mhurhangee/ep-ind-claims huggingface dataset:
A process for producing propylene and aromatics comprising: a) reacting in a metathesis reactor a hydrocarbon feed mixture comprising 1-butene, 2-butene and, optionally, isobutene in the presence of a metathesis catalyst at conditions to produce a product comprising ethylene, propylene, product butenes, pentenes, hexenes and higher olefins; b1) separating from the product and recycling to the hydrocarbon feed the pentenes, the butenes, and optionally, the ethylene; b2) separating the propylene from the product; b3) separating the hexenes and higher olefins from the product; and c) reacting the hexenes and higher olefins in the presence of an aromatization catalyst, which is Pt/KL-zeolite, Pt/CsGeZSM-5, Pt/KGeZSM-5 or Pt/KZSM-5, wherein in step a) the molar ratio of 1-butene:2-butene in the hydrocarbon feed is of 1:6 to 6:1. a) reacting in a metathesis reactor a hydrocarbon feed mixture comprising 1-butene, 2-butene and, optionally, isobutene in the presence of a metathesis catalyst at conditions to produce a product comprising ethylene, propylene, product butenes, pentenes, hexenes and higher olefins; b1) separating from the product and recycling to the hydrocarbon feed the pentenes, the butenes, and optionally, the ethylene; b2) separating the propylene from the product; b3) separating the hexenes and higher olefins from the product; and c) reacting the hexenes and higher olefins in the presence of an aromatization catalyst, which is Pt/KL-zeolite, Pt/CsGeZSM-5, Pt/KGeZSM-5 or Pt/KZSM-5, wherein in step a) the molar ratio of 1-butene:2-butene in the hydrocarbon feed is of 1:6 to 6:1.
Method for producing wheel axles, in particular for railway carriages, comprising a hollow axle body which, with respect to thickened bearing seats, forms shouldered axle stubs for receiving the wheel and has an inner diameter for the axle stubs which is smaller than a widened inner diameter between the bearing seats, wherein the outer form of the axle body is formed from a hollow forging blank having an inner diameter corresponding at least to widened inner diameter of the axle body, characterised in that the hollow forging blank is forged, progressing in the axial direction, using a forging mandrel having a forming section for the widened inner diameter of the axle body, before the forming section for the widened inner diameter is pulled out from one end of the hollow forging blank and the still unforged section of the forging blank having the smaller inner diameter is forged with the aid of a forging mandrel having a forming section for the smaller inner diameter of the forging blank, wherein the inner surface of the hollow forging blank is descaled prior to forging and then a protective agent to prevent scaling is introduced via the forging mandrel into the hollow space of the forging blank which is closed on the end side during the forging procedure.
Method for defining welding parameters (P i (x)) for a welding process on a workpiece, in which a welding torch fastened to a robot is guided over the workpiece along a predetermined welding path and predetermined welding parameters (P i (x)) for processing the workpiece are set as a function of the position (x) along the welding path, characterised in that before the welding process is carried out, at least one parameter (P K (x)) representing the cooling is recorded as a function of the position (x) along the welding path, and the at least one parameter (P K (x)) representing the cooling along the welding path is taken into account when defining optimised welding parameters (P i,opt (x)) as a function of the position (x) along the welding path for the welding process.
An extruder barrel section comprising: a first barrel pad (204; 604), a second barrel pad (206; 606), an extruder liner; the first and second barrel pad (204, 206; 604, 606) co-operating to define a recess configured to receive the extruder liner; the length of the first and second barrel pad (204, 206; 604, 606) being less than the length of the extruder liner such that the extruder liner defines an end surface that projects beyond the first and second barrel pads (204, 206; 604, 606) on at least one side, the end surface configured to abut the end surface of another extruder liner; and a locking structure (208; 608) configured to lock the first barrel pad to the second barrel pad with the extruder liner therebetween, characterized in that, the extruder barrel section is configured for coupling with the other extruder barrel section by coupling the end surfaces of the extruder liners, whereby the end surface of the extruder liner includes either a plurality of alignment pins (730, 738) or a plurality of slots (728, 736); each alignment pin (730, 738) configured to be received by a corresponding slots (728, 736) defined on the end surface of the extruder liner abutting it, wherein the slots (728, 736) have width substantially equal to that of the alignment pin (730, 738) and a length larger than the width of the alignment pin (730, 738) permitting relative thermal expansion between the pair of extruder liners. a first barrel pad (204; 604), a second barrel pad (206; 606), an extruder liner; the first and second barrel pad (204, 206; 604, 606) co-operating to define a recess configured to receive the extruder liner; the length of the first and second barrel pad (204, 206; 604, 606) being less than the length of the extruder liner such that the extruder liner defines an end surface that projects beyond the first and second barrel pads (204, 206; 604, 606) on at least one side, the end surface configured to abut the end surface of another extruder liner; and a locking structure (208; 608) configured to lock the first barrel pad to the second barrel pad with the extruder liner therebetween, characterized in that, the extruder barrel section is configured for coupling with the other extruder barrel section by coupling the end surfaces of the extruder liners, whereby the end surface of the extruder liner includes either a plurality of alignment pins (730, 738) or a plurality of slots (728, 736); each alignment pin (730, 738) configured to be received by a corresponding slots (728, 736) defined on the end surface of the extruder liner abutting it, wherein the slots (728, 736) have width substantially equal to that of the alignment pin (730, 738) and a length larger than the width of the alignment pin (730, 738) permitting relative thermal expansion between the pair of extruder liners.
