mhurhangee/ep-ind-claims huggingface dataset:
An OLED display panel, comprising: two substrates (10, 20) opposite to each other; a plurality of pixel regions disposed between inner sides of the two substrates and each comprising a blue sub-pixel sub-region, a green sub-pixel sub-region and a red sub-pixel sub-region; and a circularly polarizing plate disposed at an outer side of one of the substrates on a light outgoing side of the display panel; an opening zone is within a projection area where a projection of each of the pixel regions on the circularly polarizing plate in a thickness direction of the display panel is located, and through the opening zone the corresponding sub-pixel sub-regions are exposed; and wherein the projection area where a projection of at least one sub-pixel sub-region of the blue sub-pixel sub-region, the green sub-pixel sub-region and the red sub-pixel sub-region of each of the pixel regions on the circularly polarizing plate in the thickness direction of the display panel is located is completely excavated to form at least one corresponding opening zone; and the circularly polarizing plate is present in at least one sub-pixel sub-region. two substrates (10, 20) opposite to each other; a plurality of pixel regions disposed between inner sides of the two substrates and each comprising a blue sub-pixel sub-region, a green sub-pixel sub-region and a red sub-pixel sub-region; and a circularly polarizing plate disposed at an outer side of one of the substrates on a light outgoing side of the display panel; an opening zone is within a projection area where a projection of each of the pixel regions on the circularly polarizing plate in a thickness direction of the display panel is located, and through the opening zone the corresponding sub-pixel sub-regions are exposed; and wherein the projection area where a projection of at least one sub-pixel sub-region of the blue sub-pixel sub-region, the green sub-pixel sub-region and the red sub-pixel sub-region of each of the pixel regions on the circularly polarizing plate in the thickness direction of the display panel is located is completely excavated to form at least one corresponding opening zone; and the circularly polarizing plate is present in at least one sub-pixel sub-region.
A method for powder removal on additively manufactured components, the method comprising: placing the additively manufactured component into a treatment chamber within a treatment vessel; performing a first treatment operation on the additively manufactured component within the treatment vessel, using a gaseous treatment material, wherein the first treatment operation comprises at least one of vibrating the additively manufactured component and changing an orientation of the additively manufactured component within gaseous treatment material; performing a second treatment operation on the additively manufactured component within the treatment vessel, using a liquid treatment material, without removing the additively manufactured component from the treatment vessel, wherein the second treatment operation comprises at least one of submerging the additively manufactured component within the liquid treatment material, applying ultrasonic energy to the additively manufactured component within the liquid treatment material, and inducing a flow of the liquid treatment material about the additively manufactured component; and performing a drying operation employing a cryogenic moisture trap within the treatment vessel, the drying operation performed after the second treatment operation without removing the additively manufactured component from the treatment vessel. placing the additively manufactured component into a treatment chamber within a treatment vessel; performing a first treatment operation on the additively manufactured component within the treatment vessel, using a gaseous treatment material, wherein the first treatment operation comprises at least one of vibrating the additively manufactured component and changing an orientation of the additively manufactured component within gaseous treatment material; performing a second treatment operation on the additively manufactured component within the treatment vessel, using a liquid treatment material, without removing the additively manufactured component from the treatment vessel, wherein the second treatment operation comprises at least one of submerging the additively manufactured component within the liquid treatment material, applying ultrasonic energy to the additively manufactured component within the liquid treatment material, and inducing a flow of the liquid treatment material about the additively manufactured component; and performing a drying operation employing a cryogenic moisture trap within the treatment vessel, the drying operation performed after the second treatment operation without removing the additively manufactured component from the treatment vessel.
A laundry cleaning composition comprising an amylase enzyme and an enzyme having glycoside hydrolase activity and selected from glycoside hydrolase family GH 39.
Use of a tool comprising a U-shaped bow having a web and two legs, wherein the legs are provided with engagement surfaces by means of which latching elevations can be pivoted from a latching position into a removal position, wherein the tool is used to change ladder feet on a ladder, wherein the latching elevations are latching elevations of the ladder foot and wherein, in the removal position of the latching elevations, the ladder foot can be withdrawn from the stringer, characterized in that the legs comprise tongues which comprise the engagement surfaces.
