mhurhangee/ep-ind-claims huggingface dataset:
An isolator (200, 300), comprising: an outer housing (224, 324) comprising an outer housing bore (234, 334); an inner member (240, 340) received coaxially within the outer housing (224, 324); the isolator (200, 300) characterized by: a precompressed compression compliance component (230, 330) disposed between the outer housing (224, 324) and the inner member (240, 340), the CCC (230, 330) being configured to bias the inner member (240, 340) in an axial direction; and a precompressed rebound compliance component (232, 332) disposed between the outer housing (224, 324) and the inner member (240, 340), the RCC (232, 332) being configured to bias the inner member (240, 340) in an opposite axial direction. an outer housing (224, 324) comprising an outer housing bore (234, 334); an inner member (240, 340) received coaxially within the outer housing (224, 324); the isolator (200, 300) characterized by: a precompressed compression compliance component (230, 330) disposed between the outer housing (224, 324) and the inner member (240, 340), the CCC (230, 330) being configured to bias the inner member (240, 340) in an axial direction; and a precompressed rebound compliance component (232, 332) disposed between the outer housing (224, 324) and the inner member (240, 340), the RCC (232, 332) being configured to bias the inner member (240, 340) in an opposite axial direction. a precompressed compression compliance component (230, 330) disposed between the outer housing (224, 324) and the inner member (240, 340), the CCC (230, 330) being configured to bias the inner member (240, 340) in an axial direction; and a precompressed rebound compliance component (232, 332) disposed between the outer housing (224, 324) and the inner member (240, 340), the RCC (232, 332) being configured to bias the inner member (240, 340) in an opposite axial direction.
An integrated microelectromechanical systems "MEMS" device comprising: a first substrate comprising a MEMS substrate; and a second substrate wherein the first and second substrates are coupled together and have at least two enclosures (112, 113) there between; wherein the second substrate includes an outgassing source layer and an outgassing barrier layer configured to adjust pressure within the at least two enclosures, characterized in that the second substrate comprises a complementary metal-oxide-semiconductor "CMOS" substrate. a first substrate comprising a MEMS substrate; and a second substrate wherein the first and second substrates are coupled together and have at least two enclosures (112, 113) there between; wherein the second substrate includes an outgassing source layer and an outgassing barrier layer configured to adjust pressure within the at least two enclosures, characterized in that the second substrate comprises a complementary metal-oxide-semiconductor "CMOS" substrate.
A system for the recovery of heat, comprising: an industrial firing kiln for ceramic items, including a cooling section and a conveyor for conveying ceramic items, which passes through said cooling section; and a plant for recovery of heat from said kiln, comprising: at least one primary circuit (11, 12) that includes at least an internal heat exchanger (13, 14), arranged in said cooling section of said kiln, and at least a primary process liquid that flows in said primary circuit (11, 12); characterized in that the primary circuit (11, 12) comprises at least two internal exchangers (13, 14), a first internal heat exchanger, being arranged above said conveyor and a second internal heat exchanger being arranged below said conveyor. an industrial firing kiln for ceramic items, including a cooling section and a conveyor for conveying ceramic items, which passes through said cooling section; and a plant for recovery of heat from said kiln, comprising: at least one primary circuit (11, 12) that includes at least an internal heat exchanger (13, 14), arranged in said cooling section of said kiln, and at least a primary process liquid that flows in said primary circuit (11, 12); characterized in that the primary circuit (11, 12) comprises at least two internal exchangers (13, 14), a first internal heat exchanger, being arranged above said conveyor and a second internal heat exchanger being arranged below said conveyor.
