mhurhangee/ep-ind-claims huggingface dataset:
Cutting unit having an oscillatory drive and a cutting blade, wherein the oscillatory drive sets the cutting blade into linear oscillations, of which the axis of oscillations is perpendicular to a feed direction of the cutting blade, and having a holder for the oscillatory drive, characterized in that the oscillatory drive, together with the cutting blade, can be pivoted in relation to the holder about a pivot axis that is perpendicular to the axis of oscillation.
Device for extrusion-based additive manufacturing of a three-dimensional object comprising an extrusion device comprising an exit area having at least one outlet opening (3.1) for applying a molten extrusion material to a substrate, wherein the exit area comprises at least one of the molten extrusion material to be applied to the substrate throughflowable flow channel (3.5), and a closure element (6.1) associated with at least one flow channel (3.5), which has a closure element section (6.1.1) defining a longitudinal axis and at least one throughflow opening (6.1.2) passing through the closure element section (6.1.1), wherein the closure element section (6.1.1) can flow in at least one open position, in which in the molten extrusion material through the at least one throughflow opening (6.1.2), and in at least one closing position, in which molten extrusion material cannot flow through at least one throughflow opening (6.1.2), is movable, characterized by a storage device having two bearing positions (7.1, 7.2) for movable storage of the closure element portion (6.1.1), wherein at least one first bearing position (7.1) is arranged or formed at or in an adapter component (3.3) arranged at a flow outlet (5.3) of an extruder chamber (5.1) of the extrusion device and at least one second bearing position (7.2) is spaced or formed from the adapter component (3.3) arranged at the flow outlet (5.3) of the extruder chamber (5.1) of the extrusion device.
Pelletising press for pressing pellets, wherein the pelletising press comprises - at least one pan grinder, - at least one tapered roller bearing for supporting the at least one pan grinder, and - an adjusting device for automatically adjusting a preload for the tapered roller bearing of the pan grinder, wherein the adjusting device comprises at least one mechanical spring element which is configured to press the at least one tapered roller bearing into a predetermined position with a predetermined force, wherein the at least one mechanical spring element comprises an annular spring tensioning element, characterised in that the at least one mechanical spring element of the adjusting device, the at least one tapered roller bearing and the at least one pan grinder are arranged together in a casing which is closed off from an environment. - at least one pan grinder, - at least one tapered roller bearing for supporting the at least one pan grinder, and - an adjusting device for automatically adjusting a preload for the tapered roller bearing of the pan grinder,
A device comprising at least one processing unit, a touch-sensitive screen, and a multi-touch interface for receiving multi-touch gestural inputs on the screen, the device storing a multi-mode mapping program for execution by said at least one processing unit, the program comprising a user interface, the UI comprising: a display area on the touch-sensitive screen for displaying a two-dimensional presentation of a map or a three-dimensional presentation of the map; a selectable 3D control displayed on the touch-sensitive screen for directing the program to switch between the 2D and 3D presentations (740. 745) and adapted to have a first appearance when the display area displays the 2D presentation of the map and a second appearance when the display area displays the 3D presentation of the map; and a gesture processing module for receiving gestural inputs from the multi-touch interface and translating a first type of multi-touch gestural input to an instruction that directs the program to switch between the 2D and 3D presentations (740, 745), said selectable 3D control and the first type multi-touch gestural input providing two different mechanisms for directing the program to switch between the 2D and 3D presentations (740, 745). a display area on the touch-sensitive screen for displaying a two-dimensional presentation of a map or a three-dimensional presentation of the map; a selectable 3D control displayed on the touch-sensitive screen for directing the program to switch between the 2D and 3D presentations (740. 745) and adapted to have a first appearance when the display area displays the 2D presentation of the map and a second appearance when the display area displays the 3D presentation of the map; and a gesture processing module for receiving gestural inputs from the multi-touch interface and translating a first type of multi-touch gestural input to an instruction that directs the program to switch between the 2D and 3D presentations (740, 745), said selectable 3D control and the first type multi-touch gestural input providing two different mechanisms for directing the program to switch between the 2D and 3D presentations (740, 745).
A dust cup for a cleaner having a negative pressure device, comprising: a base and a cup casing, characterized in that the cup casing has a non-closed annular cross section with an opening so as to define a dust collecting chamber the cup casing is disposed at a top of the base, a mounting space located outside the dust collecting chamber is defined between an inner-ring wall face of the cup casing and a top wall of the base, a top of the mounting space is directly opened, and a side of the mounting space has an opened portion, wherein the dust cup is configured for the negative pressure device to be mounted to the mounting space via an opened portion of the mounting space. a base and a cup casing, characterized in that the cup casing has a non-closed annular cross section with an opening so as to define a dust collecting chamber the cup casing is disposed at a top of the base, a mounting space located outside the dust collecting chamber is defined between an inner-ring wall face of the cup casing and a top wall of the base, a top of the mounting space is directly opened, and a side of the mounting space has an opened portion, wherein the dust cup is configured for the negative pressure device to be mounted to the mounting space via an opened portion of the mounting space.
