mhurhangee/ep-ind-claims huggingface dataset:
Device for supplying pressurised fluid, in particular pressurised gas, comprising a reservoir of pressurised fluid provided with an orifice wherein a first tap is fixed, containing an internal fluid circuit provided with at least one isolation valve, the device comprising a fluid-transfer member forming a physical entity separate from the tap and reservoir, the transfer member comprising an internal pressurised fluid transfer circuit, the transfer member and said first tap comprising respective attachment members (7, 8) forming a system for the removable quick connection of the transfer member on the tap, in the connected position of the transfer member on the first tap, the internal circuit of the transfer member being connected fluidically to the internal circuit of the first tap, the device comprising a pressure-sensitive abutment in at least one of the internal circuits (4, 11) for locking the attachment members (7, 8) in the connected position and preventing the disconnection of the transfer member from the first tap when said pressure is greater than a given threshold, characterised in that the abutment is able to move between a first position of non-locking of the attachment members (7, 8) to allow disconnection thereof and a second position of locking the attachment members (7, 8) to prevent disconnection thereof, and in that the device comprises a return member urging the abutment towards the first position thereof, and in that the abutment comprises a pin able to move in a housing between the first and second positions, said housing comprising a first end leading to or in fluid connection with at least one of the internal circuits (4, 11), and in that the internal circuit of the transfer member comprises a spindle able to move in translation and forming a valve pusher intended to open, by mechanical actuation, the at least one isolation valve of the first tap, the first end of the housing of the abutment leading to a portion of the internal transfer circuit of the transfer member comprising the movable spindle.
A mixer for processing one or more fluid media and optionally one or more solid media, the mixer consisting of a tank with one or more filling openings and a discharge opening at the bottom of the tank, and a mixer unit provided at the bottom of the tank with a rotor, an inlet and an outlet, wherein the mixer unit includes a valve arrangement with a valve body, an inlet and a first and a second outlet, the inlet communicates with the outlet of the mixer unit, the first outlet communicates with the discharge opening of the tank, and the second outlet communicates with an inlet in the tank, wherein the valve body is disposed coaxially about a rotary axis of the rotor, the valve body has a first extreme position where the valve body shuts off the first outlet, and a second extreme position where the valve body shuts off the second outlet, and the valve body is connected with a retaining means such that it may be retained at an arbitrary position between the two extreme positions, where the valve body partially shuts of the first outlet and the second outlet, respectively, and wherein the rotor of the mixer unit includes a number of annularly distributed impeller blades for establishing a medium flow through the mixer unit, characterised in that the mixer unit includes a perforated cylindric ring provided with passages in the form of holes and/or slots, wherein the perforated ring is connected with a displacing means such that it may be displaced between a first position where it entirely encloses the outlet of the rotor to a second position where it does not enclose the outlet of the rotor, and that the perforated ring may be retained at an arbitrary position between the two positions at which the perforated ring partially encloses the outlet of the rotor.
A three-dimensional, 3D, memory device (100, 300, 800), comprising: a first semiconductor structure (102, 302) comprising a peripheral circuit, an array of 3D phase-change memory, PCM, cells (318, 506, 806), and a first bonding layer (324, 514) comprising a plurality of first bonding contacts (326, 516); a second semiconductor structure (104, 304) comprising an array of 3D NAND memory strings (338, 610) and a second bonding layer (328, 622) comprising a plurality of second bonding contacts (330, 624); and a bonding interface (106, 306, 702) between the first bonding layer (324, 514) and the second bonding layer (328, 622), wherein the first bonding contacts (326, 516) are in contact with the second bonding contacts (330, 624) at the bonding interface (106, 306, 702), wherein the first semiconductor structure (102, 302) comprises: a substrate (308, 502); the peripheral circuit and the array of 3D PCM cells on the substrate (308, 502); the array of 3D PCM cells (318, 506, 806) above the peripheral circuit; and the first bonding layer (324, 514) above the array of 3D PCM cells. a first semiconductor structure (102, 302) comprising a peripheral circuit, an array of 3D phase-change memory, PCM, cells (318, 506, 806), and a first bonding layer (324, 514) comprising a plurality of first bonding contacts (326, 516); a second semiconductor structure (104, 304) comprising an array of 3D NAND memory strings (338, 610) and a second bonding layer (328, 622) comprising a plurality of second bonding contacts (330, 624); and a bonding interface (106, 306, 702) between the first bonding layer (324, 514) and the second bonding layer (328, 622), wherein the first bonding contacts (326, 516) are in contact with the second bonding contacts (330, 624) at the bonding interface (106, 306, 702), wherein the first semiconductor structure (102, 302) comprises: a substrate (308, 502); the peripheral circuit and the array of 3D PCM cells on the substrate (308, 502); the array of 3D PCM cells (318, 506, 806) above the peripheral circuit; and the first bonding layer (324, 514) above the array of 3D PCM cells.
