mhurhangee/ep-ind-claims huggingface dataset:
A method for producing ethylene glycol from a polyhydroxy compound, comprising the steps of: a) adding a polyhydroxy compound and water to a reactor; b) removing air and pressurizing the reactor with hydrogen gas at a certain initial hydrogen pressure; c) allowing a polyhydroxy compound to react in the presence of a catalyst while stirring the reaction mixture; wherein: the reaction temperature is between 120 °C and 300°C; the reaction time is not less than 5 min; the catalyst is a composite catalyst, comprising catalyst A and catalyst B; the active component of catalyst A comprises a transition metal of Group 8, 9, or 10 selected from iron, cobalt, nickel, ruthenium, rhodium, palladium, iridium, and platinum, or a mixture thereof; the active component of catalyst B comprises a compound of tungsten oxide, tungsten sulfide, tungsten chloride, tungsten hydroxide, tungsten bronze oxide, tungsten acid, tungstate, metatungstate acid, metatungstate, paratungstate acid, paratungstate, peroxotungstic acid, pertungstate, heteropoly acid containing tungsten, or a mixture thereof; the weight ratio of the active component of catalyst A to the active component of catalyst B (based on tungsten weight) is between 0.02 and 3000. a) adding a polyhydroxy compound and water to a reactor; b) removing air and pressurizing the reactor with hydrogen gas at a certain initial hydrogen pressure; c) allowing a polyhydroxy compound to react in the presence of a catalyst while stirring the reaction mixture; wherein: the reaction temperature is between 120 °C and 300°C; the reaction time is not less than 5 min; the catalyst is a composite catalyst, comprising catalyst A and catalyst B; the active component of catalyst A comprises a transition metal of Group 8, 9, or 10 selected from iron, cobalt, nickel, ruthenium, rhodium, palladium, iridium, and platinum, or a mixture thereof; the active component of catalyst B comprises a compound of tungsten oxide, tungsten sulfide, tungsten chloride, tungsten hydroxide, tungsten bronze oxide, tungsten acid, tungstate, metatungstate acid, metatungstate, paratungstate acid, paratungstate, peroxotungstic acid, pertungstate, heteropoly acid containing tungsten, or a mixture thereof; the weight ratio of the active component of catalyst A to the active component of catalyst B (based on tungsten weight) is between 0.02 and 3000. the reaction temperature is between 120 °C and 300°C; the reaction time is not less than 5 min;
An exhaust gas control device for an internal combustion engine mounted on a vehicle, the internal combustion engine including a filter provided in an exhaust passage, the filter being configured to collect particulate matter and a reduction solution supply valve provided downstream of the filter in an exhaust gas flow direction, the reduction solution supply valve being configured to supply a reduction solution for exhaust gas purification into the exhaust passage, the exhaust gas control device comprising: a control device configured to a) execute a regeneration processing to regenerate the filter by supplying a fuel into a portion of the exhaust passage located upstream of the filter in the exhaust gas flow direction, and b) control the reduction solution supply valve to supply the reduction solution when an exhaust gas temperature exceeds a predetermined temperature while the regeneration processing is executed with the vehicle being stopped, characterized in that the control device is configured to control an injection pressure of the reduction solution such that the injection pressure when the reduction solution is supplied from the reduction solution supply valve by the exhaust gas temperature exceeding the predetermined temperature while the regeneration processing is executed with the vehicle being stopped is higher than the injection pressure when the reduction solution is supplied for exhaust gas purification. a control device configured to a) execute a regeneration processing to regenerate the filter by supplying a fuel into a portion of the exhaust passage located upstream of the filter in the exhaust gas flow direction, and b) control the reduction solution supply valve to supply the reduction solution when an exhaust gas temperature exceeds a predetermined temperature while the regeneration processing is executed with the vehicle being stopped, a) execute a regeneration processing to regenerate the filter by supplying a fuel into a portion of the exhaust passage located upstream of the filter in the exhaust gas flow direction, and b) control the reduction solution supply valve to supply the reduction solution when an exhaust gas temperature exceeds a predetermined temperature while the regeneration processing is executed with the vehicle being stopped, characterized in that the control device is configured to control an injection pressure of the reduction solution such that the injection pressure when the reduction solution is supplied from the reduction solution supply valve by the exhaust gas temperature exceeding the predetermined temperature while the regeneration processing is executed with the vehicle being stopped is higher than the injection pressure when the reduction solution is supplied for exhaust gas purification.
