mhurhangee/ep-ind-claims huggingface dataset:
A method for engraving a printing plate for intaglio line gravure printing, comprising a laser and a mirror system interacting with the laser, wherein gravure paths are removed continuously by the laser beam, characterized in that the mirror system is moved in such a way that the laser beam of the laser, when a first layer is removed, is moved in substantially parallel first lines over a gravure field, wherein the movement velocity of the laser beam is kept approximately constant in each first line after an initial acceleration region up to a final deceleration region, that by means of a shutter element the impingement of the laser beam on an engraved region is controlled depending on a template, that a pulse laser is used as a laser, and that the movement velocity is selected equal to the product of a reference gravure line width, a repetition rate of the laser and a boundary tolerance value.
A landing-door door lock device, comprising a primary lock and a secondary lock, wherein the primary lock comprises a bottom plate and a locking arm, a counter weight is mounted on the locking arm, a moving ball is fixed onto the counter weight, a fixed ball is mounted on the bottom plate, and the secondary lock comprises a buckle plate, wherein the locking arm is rotationally connected onto the bottom plate through a rotary shaft, a rear end of the locking arm is provided with a first kidney-shaped hole, characterized in that the counter weight is fixed with the locking arm through the first kidney-shaped hole, an arc-shaped hole is opened on the counter weight, a shaft sleeve is sheathed on a shaft of the fixed ball, the shaft sleeve penetrates into the arc-shaped hole, a second kidney-shaped hole is opened on the bottom plate, the fixed ball is fixed with the bottom plate through the second kidney-shaped hole, a front end of the buckle plate is provided with a first lock hook, the locking arm is correspondingly provided thereon with a lock column, and the first lock hook is buckled on the lock column.
A photochromic nano-composite microsphere, characterized in that, the photochromic nano-composite microsphere is a polyurethane/spiropyran/zinc sulfide three-layer composite core-shell structure, its core is a zinc sulfide mesoporous nano-microsphere, its middle layer is a photochromic layer composed of the spiropyrans compound, and its shell is polyurethane; the outer diameter of the composite microsphere is 50-350 nm, wherein the diameter of the zinc sulfide mesoporous nano-microsphere is 30 ∼ 250 nm, the thickness of the middle layer is 5 ∼ 25 nm, and the thickness of the shell is 5 ∼ 25 nm.
Draught diverter for heating devices, wherein the draught diverter has a lower exhaust gas collector, an upper exhaust gas collector having an exhaust gas pipe connection, a guide device underneath the exhaust gas pipe connection, two lateral openings and at least one diversion situated in each as well as a back wall and a front wall, the guide device has an at least approximately semicylindrical shape and is arranged symmetrically in such a way that the cylinder axis runs perpendicularly to the back wall in the horizontal direction and is open at the top, characterised in that a guide plate is arranged in the guide device, which rises continuously upwards from the central, lower region and is adapted here at least approximately to the contour of the guide device, and the guide plate is symmetrical and rises towards the front wall located opposite the back wall just as it rises towards the back wall.
A steam permselective membrane comprising a gel-like hydrophilic polymer layer comprising: crosslinked hydrophilic polymer containing a polyvinyl alcohol-polyacrylic acid salt copolymer; and at least one kind of alkali metal compound selected from the group consisting of a cesium compound, a potassium compound and a rubidium compound, wherein said alkali metal compound is a hydroxide, a carbonate, a nitrate, a carboxylate or a chloride, and wherein the hydrophilic polymer layer is a hydrogel in which the hydrophilic polymer is crosslinked and forms a three-dimensional network structure, and wherein the alkali metal compound includes a cesium compound, and the concentration of cesium based on the total mass of the hydrophilic polymer and the alkali metal compound is 0.001 mol/g or more and 0.003 mol/g or less, or wherein the alkali metal compound includes a potassium compound and/or a rubidium compound, and the total concentration of potassium and rubidium based on the total mass of the hydrophilic polymer and the alkali metal compound is 0.001 mol/g or more and 0.005 mol/g or less. crosslinked hydrophilic polymer containing a polyvinyl alcohol-polyacrylic acid salt copolymer; and at least one kind of alkali metal compound selected from the group consisting of a cesium compound, a potassium compound and a rubidium compound, wherein said alkali metal compound is a hydroxide, a carbonate, a nitrate, a carboxylate or a chloride, and wherein the hydrophilic polymer layer is a hydrogel in which the hydrophilic polymer is crosslinked and forms a three-dimensional network structure, and wherein the alkali metal compound includes a cesium compound, and the concentration of cesium based on the total mass of the hydrophilic polymer and the alkali metal compound is 0.001 mol/g or more and 0.003 mol/g or less, or wherein the alkali metal compound includes a potassium compound and/or a rubidium compound, and the total concentration of potassium and rubidium based on the total mass of the hydrophilic polymer and the alkali metal compound is 0.001 mol/g or more and 0.005 mol/g or less.