An expandable mammary tissue implant comprising: a shell having an anterior face and a posterior face, the anterior face having an upper pole portion and a lower pole portion meeting at an apex, and an injection zone for receiving fluid therethrough to inflate the implant; and a vertical tether member positioned entirely within said shell and extending between a central region coupled to the anterior face of the shell at a location substantially adjacent to the injection zone and at least a first end coupled to the posterior face, characterised by the expandable mammary tissue implant further comprising: a reinforcing material coupled to the shell in a first reinforcement zone (140, 644) that forms at least a peripheral rim portion that extends from a periphery of said posterior face upwardly by a predetermined distance, and at least one insert member positioned entirely within and extending across an interior of said shell, and coupled to an interior of said shell around an entire perimeter of said insert member at a location substantially adjacent to an upper periphery (103, 603) of said first reinforcement zone, wherein the insert member has at least a first aperture therein, and wherein the vertical tether member extends through said first aperture. a shell having an anterior face and a posterior face, the anterior face having an upper pole portion and a lower pole portion meeting at an apex, and an injection zone for receiving fluid therethrough to inflate the implant; and a vertical tether member positioned entirely within said shell and extending between a central region coupled to the anterior face of the shell at a location substantially adjacent to the injection zone and at least a first end coupled to the posterior face, characterised by the expandable mammary tissue implant further comprising: a reinforcing material coupled to the shell in a first reinforcement zone (140, 644) that forms at least a peripheral rim portion that extends from a periphery of said posterior face upwardly by a predetermined distance, and at least one insert member positioned entirely within and extending across an interior of said shell, and coupled to an interior of said shell around an entire perimeter of said insert member at a location substantially adjacent to an upper periphery (103, 603) of said first reinforcement zone, wherein the insert member has at least a first aperture therein, and wherein the vertical tether member extends through said first aperture. a reinforcing material coupled to the shell in a first reinforcement zone (140, 644) that forms at least a peripheral rim portion that extends from a periphery of said posterior face upwardly by a predetermined distance, and at least one insert member positioned entirely within and extending across an interior of said shell, and coupled to an interior of said shell around an entire perimeter of said insert member at a location substantially adjacent to an upper periphery (103, 603) of said first reinforcement zone, wherein the insert member has at least a first aperture therein, and wherein the vertical tether member extends through said first aperture.
A vehicle brake apparatus including a first pressure control device that transforms a first compressed air inside a first tank (21, 22) provided in a vehicle body on a bogie of a vehicle into a brake control air having a predetermined pressure and supplies the brake control air to a brake cylinder which applies a braking force to a wheel provided on the bogie, the vehicle brake apparatus comprising: a second tank (33, 33') that is installed on the bogie and is independent from the first tank (21, 22); and a second pressure control device that supplies a second compressed air inside the second tank (33, 33') to the brake cylinder as an emergency brake air prior to the brake control air being supplied from the first pressure control device to the brake cylinder when an emergency brake operation is performed, and wherein the second tank (33, 33') is an auxiliary air tank that supplies the second compressed air to an air spring installed between the bogie and the vehicle body. a second tank (33, 33') that is installed on the bogie and is independent from the first tank (21, 22); and a second pressure control device that supplies a second compressed air inside the second tank (33, 33') to the brake cylinder as an emergency brake air prior to the brake control air being supplied from the first pressure control device to the brake cylinder when an emergency brake operation is performed, and wherein the second tank (33, 33') is an auxiliary air tank that supplies the second compressed air to an air spring installed between the bogie and the vehicle body.