A method for machining workpieces that rotate around a workpiece axis with a tool that rotates around a tool axis, wherein a clamping device is transferred into a first position, a workpiece to be machine is clamped on said clamping device, the clamping device with the workpiece clamped thereon is transferred from the first position into a spatially separate second position in which it can be rotationally driven around the workpiece axis by a workpiece spindle connected to the clamping device, and the clamping device is transferred from the second position into the first position after the workpiece has been machined, the clamping device being separated from the workpiece spindle when it is transferred from the second into the first position, and being connected to the workpiece spindle when it is transferred from the first into the second position, characterised in that in the first position the clamping device (9, 9') is connected to a rotationally driven indexing spindle which has a connection corresponding to the connection between the clamping device (9, 9') and the workpiece spindle and which can generate a signal representing an angular position of the workpiece clamped on this clamping device (9, 9').
A medicament comprising brexpiprazole or a pharmaceutically acceptable salt thereof, and nalmefene or a pharmaceutically acceptable salt thereof in combination, wherein brexpiprazole or a pharmaceutically acceptable salt thereof, and nalmefene or a pharmaceutically acceptable salt thereof are contained in a single preparation, or a pharmaceutical composition containing brexpiprazole or a pharmaceutically acceptable salt thereof and a pharmaceutical composition containing nalmefene or a pharmaceutically acceptable salt thereof are formulated for use in combination.
A process for preparing 2-substituted 4-hydroxy-4-methyltetrahydropyrans of the general formula and of 2-substituted 4-methyltetrahydropyrans of the general formula in which R 1 is straight-chain or branched C 1 -C 12 -alkyl, unsubstituted or C1-C 12 -alkyl- and/or C 1 -C 12 -alkoxy-substituted cycloalkyl having in total 3 to 20 carbon atoms or unsubstituted or C 1 -C 12 -alkyl- and/or C 1 -C 12 -alkoxy-substituted aryl having in total 6 to 20 carbon atoms, in which a) 3-methylbut-3-en-1-ol of the formula is reacted with an aldehyde of the formula R 1 -CHO where R 1 in the formula has the meaning given above, in the presence of an acidic catalyst, giving a reaction mixture which comprises at least one 2-substituted 4-hydroxy-4-methyltetrahydropyran of the general formula, at least one of the compounds (V.I), (V.2) or (V.3) and at least one dioxane compound where R 1 in the formula has the meaning given above, b) the reaction product from step a) is subjected to a separation, giving a fraction enriched in 2-substituted 4-hydroxy-4-methyltetrahydropyrans of the general formula and a fraction which comprises at least one of the compounds (V.1), (V.2) or (V.3) and at least one dioxane compound, c) the fraction which comprises at least one of the compounds (V.1), (V.2) or (V.3) and at least one dioxane compound is subjected to a hydrogenation, d) a fraction enriched in 2-substituted 4-methyltetrahydropyrans and a fraction enriched in the at least one dioxane compound are isolated from the hydrogenation product obtained in step c). R 1 is straight-chain or branched C 1 -C 12 -alkyl, unsubstituted or C1-C 12 -alkyl- and/or C 1 -C 12 -alkoxy-substituted cycloalkyl having in total 3 to 20 carbon atoms or unsubstituted or C 1 -C 12 -alkyl- and/or C 1 -C 12 -alkoxy-substituted aryl having in total 6 to 20 carbon atoms, a) 3-methylbut-3-en-1-ol of the formula is reacted with an aldehyde of the formula R 1 -CHO where R 1 in the formula has the meaning given above, in the presence of an acidic catalyst, giving a reaction mixture which comprises at least one 2-substituted 4-hydroxy-4-methyltetrahydropyran of the general formula, at least one of the compounds (V.I), (V.2) or (V.3) and at least one dioxane compound where R 1 in the formula has the meaning given above, b) the reaction product from step a) is subjected to a separation, giving a fraction enriched in 2-substituted 4-hydroxy-4-methyltetrahydropyrans of the general formula and a fraction which comprises at least one of the compounds (V.1), (V.2) or (V.3) and at least one dioxane compound, c) the fraction which comprises at least one of the compounds (V.1), (V.2) or (V.3) and at least one dioxane compound is subjected to a hydrogenation, d) a fraction enriched in 2-substituted 4-methyltetrahydropyrans and a fraction enriched in the at least one dioxane compound are isolated from the hydrogenation product obtained in step c).