A reactor containment vessel vent system that reduces pressure in a reactor containment vessel by releasing gas in the reactor containment vessel to the atmosphere, the reactor containment vessel vent system comprising: a vent line (13, 16, 20) that forms a vent gas flow path through which vent gas is discharged from the reactor containment vessel and released to the atmosphere; a noble gas filter provided at a most downstream portion of the vent line, the noble gas filter allowing at least steam to pass through and not allowing radioactive noble gases to pass through among the vent gas; and a return pipe (24a, 24b) that connects an immediate upstream portion of the noble gas filter in the vent line and the reactor containment vessel; characterized by an intermediate vessel provided on the return pipe, in which gas containing the radioactive noble gases that cannot permeate the noble gas filter flows and is stored. a vent line (13, 16, 20) that forms a vent gas flow path through which vent gas is discharged from the reactor containment vessel and released to the atmosphere; a noble gas filter provided at a most downstream portion of the vent line, the noble gas filter allowing at least steam to pass through and not allowing radioactive noble gases to pass through among the vent gas; and a return pipe (24a, 24b) that connects an immediate upstream portion of the noble gas filter in the vent line and the reactor containment vessel; characterized by an intermediate vessel provided on the return pipe, in which gas containing the radioactive noble gases that cannot permeate the noble gas filter flows and is stored.
Method for production of a coil winding for electric motors or electric transformers, wherein a conductor element is formed from coated conductor parts and/or from coated stranded wire pieces and is inserted into a winding support, preferably a coil core or a laminated core, and wherein intermediate nodes or end nodes are manufactured by means of mechanical and electrically conductive connecting of end pieces of several conductors insulated with lacquer and/or stranded wires insulated with lacquer, in order to connect two or more of the conductor elements to each other, characterised in that initially, in a step after the formation of a conductor element and before the insertion of a formed conductor element into the winding support, an ultrasound compacting of the coated conductor end pieces and/or of the coated stranded wire end pieces to be connected occurs in order to remove insulating coating, and in that, after the insertion of the conductor elements, in particular of all conductor elements, into the winding support, a material connection between the conductor end pieces and/or the stranded wire end pieces to be connected is produced by means of laser welding in a following step.
A screen-on method, wherein the method comprises: in a screen-off state, obtaining, by an electronic apparatus, a first screen-on instruction, wherein a screen of the electronic apparatus is bendable and is divided into at least two screen areas by using a bending axis, each screen area being rotatable by using the bending axis as a center; determining, by the electronic apparatus, a first screen area based on rotation speeds or rotation accelerations at which the at least two screen areas rotate around the bending axis by using acceleration sensors respectively disposed in the at least two screen areas of the electronic apparatus and a gyroscope; and lighting up, by the electronic apparatus, the first screen area according to the first screen-on instruction, and setting a second screen area other than the first screen area to be in the screen-off state; wherein the determining, by the electronic apparatus, a first screen area based on rotation speeds or rotation accelerations at which the at least two screen areas rotate around the bending axis comprises: obtaining, by the electronic apparatus, the rotation speeds or the rotation accelerations corresponding to the at least two screen areas; and determining, by the electronic apparatus, a screen area with a smallest rotation speed or a smallest rotation acceleration as the first screen area. in a screen-off state, obtaining, by an electronic apparatus, a first screen-on instruction, wherein a screen of the electronic apparatus is bendable and is divided into at least two screen areas by using a bending axis, each screen area being rotatable by using the bending axis as a center; determining, by the electronic apparatus, a first screen area based on rotation speeds or rotation accelerations at which the at least two screen areas rotate around the bending axis by using acceleration sensors respectively disposed in the at least two screen areas of the electronic apparatus and a gyroscope; and lighting up, by the electronic apparatus, the first screen area according to the first screen-on instruction, and setting a second screen area other than the first screen area to be in the screen-off state; wherein the determining, by the electronic apparatus, a first screen area based on rotation speeds or rotation accelerations at which the at least two screen areas rotate around the bending axis comprises: obtaining, by the electronic apparatus, the rotation speeds or the rotation accelerations corresponding to the at least two screen areas; and determining, by the electronic apparatus, a screen area with a smallest rotation speed or a smallest rotation acceleration as the first screen area. obtaining, by the electronic apparatus, the rotation speeds or the rotation accelerations corresponding to the at least two screen areas; and determining, by the electronic apparatus, a screen area with a smallest rotation speed or a smallest rotation acceleration as the first screen area.
