mhurhangee/ep-ind-claims huggingface dataset:
A solid oxide fuel cell system comprising: a fuel cell stack comprising an anode manifold and a cathode manifold; and an anode fuelling apparatus fluidically connected to the fuel cell stack, the anode fuelling apparatus comprising, a reformer connected to the anode manifold of the fuel cell stack, wherein the reformer is adapted to obtain a first part of an anode exhaust from the anode manifold as a reactant for reforming a hydrocarbon compound to produce an intermediate anode fuel; a water gas shift reactor connected to the anode manifold and the reformer, wherein the water gas shift reactor is adapted to obtain the intermediate anode fuel from the reformer and a second part of the anode exhaust from the anode manifold as a reactant to produce an anode fuel, and wherein the water gas shift reactor is adapted to supply the anode fuel to the anode manifold; and a recuperator assembly fluidically connected to the fuel cell stack, wherein the recuperator assembly comprises at least one heat exchanger for transferring heat from the anode exhaust in the anode manifold and from a cathode exhaust in the cathode manifold to a cathode fuel flowing through the recuperator assembly towards the cathode manifold. a fuel cell stack comprising an anode manifold and a cathode manifold; and an anode fuelling apparatus fluidically connected to the fuel cell stack, the anode fuelling apparatus comprising, a reformer connected to the anode manifold of the fuel cell stack, wherein the reformer is adapted to obtain a first part of an anode exhaust from the anode manifold as a reactant for reforming a hydrocarbon compound to produce an intermediate anode fuel; a water gas shift reactor connected to the anode manifold and the reformer, wherein the water gas shift reactor is adapted to obtain the intermediate anode fuel from the reformer and a second part of the anode exhaust from the anode manifold as a reactant to produce an anode fuel, and wherein the water gas shift reactor is adapted to supply the anode fuel to the anode manifold; and a reformer connected to the anode manifold of the fuel cell stack, wherein the reformer is adapted to obtain a first part of an anode exhaust from the anode manifold as a reactant for reforming a hydrocarbon compound to produce an intermediate anode fuel; a water gas shift reactor connected to the anode manifold and the reformer, wherein the water gas shift reactor is adapted to obtain the intermediate anode fuel from the reformer and a second part of the anode exhaust from the anode manifold as a reactant to produce an anode fuel, and wherein the water gas shift reactor is adapted to supply the anode fuel to the anode manifold; and a recuperator assembly fluidically connected to the fuel cell stack, wherein the recuperator assembly comprises at least one heat exchanger for transferring heat from the anode exhaust in the anode manifold and from a cathode exhaust in the cathode manifold to a cathode fuel flowing through the recuperator assembly towards the cathode manifold.
An information processing device connected to a computer that is usable for designing a device to be incorporated in a mounting system configured to perform processing of mounting a component on a mounting target, the information processing device comprising: a memory section configured to store multiple pieces of abutting part data including a shape of an abutting part that abuts against the component, multiple pieces of attachment part data including a shape of an attachment part to be attached to an attachment section of a mounting head to which a collection member for collecting the component is attached, and multiple pieces of connection part data including a shape of a connection part that connects the abutting part and the attachment part, in the collection member; and a control section configured to output one or more of the abutting part data, the attachment part data, and the connection part data stored in the memory section to the computer, wherein the control section is configured to acquire component information including any one or more of identification information, a size, and a shape capable of identifying the component, and then search candidates for the abutting part data, the attachment part data, and the connection part data capable of collecting the component based on the component information, and output the searched data. a memory section configured to store multiple pieces of abutting part data including a shape of an abutting part that abuts against the component, multiple pieces of attachment part data including a shape of an attachment part to be attached to an attachment section of a mounting head to which a collection member for collecting the component is attached, and multiple pieces of connection part data including a shape of a connection part that connects the abutting part and the attachment part, in the collection member; and a control section configured to output one or more of the abutting part data, the attachment part data, and the connection part data stored in the memory section to the computer, wherein the control section is configured to acquire component information including any one or more of identification information, a size, and a shape capable of identifying the component, and then search candidates for the abutting part data, the attachment part data, and the connection part data capable of collecting the component based on the component information, and output the searched data.
