mhurhangee/ep-ind-claims huggingface dataset:
A method for processing a chemical stream, the method comprising: contacting a feed stream with a catalyst in a reactor portion of a reactor system, wherein the reactor system comprises the reactor portion and a catalyst processing portion and the contacting of the feed stream with the catalyst causes a reaction which forms a product stream; passing the catalyst to the catalyst processing portion of the reactor system, wherein the catalyst processing portion comprises a combustor; processing the catalyst in the catalyst processing portion of the reactor system; passing at least a portion of the catalyst from the catalyst processing portion of the reactor system into a catalyst withdrawal system comprising a catalyst withdrawal vessel and a transfer line coupling the catalyst withdrawal vessel to the catalyst processing portion, each of the catalyst withdrawal vessel and the transfer line comprising an outer metallic shell and an inner refractory lining; and cooling the catalyst in the catalyst withdrawal vessel from greater than or equal to 680 °C to less than or equal to 350 °C; wherein the inner refractory lining of the catalyst withdrawal vessel is a thermal shock resistant refractory material having a coefficient of linear thermal expansion of less than or equal to 2.7 x 10 -6 °K -1, according to ASTM E831-14, and a strength loss of less than or equal to 25% according to the modulus of rupture standard described in ASTM C-1171. contacting a feed stream with a catalyst in a reactor portion of a reactor system, wherein the reactor system comprises the reactor portion and a catalyst processing portion and the contacting of the feed stream with the catalyst causes a reaction which forms a product stream; passing the catalyst to the catalyst processing portion of the reactor system, wherein the catalyst processing portion comprises a combustor; processing the catalyst in the catalyst processing portion of the reactor system; passing at least a portion of the catalyst from the catalyst processing portion of the reactor system into a catalyst withdrawal system comprising a catalyst withdrawal vessel and a transfer line coupling the catalyst withdrawal vessel to the catalyst processing portion, each of the catalyst withdrawal vessel and the transfer line comprising an outer metallic shell and an inner refractory lining; and cooling the catalyst in the catalyst withdrawal vessel from greater than or equal to 680 °C to less than or equal to 350 °C; wherein the inner refractory lining of the catalyst withdrawal vessel is a thermal shock resistant refractory material having a coefficient of linear thermal expansion of less than or equal to 2.7 x 10 -6 °K -1, according to ASTM E831-14, and a strength loss of less than or equal to 25% according to the modulus of rupture standard described in ASTM C-1171.
A liquid crystal display element that displays an indication by orientation of a liquid crystal material being controlled with voltage being applied by a drive circuit to electrodes that are formed upon a substrate, comprising: the electrodes including a mark electrode that is formed in a closed loop, an outer electrode that is arranged at a periphery of the mark electrode, and an isolated electrode that is surrounded by the mark electrode; an electrically insulating layer that is disposed between the electrodes and the substrate, and in which a first through hole that corresponds to the mark electrode, a second through hole that corresponds to the outer electrode, and a third through hole that corresponds to the isolated electrode are formed; and a wiring layer that is disposed between the electrically insulating layer and the substrate, and upon which a first wiring is formed that electrically connects the outer electrode and the isolated electrode via the second and third through holes (H4, H2), characterised in that: the electrically insulating layer further comprises a fourth hole that corresponds to the outer electrode; and a second wiring is arranged to electrically connect the outer electrode to the drive circuit via the fourth through hole. the electrodes including a mark electrode that is formed in a closed loop, an outer electrode that is arranged at a periphery of the mark electrode, and an isolated electrode that is surrounded by the mark electrode; an electrically insulating layer that is disposed between the electrodes and the substrate, and in which a first through hole that corresponds to the mark electrode, a second through hole that corresponds to the outer electrode, and a third through hole that corresponds to the isolated electrode are formed; and a wiring layer that is disposed between the electrically insulating layer and the substrate, and upon which a first wiring is formed that electrically connects the outer electrode and the isolated electrode via the second and third through holes (H4, H2), characterised in that: the electrically insulating layer further comprises a fourth hole that corresponds to the outer electrode; and a second wiring is arranged to electrically connect the outer electrode to the drive circuit via the fourth through hole. the electrically insulating layer further comprises a fourth hole that corresponds to the outer electrode; and a second wiring is arranged to electrically connect the outer electrode to the drive circuit via the fourth through hole.