A method of characterizing an optical sensor chip, comprising the steps of: - referencing the optical sensor chip with an unambiguous chip identification number, chip ID (step s1), - characterizing the optical sensor chip by measuring sensor response data as a function of wavelength and an operating temperature (step s2) in a defined or standardized environment, for example at a production line, - saving the sensor response data together with the chip ID as a data bank entry in a database (step s3), and - providing a calibration algorithm associated with the chip (step s4). - referencing the optical sensor chip with an unambiguous chip identification number, chip ID (step s1), - characterizing the optical sensor chip by measuring sensor response data as a function of wavelength and an operating temperature (step s2) in a defined or standardized environment, for example at a production line, - saving the sensor response data together with the chip ID as a data bank entry in a database (step s3), and - providing a calibration algorithm associated with the chip (step s4).
A patch comprising a support layer and an adhesive agent layer, wherein the adhesive agent layer comprises free asenapine, a maleic acid alkali salt, and a rubber-based adhesive agent.
A transport carriage for cargo having a loading platform which is able to reach under the cargo in the loaded state of the transport carriage, and a strapping system which permits a securing of the cargo on the loading platform and comprises at least one tensioning means which may be guided at least in sections around the cargo loaded onto the platform by means of a common conveying device in order to tension the loaded cargo against the loading platform, characterized in that the loading platform at its front ends is defined by transverse side parts which comprise the conveying device of the strapping system.
Device for heat transfer, comprising a stacked-plate heat exchanger and a mating flange, the stacked-plate heat exchanger comprising: - a number of trough-shaped plates with an upright edge, the plates being stacked into each other with spacing and joined at the edge to form adjacent hollow chambers, and - at both ends of the stacked-plate heat exchanger, terminating, likewise trough-shaped, reinforcing plates (2, 3), with a device for securing the whole heat exchanger stack to the mating flange being provided at the edges of the reinforcing plate facing the mating flange, the edges of which point away from the stack, characterised in that the mating flange-side reinforcing plates of the stacked-plate heat exchanger and the mating flange are shaped such that the edge of the reinforcing plates fits into a not necessarily entirely continuous groove at the mating flange, and in that the mating flange-side reinforcing plate is dimensioned such that a part of the edge overlaps the mating flange positively. - a number of trough-shaped plates with an upright edge, the plates being stacked into each other with spacing and joined at the edge to form adjacent hollow chambers, and - at both ends of the stacked-plate heat exchanger, terminating, likewise trough-shaped, reinforcing plates (2, 3), with a device for securing the whole heat exchanger stack to the mating flange being provided at the edges of the reinforcing plate facing the mating flange, the edges of which point away from the stack,
A method of operating a hearing aid system comprising the steps of: - providing an input signal, - branching the input signal and hereby providing, in a first branch, the input signal to an all-pass filter and, in a second branch, providing the input signal to a signal processor, and in a third branch, providing the input signal to a first summation unit, wherein the all-pass filter is configured to introduce the same delay as the signal processor, - further branching the all-pass filter output signal and hereby providing, in a fourth branch, the all-pass filter output signal to a first adaptive filter, and providing, in a fifth branch, the all-pass filter output signal to an adaptive filter coefficient calculator, - providing the first adaptive filter output signal to the first summation unit and hereby providing a first error signal as the first adaptive filter output signal subtracted from the input signal, - optimizing the filter coefficients of the first adaptive filter, using the adaptive filter coefficient calculator, based on the first error signal and the all-pass filter output signal, - processing the input signal in the signal processor and providing the signal processor output signal to a second adaptive filter, wherein the second adaptive filter is provided with the same filter coefficients as the first adaptive filter, and - providing the second adaptive filter output signal and the first error signal for further processing in the hearing aid system. - providing an input signal, - branching the input signal and hereby providing, in a first branch, the input signal to an all-pass filter and, in a second branch, providing the input signal to a signal processor, and in a third branch, providing the input signal to a first summation unit, wherein the all-pass filter is configured to