An electric motor with a rotor and stator, wherein the rotor has a rotor shaft on which a laminated rotor core is placed and is connected in rotation-resistant manner to the rotor shaft, wherein the laminated rotor core has rotor segments which are stacked on one another in the axial direction and a centring disc and also a press connection means, wherein the stack formed from the rotor segments is arranged between the centring disc and the press connection means, wherein to produce a press connection of the rotor shaft with a hollow shaft which is to be driven the press connection means can be actuated by means of one or more of the clamping screws, wherein the clamping screws are passed through cutouts in the rotor segments and in the centring disc, wherein the stack can be clamped between the centring disc and the press connection means by means of the clamping screws, wherein the head of a respective clamping screw presses the centring disc onto the stack, wherein the press connection means has a shrink disc and two pressing rings (8, 9), wherein the shrink disc has on its radially outer surface two conical portions which run in opposite directions, wherein the clamping screws are screw-connected at least to that pressing ring which is arranged axially further removed from the rotor segments, wherein the shrink disc together with the pressing rings (8, 9) is connected non-detachably to the rotor by means of the clamping screws, wherein by means of the screwing-in of the clamping screws the two pressing rings (8 and 9) which are placed on the shrink disc by axially approaching press the shrink disc onto the hollow shaft, so that the hollow shaft is shrunk onto the rotor shaft, wherein the screwing-in of the clamping screws is carried out from the centring-disc side.
Multi-part cut protection device for a tool which is rotatable in a cutting plane, the device comprising a first sub-element and at least one further sub-element, wherein the sub-elements (7, 8) are joined to each other at their ends (9, 10, 11, 12) and form a closed circumference, wherein opposite first ends (9, 11) of the sub-elements (7, 8) are joined to each other while forming a swivel joint and the second ends (10, 12) of the sub-elements (7, 8) are releasably fixed to each other, characterised in that the swivel joint is formed from a latching receptacle and a latching pin, the latching pin being located on the first sub-element and the latching receptacle being located on the second sub-element, and in that a latching pin and a latching receptacle each are provided on the first sub-element and on the second sub-element, wherein the latching receptacle and the latching pin form a swivel joint in the latched state and the latching receptacle and the latching pin can be separated by releasing the latch.
A coupler on a surface of a photonic circuit for coupling radiation between the photonic circuit and one optical fiber element, the coupler comprising, - at least two distinct sub-gratings (120a, 120b) adapted for directing radiation sub-beams into the one optical fiber element such that all radiation sub-beams are coupled out by the coupler into substantially one direction out of the plane of the surface of the photonic circuit or for all receiving different radiation sub-beams from radiation received from the one optical fiber element, wherein the sub-gratings are positioned directly adjacent one another, and - means for guiding (130a, 130b) each of the radiation sub-beams out of the distinct sub-gratings (120a, 120b) or towards the distinct sub-gratings (120a, 120b) characterized in that it further comprises - a splitter /combiner configured for splitting a received radiation beam from the photonic circuit in at least two radiation sub-beams, or configured for combining at least two radiation sub-beams into one combined radiation beam into the photonic circuit, and that the means for guiding (130a, 130b) further comprise means for guiding (130a, 130b) each of the radiation sub-beams between the splitter /combiner and the distinct sub-gratings (120a, 120b). - at least two distinct sub-gratings (120a, 120b) adapted for directing radiation sub-beams into the one optical fiber element such that all radiation sub-beams are coupled out by the coupler into substantially one direction out of the plane of the surface of the photonic circuit or for all receiving different radiation sub-beams from radiation received from the one optical fiber element, wherein the sub-gratings are positioned directly adjacent one another, and - means for guiding (130a, 130b) each of the radiation sub-beams out of the distinct sub-gratings (120a, 120b) or towards the distinct sub-gratings (120a, 120b) - a splitter /combiner configured for splitting a received radiation beam from the photonic circuit in at least two radiation sub-beams, or configured for combining at least two radiation sub-beams into one combined radiation beam into the photonic circuit,
Process for the continuous production of chlorine dioxide comprising generating chlorine dioxide in an aqueous reaction medium in a reaction vessel maintained at sub-atmospheric pressure, bringing gaseous chlorine dioxide from said reaction vessel to an absorption tower and contacting it therein with a flow of water to form an aqueous solution containing chlorine dioxide, bringing said aqueous solution containing chlorine dioxide to a stripper, blowing a gas through said aqueous solution of chlorine dioxide in the stripper to strip off from 10 to 100% of the chlorine dioxide entering the stripper and form a gaseous chlorine dioxide product obtained from the stripper with a partial pressure of from 0.5 to 20 kPa.