Method for processing steel powder consisting of a plurality of small steel powder balls, comprising the following steps: S1: heating the small steel powder balls until they are in a doughy state, S2: producing a collision of the small steel powder balls, which are in the doughy state, with an impact body for formation of deformed steel powder particles having projections, corners and edges, S3: collecting the deformed steel powder particles in a collecting vessel and S4: cooling the collected deformed steel powder particles until they are in a solid state. S1: heating the small steel powder balls until they are in a doughy state, S2: producing a collision of the small steel powder balls, which are in the doughy state, with an impact body for formation of deformed steel powder particles having projections, corners and edges, S3: collecting the deformed steel powder particles in a collecting vessel and S4: cooling the collected deformed steel powder particles until they are in a solid state.
A method of preparing a catalyst composition, the method comprising a) mixing a multi-ingredient-based metal oxide catalyst and a mixed metal hydroxide, b) molding the mixture, and c) firing the molded material at 300 to 350°C, wherein the multi-ingredient-based metal oxide catalyst comprises bismuth and molybdenum, wherein the mixed metal hydroxide is hydrotalcite, and wherein a content of the mixed metal hydroxide is 1 to 2.5% by weight, based on the total weight of the mixture of the multi-ingredient-based metal oxide and the mixed metal hydroxide.
A method of fabricating a bipolar battery plate for a bipolar battery, comprising: providing a frame; positioning a substrate within the frame, the substrate having a plurality of perforations; positioning a first lead layer on one side of the substrate within the frame; positioning a second lead layer on another side of the substrate, the first and second lead layers electrically connected to each other through the plurality of perforations; positioning a positive active material, PAM, on a surface of the first lead layer after the first lead layer is positioned on the substrate; and positioning a negative active material, NAM, on a surface of the second lead layer after the second lead layer is positioned on the substrate. providing a frame; positioning a substrate within the frame, the substrate having a plurality of perforations; positioning a first lead layer on one side of the substrate within the frame; positioning a second lead layer on another side of the substrate, the first and second lead layers electrically connected to each other through the plurality of perforations; positioning a positive active material, PAM, on a surface of the first lead layer after the first lead layer is positioned on the substrate; and positioning a negative active material, NAM, on a surface of the second lead layer after the second lead layer is positioned on the substrate.
A manufacturing method of a transparent substrate, comprising: forming a resin pattern layer including a plurality of grooves respectively including a side surface and a bottom surface; forming a conductive layer by depositing a metal on the resin pattern layer, while an average height of the conductive layer is controlled to be 5% to 50% of a maximum depth of each of the grooves and a metal deposition angle is controlled to be within a range of -15° to 15° with respect to a direction of a normal line of the resin pattern layer; and physically removing the conductive layer from remaining regions of the resin pattern layer, other than portions of the conductive layer present in the grooves. forming a resin pattern layer including a plurality of grooves respectively including a side surface and a bottom surface; forming a conductive layer by depositing a metal on the resin pattern layer, while an average height of the conductive layer is controlled to be 5% to 50% of a maximum depth of each of the grooves and a metal deposition angle is controlled to be within a range of -15° to 15° with respect to a direction of a normal line of the resin pattern layer; and physically removing the conductive layer from remaining regions of the resin pattern layer, other than portions of the conductive layer present in the grooves.
An ultrasonic medical probe provided with a longitudinal channel or bore and comprising: a horn or shaft; a shank at a proximal end of said shaft, said shank including a pair of opposed flats (216, 218), said shank being provided at a proximal end opposite said horn or shaft with an externally threaded connector for attaching the probe to a source of ultrasonic vibratory energy; and a probe head at a distal end of said horn or shaft, opposite said shank, wherein said probe comprises at least one polymeric component being of a composition that is essentially impervious to ultrasonic vibratory energy and that degrades or decomposes upon exposure to a source of extreme energy other than ultrasonic vibratory energy; said at least one polymeric component is fixed to at least one of said horn or shaft, said shank, and said probe head, for, once degraded or decomposed, rendering the probe inoperative for use; said probe comprises an at least partially transverse hole communicating with said channel or bore proximally of said probe head, said at least one polymeric component being disposed in said transverse hole, filling said transverse hole. a horn or shaft; a shank at a proximal end of said shaft, said shank including a pair of opposed flats (216, 218), said shank being provided at a proximal end opposite said horn or shaft with an externally threaded connector for attaching the probe to a source of ultrasonic vibratory energy; and a probe head at a distal end of said horn or shaft, opposite said shank, wherein said probe comprises at least one polymeric component being of a composition that is essentially impervious to ultrasonic vibratory energy and that degrades or decomposes upon exposure to a source of extreme energy other than ultrasonic vibratory energy; said at least one polymeric component is fixed to at least one of said horn or shaft, said shank, and said probe head, for, once degraded or decomposed, rendering the probe inoperative for use; said probe comprises an at least partially transverse hole communicating with said channel or bore proximally of said probe head, said at least one polymeric component being disposed in said transverse hole, filling said transverse hole.