A device for transfer of ribbons of sections to sample holders for transmission electron microscopy, wherein the device is installed exchangeably in a known microtome plant wherein the sections generated in this microtome system are transferred with the support of an ionisation device to a known sample holder, wherein two mutually independent tools are used firstly to manipulate the ribbon of sections and secondly to manipulate the sample holders, each of which can be positioned independently during the cutting process by two mutually independent micromanipulators, wherein the ribbon of sections is manipulated by means of an elastic fibre of a dielectric material, which is positioned on the tip of the first tool, characterised in that the first tool for handling the ribbon of sections comprises an exchange-able tip, and an electrically conducting connection between the tool and the tip is achieved, and the tip comprises a thin metal tube and an elastic fibre of dielectric material fitted with an electrically conductive surface coating, which is exchangeably connected to the end of the metal tube by an electrically conductive adhesive.
A compound of formula P n G x wherein n is 1 to 10; x is 1 to 10 P is a synthetic peptide of about 5 to about 40 amino acids comprising an amino acid sequence selected from the group consisting of RRANAALKAGELYKSILY and GSITTIDVPWNV; and G is a glycan; wherein the sequence of the peptide may be modified to include a glycine-cysteine segment at the attachment point for the glycan.
Assembly system (2, 12, 22, 62) of a member (7, 17, 27, 67) made of a first material in the circular aperture (8, 18, 28, 68) of a part (1, 3, 61) made of a second silicon-based material, using an intermediate part (4, 14, 24, 64) made of a third material mounted between said member and said part, characterized in that the intermediate part (4, 14, 24, 64) being a continuous cylinder comprising a hole for receiving said member, so that the intermediate part (4, 14, 24, 64) absorbs, radially and in a uniform manner, at least part of the axial driving force of said member in said hole by elastic and/or plastic deformation, characterised in that the part (1, 3, 61) includes pierced holes (6, 16, 26, 26', 26", 26"', 46, 46', 66) forming elastic deformation means distributed around the circular aperture (8, 18, 28, 68) thereof for absorbing any of said radial force not absorbed by the intermediate part (4, 14, 24, 64), in order to secure the assembly (2, 12, 22, 62) in a manner that is non-destructive for said part.
An internal combustion engine comprising: a crankshaft; a crankcase supporting the crankshaft; a cylinder block connected to the crankcase, having an upper surface and a lower surface, and including a cylinder provided therein; a cylinder head superposed on the cylinder block so as to cover the cylinder; a cooling fan that rotates together with the crankshaft; a shroud arranged to cover a portion of the crankcase, the cooling fan, a portion of the cylinder block, and a portion of the cylinder head; and a plurality of fins are provided at least in a region of the cylinder block covered by the shroud; wherein the shroud includes a facing wall portion that faces the plurality of fins; an exhaust opening (70A, 70B) that opens away from the cooling fan is provided between the facing wall portion and the cylinder block; the facing wall portion comprises an upper facing wall portion facing a portion of the upper surface of the cylinder block and a lower facing wall portion facing a portion of the lower surface of the cylinder block; and the exhaust opening (70A, 70B) is provided between the upper facing wall portion and the upper surface of the cylinder block, or is provided between the lower facing wall portion and the lower surface of the cylinder block. a crankshaft; a crankcase supporting the crankshaft; a cylinder block connected to the crankcase, having an upper surface and a lower surface, and including a cylinder provided therein; a cylinder head superposed on the cylinder block so as to cover the cylinder; a cooling fan that rotates together with the crankshaft; a shroud arranged to cover a portion of the crankcase, the cooling fan, a portion of the cylinder block, and a portion of the cylinder head; and a plurality of fins are provided at least in a region of the cylinder block covered by the shroud; wherein the shroud includes a facing wall portion that faces the plurality of fins; an exhaust opening (70A, 70B) that opens away from the cooling fan is provided between the facing wall portion and the cylinder block; the facing wall portion comprises an upper facing wall portion facing a portion of the upper surface of the cylinder block and a lower facing wall portion facing a portion of the lower surface of the cylinder block; and the exhaust opening (70A, 70B) is provided between the upper facing wall portion and the upper surface of the cylinder block, or is provided between the lower facing wall portion and the lower surface of the cylinder block.
