mhurhangee/ep-ind-claims huggingface dataset:
A pressure sensor, comprising: a housing defining a fluid passageway, wherein the fluid passageway has a first end and a second end; a diaphragm having a first side and a second side, the first side of the diaphragm mounted adjacent to the second end of the fluid passageway of the housing; a carrier having a first side surface and a second side surface, and a first opening extending between the first side and the second side surface of the carrier, wherein the carrier is attached to the second side of the diaphragm, wherein the carrier further comprises one or more side walls that extend from the first side surface; a pressure sensing die mounted adjacent to the second side surface of the carrier, the pressure sensing die including a pressure sensing diaphragm that is in fluid communication with the first opening of the carrier; a transfer fluid cavity formed, at least in part, by the side walls 36, the second side of the diaphragm, the first side surface of the carrier and the pressure sensing diaphragm of the pressure sensing die, the transfer fluid cavity having a height dimension defined as a distance of between the second side of the diaphragm and the first side surface of the carrier, and a width dimension that is substantially perpendicular to the height dimension and is defined by a distance of the pressure fluid between each of the side walls of the carrier; a pressure transfer fluid disposed within the transfer fluid cavity; and wherein an aspect ratio of the height dimension to the width dimension of the transfer fluid cavity is less than 1:10. a housing defining a fluid passageway, wherein the fluid passageway has a first end and a second end; a diaphragm having a first side and a second side, the first side of the diaphragm mounted adjacent to the second end of the fluid passageway of the housing; a carrier having a first side surface and a second side surface, and a first opening extending between the first side and the second side surface of the carrier, wherein the carrier is attached to the second side of the diaphragm, wherein the carrier further comprises one or more side walls that extend from the first side surface; a pressure sensing die mounted adjacent to the second side surface of the carrier, the pressure sensing die including a pressure sensing diaphragm that is in fluid communication with the first opening of the carrier; a transfer fluid cavity formed, at least in part, by the side walls 36, the second side of the diaphragm, the first side surface of the carrier and the pressure sensing diaphragm of the pressure sensing die, the transfer fluid cavity having a height dimension defined as a distance of between the second side of the diaphragm and the first side surface of the carrier, and a width dimension that is substantially perpendicular to the height dimension and is defined by a distance of the pressure fluid between each of the side walls of the carrier; a pressure transfer fluid disposed within the transfer fluid cavity; and wherein an aspect ratio of the height dimension to the width dimension of the transfer fluid cavity is less than 1:10.
A method of making a medical implant made from a thermoform of poly-4-hydroxybutyrate homopolymer by thermoforming, comprising heating a poly-4-hydroxybutyrate film or sheet to a temperature between 51.9 °C and 150 °C, molding the film or sheet by pneumatic or mechanical means or combinations thereof to make the thermoform, wherein the poly-4-hydroxybutyrate homopolymer has a glass transition temperature between -45°C and -65°C.
A method for producing a steel material for line pipes, the steel material having a tensile strength of 570 MPa or more, a compressive strength of 440 MPa or more, and a thickness of 30 mm or more, the method comprising heating a steel having a composition containing, by mass, C: 0.030% to 0.10%, Si: 0.01% to 0.20%, Mn: 1.0% to 2.0%, Nb: 0.005% to 0.050%, Ti: 0.005% to 0.025%, and Al: 0.08% or less, the composition further containing one or more elements selected from, by mass, Cu: 0.5% or less, Ni: 1.0% or less, Cr: 1.0% or less, Mo: 0.5% or less, and V: 0.1% or less, wherein a Ceq value represented by Formula is 0.350 or more, a Pcm value represented by Formula is 0.20 or less, and an Ar 3 transformation point represented by Formula is 750°C or less, with the balance being Fe and inevitable impurities, to a temperature of 1000°C to 1200°C; performing hot rolling such that a cumulative rolling reduction ratio in a non-recrystallization temperature range is 60% or more, such that a cumulative rolling reduction ratio in a temperature range of (a rolling finish temperature + 20°C) or less is 50% or more, and such that a rolling finish temperature is the Ar 3 transformation point or more and 790°C or less; and subsequently performing accelerated cooling from a cooling start temperature of the Ar 3 transformation point or more, at a cooling rate of 10 °C/s or more, until the temperature of a surface of a steel plate reaches 300°C to 500°C, Ceq = C + Mn / 6 + Cu + Ni / 15 + Cr + Mo + V / 5 Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 Ar 3 ° C = 910 − 310 C − 80 Mn − 20 Cu − 15 Cr − 55 Ni − 80 Mo wherein, in Formulae to, the symbol of each element represents the content (mass%) of the element and is zero when the composition does not contain the element. C: 0.030% to 0.10%, Si: 0.01% to 0.20%, Mn: 1.0% to 2.0%, Nb: 0.005% to 0.050%, Ti: 0.005% to 0.025%, and Al: 0.08% or less, the composition further containing one or more elements selected from, by mass, Cu: 0.5% or less, Ni: 1.0% or less, Cr: 1.0% or less, Mo: 0.5% or less, and V: 0.1% or less,