introduce the same delay as the signal processor, - further branching the all-pass filter output signal and hereby providing, in a fourth branch, the all-pass filter output signal to a first adaptive filter, and providing, in a fifth branch, the all-pass filter output signal to an adaptive filter coefficient calculator, - providing the first adaptive filter output signal to the first summation unit and hereby providing a first error signal as the first adaptive filter output signal subtracted from the input signal, - optimizing the filter coefficients of the first adaptive filter, using the adaptive filter coefficient calculator, based on the first error signal and the all-pass filter output signal, - processing the input signal in the signal processor and providing the signal processor output signal to a second adaptive filter, wherein the second adaptive filter is provided with the same filter coefficients as the first adaptive filter, and - providing the second adaptive filter output signal and the first error signal for further processing in the hearing aid system.
An image processing device, comprising: a processor module; a memory module; a display, and an input interface, wherein the input interface is configured to receive image data and to transmit the image data to the processor module, the image data including: static volume data initial dynamic volume data, and subsequent dynamic volume data, wherein the processor module is configured to: segment the static volume data to generate a static segmentation; segment the initial dynamic volume data to generate a plurality of dynamic segmentations; compare the static segmentation to each one of the plurality of dynamic segmentations; determine, using the comparisons, a single dynamic segmentation that most closely corresponds to the static segmentation; store the corresponding single dynamic segmentation in the memory as a reference segmentation, automatically segment the acquired subsequent dynamic volume data to generate a subsequent dynamic segmentation; determine a difference between the reference segmentation and the subsequent dynamic segmentation; update at least one annotation associated with the static segmentation using the determined difference; and transmit the subsequent dynamic volume data and the updated at least one annotation to the display for displaying together on the display. a processor module; a memory module; a display, and an input interface, wherein the input interface is configured to receive image data and to transmit the image data to the processor module, the image data including: static volume data initial dynamic volume data, and subsequent dynamic volume data, static volume data initial dynamic volume data, and subsequent dynamic volume data, segment the static volume data to generate a static segmentation; segment the initial dynamic volume data to generate a plurality of dynamic segmentations; compare the static segmentation to each one of the plurality of dynamic segmentations; determine, using the comparisons, a single dynamic segmentation that most closely corresponds to the static segmentation; store the corresponding single dynamic segmentation in the memory as a reference segmentation, automatically segment the acquired subsequent dynamic volume data to generate a subsequent dynamic segmentation; determine a difference between the reference segmentation and the subsequent dynamic segmentation; update at least one annotation associated with the static segmentation using the determined difference; and transmit the subsequent dynamic volume data and the updated at least one annotation to the display for displaying together on the display.
An electrochromic device, comprising: a substrate; a first conductor, wherein the first conductor is a single first transparent conductive oxide layer; a second conductor comprising a metal layer sandwiched between a second transparent conductive oxide layer and a third transparent conductive oxide layer; and a solid state and inorganic electrochromic stack between the first and second conductors; characterized in that the electrochromic device further comprises a diffusion barrier disposed on the substrate, wherein the first conductor is disposed on the diffusion barrier and wherein a first sheet resistance of the first conductor and a second sheet resistance of the second conductor vary from each other by (i) less than 20 %, (ii) less than 10 %, or (iii) less than 5%. a substrate; a first conductor, wherein the first conductor is a single first transparent conductive oxide layer; a second conductor comprising a metal layer sandwiched between a second transparent conductive oxide layer and a third transparent conductive oxide layer; and a solid state and inorganic electrochromic stack between the first and second conductors; characterized in that the electrochromic device further comprises a diffusion barrier disposed on the substrate, wherein the first conductor is disposed on the diffusion barrier and wherein a first sheet resistance of the first conductor and a second sheet resistance of the second conductor vary from each other by (i) less than 20 %, (ii) less than 10 %, or (iii) less than 5%.