A method for producing an aldehyde comprising bringing a raw material gas containing a primary alcohol having 4 to 18 carbon atoms and water into contact with a dehydrogenation catalyst containing copper and iron so as to dehydrogenate the alcohol contained in the raw material gas, thereby obtaining an aldehyde, wherein the raw material gas has a water partial pressure of 0.2 kPa to 99 kPa.
An axial-flow fan assembly, comprising a shrouded fan rotor including: a plurality of fan blades extending from a rotor hub and rotatable about a central axis of the fan assembly; and a fan shroud extending circumferentially around the fan rotor and secured to an outer tip diameter of the plurality of fan blades; and a fan casing enclosing the shrouded fan rotor, the fan casing defining a fan inlet of the fan assembly and including an inlet extension at an outer diameter of the fan casing, extending axially upstream of a bell mouth inlet, relative to a direction of airflow through the shrouded fan rotor; wherein the bell mouth inlet transitions to the inlet extension, the inlet extension including a convex portion and a concave portion; characterized in that the inlet extension extends between 5% and 20% of the fan rotor tip diameter axially upstream of the bell mouth inlet; and the inlet extension tapers radially from the bell mouth inlet to an inlet extension leading edge at a taper angle. a plurality of fan blades extending from a rotor hub and rotatable about a central axis of the fan assembly; and a fan shroud extending circumferentially around the fan rotor and secured to an outer tip diameter of the plurality of fan blades; and a fan casing enclosing the shrouded fan rotor, the fan casing defining a fan inlet of the fan assembly and including an inlet extension at an outer diameter of the fan casing, extending axially upstream of a bell mouth inlet, relative to a direction of airflow through the shrouded fan rotor; wherein the bell mouth inlet transitions to the inlet extension, the inlet extension including a convex portion and a concave portion; characterized in that the inlet extension extends between 5% and 20% of the fan rotor tip diameter axially upstream of the bell mouth inlet; and the inlet extension tapers radially from the bell mouth inlet to an inlet extension leading edge at a taper angle.
Use of a polynucleotide in an in vitro method for assessing the risk of developing hypertension comprising: any one of the following base sequences (a) to (d), wherein the polynucleotide can be used as a primer or probe for detecting a SNP rs2681472: (a) a base sequence of SEQ ID No.12 or a base sequence which is a partial sequence of SEQ ID No.12 having 10 to 60 bases, which partial sequence contains the SNP rs2681472; (b) a base sequence complementary to the base sequence (a); (c) a base sequence of SEQ ID No.13or a base sequence which is a partial sequence within a range of from 10 to 60 bases of the base sequence of SEQ ID No.13 containing the SNP rs2681472; (d) a base sequence complementary to the base sequence (c). any one of the following base sequences (a) to (d), wherein the polynucleotide can be used as a primer or probe for detecting a SNP rs2681472: (a) a base sequence of SEQ ID No.12 or a base sequence which is a partial sequence of SEQ ID No.12 having 10 to 60 bases, which partial sequence contains the SNP rs2681472; (b) a base sequence complementary to the base sequence (a); (c) a base sequence of SEQ ID No.13or a base sequence which is a partial sequence within a range of from 10 to 60 bases of the base sequence of SEQ ID No.13 containing the SNP rs2681472; (d) a base sequence complementary to the base sequence (c). (a) a base sequence of SEQ ID No.12 or a base sequence which is a partial sequence of SEQ ID No.12 having 10 to 60 bases, which partial sequence contains the SNP rs2681472; (b) a base sequence complementary to the base sequence (a); (c) a base sequence of SEQ ID No.13or a base sequence which is a partial sequence within a range of from 10 to 60 bases of the base sequence of SEQ ID No.13 containing the SNP rs2681472; (d) a base sequence complementary to the base sequence (c).