A method of constructing a hot-blast stove, the hot-blast stove comprising: a furnace body comprising a furnace shell and a lining formed inside the furnace shell, the lining comprising: a castable refractory installed inside the furnace shell; heat-insulating bricks installed inside the castable refractory; and fire bricks installed inside the heat-insulating bricks, the method comprising: installing the heat-insulating bricks and the fire bricks inside the furnace shell at an interval from the furnace shell; subsequently injecting the castable refractory between the furnace shell and the heat-insulating bricks; sharing a force of the castable refractory in a radially inward direction of the furnace body, which is caused by a head pressure of the castable refractory, by the heat-insulating bricks and the fire bricks to prevent shifting or breakage of the heat-insulating bricks; and solidifying the castable refractory; wherein the lining comprises an expansion clearance between the heat-insulating bricks and the fire bricks, between the heat-insulating bricks, or between the fire bricks, and the expansion clearance comprises a spacer that is interposed therein, has a predetermined strength at normal temperature, and disappears at an internal temperature of the hot-blast stove at working, the expansion clearance comprises a filler that is soft or amorphous at normal temperature and is interposed therein together with the spacer. installing the heat-insulating bricks and the fire bricks inside the furnace shell at an interval from the furnace shell; subsequently injecting the castable refractory between the furnace shell and the heat-insulating bricks; sharing a force of the castable refractory in a radially inward direction of the furnace body, which is caused by a head pressure of the castable refractory, by the heat-insulating bricks and the fire bricks to prevent shifting or breakage of the heat-insulating bricks; and solidifying the castable refractory; wherein the lining comprises an expansion clearance between the heat-insulating bricks and the fire bricks, between the heat-insulating bricks, or between the fire bricks, and the expansion clearance comprises a spacer that is interposed therein, has a predetermined strength at normal temperature, and disappears at an internal temperature of the hot-blast stove at working, the expansion clearance comprises a filler that is soft or amorphous at normal temperature and is interposed therein together with the spacer.
Method for preparing an electronic device, the method comprising the steps: a) providing, in a vaporization source, a silsesquioxane compound represented by the general formula Si x R x 0 1.5x, wherein R is a terminal hydrocarbyl group covalently bonded to Si and the terminal hydrocarbyl group, which is substituted with at least one halogen atom and which may in addition comprise at least one heteroatom selected from the group consisting of B, Si, N, P, O and S; and x is selected from 6, 8, 10, 12, 14 and 16; and the silsesquioxane compound is substantially free of partially condensed silsesquioxanes meaning that the silsesquioxane compound does not comprise partially condensed silsesquioxanes in amounts measurable by 1H-NMR; b) vaporizing the silsesquioxane compound by applying thermal energy thereto; c) depositing the vaporized silsesquioxane compound on a substrate. a) providing, in a vaporization source, a silsesquioxane compound represented by the general formula Si x R x 0 1.5x, wherein R is a terminal hydrocarbyl group covalently bonded to Si and the terminal hydrocarbyl group, which is substituted with at least one halogen atom and which may in addition comprise at least one heteroatom selected from the group consisting of B, Si, N, P, O and S; and x is selected from 6, 8, 10, 12, 14 and 16; and the silsesquioxane compound is substantially free of partially condensed silsesquioxanes meaning that the silsesquioxane compound does not comprise partially condensed silsesquioxanes in amounts measurable by 1H-NMR; R is a terminal hydrocarbyl group covalently bonded to Si and the terminal hydrocarbyl group, which is substituted with at least one halogen atom and which may in addition comprise at least one heteroatom selected from the group consisting of B, Si, N, P, O and S; and x is selected from 6, 8, 10, 12, 14 and 16; and the silsesquioxane compound is substantially free of partially condensed silsesquioxanes meaning that the silsesquioxane compound does not comprise partially condensed silsesquioxanes in amounts measurable by 1H-NMR; b) vaporizing the silsesquioxane compound by applying thermal energy thereto; c) depositing the vaporized silsesquioxane compound on a substrate.