A thread-cutting tap that is to be rotated in a rotation direction for cutting an internal thread in a work material, the thread cutting tap comprising: a thread portion having an external thread provided therein, and including a chamfered portion and a complete thread portion that is axially contiguous to the chamfered portion; a flute extending from an axially distal end of the tap toward an axially proximal end of the tap; a rake face defined by one of widthwise opposite end portions of the flute; a cutting edge defined by one of widthwise opposite edges of the flute, so as to be adjacent to the rake face and extend along the flute; characterised by the cutting edge being provided with a protrusion portion at least in a radially outer end portion of the chamfered portion, such that the protrusion portion protrudes from the rake face forwardly in the rotation direction and extends along the cutting edge. a thread portion having an external thread provided therein, and including a chamfered portion and a complete thread portion that is axially contiguous to the chamfered portion; a flute extending from an axially distal end of the tap toward an axially proximal end of the tap; a rake face defined by one of widthwise opposite end portions of the flute; a cutting edge defined by one of widthwise opposite edges of the flute, so as to be adjacent to the rake face and extend along the flute; characterised by the cutting edge being provided with a protrusion portion at least in a radially outer end portion of the chamfered portion, such that the protrusion portion protrudes from the rake face forwardly in the rotation direction and extends along the cutting edge.
A wax having oil-in-water (O/W) emulsion-forming properties, said wax comprising: (a) about 20 to about 50 parts of a polyglyceryl fatty acid ester, having a fatty acid carbon chain length of n 1; (b) about 25 to about 40 parts of a glycerol fatty acid ester, having a fatty acid carbon chain length of n 2; and (c) about 25 to about 35 parts of a fatty alcohol, having a fatty carbon chain length of n 3; wherein n 1, n 2, and n 3 are integers, and wherein said wax forms an oil-in-water (O/W) emulsion in the absence of a co-emulsifier, a polar or ionic surfactant, an ethoxylated product, a propoxylated product, a rheological modifier, or a gelling agent. (a) about 20 to about 50 parts of a polyglyceryl fatty acid ester, having a fatty acid carbon chain length of n 1; (b) about 25 to about 40 parts of a glycerol fatty acid ester, having a fatty acid carbon chain length of n 2; and (c) about 25 to about 35 parts of a fatty alcohol, having a fatty carbon chain length of n 3;
Process for fastening an accessory to the interior of a blow-molded tank, said tank having a plastic wall produced from a parison, the accessory comprising a body having at least one attaching portion projecting radially from said body, the process comprising the steps of: a) introducing the accessory and the parison in a molten state into a mould so that the accessory is surrounded by the parison, said mould comprising cavities, at least one cavity being equipped with at least one movable insert configured to fold locally some of the molten parison on said attaching portion; b) contacting the parison with said attaching portion; c) moving forward the insert and folding locally some of the molten parison on said attaching portion; d) closing the mould by moving the mould cavities to a final closing position and inflating the parison to form said blow-molded tank; e) moving backwards the insert; and f) opening the mould. a) introducing the accessory and the parison in a molten state into a mould so that the accessory is surrounded by the parison, said mould comprising cavities, at least one cavity being equipped with at least one movable insert configured to fold locally some of the molten parison on said attaching portion; b) contacting the parison with said attaching portion; c) moving forward the insert and folding locally some of the molten parison on said attaching portion; d) closing the mould by moving the mould cavities to a final closing position and inflating the parison to form said blow-molded tank; e) moving backwards the insert; and f) opening the mould.