A member for use in a plasma processing device, comprising: a base material; and a film comprising yttrium oxide as a main component on at least a part of the base material, an area occupancy of closed pores of the film being 0.2 area% or less, the area occupancy of closed pores being measured at a surface of the film that is polished to a position of 40% or more and 60% or less of the thickness of the film, using a digital microscope, and a full width at half maximum of a diffraction peak on a plane of yttrium oxide obtained by X-ray diffraction using CuKα radiation of the film being 0.25° or less. a base material; and a film comprising yttrium oxide as a main component on at least a part of the base material, an area occupancy of closed pores of the film being 0.2 area% or less, the area occupancy of closed pores being measured at a surface of the film that is polished to a position of 40% or more and 60% or less of the thickness of the film, using a digital microscope, and a full width at half maximum of a diffraction peak on a plane of yttrium oxide obtained by X-ray diffraction using CuKα radiation of the film being 0.25° or less.
A stator winding of an electrical rotating machine, - wherein the stator winding is a three-phase, four-pole, four-parallel-circuit stator winding of an electrical rotating machine; - wherein each phase (U, V, W) of the stator winding is connected to a first output terminal (U1, V1, W1) and to a second output terminal (U2, V2, W2) and is placed on a circumference and formed of two sets of parallel circuits, in each of which two winding circuits (1, 2; 3, 4) formed of winding groups having a same pitch are connected in parallel; - wherein the first winding circuit and the second winding circuit are connected to the first output terminal (U1, V1, W1) and the third winding circuit and the fourth winding circuit are connected to the second output terminal (U2, V2, W2); - wherein center axes (1c, 2c; 3c, 4c) of the winding groups of the two winding circuits (1, 2; 3, 4) in a same set of the parallel circuits are placed at positions spaced by 360 electrical degrees; - wherein the winding group of each winding circuit (1, 2, 3, 4) is formed of two coil phase bands (a, b; c, d; e, f; g, h) which are connected in series and have winding directions different from each other; - wherein the two coil phase bands (a, b; c, d; e, f; g, h) are placed at mirror symmetrical positions with respect to the center axis (1c, 2c, 3c, 4c) of the winding group of the winding circuit (1, 2, 3, 4); - so that a voltage vector phase difference between the winding circuits (1, 2, 3, 4) is eliminated and a difference in magnitude of the corresponding voltages is also eliminated. - wherein the stator winding is a three-phase, four-pole, four-parallel-circuit stator winding of an electrical rotating machine; - wherein each phase (U, V, W) of the stator winding is connected to a first output terminal (U1, V1, W1) and to a second output terminal (U2, V2, W2) and is placed on a circumference and formed of two sets of parallel circuits, in each of which two winding circuits (1, 2; 3, 4) formed of winding groups having a same pitch are connected in parallel; - wherein the first winding circuit and the second winding circuit are connected to the first output terminal (U1, V1, W1) and the third winding circuit and the fourth winding circuit are connected to the second output terminal (U2, V2, W2); - wherein center axes (1c, 2c; 3c, 4c) of the winding groups of the two winding circuits (1, 2; 3, 4) in a same set of the parallel circuits are placed at positions spaced by 360 electrical degrees; - wherein the winding group of each winding circuit (1, 2, 3, 4) is formed of two coil phase bands (a, b; c, d; e, f; g, h) which are connected in series and have winding directions different from each other; - wherein the two coil phase bands (a, b; c, d; e, f; g, h) are placed at mirror symmetrical positions with respect to the center axis (1c, 2c, 3c, 4c) of the winding group of the winding circuit (1, 2, 3, 4); - so that a voltage vector phase difference between the winding circuits (1, 2, 3, 4) is eliminated and a difference in magnitude of the corresponding voltages is also eliminated.
