mhurhangee/ep-ind-claims huggingface dataset:
A linear actuator for a gas regulating valve, comprising: a housing; a yoke mounted inside the housing; a bobbin that is movably mounted inside the yoke and that has first and second arms (1212a, 1212b) that extend from a first end of the bobbin, wherein a wire coil is wrapped around the bobbin; a flexible circuit assembly having a central portion that is attached to the yoke and first and second extensions (1226a, 1226b) that extend from the central portion and that are attached to the first and second arms (1212a, 1212b) of the bobbin, respectively, wherein first and second electrical contacts are formed on the central portion, the first and second electrical contacts being coupled, respectively, to first and second ends (1217a, 1217b) of the wire coil; and a magnet that is attached to the yoke. a housing; a yoke mounted inside the housing; a bobbin that is movably mounted inside the yoke and that has first and second arms (1212a, 1212b) that extend from a first end of the bobbin, wherein a wire coil is wrapped around the bobbin; a flexible circuit assembly having a central portion that is attached to the yoke and first and second extensions (1226a, 1226b) that extend from the central portion and that are attached to the first and second arms (1212a, 1212b) of the bobbin, respectively, wherein first and second electrical contacts are formed on the central portion, the first and second electrical contacts being coupled, respectively, to first and second ends (1217a, 1217b) of the wire coil; and a magnet that is attached to the yoke.
A bezel of a display board comprising a metal structure body comprising: a substrate; a metal layer of aluminum; and a color adjustment layer of oxynitrides of aluminum, wherein various colors are implemented by adjusting a thickness of the color adjustment layer, and wherein the color adjustment layer has a thickness of 500 nm or less. a substrate; a metal layer of aluminum; and a color adjustment layer of oxynitrides of aluminum,
A system for attenuating acoustic energy, comprising: an inner tube comprising an inner tube annular wall disposed about a central axis and defining an annular passageway, wherein the inner tube annular wall defines one or more apertures or openings; an outer tube comprising an outer tube annular wall disposed about the inner tube and the central axis; a middle tube comprising a middle tube annular wall disposed about the central axis and between the inner tube annular wall and the outer tube annular wall; at least one first annular ring extending radially from the outer tube annular wall to the middle tube annular wall and configured to couple the outer tube annular wall to the middle tube annular wall; and at least one second annular ring extending radially from the inner tube annular wall to the outer tube annular wall and configured to couple the inner tube annular wall to the outer tube annular wall, wherein an acoustic resonator is formed by the at least one first annular ring, the at least one second annular ring, a portion of the inner tube annular wall, a portion of the outer tube annular wall, and a portion of the middle tube annular wall, wherein the inner tube annular wall defines at least one opening configured to enable the acoustic energy to enter the acoustic resonator via a neck formed between the inner tube annular wall and the middle tube annular wall, wherein a width of the neck between the inner tube annular wall and the middle tube annular wall is less than approximately ten percent of a diameter of the at least one second annular ring. an inner tube comprising an inner tube annular wall disposed about a central axis and defining an annular passageway, wherein the inner tube annular wall defines one or more apertures or openings; an outer tube comprising an outer tube annular wall disposed about the inner tube and the central axis; a middle tube comprising a middle tube annular wall disposed about the central axis and between the inner tube annular wall and the outer tube annular wall; at least one first annular ring extending radially from the outer tube annular wall to the middle tube annular wall and configured to couple the outer tube annular wall to the middle tube annular wall; and at least one second annular ring extending radially from the inner tube annular wall to the outer tube annular wall and configured to couple the inner tube annular wall to the outer tube annular wall, wherein an acoustic resonator is formed by the at least one first annular ring, the at least one second annular ring, a portion of the inner tube annular wall, a portion of the outer tube annular wall, and a portion of the middle tube annular wall, wherein the inner tube annular wall defines at least one opening configured to enable the acoustic energy to enter the acoustic resonator via a neck formed between the inner tube annular wall and the middle tube annular wall, wherein a width of the neck between the inner tube annular wall and the middle tube annular wall is less than approximately ten percent of a diameter of the at least one second annular ring.
A leakage search assembly having a sniffing probe, comprising a main device containing a vacuum pump and a tracer gas sensor and being connected with the sniffing probe through a flexible tubing, characterized in that the flexible tubing comprises a first passage and a second passage having different cross sections, that at least the passage having the larger cross section is provided with a valve (22, 23), and that a switch is provided for switching between a leak search mode, in which the larger passage is open, and a leakage rate measuring mode, in which the larger passage is closed.