Tube bundle heat exchanger, in particular for the food and beverage industry, with a tube support plate (700, 800), an exchanger flange (500; 1100e) and a connecting piece, a connection bend or a connection fitting (1100; 1200) adjacent to the exchanger flange (500; 1100e) or the connecting piece and a device for influencing the flow in the region of the tube support plate (700, 800) with an outer channel (200*) for a heat carrier medium, surrounded by an outer shell, with a number of inner tubes which extend axis parallel to the outer shell through the outer channel (200*), together forming an inner channel (300*) and being supported in the tube support plate (700, 800) at their respective end sides, with an inlet or outlet common to all the inner tubes, formed in the exchanger flange (500; 1100e) and with a common outlet or inlet for a product formed in the connecting piece, and with at least one displacement body (10, 11) influencing the flow in the region of the tube support plate (700, 800), which is fixedly fastened and which is arranged axisymmetric and concentric to the tube support plate (700, 800), which is formed by two portions (10a, 10b) which form a greatest common exterior diameter (d max) at their connecting cross section, with which the displacement body (10, 11) axisymmetrically divides the flow to or from the inner channel (300*), deflects it towards the outside and by doing so accelerates it in an annular gap cross section (As) which is nozzle-like constructed between the displacement body (10, 11) and an inner contour (K i) of the exchanger flange (500; 1100e) and the connecting piece, respectively, and wherein the displacement body (10, 11) subsequently forms an enlarging annular gap cross section (A SE) together with the inner contour (K i), characterised in that the displacement body (10, 11) is provided with a shank part (10c; 11c) extending in the direction of its axis of symmetry, which at its end distal to the displacement body (10, 11) is fixedly connected to the connection bend or the connection fitting (1100; 1200).
Water supply system for an aircraft comprising a water tank; one or more water lines, each of which leads to a consumer group which has at least one water consumer and, in the water flow direction upstream of the at least one water consumer, at least one buffer for receiving water from the respective water line; a discharge line for discharging water from the water tank into the one or more water lines; and a feed pump in the discharge line for supplying water from the water tank into the one or more water lines, wherein the one or more water lines should each be configured as a flexible hose made of plastic with an internal diameter of at least 4 mm and a length of at most 100 m, and characterized in that the feed pump is configured in such a manner that it conveys water from the water tank into the one or more water lines at a pressure of at most 25 bar and a flow rate of at most 1.4 l/min. a water tank; one or more water lines, each of which leads to a consumer group which has at least one water consumer and, in the water flow direction upstream of the at least one water consumer, at least one buffer for receiving water from the respective water line; a discharge line for discharging water from the water tank into the one or more water lines; and a feed pump in the discharge line for supplying water from the water tank into the one or more water lines, wherein the one or more water lines should each be configured as a flexible hose made of plastic with an internal diameter of at least 4 mm and a length of at most 100 m, and characterized in that the feed pump is configured in such a manner that it conveys water from the water tank into the one or more water lines at a pressure of at most 25 bar and a flow rate of at most 1.4 l/min.
A method for preparing a round emulsion bead comprising: dropping liquid emulsion to a cryogenic refrigerant at a temperature of no higher than 0 °C to prepare a solid round emulsion bead, wherein the liquid emulsion further comprises a lipid material which is solid at room temperature or a gel-forming material, wherein the cryogenic refrigerant is selected from the group consisting of silicone oil and mineral oil.
Multi-user voice controlled medical system, comprising: a controller comprising a first speech recognition module, a second speech recognition module, and a decision module; at least one medical device operable by the controller; a first microphone in communication with the first speech recognition module; a second microphone in communication with the second speech recognition module; the first speech recognition module generates a first set of commands from voice signals it receives from said first microphone; the second speech recognition module generates a second set of commands from voice signals it receives from said second microphone; the decision module receives the first and second sets of commands, accepts a subset of the commands in the first and second sets, rejects the remainder of the commands, and assembles a third set of commands comprising the accepted commands; and the controller executes the third set of commands to operate said at least one medical device. a controller comprising a first speech recognition module, a second speech recognition module, and a decision module; at least one medical device operable by the controller; a first microphone in communication with the first speech recognition module; a second microphone in communication with the second speech recognition module; the first speech recognition module generates a first set of commands from voice signals it receives from said first microphone; the second speech recognition module generates a second set of commands from voice signals it receives from said second microphone; the decision module receives the first and second sets of commands, accepts a subset of the commands in the first and second sets, rejects the remainder of the commands, and assembles a third set of commands comprising the accepted commands; and the controller executes the third set of commands to operate said at least one medical device.
