mhurhangee/ep-ind-claims huggingface dataset:
A process configuration for the production of low sulfur fuel products from heavy residue feedstocks comprising: a) feeding a feedstock comprising a heavy oil, and a hydrogen stream to one or more ebullated-bed reactors to provide a first effluent; and b) feeding said first effluent from said one or more ebullated-bed reactors to a separation section comprising separation vessels at different temperatures and pressures to recover hydrogen-rich gases and liquid effluents, and c) feeding said liquid effluents from said separation section to atmospheric and vacuum distillation units to recover a vacuum residue stream, vacuum gas oil stream(s), naphtha stream(s), and middle distillate stream(s); and d) feeding a light cycle oil stream from a fluid catalytic cracking unit and a hydrogen stream to a fixed-bed or ebullated-bed hydrodesulfurization unit to provide a second liquid effluent and a hydrogen-rich vapor stream wherein said hydrogen stream is obtained from the said hydrogen-rich gas streams in step (b) and said hydrogen-rich vapor stream from step (d) is thereafter returned to said separation section in step (b); and e) fractionating said second liquid effluent in a stripping column to separate a wild naphtha stream and a stabilized low sulfur light cycle oil stream; and f) blending said low sulfur light cycle oil stream with said vacuum residue stream from step c) to provide a final fuel oil product; and wherein said fuel oil product contains no more than 0.5% weight percent sulfur, less than 18% weight percent conradson carbon residue, less than 350 wppm vanadium, a density of less than 991 kg/m3 at 15°C, less than 0.1 weight percent sediment by IP-390, and a viscosity of less than 380 centistokes at 50°C. a) feeding a feedstock comprising a heavy oil, and a hydrogen stream to one or more ebullated-bed reactors to provide a first effluent; and b) feeding said first effluent from said one or more ebullated-bed reactors to a separation section comprising separation vessels at different temperatures and pressures to recover hydrogen-rich gases and liquid effluents, and c) feeding said liquid effluents from said separation section to atmospheric and vacuum distillation units to recover a vacuum residue stream, vacuum gas oil stream(s), naphtha stream(s), and middle distillate stream(s); and d) feeding a light cycle oil stream from a fluid catalytic cracking unit and a hydrogen stream to a fixed-bed or ebullated-bed hydrodesulfurization unit to provide a second liquid effluent and a hydrogen-rich vapor stream wherein said hydrogen stream is obtained from the said hydrogen-rich gas streams in step (b) and said hydrogen-rich vapor stream from step (d) is thereafter returned to said separation section in step (b); and e) fractionating said second liquid effluent in a stripping column to separate a wild naphtha stream and a stabilized low sulfur light cycle oil stream; and f) blending said low sulfur light cycle oil stream with said vacuum residue stream from step c) to provide a final fuel oil product; and
A battery module comprising: a plurality of secondary batteries arranged side by side in an arrangement direction, each of the plurality of secondary batteries having positive and negative terminals protruding upwards at a top-end of the respective secondary battery in a direction perpendicular to the arrangement direction; one or more busbar arranged on a top of the secondary batteries, each of the one or more busbar being electrically connected to at least two of the plurality of secondary batteries; a sampling assembly comprising a sampling circuit board and one or more sampling leg, the sampling circuit board being arranged on the top-end of each of the plurality of secondary batteries and extending in the arrangement direction, each of the one or more busbar being connected to sampling circuit board by a respective sampling leg of the one or more sampling leg; one or more connector, each of the one or more sampling leg and the respective busbar being connected at a welded zone by welding and connected with a respective connector of the one or more connector in a way of bolting, riveting or plug-in, wherein each of the one or more connector is located between the respective welded zone and the sampling circuit board. a plurality of secondary batteries arranged side by side in an arrangement direction, each of the plurality of secondary batteries having positive and negative terminals protruding upwards at a top-end of the respective secondary battery in a direction perpendicular to the arrangement direction; one or more busbar arranged on a top of the secondary batteries, each of the one or more busbar being electrically connected to at least two of the plurality of secondary batteries; a sampling assembly comprising a sampling circuit board and one or more sampling leg, the sampling circuit board being arranged on the top-end of each of the plurality of secondary batteries and extending in the arrangement direction, each of the one or more busbar being connected to sampling circuit board by a respective sampling leg of the one or more sampling leg; one or more connector, each of the one or more sampling leg and the respective busbar being connected at a welded zone by welding and connected with a respective connector of the one or more connector in a way of bolting, riveting or plug-in, wherein each of the one or more connector is located between the respective welded zone and the sampling circuit board.