A photovoltaic power generation system comprising a first and a second inverter connected in series on the input side, wherein a center point of the series connection of the inverters is connected to an insulation monitoring device, and at least one photovoltaic string connected to the series connection of the inverters with a device for electrically separating a first part and a second part of the photovoltaic string, which are connected to a first terminal and a second terminal of the device, characterised in that the device is located between the two parts of the string, and in that the device comprises a switch (12, 21, 22) and a control device adapted to open the switch (12, 21, 22) when a voltage applied to at least one of the terminals (15, 16) is outside a predetermined value range relative to a potential applied to a reference terminal.
A composition comprising 22-70% by weight of at least one polymer component and 17-65% by weight of at least one phospholipid component, wherein the at least one phospholipid component is a soybean derived lipid, wherein the composition further comprises one or more graft materials, wherein the one or more graft materials comprise synthetic bone graft substitute.
An apparatus comprising: a rotatable base (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000) of a thermoplastic material, said rotatable base having an axis of rotation, an outer surface (128, 228, 328, 428, 728, 828, 928, 1028), an inner surface (214, 314, 414), and a bore (218, 318), said bore extends between a first end and a second end of the rotatable base, the first end of the rotatable base having an opening into the bore, the bore (218, 318) surrounded by the inner surface (214, 314, 414) of the rotatable base; wherein said rotatable base comprises openings (126, 130, 134, 226, 230, 234, 326, 330, 334, 426, 430, 434, 626, 726, 825, 830, 834) between and interconnecting the outer surface and inner surface of the rotatable base; characterized in that the openings between the inner and outer surfaces of the rotatable base each have an axis that is substantially parallel to an axis perpendicular to a single common plane (358, 458, 758, 1158) that divides the rotatable base into two half cylindrical portions, the common plane including the rotational axis of the rotatable base. a rotatable base (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000) of a thermoplastic material, said rotatable base having an axis of rotation, an outer surface (128, 228, 328, 428, 728, 828, 928, 1028), an inner surface (214, 314, 414), and a bore (218, 318), said bore extends between a first end and a second end of the rotatable base, the first end of the rotatable base having an opening into the bore, the bore (218, 318) surrounded by the inner surface (214, 314, 414) of the rotatable base; wherein said rotatable base comprises openings (126, 130, 134, 226, 230, 234, 326, 330, 334, 426, 430, 434, 626, 726, 825, 830, 834) between and interconnecting the outer surface and inner surface of the rotatable base; characterized in that the openings between the inner and outer surfaces of the rotatable base each have an axis that is substantially parallel to an axis perpendicular to a single common plane (358, 458, 758, 1158) that divides the rotatable base into two half cylindrical portions, the common plane including the rotational axis of the rotatable base.
Electrohydraulic and/or electromechanical motor vehicle control device, in particular for a motor vehicle brake system, comprising an electronic control unit which is connected to a hydraulic unit and/or at least to an electrically conductive housing part of the control device, wherein said electronic control unit comprises at least one first printed circuit board for holding electrical and/or electronic components and also comprises at least one connection plug, characterized in that at least one electrically conductive connecting contact is provided, said connecting contact being connected to at least one electrically conductive fastening means in such a way that an electrically conductive connection is established between an electrically conductive main body of the hydraulic unit and/or the housing part and the reference potential of the printed circuit board of the electronic control unit.