Biomass furnace having two side walls of the biomass furnace, comprising: a combustion chamber which is narrower at the rear than at the front; a flue gas collecting region arranged below the combustion chamber; and at least one flue gas channel for conducting flue gas from an upper region of the combustion chamber downwards into the flue gas collecting region, characterised in that the at least one flue gas channel is arranged at least partially between one of the side walls and the combustion chamber in the region, where the combustion chamber is designed in a narrower manner and a cross section of the at least one flue gas channel is adapted to the chamber provided by tapering of the combustion chamber between the one side wall and the combustion chamber. a combustion chamber which is narrower at the rear than at the front; a flue gas collecting region arranged below the combustion chamber; and at least one flue gas channel for conducting flue gas from an upper region of the combustion chamber downwards into the flue gas collecting region, characterised in that the at least one flue gas channel is arranged at least partially between one of the side walls and the combustion chamber in the region, where the combustion chamber is designed in a narrower manner and a cross section of the at least one flue gas channel is adapted to the chamber provided by tapering of the combustion chamber between the one side wall and the combustion chamber.
A moving robot system comprising: a first boundary wire and a second boundary wire respectively defining a first travel area and a second travel area; and a moving robot which comprises a body defining an exterior, a travelling unit configured to move the body, a boundary signal detector configured to detect a proximity boundary signal generated in a proximity boundary area in which a portion of the first travel area and a portion of the second travel area are proximal to each other, and a controller configured to define a proximity boundary line based on the proximity boundary signal and control the travelling unit such that the body performs a homing travel which indicates travelling along the proximity boundary line, characterized in that the controller is configured to: define a first homing boundary line and a second homing boundary line which are parallel to the proximity boundary line positioned therebetween; and control the travelling unit such that, during the homing travel, the body converts a direction of travel on the first and second homing boundary lines (295a, 295b) and travels in a direction of travel which crosses the proximity boundary line. a first boundary wire and a second boundary wire respectively defining a first travel area and a second travel area; and a moving robot which comprises a body defining an exterior, a travelling unit configured to move the body, a boundary signal detector configured to detect a proximity boundary signal generated in a proximity boundary area in which a portion of the first travel area and a portion of the second travel area are proximal to each other, and a controller configured to define a proximity boundary line based on the proximity boundary signal and control the travelling unit such that the body performs a homing travel which indicates travelling along the proximity boundary line, characterized in that the controller is configured to: define a first homing boundary line and a second homing boundary line which are parallel to the proximity boundary line positioned therebetween; and control the travelling unit such that, during the homing travel, the body converts a direction of travel on the first and second homing boundary lines (295a, 295b) and travels in a direction of travel which crosses the proximity boundary line. define a first homing boundary line and a second homing boundary line which are parallel to the proximity boundary line positioned therebetween; and control the travelling unit such that, during the homing travel, the body converts a direction of travel on the first and second homing boundary lines (295a, 295b) and travels in a direction of travel which crosses the proximity boundary line.
Laundry washing machine comprising: - a cabinet containing a washing tub in which a washing liquid may be loaded, wherein the cabinet has a substantially parallelepiped shape and comprises a jacket, comprising a front portion, a rear portion opposite the front portion, and two lateral portions (20a,20b), said cabinet comprising a top portion positioned at least partially above an upper edge of said jacket; - a drum rotatably accommodated in the washing tub for containing laundry articles to be washed; - a water supply circuit to supply water into said washing tub; - a discharge system for discharging waste washing liquid outside the laundry washing machine; - a water connecting system for fluidly connecting said washing tub to an additive distributing unit external to said cabinet, said water connecting system comprising one or more pipes for fluidly connecting said washing tub to said additive distributing unit and a support element (15,115) for connecting said one or more pipes to said cabinet, characterized in that said support element (15,115) is positioned at least partially above said upper edge of said jacket, at least partially between said upper edge of said jacket and said top portion of said cabinet. - a cabinet containing a washing tub in which a washing liquid may be loaded, wherein the cabinet has a substantially parallelepiped shape and comprises a jacket, comprising a front portion, a rear portion opposite the front portion, and two lateral portions (20a,20b), said cabinet comprising a top portion positioned at least partially above an upper edge of said jacket; - a drum rotatably accommodated in the washing tub for containing laundry articles to be washed; - a water supply circuit to supply water into said washing tub; - a discharge system for discharging waste washing liquid outside the laundry washing machine; - a water connecting system for fluidly connecting said washing tub to an additive distributing unit external to said cabinet, said water connecting system comprising one or more pipes for fluidly connecting said washing tub to said additive distributing unit and a support element (15,115) for connecting said one or more pipes to said cabinet,
Cellulose acetate having a cellulose triacetate I crystal structure, wherein a temperature at which a weight loss relative to weight at 100°C reaches 5% is 200°C or higher when the cellulose acetate is heated at a heating rate of 10°C/min under a nitrogen atmosphere; wherein a combined sulfuric acid content is 20 ppm or greater and 500 ppm or less; and wherein the average degree of substitution of the cellulose acetate is 2.0 or higher and 3.0 or lower. a temperature at which a weight loss relative to weight at 100°C reaches 5% is 200°C or higher when the cellulose acetate is heated at a heating rate of 10°C/min under a nitrogen atmosphere; wherein a combined sulfuric acid content is 20 ppm or greater and 500 ppm or less; and wherein the average degree of substitution of the cellulose acetate is 2.0 or higher and 3.0 or lower.