A system for starting a turbine engine, comprising: an auxiliary gearbox having a gearbox input shaft, the gearbox, in use, being coupled to the turbine engine; the gearbox input shaft rotationally coupled to a spool of the turbine engine via the auxiliary gearbox; an electric starter mounted on the gearbox input shaft; and an air turbine starter mounted on the gearbox input shaft, wherein the electric starter is located on one side of the gearbox and the air turbine starter is located on the opposite side of the gearbox such that the gearbox is located between the electric starter and the air turbine starter, and wherein the electric starter is a starter-generator configured to be connected alternatively between an auxiliary power source and an auxiliary load. the turbine engine; the gearbox input shaft rotationally coupled to a spool of the turbine engine via the auxiliary gearbox; an electric starter mounted on the gearbox input shaft; and an air turbine starter mounted on the gearbox input shaft, wherein the electric starter is located on one side of the gearbox and the air turbine starter is located on the opposite side of the gearbox such that the gearbox is located between the electric starter and the air turbine starter, and wherein the electric starter is a starter-generator configured to be connected alternatively between an auxiliary power source and an auxiliary load.
Connection component for load-bearing, vertical connection of building parts, having a thermally insulating main body which has two oppositely located contact faces (1a, 1b) for connection to the building parts, and having at least one compression element which is inserted into the thermally insulating main body and passes through the latter substantially from one contact face to the other, wherein the compression element is made at least partly of a pourable, curable material, especially concrete, and has, at least in some regions, an outer casing comprising a sleeve made from steel or from a fibre-reinforced composite material, characterised in that the outer casing is recessed in the region of oppositely located end faces of the compression element which serve for the introduction of pressure.
A method for positive connection of a flexible printing form to a register element and/or for disconnection of such a connection, wherein the printing form at least on one of its respective ends has a suspension limb (03; 13) flexed relative to its contact surface along a flexible edge (02; 12) and at least one recess on this suspension limb (03; 13) with an orifice interrupting a border of the suspension limb (03; 13), wherein the printing form is connected to the register element at least in the orifice of this recess, wherein at least a portion of the printing form is flexed by a flexing forming a flexing line running parallel to the flexible edge (02; 12) of this printing form, characterized in that this flexing of the printing form is forced by at least one retaining element retaining this printing form at least during the connection of the printing form to the register element in interaction with at least one supporting element supporting the contact surface of this printing form and/or in interaction with at least one pressure element in a contact with the printed image side of this printing form exerting a pressure on this printing form, wherein the flexing of the printing form and the orifice of the recess formed on the suspension limb (03; 13) extend in a same direction with respect to the contact surface of this printing form, wherein the printing form is elastically deformed in the region of its recess by means of this flexing, wherein at least the orifice of this recess is widened by means of the elastic deformation of the printing form in the region of its recess in comparison to an unflexed state of the printing form, wherein the force causing the deflection of the printing form along the flexible edge (02; 12) is limited to such an extent by a limitation of a travel distance of the at least one moved retaining element or of the at least one moved supporting element or of the at least one moved pressure element, that the deformation of the printing form remains in the elastic region.
A method of storing a thioepoxy compound for an optical material, the method comprising storing a thioepoxy compound having a water content of 500 to 2,500 ppm at a storage temperature of from -78 to 10°C.
A compound of Formula I, wherein: A is C 1-6 alkyl, phenyl, CH 2 R 1, OR 4, R 1 is H, R 2 is H or halo; R 3 is halo; R 4 is C 1-6 alkyl; R 5 is C 1-6 alkyl; R 6 is H or halo; X is C(=O) or S(=O) 2; and Y is CH or N; or a pharmaceutically acceptable salt thereof. A is C 1-6 alkyl, phenyl, CH 2 R 1, OR 4, R 1 is H, R 2 is H or halo; R 3 is halo; R 4 is C 1-6 alkyl; R 5 is C 1-6 alkyl; R 6 is H or halo; X is C(=O) or S(=O) 2; and Y is CH or N;
An apparatus for protecting a paper skew of a printer, comprising: a printer head unit comprising a support shaft installed on a support frame and a thermal printer head installed on the support frame to print printing paper; a platen roller unit comprising a roller frame and a platen roller; and paper guides formed at both sides of the support shaft configured to guide a conveyance of the printing paper by contacting the printing paper. a printer head unit comprising a support shaft installed on a support frame and a thermal printer head installed on the support frame to print printing paper; a platen roller unit comprising a roller frame and a platen roller; and paper guides formed at both sides of the support shaft configured to guide a conveyance of the printing paper by contacting the printing paper.