A door, in particular a niche door, for mounting in a niche, preferably for automatically and completely closing a passageway, in particular as a fire door, comprising a door panel comprising a niche side which, in the mounted state in a fully open position of the door, faces the niche, and comprising a facing side which, in the mounted state in the fully open position of the door, faces away from the niche, at least one door hinge for pivotably connecting the door panel to a door frame, the door hinge being arranged in the region of a hinge-side end face of the door panel, characterized in that an inspection flap is provided, which has at least one hinge for a hinged connection to the door frame or to a cover wall bounding the niche, and which, in the mounted state with the door fully open, adjoins approximately flush with the edge of the door panel, by means of which the door panel is connected to the door hinge to the door frame, so that the inspection flap blocks the view to the door hinge when the door is open, and the inspection flap in the mounted state is pivotably mounted independently of the door.
Method for selecting an operating mode for a vehicle which has at least two operating modes, in which graphics data of a graphics operator interface is generated and output, wherein the graphics operator interface comprises a background representation and at least two selectable button areas (21, 21a), wherein the button areas (21, 21a) are each assigned to an operating mode of the vehicle; a selection of a button area is sensed; and a control signal is generated in accordance with the operating mode which is assigned to the selected button area, and said control signal is transmitted to a control device of the vehicle; characterized in that the background representation comprises a representation of a vehicle surface, wherein the represented vehicle surface is formed in accordance with the operating mode which is selected at the current point in time; and surroundings data are acquired and the background representation is additionally formed in accordance with the surroundings data; wherein the representation of the vehicle surface has a bodywork shape and a representation of virtual surroundings; wherein the representation of the virtual surroundings is formed in accordance with the operating mode which is selected at the current point in time, and the shape of the bodywork is represented in a superimposed fashion; wherein the virtual surroundings comprise a roadway, elements of traffic infrastructure and/or geographic features; wherein the virtual surroundings are formed as an abstract representation of the actual surroundings of the vehicle.
A helicopter with a fuselage system that comprises a modular subfloor system which is one of several components of the fuselage system, the modular subfloor system being a pre-equipped component that is equipped separately and independently from any other component of the several components of the fuselage system in a separate workflow prior to assembling the modular subfloor system with other components of the fuselage system, wherein the modular subfloor system comprises: first longitudinal structural frames; lateral regions; and a modular tank system that is configured to be assembled, sealed, tested, and quality checked prior to assembling the modular subfloor system with the other components of the fuselage system, wherein the modular tank system is connected to the first longitudinal structural frames and comprises: a bottom shell of the helicopter, an upper panel, second longitudinal structural frames arranged between the bottom shell and the upper panel, transversal structural frames arranged between the bottom shell and the upper panel, wherein the transversal structural frames and the second longitudinal structural frames form compartments, tank bladders arranged in at least some of the compartments, and sealing elements that seal the upper panel, the bottom shell, and the at least some of the compartments of the modular tank system to ensure at least tightness of the modular tank system relative to the lateral regions. first longitudinal structural frames; lateral regions; and a modular tank system that is configured to be assembled, sealed, tested, and quality checked prior to assembling the modular subfloor system with the other components of the fuselage system, wherein the modular tank system is connected to the first longitudinal structural frames and comprises: a bottom shell of the helicopter, an upper panel, second longitudinal structural frames arranged between the bottom shell and the upper panel, transversal structural frames arranged between the bottom shell and the upper panel, wherein the transversal structural frames and the second longitudinal structural frames form compartments, tank bladders arranged in at least some of the compartments, and sealing elements that seal the upper panel, the bottom shell, and the at least some of the compartments of the modular tank system to ensure at least tightness of the modular tank system relative to the lateral regions. a bottom shell of the helicopter, an upper panel, second longitudinal structural frames arranged between the bottom shell and the upper panel, transversal structural frames arranged between the bottom shell and the upper panel, wherein the transversal structural frames and the second longitudinal structural frames form compartments, tank bladders arranged in at least some of the compartments, and sealing elements that seal the upper panel, the bottom shell, and the at least some of the compartments of the modular tank system to ensure at least tightness of the modular tank system relative to the lateral regions.
A laser system comprising a portable beam shaper, the beam shaper having: - a cartridge, - an optical system mounted in the cartridge and configured to transform a collimated input beam with a Gaussian intensity distribution profile into an output beam with a substantially uniform intensity profile, wherein the cartridge has opposite threaded ends configured to be removably engaged by respective optical components. - a cartridge, - an optical system mounted in the cartridge and configured to transform a collimated input beam with a Gaussian intensity distribution profile into an output beam with a substantially uniform intensity profile, wherein the cartridge has opposite threaded ends configured to be removably engaged by respective optical components.