An image segmentation method, performed by an electronic device, the method comprising: acquiring a to-be-processed image set, the to-be-processed image set comprising a plurality of to-be-processed images corresponding to different time points, wherein the plurality of to-be-processed images in the to-be-processed image set are obtained by acquiring information of a same tissue cross section at different consecutive time points; processing the to-be-processed image set in a time dimension based on the to-be-processed images and the time points corresponding to the to-be-processed images to extract a temporal dynamic image from the to-be-processed images; and extracting a target region feature from the temporal dynamic image by using an image segmentation model, to acquire a target region. acquiring a to-be-processed image set, the to-be-processed image set comprising a plurality of to-be-processed images corresponding to different time points, wherein the plurality of to-be-processed images in the to-be-processed image set are obtained by acquiring information of a same tissue cross section at different consecutive time points; processing the to-be-processed image set in a time dimension based on the to-be-processed images and the time points corresponding to the to-be-processed images to extract a temporal dynamic image from the to-be-processed images; and extracting a target region feature from the temporal dynamic image by using an image segmentation model, to acquire a target region.
A sole structure for an article of footwear, the sole structure comprising: a plate having a concave ground-engaging surface extending between a medial side of the plate and a lateral side (222, 224) of the plate and movable between a relaxed state and a flexed state, the concave ground-engaging surface having an increased radius when moved from the relaxed state to the flexed state; a first ground-engaging member extending from the plate proximate to the medial side of the plate; a second ground-engaging member extending from the plate proximate to the lateral side (222, 224) of the plate, the second ground-engaging member being spaced apart from the first ground-engaging member by a first distance when the plate is in the relaxed state and being spaced apart from the first ground-engaging member by a second distance greater than the first distance when the plate is in the flexed state; and a third ground-engaging member extending from the plate in an area between the first ground-engaging member and the second ground-engaging member, and including a first surface and a second surface that meet at an apex, one of the first surface and the second surface being concave and the other of the first surface and the second surface being convex.
Combination comprising a crankshaft and a torsional vibration damper with a drive-side primary element, which is connected to the crankshaft, and with an output-side secondary element which are coupled to one another in a coaxially rotatable and resilient manner for the transmission of a rotational movement, the primary element being connected indirectly or directly to the crankshaft without play in the axial direction, it being possible for the primary element to be displaced in the axial direction with respect to the secondary element, the primary element or the secondary element being connected to a hollow ring, in which spring elements (14, 15) for coupling the primary element to the secondary element are guided, and the ring having at least one opening for the engagement of the respective other element, the opening allowing a movement of the other element in the axial direction, characterized in that the primary element is mounted indirectly or directly in the axial direction on a rotatable part which is connected to the secondary element, and in that the play of the rotatable part in the axial direction is greater than the axial play of the crankshaft.