A method of detecting an analyte in a fluid sample comprising: receiving a fluid sample at an assay test device, the assay test device comprising sensors and a controller; generating a series of sensor signals representative of reagent development during an assay time period; generating at least one reagent development trend signal during at least a portion of the assay time period, wherein generating the at least one reagent development trend signal comprises comparing sensor signals from the series of sensor signals to characterize any rise in reagent development during the assay time period; generating at least one endpoint signal representative of a final reagent development condition at or near the end of the assay time period; determining whether the comparing indicates a generally monotonic rise in reagent development; determining whether the at least one endpoint signal exceeds a pre-determined threshold; generating an assay result output based at least in part on both the at least one reagent development trend signal and the at least one endpoint signal, wherein generating the assay result output comprises generating a positive test result when both the comparing indicates a generally monotonic rise in reagent development and when the at least one endpoint signal exceeds the pre-determined threshold, and generating a negative test result when either the comparing does not indicate a generally monotonic rise in reagent development or when the at least one endpoint signal does not exceed the pre-determined threshold; and displaying the assay result output. receiving a fluid sample at an assay test device, the assay test device comprising sensors and a controller; generating a series of sensor signals representative of reagent development during an assay time period; generating at least one reagent development trend signal during at least a portion of the assay time period, wherein generating the at least one reagent development trend signal comprises comparing sensor signals from the series of sensor signals to characterize any rise in reagent development during the assay time period; generating at least one endpoint signal representative of a final reagent development condition at or near the end of the assay time period; determining whether the comparing indicates a generally monotonic rise in reagent development; determining whether the at least one endpoint signal exceeds a pre-determined threshold; generating an assay result output based at least in part on both the at least one reagent development trend signal and the at least one endpoint signal, wherein generating the assay result output comprises generating a positive test result when both the comparing indicates a generally monotonic rise in reagent development and when the at least one endpoint signal exceeds the pre-determined threshold, and generating a negative test result when either the comparing does not indicate a generally monotonic rise in reagent development or when the at least one endpoint signal does not exceed the pre-determined threshold; and displaying the assay result output.
Process for preparing 2,3,3,3-tetrafluoropropene, comprising the following steps: (a) catalytic reaction of 1,1,1,2,3-pentachloropropane and/or 1,1,2,2,3-pentachloropropane with HF into a reaction mixture comprising HCl, 2-chloro-3,3,3-trifluoropropene, 2,3,3,3-tetrafluoropropene, unreacted HF and optionally 1,1,1,2,2-pentafluoropropane; (b) separating the reaction mixture into a first stream comprising HCl and 2,3,3,3-tetrafluoropropene and a second stream comprising HF, 2-chloro-3,3,3-trifluoropropene and optionally 1,1,1,2,2-pentafluoropropane; (c) catalytic reaction of the second stream into a reaction mixture comprising 2,3,3,3-tetrafluoropropene, HCl, unreacted 2-chloro-3,3,3-trifluoropropene and HF and optionally 1,1,1,2,2-pentafluoropropane; (d) feeding the reaction mixture of step (c) directly to step (a) wherein the catalysts used in steps (a) and (c) are selected from chromium oxyfluoride, aluminium fluoride and oxyfluoride, and supported or unsupported catalyst containing a metal selected from Cr, Ni, Fe, Zn, Ti, V, Zr, Mo, Ge, Sn, Pb, Mg, Sb. (a) catalytic reaction of 1,1,1,2,3-pentachloropropane and/or 1,1,2,2,3-pentachloropropane with HF into a reaction mixture comprising HCl, 2-chloro-3,3,3-trifluoropropene, 2,3,3,3-tetrafluoropropene, unreacted HF and optionally 1,1,1,2,2-pentafluoropropane; (b) separating the reaction mixture into a first stream comprising HCl and 2,3,3,3-tetrafluoropropene and a second stream comprising HF, 2-chloro-3,3,3-trifluoropropene and optionally 1,1,1,2,2-pentafluoropropane; (c) catalytic reaction of the second stream into a reaction mixture comprising 2,3,3,3-tetrafluoropropene, HCl, unreacted 2-chloro-3,3,3-trifluoropropene and HF and optionally 1,1,1,2,2-pentafluoropropane; (d) feeding the reaction mixture of step (c) directly to step (a) wherein the catalysts used in steps (a) and (c) are selected from chromium oxyfluoride, aluminium fluoride and oxyfluoride, and supported or unsupported catalyst containing a metal selected from Cr, Ni, Fe, Zn, Ti, V, Zr, Mo, Ge, Sn, Pb, Mg, Sb.
A use of a closing plug for closing a connection opening of a radiator until the final installation thereof, wherein the closing plug serves as protective plug during a lacquering process of the radiator and as safety plug during a transport operation of the radiator to the installation site, wherein the closing plug comprises a plug body made of plastic which comprises an outlet port which opens in dependence on pressure and for the purpose of a pressure equalization.