An electronic device comprising: a connector socket configured to receive a first connector plug having a first configuration of contact areas and a second connector plug having a second configuration of contact areas wherein at least one of the contact areas within the first and second configuration is a ground contact area; and a switching system connected to the connector socket, wherein the switching system is configured to detect which of the contact areas within the first or second configuration is the ground contact area when either the first connector plug or the second connector plug is respectively received in the socket, wherein the switching system is configured to automatically connect a ground of the electronic device to the detected ground contact area and wherein the switching system is configured to output an electrical configuration pattern when the first connector plug is received in the connector socket and the switching system is configured to output the same electrical configuration pattern when the second connector plug is received in the connector socket. a connector socket configured to receive a first connector plug having a first configuration of contact areas and a second connector plug having a second configuration of contact areas wherein at least one of the contact areas within the first and second configuration is a ground contact area; and a switching system connected to the connector socket, wherein the switching system is configured to detect which of the contact areas within the first or second configuration is the ground contact area when either the first connector plug or the second connector plug is respectively received in the socket, wherein the switching system is configured to automatically connect a ground of the electronic device to the detected ground contact area and wherein the switching system is configured to output an electrical configuration pattern when the first connector plug is received in the connector socket and the switching system is configured to output the same electrical configuration pattern when the second connector plug is received in the connector socket.
Administration device comprising - a hermetic container closed by a cap, containing a radiopharmaceutical medicament, and provided with a protective shield made of a radiopaque material, and - a support provided with attachment means, the container being removably attached to the support in a position allowing access to said cap, characterized in that the support comprises a baseplate provided with an opening allowing access to said cap, a cover and rods connecting the baseplate and the cover, the container extending between the cover and the baseplate. - a hermetic container closed by a cap, containing a radiopharmaceutical medicament, and provided with a protective shield made of a radiopaque material, and - a support provided with attachment means, the container being removably attached to the support in a position allowing access to said cap,
Control valve arrangement for an injector, having a sleeve-shaped armature closing body which is arranged in axially displaceable fashion on an armature pin and the first face end of which is supported on a static holding plate and the second face end of which is, during the operation of the injector, acted on with high pressure in phases, characterized in that a fluid space is formed in the region between the first face end of the armature pin and the holding plate, wherein the armature pin has a fluid-conducting passage duct which connects the first face end to the second face end.
An external personal care composition comprising tin fluoride or tin chloride and a tripolyphosphate salt, wherein the composition comprises tin fluoride or tin chloride and the tripolyphosphate salt in a molar ratio of 3P: 1Sn to 5P: 1Sn.
Camshaft adjuster, comprising a swivel adjuster and a hydraulic valve which loads the swivel adjuster hydraulically, and it being possible for the hydraulic valve to be connected fixedly to a camshaft so as to rotate with it in order to rotate the camshaft, and the swivel adjuster having a stator and a rotor which is configured coaxially with the stator, it being possible for the rotor to be rotated relative to the stator, and the stator being connected fixedly to a drive gear of the camshaft so as to rotate with it, and the hydraulic valve being configured so as to protrude at least partially into the swivel adjuster, and an adapter being provided for the relative axial positioning of the rotor and the stator, and the adapter having an annular collar at its end which is configured so as to face the rotor, and the adapter being configured for loose mounting in the swivel adjuster, and a fixed connection of the adapter to the swivel adjuster being brought about after the mounting of the camshaft on the hydraulic valve, the rotor and/or the drive gear being arranged in the radial direction on the annular collar of the adapter, and a radial spacing being configured between the collar and the drive gear.
Pressure control valve, in particular for crank case ventilation in motor vehicle engines, comprising a housing having an inlet and an outlet, a valve opening arranged inside the housing, a control element opening and closing the valve opening depending on a pressure difference, and a hollow cylinder arranged in the valve opening, the cylinder being displaceable in the longitudinal direction (34, 36) to open and/or close the valve, characterized in that an inlet opening of the hollow cylinder is situated opposite an outlet opening of the hollow cylinder, wherein the inlet opening, the outlet opening and the valve opening are coaxial with respect to each other, so that in the open state of the valve, the hollow cylinder can be flowed through in its longitudinal direction towards the outlet.