A magnetic flowmeter flowtube assembly comprising: a conduit having a first end with a first flange and a second end with a second flange; a liner disposed within and extending through the first flange, the conduit and the second flange; a first lining protector mounted to the first flange; a second lining protector mounted to the second flange; a first seal disposed between the first lining protector and the liner; and a second seal disposed between the second lining protector and the liner, characterised in that: the liner is made up of fluoropolymer, the liner is interference-fit into the inside of the conduit, with no bond between the liner and the conduit, and the seal is of the spring-energised type. a conduit having a first end with a first flange and a second end with a second flange; a liner disposed within and extending through the first flange, the conduit and the second flange; a first lining protector mounted to the first flange; a second lining protector mounted to the second flange; a first seal disposed between the first lining protector and the liner; and a second seal disposed between the second lining protector and the liner, characterised in that: the liner is made up of fluoropolymer, the liner is interference-fit into the inside of the conduit, with no bond between the liner and the conduit, and the seal is of the spring-energised type.
A method comprising: receiving a request from a first interface to establish a session with at least a second interface in a communication network, the request being transmitted to an application layer signaling device via an application layer signaling protocol dialog, wherein the application layer signaling protocol dialog is configured to facilitate communication between the first interface and the application layer signaling device; and communicating parameters for establishing a session tunnel to a first edge router via the application layer signaling protocol dialog, wherein the first edge router is operable to dynamically establish the session tunnel between the first edge router and at least a second edge router based on the communicated parameters, the session tunnel enabling communication between the first and second interfaces (102 and 106) via the first and second edge routers (124 and 126). receiving a request from a first interface to establish a session with at least a second interface in a communication network, the request being transmitted to an application layer signaling device via an application layer signaling protocol dialog, wherein the application layer signaling protocol dialog is configured to facilitate communication between the first interface and the application layer signaling device; and communicating parameters for establishing a session tunnel to a first edge router via the application layer signaling protocol dialog, wherein the first edge router is operable to dynamically establish the session tunnel between the first edge router and at least a second edge router based on the communicated parameters, the session tunnel enabling communication between the first and second interfaces (102 and 106) via the first and second edge routers (124 and 126).
A signal transmission/reception method of a terminal in a time division duplexing,TDD, wireless communication system, the method comprising: receiving a TTI bundling configuration command from a base station; checking whether the TTI bundling configuration command includes a number of subframes for the TTI bundling; determining, if the number of subframes for TTI bundling is included, signal transmission/reception timing according to the number of subframes for TTI bundling; and determining, if the number of subframes for TTI bundling is not included, signal transmission/reception timing according to a predetermined number of subframes for TTI bundling. receiving a TTI bundling configuration command from a base station; checking whether the TTI bundling configuration command includes a number of subframes for the TTI bundling; determining, if the number of subframes for TTI bundling is included, signal transmission/reception timing according to the number of subframes for TTI bundling; and determining, if the number of subframes for TTI bundling is not included, signal transmission/reception timing according to a predetermined number of subframes for TTI bundling.
An apparatus (200; 300; 400) for forming an elongated component of glass (260; 360; 460) with low bow, the apparatus (200; 300; 400) comprising: a heating element (240; 340; 440) to heat a bulk glass component (250; 350; 450) where a strand (260; 360; 460) may be drawn from the bulk glass component (250; 350; 450) in a downward z direction; and a gripper device (210; 310; 410a; 410b; 410c), wherein the gripper device (210; 310; 410a; 410b; 410c) comprises: a clamping element (214; 314) to support the strand (260; 360; 460) and move linearly with the strand (260; 360; 460) while it is drawn from the bulk glass component (250; 350; 450), characterized in that the gripper device (210; 310; 410a; 410b; 410c) further comprises: a low-friction mounting element (216; 316) attached to the clamping element (214; 314) which allows translational movement of the clamping element (214; 314) in an x-y plane, wherein a force applied to the clamping element (214; 314) by the strand (260; 360; 460) will result in the clamping element (214; 314) being deflected along the mounting element (216; 316). a heating element (240; 340; 440) to heat a bulk glass component (250; 350; 450) where a strand (260; 360; 460) may be drawn from the bulk glass component (250; 350; 450) in a downward z direction; and a gripper device (210; 310; 410a; 410b; 410c), wherein the gripper device (210; 310; 410a; 410b; 410c) comprises: a clamping element (214; 314) to support the strand (260; 360; 460) and move linearly with the strand (260; 360; 460) while it is drawn from the bulk glass component (250; 350; 450), a low-friction mounting element (216; 316) attached to the clamping element (214; 314) which allows translational movement of the clamping element (214; 314) in an x-y plane, wherein a force applied to the clamping element (214; 314) by the strand (260; 360; 460) will result in the clamping element (214; 314) being deflected along the mounting element (216; 316).