A nanopore-based sequencing system or instrument, comprising: a plurality of nanopore-based sequencing chips, each of the nanopore-based sequencing chips comprising a plurality of nanopore sensors; at least one flow cell coupled to at least one of the plurality of nanopore-based sequencing chips, wherein the flow cell coupled to the at least one of the plurality of nanopore-based sequencing chips comprises one or more fluidic flow channels that allow a fluid external to the system to flow on top of the nanopore-based sequencing chip and out of the system; and a printed circuit board electrically connected to the plurality of nanopore-based sequencing chips. a plurality of nanopore-based sequencing chips, each of the nanopore-based sequencing chips comprising a plurality of nanopore sensors; at least one flow cell coupled to at least one of the plurality of nanopore-based sequencing chips, wherein the flow cell coupled to the at least one of the plurality of nanopore-based sequencing chips comprises one or more fluidic flow channels that allow a fluid external to the system to flow on top of the nanopore-based sequencing chip and out of the system; and a printed circuit board electrically connected to the plurality of nanopore-based sequencing chips.
Cable core, suitable as a bead core of a pneumatic vehicle tyre, the cable core having a core filament, which is sheathed by at least three plies (3 1, 3 2, 3 3) comprising filaments, the filaments of each of these at least three plies (3 1, 3 2, 3 3) having a specific number of turns about the ply lying respectively thereunder or the core filament lying thereunder, the filaments of the first and second plies (3 1, 3 2) having the same number of turns and that the filaments of the third and possibly further ply/plies (3 3) have an equal or lower number of turns, the ply (3 1) that lies directly on the core filament being referred to as the first ply and the further plies, following in the outward direction, being consecutively numbered in series, characterized in that the cable core has the construction 1×5.0+(10+16+22)×2.0, the filaments of the first ply and those of the second ply (3 1, 3 2) having an equal number of turns of nine each, and the filaments of the third ply (3 3) having a number of turns of eight.
A nicotine electronic vaping device, EVD, comprising: a reservoir containing a nicotine pre-vapor formulation; a heating element configured to heat nicotine pre-vapor formulation drawn from the reservoir; and control circuitry configured to, monitor a resistance value of the heating element over a first time period after a first application of negative pressure to the nicotine EVD, determine an estimated minimum steady state resistance value of the heating element after the first application of negative pressure based on the monitored resistance value using a trained neural network; and control power to the heating element based on the estimated minimum steady state resistance value after the first application of negative pressure. a reservoir containing a nicotine pre-vapor formulation; a heating element configured to heat nicotine pre-vapor formulation drawn from the reservoir; and control circuitry configured to, monitor a resistance value of the heating element over a first time period after a first application of negative pressure to the nicotine EVD, determine an estimated minimum steady state resistance value of the heating element after the first application of negative pressure based on the monitored resistance value using a trained neural network; and control power to the heating element based on the estimated minimum steady state resistance value after the first application of negative pressure. monitor a resistance value of the heating element over a first time period after a first application of negative pressure to the nicotine EVD, determine an estimated minimum steady state resistance value of the heating element after the first application of negative pressure based on the monitored resistance value using a trained neural network; and control power to the heating element based on the estimated minimum steady state resistance value after the first application of negative pressure.
A printing device which performs a printing process of a viscous fluid on a board fixed on a board support member by using a screen mask, the printing device being characterized by: a support member conveyance section which discharges and introduces the screen mask and the board support member; and an exchange control section which performs a mask exchange process including a mask discharge process of discharging the screen mask and a mask introduction process of introducing the screen mask by controlling the support member conveyance section and performs a support member exchange process including a support member discharge process of discharging the board support member and a support member introduction process of introducing the board support member by controlling the support member conveyance section. a support member conveyance section which discharges and introduces the screen mask and the board support member; and an exchange control section which performs a mask exchange process including a mask discharge process of discharging the screen mask and a mask introduction process of introducing the screen mask by controlling the support member conveyance section and performs a support member exchange process including a support member discharge process of discharging the board support member and a support member introduction process of introducing the board support member by controlling the support member conveyance section.
A spinal implant comprising: an upper surface including a first porous portion and first solid portion; a lower surface including a second porous portion and a second solid portion; a cavity formed through the upper and lower (12, 14) surfaces includes a third porous portion; and characterized in that at least one serration on each of the upper and lower surfaces (12, 14), the at least one serration including a solid tip, a solid root and a porous section. an upper surface including a first porous portion and first solid portion; a lower surface including a second porous portion and a second solid portion; a cavity formed through the upper and lower (12, 14) surfaces includes a third porous portion; and characterized in that at least one serration on each of the upper and lower surfaces (12, 14), the at least one serration including a solid tip, a solid root and a porous section.