A collapsible box, comprising a base and two pairs of opposite side plates (2,3), and protrusion edges being arranged on the periphery of the base, wherein the side plates (2, 3) are hinged to the base and foldable relative to the base, wherein each of the side plates (2, 3) is a dual-smooth side plate, and the side plates of at least one pair of the side plates (2,3) are each provided with a cavity (22,32) in the lower edge, and when the collapsible box is deployed, the lower edges of one pair of side plates of the two pairs of opposite side plates (2,3) are connected with the lower edges of the other pair of side plates to form a frame, and the frame is hinged to the base through hinges, so as to form a reinforcing member which resists the base from depressing and the protrusion edge from recessing, and one pair of the two pairs of opposite side plates (2,3) are opposite long side plates, and the other pair are opposite short side plates, characterized in that cavities (33,34) along the height direction are provided in connecting parts (33A, 34A) arranged at the left and right end parts of the long side plates (3,3). wherein the side plates (2, 3) are hinged to the base and foldable relative to the base, wherein each of the side plates (2, 3) is a dual-smooth side plate, and the side plates of at least one pair of the side plates (2,3) are each provided with a cavity (22,32) in the lower edge, and when the collapsible box is deployed, the lower edges of one pair of side plates of the two pairs of opposite side plates (2,3) are connected with the lower edges of the other pair of side plates to form a frame, and the frame is hinged to the base through hinges, so as to form a reinforcing member which resists the base from depressing and the protrusion edge from recessing, and one pair of the two pairs of opposite side plates (2,3) are opposite long side plates, and the other pair are opposite short side plates, characterized in that cavities (33,34) along the height direction are provided in connecting parts (33A, 34A) arranged at the left and right end parts of the long side plates (3,3).
A radar system comprising: a transmitter operable to transmit a radar-signal characterized by a series of pulses, wherein the radar-signal includes a first pulse and a second pulse; a plurality of antennas operable to detect a reflected-signal indicative of a reflection of the radar-signal by an object, said plurality of antennas includes a first antenna operable to output a first signal and a second antenna operable to output a second signal; and a controller operable to receive the first signal and the second signal during reception of the reflection of the first pulse, and calculate, before reception of the reflection of the second pulse is finished, a first transformation of the first signal and the second signal to determine range-data based on the reflection of the first pulse, wherein the range-data includes a phase-component and an amplitude-component, characterized in that said first transformation is followed by calculating a complex non-coherent integration of the phase-component and the amplitude-component to determine averaged-range-data that includes a Doppler-phase and a Doppler-amplitude, before reception of the reflection of the second pulse is finished. a transmitter operable to transmit a radar-signal characterized by a series of pulses, wherein the radar-signal includes a first pulse and a second pulse; a plurality of antennas operable to detect a reflected-signal indicative of a reflection of the radar-signal by an object, said plurality of antennas includes a first antenna operable to output a first signal and a second antenna operable to output a second signal; and a controller operable to receive the first signal and the second signal during reception of the reflection of the first pulse, and calculate, before reception of the reflection of the second pulse is finished, a first transformation of the first signal and the second signal to determine range-data based on the reflection of the first pulse, wherein the range-data includes a phase-component and an amplitude-component,
A fluidics device, comprising: an array (114, 214) of microstructures including generally rigid blocks (108, 208) and generally flexible structures (110, 210); at least one fluid channel (102, 202) sized to accept the array (114, 214), wherein the fluid channel (102, 202) is configured to induce fluid flow of a biological sample through the array (114, 214); and means for detecting a degree of deflection of one or more of the flexible structures (110, 210) in the array (114, 214) toward a block (108, 208). an array (114, 214) of microstructures including generally rigid blocks (108, 208) and generally flexible structures (110, 210); at least one fluid channel (102, 202) sized to accept the array (114, 214), wherein the fluid channel (102, 202) is configured to induce fluid flow of a biological sample through the array (114, 214); and means for detecting a degree of deflection of one or more of the flexible structures (110, 210) in the array (114, 214) toward a block (108, 208).