Electronic parking disc for a vehicle; where the parking disc comprises a front and a back; where the front comprises a first display serving for indicating a time for initiating the parking; where the back comprises a second display serving for indicating the actual time; where the back comprises one or more input means for setting the parking disc; where the parking disc comprises a movement-sensor, capable of sensing whether the parking disc is subject to movement or is stationary; where the parking disc comprises a data processor and an associated unit for data storage; where the parking disc comprises an electronic clockwork; where the data storage comprises a control system for controlling the function of the parking disc; where the parking disc comprises a battery for the supply of electrical voltage to the parts of the parking disc that requires a voltage supply; where the parking disc comprises one or more solar cells for the supply of electrical voltage to the parts of the parking disc that requires a voltage supply, characterized in that the parking disc is designed to, via the solar cells, detect whether sufficient ambient light is available to completely supply the parking disc with current from the solar cell/solar cells; and that the parking disc is designed to on the basis of the detection to shift between being supplied from a battery or from the solar cell/solar cells.
Interference-suppression arrangement of an actuating element having an electric motor, comprising: a) the actuating element and the electric motor with an at least partially electrically conductive electric motor housing and a first electrical connection line and a second electrical connection line which provide an electrical connection between a voltage source and the electric motor, b) a first varistor and a second varistor, wherein c) the first varistor is electrically connected at one end to the first connection line and the electric motor housing, and the second varistor is electrically connected at one end to the second connection line and the electric motor housing, characterized in that the electric motor housing is connected to an at least partially electrically conductive portion of the actuating element, which portion forms a housing of the actuating element or a metallized subregion on the actuating element, via an electrical connection, and in that the first varistor and the second varistor are connected at the other end to the electrical connection, so that high-frequency voltages can be discharged by means of the capacitances of the first varistor and the second varistor. a) the actuating element and the electric motor with an at least partially electrically conductive electric motor housing and a first electrical connection line and a second electrical connection line which provide an electrical connection between a voltage source and the electric motor, b) a first varistor and a second varistor, wherein c) the first varistor is electrically connected at one end to the first connection line and the electric motor housing, and the second varistor is electrically connected at one end to the second connection line and the electric motor housing,
A device for authenticating a person wherever the person goes, the device is a handheld, self-contained and portable device and includes: a central processing unit, CPU operable to execute instructions, a read -only memory, ROM operable to store data permanently, wherein no outside part may store instructions in the device, a random access memory, RAM operable to store only ongoing processing temporarily during an operating cycle and to delete all the temporarily stored data automatically after each operating cycle, at least one biometric reader (18, 114, 110), each biometric reader operable to read biometric data, communication means (112, 113) operable to communicate a unique preloaded readable production series number of the device stored in the ROM, and power supply means to supply power to the device and enable operation of the device, wherein operation of the device is controlled solely by data permanently stored in the ROM, wherein the device is adapted to communicate at least one biometric reading mixed with said series number, and wherein the data stored in the RAM is deleted automatically after each operating cycle. a central processing unit, CPU operable to execute instructions, a read -only memory, ROM operable to store data permanently, wherein no outside part may store instructions in the device, a random access memory, RAM operable to store only ongoing processing temporarily during an operating cycle and to delete all the temporarily stored data automatically after each operating cycle, at least one biometric reader (18, 114, 110), each biometric reader operable to read biometric data, communication means (112, 113) operable to communicate a unique preloaded readable production series number of the device stored in the ROM, and power supply means to supply power to the device and enable operation of the device, wherein operation of the device is controlled solely by data permanently stored in the ROM, wherein the device is adapted to communicate at least one biometric reading mixed with said series number, and wherein the data stored in the RAM is deleted automatically after each operating cycle.