A carbon dioxide contaminant monitoring system, comprising: a contaminant sensor module comprising an interferometer configured to create an interference pattern based on the presence of contaminants; a source of carbon dioxide; a delivery system for supplying the carbon dioxide to the interferometer, the delivery system comprising a carbon dioxide intake port connected to the source of carbon dioxide, a filtered path in communication with the carbon dioxide intake port which comprises a contaminant filter configured to remove contaminant from carbon dioxide passing there through, an unfiltered path in communication with the carbon dioxide intake port which bypasses the contaminant filter, a temperature sensor and a temperature controlling mechanism in communication with the filtered path and the unfiltered path to regulate temperatures of the carbon dioxide passing through the filtered path and the unfiltered path, and a selector valve in communication with the filtered path and the unfiltered path which selects either the filtered path or the unfiltered path to be in fluid communication with the interferometer; and a gas controller module to control the flow of carbon dioxide gas from the delivery system. a contaminant sensor module comprising an interferometer configured to create an interference pattern based on the presence of contaminants; a source of carbon dioxide; a delivery system for supplying the carbon dioxide to the interferometer, the delivery system comprising a carbon dioxide intake port connected to the source of carbon dioxide, a filtered path in communication with the carbon dioxide intake port which comprises a contaminant filter configured to remove contaminant from carbon dioxide passing there through, an unfiltered path in communication with the carbon dioxide intake port which bypasses the contaminant filter, a temperature sensor and a temperature controlling mechanism in communication with the filtered path and the unfiltered path to regulate temperatures of the carbon dioxide passing through the filtered path and the unfiltered path, and a selector valve in communication with the filtered path and the unfiltered path which selects either the filtered path or the unfiltered path to be in fluid communication with the interferometer; and a carbon dioxide intake port connected to the source of carbon dioxide, a filtered path in communication with the carbon dioxide intake port which comprises a contaminant filter configured to remove contaminant from carbon dioxide passing there through, an unfiltered path in communication with the carbon dioxide intake port which bypasses the contaminant filter, a temperature sensor and a temperature controlling mechanism in communication with the filtered path and the unfiltered path to regulate temperatures of the carbon dioxide passing through the filtered path and the unfiltered path, and a selector valve in communication with the filtered path and the unfiltered path which selects either the filtered path or the unfiltered path to be in fluid communication with the interferometer; and a gas controller module to control the flow of carbon dioxide gas from the delivery system.
A method of holding a band saw blade by means of a band saw blade guide device of a band saw machine, comprising the steps of: in the process of holding a non-toothed section of the band saw blade between a fixed insertion block and a movable insertion block included in the band saw blade guide device, moving the movable insertion block while holding a return allowing unit (33,59) in a returnable state, the return allowing unit (33,59) including a pressing force transmitting member (17,39) and a passive member (35,61), the pressing force transmitting member (17,39) being pressed and moved by an actuator configured to move the movable insertion block toward the fixed insertion block, the passive member (35,61) being passively moved by the movement of the pressing force transmitting member (17,39) and being movable relative to the pressing force transmitting member (17,39); firmly holding the band saw blade between the fixed insertion block and the movable insertion block; fixing any one of the pressing force transmitting member (17,39) and the passive member (61,35) of the return allowing unit (33,59) in an immovable state by use of a mechanical fixing unit (45,45A); and returning the movable insertion block by a previously-set amount of return by a return allowing action of the return allowing unit (33,59) in the fixed state, and thereby keeping a clearance between the fixed insertion block and the movable insertion block at an appropriate clearance corresponding to a thickness of the band saw blade. in the process of holding a non-toothed section of the band saw blade between a fixed insertion block and a movable insertion block included in the band saw blade guide device, moving the movable insertion block while holding a return allowing unit (33,59) in a returnable state, the return allowing unit (33,59) including a pressing force transmitting member (17,39) and a passive member (35,61), the pressing force transmitting member (17,39) being pressed and moved by an actuator configured to move the movable insertion block toward the fixed insertion block, the passive member (35,61) being passively moved by the movement of the pressing force transmitting member (17,39) and being movable relative to the pressing force transmitting member (17,39); firmly holding the band saw blade between the fixed insertion block and the movable insertion block; fixing any one of the pressing force transmitting member (17,39) and the passive member (61,35) of the return allowing unit (33,59) in an immovable state by use of a mechanical fixing unit (45,45A); and returning the movable insertion block by a previously-set amount of return by a return allowing action of the return allowing unit (33,59) in the fixed state, and thereby keeping a clearance between the fixed insertion block and the movable insertion block at an appropriate clearance corresponding to a thickness of the band saw blade.
A glazed door comprising an insulating layer and a glazing unit set in an aperture of said insulating layer in the door, characterized in that the insulating layer around the aperture comprises a profiled section designed to contain the glazing unit in such a way that the profiled section and the glazing unit bear against one another and form a sealing bond.