Sugar dosing system configured to automatically feed a sugar solution into a caustic stream containing chlorate, comprising - at least one tank (1A, 1B) for preparing and supplying the sugar solution, - at least one dosing pump adapted to supply the sugar solution to the caustic stream, - sensors adapted to measure the chlorate content of the caustic stream and to measure the caustic stream volume flow, - sensors (6, 7) adapted to measure the sugar concentration and to measure the sugar solution volume flow, - a local operating panel adapted to receive the measured data from the sensors and further adapted to calculate the correct dosing rate for sugar dosing, the dosing rate being communicated to the dosing pump. - at least one tank (1A, 1B) for preparing and supplying the sugar solution, - at least one dosing pump adapted to supply the sugar solution to the caustic stream, - sensors adapted to measure the chlorate content of the caustic stream and to measure the caustic stream volume flow, - sensors (6, 7) adapted to measure the sugar concentration and to measure the sugar solution volume flow, - a local operating panel adapted to receive the measured data from the sensors and further adapted to calculate the correct dosing rate for sugar dosing, the dosing rate being communicated to the dosing pump.
Wire thread insert for mounting in a receiving thread of a component, the wire thread insert having the following features: a. a cylindrical helix having a plurality of helically wound coils of a wire, the helix having a first and a second end, wherein b. a first coil provided at the first end has a moving tang projecting into an interior of the helix via a bending portion and c. the moving tang is inseparably connected to the first coil and redressable from the interior of the helix via the bending portion radially outwards in the receiving thread, wherein d. the wire in the bending portion between the first coil and the moving tang is modified mechanically, geometrically, thermally, chemically or in another way compared to the wire of the first coil so that a redressing of the moving tang is facilitated. a. a cylindrical helix having a plurality of helically wound coils of a wire, the helix having a first and a second end, wherein b. a first coil provided at the first end has a moving tang projecting into an interior of the helix via a bending portion and c. the moving tang is inseparably connected to the first coil and redressable from the interior of the helix via the bending portion radially outwards in the receiving thread, wherein d. the wire in the bending portion between the first coil and the moving tang is modified mechanically, geometrically, thermally, chemically or in another way compared to the wire of the first coil so that a redressing of the moving tang is facilitated.
Mechanical seal arrangement, comprising: - a first mechanical seal with a rotating slide ring and a stationary slide ring, which define a sealing gap in between them, - a first sealing space that is filled with a sealing liquid, - wherein the first mechanical seal seals off the sealing space against a surrounding area, - a first piston arrangement with a piston element and flexible wall areas that define a first piston interior space, - wherein the first piston interior space is in fluid connection with the first sealing space, - wherein a piston outer surface of the piston element is in fluid connection with the surrounding area, and - a first pre-stressing appliance that exerts a first preload force on the piston element of the first piston arrangement, - a second mechanical seal with a rotating slide ring and a stationary slide ring, which define a sealing gap in between them, - a second sealing space and - a second piston arrangement with a piston element and flexible wall areas (27, 28), which define a second piston interior space, - wherein the second piston interior space is in fluid connection with the second sealing space and a second pre-stressing appliance exerts a second preload force on the second piston arrangement, - wherein the second mechanical seal is arranged between the first sealing space and the second sealing space, - wherein the first piston interior space is an annular space and the piston element of the first piston arrangement is an annular piston. - a first mechanical seal with a rotating slide ring and a stationary slide ring, which define a sealing gap in between them, - a first sealing space that is filled with a sealing liquid, - wherein the first mechanical seal seals off the sealing space against a surrounding area, - a first piston arrangement with a piston element and flexible wall areas that define a first piston interior space, - wherein the first piston interior space is in fluid connection with the first sealing space, - wherein a piston outer surface of the piston element is in fluid connection with the surrounding area, and - a first pre-stressing appliance that exerts a first preload force on the piston element of the first piston arrangement, - a second mechanical seal with a rotating slide ring and a stationary slide ring, which define a sealing gap in between them, - a second sealing space and - a second piston arrangement with a piston element and flexible wall areas (27, 28), which define a second piston interior space, - wherein the second piston interior space is in fluid connection with the second sealing space and a second pre-stressing appliance exerts a second preload force on the second piston arrangement, - wherein the second mechanical seal is arranged between the first sealing space and the second sealing space, - wherein the first piston interior space is an annular space and the piston element of the first piston arrangement is an annular piston.