A method of operating a controller of a portable electrical energy storage device collection, charging and distribution machine, comprising: receiving, by the controller of the portable electrical energy storage device collection, charging and distribution machine, a request for a portable electrical energy storage device at a portable electrical energy storage device collection, charging and distribution machine; automatically selecting, by the controller of the portable electrical energy storage device collection, charging and distribution machine, a portable electrical energy storage device in the portable electrical energy storage device collection, charging and distribution machine; and automatically releasing the selected portable electrical energy storage device, characterized in that the portable electrical energy storage device has performance characteristics and is selected by mapping a received user profile to the performance characteristics, wherein the performance characteristics include one or more of: a total cumulative number of charge cycles that the portable electrical energy storage device has experienced to date, number or frequency of deep discharges of the portable electrical energy storage device, temperature exposure of the portable electrical energy storage device, and whether the portable electrical energy storage device has been used by drivers with aggressive driving profiles. receiving, by the controller of the portable electrical energy storage device collection, charging and distribution machine, a request for a portable electrical energy storage device at a portable electrical energy storage device collection, charging and distribution machine; automatically selecting, by the controller of the portable electrical energy storage device collection, charging and distribution machine, a portable electrical energy storage device in the portable electrical energy storage device collection, charging and distribution machine; and automatically releasing the selected portable electrical energy storage device, characterized in that the portable electrical energy storage device has performance characteristics and is selected by mapping a received user profile to the performance characteristics, wherein the performance characteristics include one or more of: a total cumulative number of charge cycles that the portable electrical energy storage device has experienced to date, number or frequency of deep discharges of the portable electrical energy storage device, temperature exposure of the portable electrical energy storage device, and whether the portable electrical energy storage device has been used by drivers with aggressive driving profiles.
Antenna device for an RFID reader, the antenna device comprising a stationarily anchorable stand carrying at least two antennas (3 - 6), each pointing in a different direction, characterized in that the antennas (3 - 6) are mounted on a common carrier (11, 12, 16), which is mounted on the stand pivotably between two deflected positions, between which a rest position lies, and which is spring-loaded in its rest position, wherein the antennas (3 - 6) are patch or panel antennas, which are arranged at an angle (α) of 60° to 120°, preferably about 90°, to each other.
Device for dispensing a liquid under pressure where said device comprises connection means for connecting said device to the source of liquid, and where the device in the opposite end of the connection means has an outlet body which outlet body may be brought into a closed position where no liquid is dispensed, and an open position where liquid is dispensed, which outlet body incorporates a separate valve body cooperating with a valve seat, where said valve body has a head portion and a stem portion, where said stem portion in the closed position extends out of an opening in said outlet body,, and where a lower surface of said head portion in the closed position is in contact with said valve seat and in said open position is out of contact with said valve seat and, where the head portion is moved from the closed to the open position, by the stem portion engaging an outside surface or the like, mechanically urging the stem portion and thereby the head portion out of contact with the valve seat, and when the stem portion is released from its engagement with the outside surface or the like, the head portion is returned into contact with the valve seat, characterised in that said opening in the outlet body has a cross-section corresponding to the cross-section of the stem portion and where said opening is provided in a lowermost part of said outlet body and where outlet openings are provided below the valve seat, which outlet openings foresee that the liquid is issued very close to the bottom radially from the stem portions longitudinal axis towards the sides of the container in which the liquid is to be dispensed.
A fixation structure of a superconducting cable comprising a cable core which comprises a former and a superconductor layer, and a thermal insulation tube housing the cable core and having a thermal insulation structure configured of an internal tube (411, 421) and an external tube (412, 422), the fixation structure comprising: a fixation box connected to the thermal insulation tube, having a thermal insulation structure configured of an inner wall and an outer wall, through which the cable core penetrates; a fixation body for fixing the cable core on the inner wall of the fixation box; and a diameter-expanded reinforcement layer, as an electrical insulation layer, being formed on the cable core and having a diameter decreasing toward both ends; wherein a refrigerant can flow through an inside of the inner wall of the fixation box, the cable core is fixed on the inner wall with the fixation bracket through the diameter-expanded reinforcement layer, characterized in that the inner wall is formed by two cylindrical portions and the fixation bracket is interposed between the two cylindrical portions. a fixation box connected to the thermal insulation tube, having a thermal insulation structure configured of an inner wall and an outer wall, through which the cable core penetrates; a fixation body for fixing the cable core on the inner wall of the fixation box; and a diameter-expanded reinforcement layer, as an electrical insulation layer, being formed on the cable core and having a diameter decreasing toward both ends; wherein a refrigerant can flow through an inside of the inner wall of the fixation box, the cable core is fixed on the inner wall with the fixation bracket through the diameter-expanded reinforcement layer, characterized in that the inner wall is formed by two cylindrical portions and the fixation bracket is interposed between the two cylindrical portions.