A method for the protein enrichment of a heterotrophically cultured microalga, the microalga being of the genus Chlorella, even more particularly Chlorella protothecoides, characterized in that it comprises: - a first step directed toward limiting the ammonium supply so as to obtain a microalgal biomass with a protein content of less than 50% expressed as N.6.25, preferably less than 30%, more preferentially between 20 and 25%; - a second step in which the ammonium supply in the fermentation medium is increased so as to obtain a protein content of greater than 50%, preferably greater than 60%, more preferentially greater than 65%. - a first step directed toward limiting the ammonium supply so as to obtain a microalgal biomass with a protein content of less than 50% expressed as N.6.25, preferably less than 30%, more preferentially between 20 and 25%; - a second step in which the ammonium supply in the fermentation medium is increased so as to obtain a protein content of greater than 50%, preferably greater than 60%, more preferentially greater than 65%.
Method for operating an arc furnace comprising at least one electrode which has a through-hole, wherein the method consists of an arc being produced between the at least one electrode and a charge material to be melted and a first additive being introduced into the through-hole of the electrode, wherein an endothermic chemical reaction is brought about by introducing the first additive into the through-hole, wherein the introduction of the first additive is controlled such that the endothermic chemical reaction is brought about in a predetermined region of the at least one electrode, said region facing the charge material to be melted, characterised in that for introducing the first additive, the position at which the first additive is introduced into the through-hole is varied.
Filler element of a filling machine for filling cans, bottles, or similar containers with a liquid fill material, with at least one housing which comprises a liquid channel with a controlled liquid valve and a dispensing opening for the controlled introduction of the liquid fill material into the respective container through a container opening (2.1) forming an opening edge (2.1), with at least one container contact surface for the opening edge at a tulip (13, 13a, 13b), which is displaceable at the filling element housing between a raised starting position and a lowered position, and with means for moving the tulip (13, 13a, 13b) between the starting position and the lowered position and for pressing the tulip with a contact pressure against the opening edge of the respective container in each case, the tulip (13, 13a, 13b) is part of a piston-cylinder arrangement with at least one ring-shaped cylinder space, which can be subjected to the pressure of a pressure medium at least for the creation of the contact pressure, characterised in that the tulip (13, 13a, 13b) forms a movable ring piston axially movable in the ring-shaped cylinder space, which is movably guided in the ring-shaped cylinder space in the direction of the filling element axis and extends with its upper end (13.2) into the ring-shaped cylinder space formed in the filling element housing.
Assembly comprising a cylindrical metal container, e.g. a gas cylinder, and a transponder in the form of a stick, said container comprising a convex top face and comprising, at its centre, a metal valve, characterized in that the transponder is situated on the top face, the distance between the transponder and the surface of the top face being approximately equal to 10 mm or less than this value, the transponder is oriented in an essentially radial direction from the convex face, and the transponder is incorporated in a supporting element serving as mechanical protection and fixing onto the container.
Linear motor having a stator with exactly one coil which is enclosed in its entire length by a feedback element, and a rotor which is surrounded by the coil and can be displaced parallel to the stator, with a permanent magnet and a pole shoe made of soft magnetic material on one side of the permanent magnet, the length of the rotor corresponding approximately to the length of the feedback element of the stator, wherein there is a magnetic flux starting from the permanent magnet via the pole shoe radially outwards through the coil and the feedback element to an outside at an axial end of the feedback element, which is returned from the outside via a free air space to the permanent magnet, or, with the polarity direction of the permanent magnet reversed, in the reverse flux direction, and wherein the length of the return element is equal to the length of the rotor or between 0 percent and 10 percent greater than the length of the rotor.