A complementary output generator module for a microcontroller, wherein the complementary output generator is configurable through a processing core of the microcontroller and comprises: a clock input coupled to a clock source; a first circuit receiving a clock signal from the clock input and configured to receive a plurality of first input signals wherein the first circuit is configurable to select one of the plurality of first input signals, wherein the first circuit is further configured to detect a rising edge of a selected first input signal and to initiate a rising edge signal synchronous with the clock source; a second circuit receiving the clock signal and configured to receive a plurality of second input signals wherein the second circuit is configurable to select one of the plurality of second input signals, wherein the second circuit is further configured to detect a falling edge of a selected second input signal and to initiate a falling edge signal synchronous with the clock source; and a third circuit (108; 344, 346) receiving said rising edge signal and said falling edge signal and configured to assert a first output drive signal upon detection of the rising edge signal until detection of the falling edge signal, and to assert a second output drive signal upon detection of the falling edge signal until detection of a next rising edge signal. a clock input coupled to a clock source; a first circuit receiving a clock signal from the clock input and configured to receive a plurality of first input signals wherein the first circuit is configurable to select one of the plurality of first input signals, wherein the first circuit is further configured to detect a rising edge of a selected first input signal and to initiate a rising edge signal synchronous with the clock source; a second circuit receiving the clock signal and configured to receive a plurality of second input signals wherein the second circuit is configurable to select one of the plurality of second input signals, wherein the second circuit is further configured to detect a falling edge of a selected second input signal and to initiate a falling edge signal synchronous with the clock source; and a third circuit (108; 344, 346) receiving said rising edge signal and said falling edge signal and configured to assert a first output drive signal upon detection of the rising edge signal until detection of the falling edge signal, and to assert a second output drive signal upon detection of the falling edge signal until detection of a next rising edge signal.
An automatic analyzer comprising: a suction nozzle configured to suction a reaction auxiliary liquid and a reaction solution, said reaction solution including a sample and a reagent; a container retaining member having mounted thereon a container for retaining the reaction auxiliary liquid, said container retaining member further having a reaction vessel mounting place for mounting a vessel that contains the reaction solution; a drive mechanism configured to drive the container retaining member to bring the vessel or the container for the reaction auxiliary liquid close to the suction nozzle; and a supply nozzle configured to supply the reacton auxiliary liquid to the container; wherein the supply nozzle is fixedly disposed on the container retaining member or on the drive mechanism to retain its relative positional relationship to the container so that the supply nozzle moves in accordance with the movement of the container moved by the drive mechanism. a suction nozzle configured to suction a reaction auxiliary liquid and a reaction solution, said reaction solution including a sample and a reagent; a container retaining member having mounted thereon a container for retaining the reaction auxiliary liquid, said container retaining member further having a reaction vessel mounting place for mounting a vessel that contains the reaction solution; a drive mechanism configured to drive the container retaining member to bring the vessel or the container for the reaction auxiliary liquid close to the suction nozzle; and a supply nozzle configured to supply the reacton auxiliary liquid to the container; wherein the supply nozzle is fixedly disposed on the container retaining member or on the drive mechanism to retain its relative positional relationship to the container so that the supply nozzle moves in accordance with the movement of the container moved by the drive mechanism.