A polymer composition comprising: a water-in-oil emulsion comprising an aqueous phase comprising water and a water-soluble or water-dispersible polymer, and an oil phase comprising an oil and an emulsifying agent; and an inversion surfactant having the structure of Formula 1: wherein R 3, R 5, R 9, and R 10 are independently hydrogen or C 1 -C 22 alkyl; R 4 is C 4 -C 30 alkyl; R 6 is H, alkyl, or aryl; X is -O- or -NR 8; R 8 is hydrogen or C 1 -C 4 alkyl; R 11 is hydrogen, alkyl, alkylaryl, or aryl; and n is an integer from 1 to 20. a water-in-oil emulsion comprising an aqueous phase comprising water and a water-soluble or water-dispersible polymer, and an oil phase comprising an oil and an emulsifying agent; and an inversion surfactant having the structure of Formula 1: wherein R 3, R 5, R 9, and R 10 are independently hydrogen or C 1 -C 22 alkyl; R 4 is C 4 -C 30 alkyl; R 6 is H, alkyl, or aryl; X is -O- or -NR 8; R 8 is hydrogen or C 1 -C 4 alkyl; R 11 is hydrogen, alkyl, alkylaryl, or aryl; and n is an integer from 1 to 20.
A combination of at least two oligomers for detecting in a sample a Megasphaera sp. 16S rRNA or a gene encoding a Megasphaera sp.16S rRNA, said oligomer combination comprising: a first amplification oligomer comprising a first target-hybridizing sequence that is from 15 to 25 contiguous nucleotides contained in the sequence of SEQ ID NO:34 and that includes at least the sequence of SEQ ID NO:28; and a second amplification oligomer comprising a second target-hybridizing sequence that is from 15 to 25 contiguous nucleotides contained in the sequence of SEQ ID NO:36 and that includes at least the sequence of SEQ ID NO:35. a first amplification oligomer comprising a first target-hybridizing sequence that is from 15 to 25 contiguous nucleotides contained in the sequence of SEQ ID NO:34 and that includes at least the sequence of SEQ ID NO:28; and a second amplification oligomer comprising a second target-hybridizing sequence that is from 15 to 25 contiguous nucleotides contained in the sequence of SEQ ID NO:36 and that includes at least the sequence of SEQ ID NO:35.
An apparatus for configuring a transmission resource of a beam failure recovery request, comprising: a configuring unit configured to transmit configuration information to user equipment, the configuration information being used to configure a transmission resource of a beam failure recovery request related to coordination network equipment, wherein the coordination network is the network that the user equipment establishes communications with and the user equipment is not provided with radio resource control, RRC, signaling related to beam failure recovery via the coordination network, wherein, a serving network equipment transmits at least one of cell ID information of the coordination network equipment, internal ID information of a coordination set of the coordination network equipment, global ID information of the coordination network equipment, beam pair link ID information of the coordination network equipment, and other related ID information of the coordination network equipment to the user equipment. a configuring unit configured to transmit configuration information to user equipment, the configuration information being used to configure a transmission resource of a beam failure recovery request related to coordination network equipment, wherein the coordination network is the network that the user equipment establishes communications with and the user equipment is not provided with radio resource control, RRC, signaling related to beam failure recovery via the coordination network, wherein, a serving network equipment transmits at least one of cell ID information of the coordination network equipment, internal ID information of a coordination set of the coordination network equipment, global ID information of the coordination network equipment, beam pair link ID information of the coordination network equipment, and other related ID information of the coordination network equipment to the user equipment.