Adjusting drum for adjusting a rotation of a horizontally-arranged delivering spiral of a product-dispatching machine, comprising at least one first plate equipped with first fastening means to at least one product-delivering spiral, and at least one second plate equipped with second fastening means to at least one actuating system, characterised in that between said first plate and said second plate angular orienting means of said spiral are arranged, said angular orienting means allowing a unilateral rotation of said first plate with respect to said second plate, and in that said angular orienting means of said spiral comprise at least one ring nut integral with said first plate and externally, circumferentially and radially equipped with a plurality of ratchet gear means adapted to engage a corresponding plurality of radial engagement seats internal and integral with said second plate, said unilateral rotation allowing rotating said first plate with respect to said second plate around a rotation axis (R-R) only along a first adjusting direction (V R) of said spiral, preventing a relative rotation between said first plate and said second plate along a second rotation direction (V F) around said rotation axis (R-R) opposite to said first rotation direction (V R).
A method of programming a group of non-volatile memory cells in parallel, wherein each memory cell of the group of non-volatile memory cells is programmable to a respective target state, comprising: providing a programming voltage incrementing with time for a finite period in the form of a staircase pulse train with a given step size; and programming the group of memory cells to respective target states in multiple programming passes, each successive programming pass having the staircase pulse train applied to program the group of the memory cells to the same respective target states, CHARACTERISED IN THAT: each successive programming pass has the staircase pulse train offset from the staircase pulse train of the previous programming pass by a predetermined offset level such that none of the pulses of the programming pass have the same programming voltage as any of the pulses of the previous programming pass. providing a programming voltage incrementing with time for a finite period in the form of a staircase pulse train with a given step size; and programming the group of memory cells to respective target states in multiple programming passes, each successive programming pass having the staircase pulse train applied to program the group of the memory cells to the same respective target states, each successive programming pass has the staircase pulse train offset from the staircase pulse train of the previous programming pass by a predetermined offset level such that none of the pulses of the programming pass have the same programming voltage as any of the pulses of the previous programming pass.
A microwave feeding structure for a semiconductor microwave oven, comprising: a chamber body having a door; a semiconductor power source configured to generate a microwave; and a microwave feeding assembly connected between the semiconductor power source and the chamber body, and configured to feed the microwave generated by the semiconductor power source into the chamber body and to convert a first microwave mode output by the semiconductor power source into a second microwave mode adaptive to microwave heating, wherein the microwave feeding structure further comprises a rectangular wave guide connected with the chamber body, the microwave feeding assembly is connected between the semiconductor power source and the rectangular wave guide, and comprises: a mounting tube; a ceramic ring connected with the mounting tube; a tube case connected with the ceramic ring; and an antenna defining a first end connected with the semiconductor power source and a second end extended through the tube case, the ceramic ring and the mounting tube sequentially into the rectangular wave guide. a chamber body having a door; a semiconductor power source configured to generate a microwave; and a microwave feeding assembly connected between the semiconductor power source and the chamber body, and configured to feed the microwave generated by the semiconductor power source into the chamber body and to convert a first microwave mode output by the semiconductor power source into a second microwave mode adaptive to microwave heating, wherein the microwave feeding structure further comprises a rectangular wave guide connected with the chamber body, the microwave feeding assembly is connected between the semiconductor power source and the rectangular wave guide, and comprises: a mounting tube; a ceramic ring connected with the mounting tube; a tube case connected with the ceramic ring; and an antenna defining a first end connected with the semiconductor power source and a second end extended through the tube case, the ceramic ring and the mounting tube sequentially into the rectangular wave guide. a mounting tube; a ceramic ring connected with the mounting tube; a tube case connected with the ceramic ring; and an antenna defining a first end connected with the semiconductor power source and a second end extended through the tube case, the ceramic ring and the mounting tube sequentially into the rectangular wave guide.
