint trajectory, to be travelled along in a car park, for the vehicle is determined in accordance with a vehicle type of the vehicle, - wherein the determined setpoint trajectory is transmitted to the vehicle via a communications network, - wherein a digital map of the car park is transmitted to the vehicle via the communication network, - so that the vehicle can travel autonomously in the car park on the basis of the setpoint trajectory and of the digital map, - wherein the vehicle is monitored during its autonomous travel in the car park by means of a vehicle-external monitoring system, characterized in that the monitoring comprises that the actual trajectory of the vehicle is monitored for deviation from the determined setpoint trajectory, wherein in the case of a deviation a stop signal is transmitted to the vehicle via the communication network, so that the vehicle can stop in response to reception of the stop signal.
A print head for an additive manufacturing system, the print head being configured to at least partially coat a continuous reinforcement with a matrix at a location inside of the print head, the print head comprising: a receiving end configured to separately receive the matrix and the continuous reinforcement; a discharging end configured to discharge the continuous reinforcement at least partially coated in the matrix; a guide module located between the receiving end and the discharging end and having at least one contact surface, wherein the at least one contact surface is configured to extend into a straight-line trajectory of the continuous reinforcement to cause the continuous reinforcement to be diverted and wherein the at least one contact surface is configured to generate a pressure differential that disburses the matrix through the continuous reinforcement; and a compactor extending from the discharging end and forming a tip and tool center point for the print head such that the continuous reinforcement is discharged onto the compactor. a receiving end configured to separately receive the matrix and the continuous reinforcement; a discharging end configured to discharge the continuous reinforcement at least partially coated in the matrix; a guide module located between the receiving end and the discharging end and having at least one contact surface, wherein the at least one contact surface is configured to extend into a straight-line trajectory of the continuous reinforcement to cause the continuous reinforcement to be diverted and wherein the at least one contact surface is configured to generate a pressure differential that disburses the matrix through the continuous reinforcement; and a compactor extending from the discharging end and forming a tip and tool center point for the print head such that the continuous reinforcement is discharged onto the compactor.
A silicone rubber composition comprising the following components to: 100 parts by mass of an organopolysiloxane having at least 2 alkenyl groups per molecule, and not having fluoroalkyl groups or having fluoroalkyl groups in a proportion of less than 20 mol% of all silicon atom-bonded organic groups; an organopolysiloxane having at least 2 silicon atom-bonded hydrogen atoms per molecule along with fluoroalkyl groups in a proportion of at least 5 mol% of all silicon atom-bonded organic groups, in an amount that the silicon atom-bonded hydrogen atoms in component exceeds 1 mol with respect to 1 mol of the total of alkenyl groups in component; and a hydrosilylation reaction catalyst in a catalytic amount. 100 parts by mass of an organopolysiloxane having at least 2 alkenyl groups per molecule, and not having fluoroalkyl groups or having fluoroalkyl groups in a proportion of less than 20 mol% of all silicon atom-bonded organic groups; an organopolysiloxane having at least 2 silicon atom-bonded hydrogen atoms per molecule along with fluoroalkyl groups in a proportion of at least 5 mol% of all silicon atom-bonded organic groups, in an amount that the silicon atom-bonded hydrogen atoms in component exceeds 1 mol with respect to 1 mol of the total of alkenyl groups in component; and a hydrosilylation reaction catalyst in a catalytic amount.
Fuel filter with an apparatus for separating water from the fuel, wherein the apparatus comprises at least one sieve cloth element disposed downstream of a filter element for particle filtration of the fuel and disposed in a filter housing, and with a reservoir in which separated water drops are collected and which is disposed underneath the sieve cloth element at the filter housing, and with a means for deviating the fuel between the filter element and the sieve cloth element, characterized in that in the reservoir a temporarily switchable pump and a non-return valve disposed downstream in flow direction thereof, wherein the non-return valve features a predefined opening pressure, wherein by means of the pump the water can be pumped according to need through the non-return valve out of the reservoir by switching the pump depending on a level sensor for detecting the water level in the reservoir.
Method of fabricating a microelectromechanical and/or nanoelectromechanical structure comprising n elements suspended (S1, S2, S3) from a support, n being an integer greater than or equal 2, a cavity made in the support, said cavity having m different depths along a direction orthogonal to a median plane of the structure, m being an integer greater than or equal 2, comprising: - fabrication of a mask on a stack comprising a substrate and a structured layer formed on the substrate, said structured layer comprising the n elements (S1, S2, S3) that will be suspended above the cavity, the mask being formed above the structured layer, said mask comprising openings with different sections, the openings being distributed in at least m zones (A1, A2), each zone (A1, A2) comprising openings with the same section, - anisotropic etching of the substrate through the mask and the structured layer to make the at least m zones at different depths so as to define at least m depths in the substrate, - isotropic etching of the substrate to form said cavity connecting the at least m etched zones, the n elements (S1, S2, S3) then being suspended above the cavity. - fabrication of a mask on a stack comprising a substrate and a structured layer formed on the substrate, said structured layer comprising the n elements (S1, S2, S3) that will be suspended above the cavity, the mask being formed above the structured layer, said mask comprising openings with different sections, the openings being distributed in at least m zones (A1, A2), each zone (A1, A2) comprising openings with the same section, - anisotropic etching of the substrate through the mask and the structured layer to make the at least m zones at different depths so as to define at least m depths in the substrate, - isotropic etching of the substrate to form said cavity connecting the at least m etched zones, the n elements (S1, S2, S3) then being suspended above the cavity.
A multilayer structure comprising: a layer containing a saponified ethylene-vinyl ester copolymer; a layer of a thermoplastic resin other than the saponified ethylene-vinyl ester copolymer provided on at least one side of the saponified ethylene-vinyl ester copolymer-containing layer; and an adhesive resin layer provided between the saponified ethylene-vinyl ester copolymer-containing layer and the thermoplastic resin layer; wherein an interface layer having a thickness of 50 to 400 nm, measured as described in the description, is present in an interface between the saponified ethylene-vinyl ester copolymer-containing layer and the adhesive resin layer, and wherein a maleic anhydride-modified polyolefin of the adhesive resin layer has an absorbance ratio (α/β) of 0.005 to 0.1, measured as described in the description. a layer containing a saponified ethylene-vinyl ester copolymer; a layer of a thermoplastic resin other than the saponified ethylene-vinyl ester copolymer provided on at least one side of the saponified ethylene-vinyl ester copolymer-containing layer; and an adhesive resin layer provided between the saponified ethylene-vinyl ester copolymer-containing layer and the thermoplastic resin layer; wherein an interface layer having a thickness of 50 to 400 nm, measured as described in the description, is present in an interface between the saponified ethylene-vinyl ester copolymer-containing layer and the adhesive resin layer, and wherein a maleic anhydride-modified polyolefin of the adhesive resin layer has an absorbance ratio (α/β) of 0.005 to 0.1, measured as described in the description.