A cooling appliance comprising two refrigerating compartments (16, 30), a first vacuum insulated structure defining a first refrigerating compartment, wherein the first vacuum insulated structure includes a first-structure inner liner and a first-structure outer wrapper, wherein a vacuum insulated material is disposed between the first-structure inner liner and the first-structure outer wrapper, wherein the first-structure inner liner a nd the first-structure outer wrapper are coupled together at a first-structure trim breaker that spans therebetween and defines a substantially air-tight seal of the first vacuum insulated structure; at least one door that is operable to at least partially enclose the first refrigerating compartment; and an interior mullion having a medial insulation structure with a rigid perimeter wall disposed within the interior mullion, wherein: the interior mullion further defines the first refrigerating compartment; and the rigid perimeter wall includes a front portion that defines at least one hinge support adapted to support the at least one door characterized in that the first vacuum insulated structure is configured in away, in which the first-structure trim breaker is injection molded over portions of the first-structure inner liner and the first-structure outer wrapper. the interior mullion further defines the first refrigerating compartment; and the rigid perimeter wall includes a front portion that defines at least one hinge support adapted to support the at least one door
A microwave oven for the heat treatment of ceramic components, in particular of dental ceramic components, comprising a susceptor which is positioned in the wave propagation space or in the area between a source of microwaves and the component, which area is exposed to microwave radiation, characterized in that the susceptor is made of highly pure silicon carbide, with impurities of less than 10 -1 ppm, preferably of less than 10 -2 ppm, of hexagonal, rhombohedral or cubic crystal structure, in particular of 2H, 4H, 6H or 3C crystal structure, and in that the silicon carbide is a single crystal.
A once-through evaporator comprising: an inlet manifold; at least two inlet headers (204(n)) in fluid communication with the inlet manifold; at least two vertically aligned tube stacks (210(n)), wherein each tube stack (210(n)) comprises at least two substantially horizontal evaporator tubes; the at least two tube stacks (210(n)) being in fluid communication with the at least two inlet headers (204(n)); at least two outlet headers (206(n)) in fluid communication with at least two tube stacks (210(n)), wherein each outlet header (206(n)) is in fluid communication with one of said at least two tube stacks (210(n)) and one of said inlet headers (204(n)); an outlet manifold in fluid communication with the one or more outlet headers (206(n)); and a plurality of flow control devices (212(n)) to dynamically control the fluid flow to a respective inlet header (204(n)) or a flow choking device (220(n), 222(n)) to restrict the fluid flow to at least one of an inlet header (204(n)) and an evaporator tube, and/or from at least one of an outlet header (206(n)) and an evaporator tube. an inlet manifold; at least two inlet headers (204(n)) in fluid communication with the inlet manifold; at least two vertically aligned tube stacks (210(n)), wherein each tube stack (210(n)) comprises at least two substantially horizontal evaporator tubes; the at least two tube stacks (210(n)) being in fluid communication with the at least two inlet headers (204(n)); at least two outlet headers (206(n)) in fluid communication with at least two tube stacks (210(n)), wherein each outlet header (206(n)) is in fluid communication with one of said at least two tube stacks (210(n)) and one of said inlet headers (204(n)); an outlet manifold in fluid communication with the one or more outlet headers (206(n)); and a plurality of flow control devices (212(n)) to dynamically control the fluid flow to a respective inlet header (204(n)) or a flow choking device (220(n), 222(n)) to restrict the fluid flow to at least one of an inlet header (204(n)) and an evaporator tube, and/or from at least one of an outlet header (206(n)) and an evaporator tube.