A method for transitioning a gas phase polymerization reactor comprising a fluidized bed from a first metallocene catalyst to a second metallocene catalyst, where the fluidized bed has a height based on a polymer produced from the first metallocene catalyst, the method comprising: reducing the superficial gas velocity within the reactor; increasing the height of the fluidized bed within the reactor by reducing or stopping the amount of the polymer product recovered from the reactor while polymerization is continued; stopping a feed comprising the first metallocene catalyst; introducing a first polymerization neutralizer to the reactor, wherein the first polymerization neutralizer does not comprise H 2 O; introducing a second polymerization neutralizer to the reactor, wherein the second polymerization neutralizer is different from the first polymerization neutralizer; purging the reactor with an inert gas; and introducing a feed comprising the second metallocene catalyst to the reactor. reducing the superficial gas velocity within the reactor; increasing the height of the fluidized bed within the reactor by reducing or stopping the amount of the polymer product recovered from the reactor while polymerization is continued; stopping a feed comprising the first metallocene catalyst; introducing a first polymerization neutralizer to the reactor, wherein the first polymerization neutralizer does not comprise H 2 O; introducing a second polymerization neutralizer to the reactor, wherein the second polymerization neutralizer is different from the first polymerization neutralizer; purging the reactor with an inert gas; and introducing a feed comprising the second metallocene catalyst to the reactor.
Container for collection and preservation of biopsy samples, comprising a body adapted to contain the biopsy sample and a cap adapted to be screwed onto the body to close it tightly, wherein the body comprises a side wall, a bottom wall and a mouth, wherein the cap comprises a receptacle for containing a preserving solution, a tearable membrane which seals off the receptacle at its bottom, a puncturing member adapted to be pressed against the membrane to tear it, and a filter which is attached to the receptacle and comprises a bottom wall having a plurality of holes for allowing the preserving solution to flow from the receptacle to the body as a result of tearing of the membrane, and wherein the container further comprises an operating member adapted to control the movement of the puncturing member to press it against the membrane, characterized in that the receptacle has a first external thread and the mouth has an internal thread adapted to engage said first external thread to allow the cap to be screwed onto the body, and in that the operating member is received inside the body and is configured to press the puncturing member against the membrane, until the latter is torn, as a result of the cap being screwed onto the body beyond a predetermined limit.
A method of estimating an amount of signal corresponding to at least one biomarker in an image of a biological sample comprising: (a) detecting isolated spots in a first image of the biological sample; (b) deriving an optical density value of a representative isolated spot based on signal features from the detected isolated spots; (c) estimating a number of predictive spots in signal aggregates in each of a plurality of sub-regions based on the derived optical density value of the representative isolated spot; and (d) storing the estimated number of predictive spots and detected isolated spots in each of the plurality of sub-regions in a database, wherein the number of predictive spots in the signal aggregates in each of the plurality of the sub-regions is estimated by calculating a quotient of a total optical density of the signal aggregates in one of the sub-regions divided by the derived optical density of the representative isolated spot. (a) detecting isolated spots in a first image of the biological sample; (b) deriving an optical density value of a representative isolated spot based on signal features from the detected isolated spots; (c) estimating a number of predictive spots in signal aggregates in each of a plurality of sub-regions based on the derived optical density value of the representative isolated spot; and (d) storing the estimated number of predictive spots and detected isolated spots in each of the plurality of sub-regions in a database,
Aircraft nacelle comprising a linking device between a first duct of an air intake and a second duct of an engine arranged in said nacelle, the two ducts being arranged end-to-end, said linking device comprising an annular collar connected to the air intake, an annular collar connected to the engine clamped against said annular collar of the air intake, a plurality of through-holes (48, 54, 86, 100) created in the annular collars (46, 50) and arranged in line with one another and connecting elements received in the through-holes (48, 54, 86, 100), making it possible to connect said annular collars (46, 50), characterized in that, for at least one linking element, one of the annular collars comprises an opening and in that the linking device comprises a spacer in the form of a disc inserted into the opening, said spacer comprising a tubular shape with a through-hole for the through-element, a peripheral ring of which the outer diameter matches that of the opening, the tubular shape and the peripheral ring being connected by a deformable wall having a reduction in thickness, said reduction in thickness (72, 90) being arranged relative to the linking element so as to allow, by deformation, a relative movement between said linking element and the duct of the air intake and/or the duct of the engine in a direction perpendicular to the axis of the nacelle.