A wireless power transfer unit (1, 1a, 1b, 1c, 1d) comprising: a power supply portion; and a control portion (11, 11a, 11b, 11c, 11d) controlling the power supply portion; wherein the control portion (11, 11a, 11b, 11c, 11d) is adapted to acquire first supply voltage ranges corresponding to proper receive voltage ranges of each of a plurality of receivers (2, 2a, 2b, 3, 3a, 3b, 4, 4a, 4b, 6), to acquire a second supply voltage range as a common range of the acquired proper receive voltage ranges of the plurality of receivers and to set a supply voltage to a value within the second supply voltage range; characterized in that the control portion (11, 11a, 11b, 11c, 11d) is adapted to supply power to the receivers (2, 2a, 2b, 3, 3a, 3b, 4, 4a, 4b, 6) at more than one supply voltage value to acquire received voltage value information and to acquire the range of the supply voltage value by linear approximation or approximation to a quadratic or higher function based on the received voltage value information. a power supply portion; and a control portion (11, 11a, 11b, 11c, 11d) controlling the power supply portion; wherein
Process for preparing a double metal cyanide catalyst comprising 1) in a first step, the reaction of an aqueous solution of a cyanide-free metal salt, an aqueous solution of a metal cyanide salt, an organic complex ligand and a complex-forming component, to form a dispersion; wherein the complex-forming component is a polyether; wherein the reaction is effected using a mixing nozzle; and wherein the process temperature of the dispersion during the reaction is between 26°C and 49°C. 1) in a first step, the reaction of an aqueous solution of a cyanide-free metal salt, an aqueous solution of a metal cyanide salt, an organic complex ligand and a complex-forming component, to form a dispersion;
Glasses comprising: a frame including a plurality of lens holders (11, 12) and a bridge connecting the lens holders adjacent thereto; a holder mounted to the bridge; and a support pad comprising a main portion including a hinge portion mounted to the holder rotatably from a minimum rotational angle to a maximum rotational angle along a direction perpendicular to a longitudinal direction of the bridge, wherein the holder comprises an insertion hole and a first protrusion, wherein the support pad comprises a hinge shaft inserted into the insertion hole of the holder such as to enable said rotatability and a second protrusion in contact with the first protrusion, said first and second protrusions (45, 55) each having two edge portions being arranged such that at said minimum and maximum rotational angles (A1, A3) of the support pad respective edge portions of the protrusions engage each other and maintain the support pad at said minimum or maximum rotational angle and at a rotational angle between said minimum and maximum rotational angles the protrusions partially overlap each other. a frame including a plurality of lens holders (11, 12) and a bridge connecting the lens holders adjacent thereto; a holder mounted to the bridge; and a support pad comprising a main portion including a hinge portion mounted to the holder rotatably from a minimum rotational angle to a maximum rotational angle along a direction perpendicular to a longitudinal direction of the bridge, wherein the holder comprises an insertion hole and a first protrusion, wherein the support pad comprises a hinge shaft inserted into the insertion hole of the holder such as to enable said rotatability and a second protrusion in contact with the first protrusion, said first and second protrusions (45, 55) each having two edge portions being arranged such that at said minimum and maximum rotational angles (A1, A3) of the support pad respective edge portions of the protrusions engage each other and maintain the support pad at said minimum or maximum rotational angle and at a rotational angle between said minimum and maximum rotational angles the protrusions partially overlap each other.
An image pickup optical system comprising a first lens unit, a second lens unit and a third lens unit disposed in an order from an object side to an image side, an interval between adjacent lens units being changed during focusing, wherein the third lens unit includes an aperture stop, and wherein following conditional expressions are satisfied, 2.6 < Lf / Lr < 6.0, 2.5 < L / f < 5.0, and 0.4 < M / f < 1.1, where Lf represents a distance on an optical axis from a lens surface closest to the object side to the aperture stop in the image pickup optical system when the image pickup optical system is focused at infinity, Lr represents a distance on the optical axis from the aperture stop to a lens surface closest to the image side in the image pickup optical system when the image pickup optical system is focused at infinity, L represents a distance on the optical axis from a lens surface closest to the object side to an image plane when the image pickup optical system is focused at infinity, f represents a focal length of the entire system, and M is a moving amount of the first lens unit during focusing from infinity to a closest distance. wherein the third lens unit includes an aperture stop, and wherein following conditional expressions are satisfied, 2.6 < Lf / Lr < 6.0, 2.5 < L / f < 5.0, and 0.4 < M / f < 1.1, where Lf represents a distance on an optical axis from a lens surface closest to the object side to the aperture stop in the image pickup optical system when the image pickup optical system is focused at infinity, Lr represents a distance on the optical axis from the aperture stop to a lens surface closest to the image side in the image pickup optical system when the image pickup optical system is focused at infinity, L represents a distance on the optical axis from a lens surface closest to the object side to an image plane when the image pickup optical system is focused at infinity, f represents a focal length of the entire system, and M is a moving amount of the first lens unit during focusing from infinity to a closest distance.