A process for dehydrogenating low-carbon alkanes, the process comprising: pre-heating C 3 -C 5 low-carbon alkane feed gas, CO and/or COz process gas to 200-500°C; introducing the preheated mixture gas into a reactor and getting contact for 5-30 minutes with a Cr-Ce-Cl/Al 2 O 3 dehydrogenation catalyst, a Cu-Ce-Ca-Cl/Al 2 O 3 thermal generating agent, and heat storage/support inert alumina balls, and converting to products under the reaction conditions: temperature 500-700°C, pressure 10-100 kPa and WHSV 0.1-5 hour -1; separating out the low-carbon alkenes and by-products in a separation unit and obtaining the low-carbon alkenes, hydrogen-rich gas and burning gas, and recycling the unreacted low-carbon alkane back to the reactor; periodically regenerating the catalyst bed via purging with steam, heating the catalyst bed with 560-730°C and 0.01-1 MPa hot air, evacuating the air, and reducing with Hz-rich gas stream, the cycle takes about 10-70 minutes. pre-heating C 3 -C 5 low-carbon alkane feed gas, CO and/or COz process gas to 200-500°C; introducing the preheated mixture gas into a reactor and getting contact for 5-30 minutes with a Cr-Ce-Cl/Al 2 O 3 dehydrogenation catalyst, a Cu-Ce-Ca-Cl/Al 2 O 3 thermal generating agent, and heat storage/support inert alumina balls, and converting to products under the reaction conditions: temperature 500-700°C, pressure 10-100 kPa and WHSV 0.1-5 hour -1; separating out the low-carbon alkenes and by-products in a separation unit and obtaining the low-carbon alkenes, hydrogen-rich gas and burning gas, and recycling the unreacted low-carbon alkane back to the reactor; periodically regenerating the catalyst bed via purging with steam, heating the catalyst bed with 560-730°C and 0.01-1 MPa hot air, evacuating the air, and reducing with Hz-rich gas stream, the cycle takes about 10-70 minutes.
A high strength Cr-Ni alloy material which consists of, by mass percent, C: 0.05% or less, Si: 0.05 to 1.0%, Mn: 0.01% or more and less than 3.0%, P: 0.05% or less, S: 0.005% or less, Cu: 0.01 to 4%, Ni: 25% or more and less than 35%, Cr: 20 to 30%, Mo: 0.01% or more and less than 4.0%, N: 0.10 to 0.30%, Al: 0.03 to 0.30%, O (oxygen): 0.01% or less, and REM (rare earth metal): 0.01 to 0.20%, and optionally at least one element selected from W: less than 8.0%, one or more of Ti, Nb, Zr and V at a total of 0.5% or less, and either or both selected from Ca and Mg at a total of 0.01% or less, with the balance being Fe and impurities, and also satisfies the conditions in the following formula. N × P / REM ≤ 0.40 where P, N, and REM in the formula respectively denote the contents (mass%) of P, N, and REM.
Granulating device for granulating strands of material, comprising: - a perforated plate for producing strands of material, - a blade head, which is arranged on a downstream side of the perforated plate for the purpose of producing a granulate from the strands of material and has -- a blade carrier composed of a blade carrier material (M 1) and -- at least one granulating blade (30, 31, 32) fastened to the blade carrier, and - a drive device for rotationally driving the blade head about an axis of rotation, characterized in that the blade carrier comprises at least two blade arms (33, 34, 35) for fastening a respective granulating blade (30, 31, 32), and a mounting portion for rotatably mounting the at least two blade arms (33, 34, 35), in that the blade carrier material (M 1) has a thermal conductivity λ 1 ≥ 150 W/m/K at 20°C, and in that the blade carrier material (M 1) has a coefficient of thermal expansion α 1 ≥ 16 · 10 -6 1/K at 20°C. - a perforated plate for producing strands of material, - a blade head, which is arranged on a downstream side of the perforated plate for the purpose of producing a granulate from the strands of material and has -- a blade carrier composed of a blade carrier material (M 1) and -- at least one granulating blade (30, 31, 32) fastened to the blade carrier, and -- a blade carrier composed of a blade carrier material (M 1) and -- at least one granulating blade (30, 31, 32) fastened to the blade carrier, and - a drive device for rotationally driving the blade head about an axis of rotation, characterized in that the blade carrier comprises at least two blade arms (33, 34, 35) for fastening a respective granulating blade (30, 31, 32), and a mounting portion for rotatably mounting the at least two blade arms (33, 34, 35), in that the blade carrier material (M 1) has a thermal conductivity λ 1 ≥ 150 W/m/K at 20°C, and in that the blade carrier material (M 1) has a coefficient of thermal expansion α 1 ≥ 16 · 10 -6 1/K at 20°C.