A method carried out by a Subscriber Station, SS, of a wireless communication system using beamforming, the method comprising: determining a downlink transmission beam among downlink transmission beams based on strength of a signal transmitted from a base station, BS, via each of the downlink transmission beams; characterized by determining a random access channel, RACH, sequence comprising information indicating the determined downlink transmission beam based on information regarding a configuration of the RACH sequence; and transmitting (330A, 335) the RACH sequence to the BS, wherein the information regarding the configuration of the RACH sequence is indicated to the SS by the BS. determining a downlink transmission beam among downlink transmission beams based on strength of a signal transmitted from a base station, BS, via each of the downlink transmission beams; characterized by determining a random access channel, RACH, sequence comprising information indicating the determined downlink transmission beam based on information regarding a configuration of the RACH sequence; and transmitting (330A, 335) the RACH sequence to the BS, wherein the information regarding the configuration of the RACH sequence is indicated to the SS by the BS.
Method for producing a foamed decorated carrier part for a motor vehicle, characterized in that a foamed decoration-capable carrier part is produced, wherein a foil with a base layer, an adhesive layer and a protective layer, in which the base layer forms a rear side of the foil, the adhesive layer is disposed between the base layer and the protective layer, fixedly connected to the base layer in a materially integral manner and releasably connected to the protective layer, and the protective layer forms an external layer of the foil, is back-injection moulded by an injection-moulding method with the aid of a mould which is able to be opened and closed, wherein an injected plastics material and the base layer of the foil fixedly connect to one another in a materially integral manner, the mould is opened in order to retrieve the carrier part, wherein the protective layer is removed in order to expose and/or activate the adhesive layer, and a decoration is applied, wherein the exposed and/or activated adhesive layer then causes a materially integral connection between the foamed carrier part and the decoration.
A modular LED lamp comprising: an interchangeable LED module (100, 200) comprising at least one LED, the interchangeable LED module (100, 200) including an LED controller (110, 210) operable to determine brightness and/or color characteristics for LEDs in the LED module and a non-volatile memory with the brightness and/or color characteristics stored therein; and an interchangeable power supply unit (105, 205) for supplying drive current to the at least one LED, the interchangeable power supply unit (105, 205) including a PSU controller (120, 220) to control current supplied to the interchangeable LED module (100, 200) by the interchangeable power supply unit (105, 205) in response to signaling from the LED controller (110, 210) as to the brightness and/or color characteristics stored in the non-volatile memory of the interchangeable LED module (100, 200), characterized by the brightness and/or color characteristics for the at least one LED in the LED module (100, 200) being measured during production; and the interchangeable power supply unit (105, 205) further being interconnectable with the interchangeable LED module (100, 200) at mating connections (224, 228) so that the interchangeable LED module (100, 200) and the interchangeable power supply unit (105, 205) can be manufactured separately. an interchangeable LED module (100, 200) comprising at least one LED, the interchangeable LED module (100, 200) including an LED controller (110, 210) operable to determine brightness and/or color characteristics for LEDs in the LED module and a non-volatile memory with the brightness and/or color characteristics stored therein; and an interchangeable power supply unit (105, 205) for supplying drive current to the at least one LED, the interchangeable power supply unit (105, 205) including a PSU controller (120, 220) to control current supplied to the interchangeable LED module (100, 200) by the interchangeable power supply unit (105, 205) in response to signaling from the LED controller (110, 210) as to the brightness and/or color characteristics stored in the non-volatile memory of the interchangeable LED module (100, 200), characterized by the brightness and/or color characteristics for the at least one LED in the LED module (100, 200) being measured during production; and the interchangeable power supply unit (105, 205) further being interconnectable with the interchangeable LED module (100, 200) at mating connections (224, 228) so that the interchangeable LED module (100, 200) and the interchangeable power supply unit (105, 205) can be manufactured separately.
A compound represented by the formula: wherein R 1 is an azetidinyl group substituted by one 18 F; R 2 is a phenyl group optionally substituted by 1 to 3 halogen atoms, or a pyrazolyl group or a thiazolyl group, each optionally substituted by 1 to 3 substituents selected from (a) a halogen atom, (b) a C 1-6 alkyl group, and (c) a C 3-8 cycloalkyl group; X 1 is CH or N; and Ring A is or a salt thereof. R 1 is an azetidinyl group substituted by one 18 F; R 2 is a phenyl group optionally substituted by 1 to 3 halogen atoms, or a pyrazolyl group or a thiazolyl group, each optionally substituted by 1 to 3 substituents selected from (a) a halogen atom, (b) a C 1-6 alkyl group, and (c) a C 3-8 cycloalkyl group; a phenyl group optionally substituted by 1 to 3 halogen atoms, or a pyrazolyl group or a thiazolyl group, each optionally substituted by 1 to 3 substituents selected from (a) a halogen atom, (b) a C 1-6 alkyl group, and (c) a C 3-8 cycloalkyl group; (a) a halogen atom, (b) a C 1-6 alkyl group, and (c) a C 3-8 cycloalkyl group; X 1 is CH or N; and Ring A is or a salt thereof.