A method of producing a plurality of cells, comprising culturing eye field progenitor cells, as cell clusters and under low adherence or non-adherent conditions, in a cell media for a period of time sufficient for the cell clusters to form a plurality of cells, wherein the eye field progenitor cells are capable of differentiating into retinal ganglion progenitor cells in the cell media, and wherein the cell media comprises forskolin, BDNF, and/or CNTF, wherein the plurality of cells express: one or more of Math5, Brn3a, Brn3b, Isl1, Neurofilament, and Thy1, wherein the eye field progenitor cells are characterized as Pax6(+), Rx1(+), Oct4(-) and Nanog(-), and preferably are also characterized as Six3(+), Six6(+), Lhx2(+), Tbx3(+), Sox2(+), Otx2(+) and Nestin(+), as determined by immunostaining and/or flow cytometry.
A wet wipe comprising a fibrous web structure wetted with an aqueous liquid composition, the fibrous web structure comprising: from 10 percent by weight to 40 percent by weight, more preferably from 15 percent by weight to 35 percent by weight, and even more preferably from 20 percent by weight to 30 percent by weight melt spun polymer filaments; and from 60 percent by weight to 90 percent by weight cellulose pulp fibers, more preferably from 65 percent by weight to 85 percent by weight cellulose pulp fibers, and still more preferably from 70 percent by weight to 80 percent by weight cellulose pulp fibers, wherein a portion of the cellulose pulp fibers comprises consolidated masses of cellulose pulp fibers, the wet wipe further comprising first and second outer scrim layers (38, 40) comprising a first portion of said melt spun polymer filaments, and an inner core layer comprising said cellulose pulp fibers, wherein the fibrous web structure has one or both of: a Density Uniformity Index of from 3.00 to 6.00, measured in accordance with the test method defined herein; and a Wet Versus Dry Uniformity Index of from 1.50 to 4.50, measured in accordance with the test method defined herein. from 10 percent by weight to 40 percent by weight, more preferably from 15 percent by weight to 35 percent by weight, and even more preferably from 20 percent by weight to 30 percent by weight melt spun polymer filaments; and from 60 percent by weight to 90 percent by weight cellulose pulp fibers, more preferably from 65 percent by weight to 85 percent by weight cellulose pulp fibers, and still more preferably from 70 percent by weight to 80 percent by weight cellulose pulp fibers, wherein a portion of the cellulose pulp fibers comprises consolidated masses of cellulose pulp fibers, the wet wipe further comprising first and second outer scrim layers (38, 40) comprising a first portion of said melt spun polymer filaments, and an inner core layer comprising said cellulose pulp fibers, wherein the fibrous web structure has one or both of: a Density Uniformity Index of from 3.00 to 6.00, measured in accordance with the test method defined herein; and a Wet Versus Dry Uniformity Index of from 1.50 to 4.50, measured in accordance with the test method defined herein. a Density Uniformity Index of from 3.00 to 6.00, measured in accordance with the test method defined herein; and a Wet Versus Dry Uniformity Index of from 1.50 to 4.50, measured in accordance with the test method defined herein.
A method for wireless communication at a user equipment, UE (115; 805; 905; 1105), comprising: receiving (1605; 1705) a configuration (225; 315; 415; 605) indicating a set of antenna subarrays of the UE, or a set of transmission reception points, or a combination thereof, for the UE to use to communicate while operating in a discontinuous reception mode; transmitting (615; 1610; 1715), based at least in part on the received configuration, a scheduling request (230; 320; 420) while operating in the discontinuous reception mode; receiving (620; 1615; 1720) an uplink grant (260; 325; 425) in response to the transmitted scheduling request; and transmitting (630; 1620; 1725) uplink data (330; 430) based at least in part on the received uplink grant and the received configuration. receiving (1605; 1705) a configuration (225; 315; 415; 605) indicating a set of antenna subarrays of the UE, or a set of transmission reception points, or a combination thereof, for the UE to use to communicate while operating in a discontinuous reception mode; transmitting (615; 1610; 1715), based at least in part on the received configuration, a scheduling request (230; 320; 420) while operating in the discontinuous reception mode; receiving (620; 1615; 1720) an uplink grant (260; 325; 425) in response to the transmitted scheduling request; and transmitting (630; 1620; 1725) uplink data (330; 430) based at least in part on the received uplink grant and the received configuration.