A spiral wound membrane module, comprising a perforated core having an axially extending internal bore; at least one membrane packet comprising a folded membrane sheet defining a first outer face, a first inner face, a second outer face and a second inner face, the fold of said folded membrane sheet being a leading edge of said membrane packet; a feed screen positioned between said first and second inner faces so as to be sandwiched by the folded membrane sheet; a first permeate screen adjacent said first outer face of said membrane sheet defining a first permeate channel; a second permeate screen adjacent said second outer face of said membrane sheet defining a second permeate channel; and a wedge-shaped, fluid-impermeable support coupled to said leading edge of said membrane packet prior to winding so that upon winding of the packet, the support occupies all of the region where a void would otherwise form, wherein the wedge-shaped support is made of a compressible material such that it will conform to the shape of the void, and wherein a thicker end of the wedge-shaped support is coupled to the leading edge of the membrane packet prior to winding using adhesive means, ultrasonic welding means, heat welding means, or ultra-violet glue. a perforated core having an axially extending internal bore; at least one membrane packet comprising a folded membrane sheet defining a first outer face, a first inner face, a second outer face and a second inner face, the fold of said folded membrane sheet being a leading edge of said membrane packet; a feed screen positioned between said first and second inner faces so as to be sandwiched by the folded membrane sheet; a first permeate screen adjacent said first outer face of said membrane sheet defining a first permeate channel; a second permeate screen adjacent said second outer face of said membrane sheet defining a second permeate channel; and a wedge-shaped, fluid-impermeable support coupled to said leading edge of said membrane packet prior to winding so that upon winding of the packet, the support occupies all of the region where a void would otherwise form, wherein the wedge-shaped support is made of a compressible material such that it will conform to the shape of the void, and wherein a thicker end of the wedge-shaped support is coupled to the leading edge of the membrane packet prior to winding using adhesive means, ultrasonic welding means, heat welding means, or ultra-violet glue.
A heart valve prosthesis with a downstream first axial end and with an upstream second axial end and with a sewing ring which runs in an arched manner for sewing in a blood vessel, the arched course of said sewing ring being formed by three arches and three transition regions at which two of the arches with their ends merge into one another, characterised in that the sewing ring comprises a movable tab on at least one of these three transition regions, said tab having a greater free length that the other regions of the sewing ring and being able to be selectively directed to the first axial end or folded over towards the second axial end.
A method, implemented by a computerized control, for a drilling system, the drilling system having a drillstring with a bottom hole assembly for drilling a wellbore, having at least one pump for pumping drilling fluid at an inlet (165a-b) into the drillstring in the wellbore and having at least one choke for choking the drilling fluid at an outlet from the wellbore, the method comprising: drilling the wellbore with the drilling system; building a hydraulics model of the drilling system drilling the wellbore; obtaining a measured value of surface backpressure of the outlet; obtaining a measured value of standpipe pressure (SPP M) of the inlet; determining an estimated value of standpipe pressure (SPP E) of the inlet based on the hydraulics model and the measured surface backpressure value by integrating a pressure profile of the hydraulics model in a plurality of intervals (C 1, C 2,...C d) backward from the measured surface backpressure value of the outlet, down an annulus of the wellbore to the bottom hole assembly, up the drillstring, and to the inlet; correcting (370, 380, 384) pressure loss in the hydraulics model based on a difference between the measured standpipe pressure value (SPP M) and the estimated standpipe pressure value (SPP E) by iteratively incrementing friction factor values at the plurality of intervals in the pressure profile at least until the estimated standpipe pressure value (SPP E) matches the measured standpipe pressure value (SPP M) within a threshold; obtaining a measured value of a parameter in the drilling system; and adjusting the parameter in the drilling system at least partially based on the hydraulics model corrected for the pressure loss. drilling the wellbore with the drilling system; building a hydraulics model of the drilling system drilling the wellbore; obtaining a measured value of surface backpressure of the outlet; obtaining a measured value of standpipe pressure (SPP M) of the inlet; determining an estimated value of standpipe pressure (SPP E) of the inlet based on the hydraulics model and the measured surface backpressure value by integrating a pressure profile of the hydraulics model in a plurality of intervals (C 1, C 2,...C d) backward from the measured surface backpressure value of the outlet, down an annulus of the wellbore to the bottom hole assembly, up the drillstring, and to the inlet; correcting (370, 380, 384) pressure loss in the hydraulics model based on a difference between the measured standpipe pressure value (SPP M) and the estimated standpipe pressure value (SPP E) by iteratively incrementing friction factor values at the plurality of intervals in the pressure profile at least until the estimated standpipe pressure value (SPP E) matches the measured standpipe pressure value (SPP M) within a threshold; obtaining a measured value of a parameter in the drilling system; and adjusting the parameter in the drilling system at least partially based on the hydraulics model corrected for the pressure loss.