A front-end system for a radio device, the front-end system comprising: a low-noise amplifier, arranged for receiving an input signal (RF IN) and for outputting an amplified signal (RF OUT), and a mixer arranged for down-converting said amplified signal (RF OUT) provided by said low-noise amplifier to a baseband signal, by multiplying the amplified signal (RF OUT) with a local oscillator frequency tone); the low-noise amplifier comprising: a first amplification stage; a second amplification stage; a transformer configured for inductively coupling said second amplification stage to said first amplification stage; a resistive shunt feedback circuit; and a neutralization circuit comprising a cross-coupled capacitor (C N); and wherein said mixer is inductively coupled to said low-noise amplifier via a second transformer. a low-noise amplifier, arranged for receiving an input signal (RF IN) and for outputting an amplified signal (RF OUT), and a mixer arranged for down-converting said amplified signal (RF OUT) provided by said low-noise amplifier to a baseband signal, by multiplying the amplified signal (RF OUT) with a local oscillator frequency tone); the low-noise amplifier comprising: a first amplification stage; a second amplification stage; a transformer configured for inductively coupling said second amplification stage to said first amplification stage; a resistive shunt feedback circuit; and a neutralization circuit comprising a cross-coupled capacitor (C N); and wherein said mixer is inductively coupled to said low-noise amplifier via a second transformer. a first amplification stage; a second amplification stage; a transformer configured for inductively coupling said second amplification stage to said first amplification stage; a resistive shunt feedback circuit; and a neutralization circuit comprising a cross-coupled capacitor (C N); and wherein said mixer is inductively coupled to said low-noise amplifier via a second transformer.
A computer implemented method for modeling a denture for a patient, where the denture comprises a gingival part (903, 1003) and artificial teeth (905, 1005), wherein the method comprises: - obtaining virtual teeth (905, 1005) to represent the artificial teeth - obtaining a 3D scan comprising a virtual representation of at least part of the patient's existing gingiva; - virtually modeling a gingival part (903, 1003) of the virtual model of the denture with the 3D scan and the virtual artificial teeth (905, 1005); - defining a first offset having a first thickness of a first portion of the gingival part (903, 1003) of the virtual model of the denture that extends from the virtual representation of the at least part of the patient's existing gingiva; and - defining a second offset having a second thickness of a second portion of the gingival part (903, 1003) of the virtual model of the denture that extends from the virtual artificial teeth (905, 1005), wherein at least one offset (921, 922) is defined by offsetting the gingival part around the virtual teeth (905, 1005), and/or offsetting at least a part of the virtual teeth (905, 1005). - obtaining virtual teeth (905, 1005) to represent the artificial teeth - obtaining a 3D scan comprising a virtual representation of at least part of the patient's existing gingiva; - virtually modeling a gingival part (903, 1003) of the virtual model of the denture with the 3D scan and the virtual artificial teeth (905, 1005); - defining a first offset having a first thickness of a first portion of the gingival part (903, 1003) of the virtual model of the denture that extends from the virtual representation of the at least part of the patient's existing gingiva; and - defining a second offset having a second thickness of a second portion of the gingival part (903, 1003) of the virtual model of the denture that extends from the virtual artificial teeth (905, 1005), wherein at least one offset (921, 922) is defined by offsetting the gingival part around the virtual teeth (905, 1005), and/or offsetting at least a part of the virtual teeth (905, 1005).
A straddle-type electric vehicle configured by including two approximately rectangular parallelepiped batteries, a battery case in which the batteries are housed, battery-side terminals provided on bottom surfaces of the batteries, and case-side terminals engaged with the battery-side terminals, characterised in that the two batteries are arranged next to each other in a vehicle width direction, an operation lever for moving the case-side terminals up and down to connect or separate the battery-side terminals and the case-side terminals to/from each other is provided, the operation lever is arranged at a position in a middle in the vehicle width direction between the two batteries, the battery-side terminals and the case-side terminals are positioned nearer outer sides in the vehicle width direction, the case-side terminals are arranged while projecting below bottom portions of the battery case, and a down regulator is arranged between the left and right case-side terminals below a bottom portion of the battery case. the two batteries are arranged next to each other in a vehicle width direction, an operation lever for moving the case-side terminals up and down to connect or separate the battery-side terminals and the case-side terminals to/from each other is provided, the operation lever is arranged at a position in a middle in the vehicle width direction between the two batteries, the battery-side terminals and the case-side terminals are positioned nearer outer sides in the vehicle width direction, the case-side terminals are arranged while projecting below bottom portions of the battery case, and a down regulator is arranged between the left and right case-side terminals below a bottom portion of the battery case.