mhurhangee/ep-ind-claims huggingface dataset:
A tyre for running on rough terrain comprising a tread portion, wherein the tread portion comprises a plurality of blocks and tread crossing grooves extending between a first tread edge and a second tread edge without intersecting the plurality of the blocks, in a development view of the tread portion, each of the tread crossing grooves includes a soil discharging space having a width of at least 10 mm or more and extending linearly so as to connect between the first tread edge and the second tread edge, and the soil discharging space is inclined at an angle (α1) of 30 degrees or more and 50 degrees or less with respect to a tyre axial direction, characterized in that the tread crossing grooves include first grooves each inclined to one side with respect to the tyre axial direction, and second grooves each inclined in an opposite direction to the first grooves.
Hand-held power tool, in particular battery-powered screwdriver, having a hand-held-power-tool housing, having a tool axis, having a drive unit for driving a tool receptacle, and having an actuating unit for actuating a signal-transmitter unit, wherein the signal-transmitter unit is configured for activating the drive unit, wherein the actuating unit has at least one actuating element which is mounted so as to be movable in a first direction and the signal-transmitter unit has at least one signal-transmitter element which is mounted so as to be movable in a second direction, wherein the first direction is different from the second direction, wherein the actuating unit has at least one receiving element for receiving the signal-transmitter element, which is formed in one piece with the actuating element, and wherein the receiving element comprises a receiving surface, characterized in that the first direction extends parallel to the tool axis and the receiving surface is arranged at an angle in the range of 70° to 110°, particularly in the range of 80° to 105°, very particularly in the range of 90° to 100°, to the tool axis.
Window assembly having a movable window pane which has a disinfecting inner coating, a drive which moves the window pane between an open position and a closed position, and a sealing arrangement which comprises at least one seal for sealing the window pane, wherein a coupling device is configured to couple the at least one seal in the open position and in the closed position with a non-coated region (12.1, 12.2) of the window pane sealingly and to lift the at least one seal during a movement of the window pane and impositions of the window pane between the open position and the closed position of the window pane.
A method for forming a bonded mass of adhered solid pieces, comprising: a) forming a mass of two or more separate solid pieces, such that a contacting surface of each of said solid pieces is in contact with a contacting surface of one or more adjacent solid pieces at one or more bondlines, wherein said contacting surfaces each are of a solid, non-melting organic polymer produced in a reaction of a reaction mixture containing at least one liquid polyol having an average functionality of at least 2.5 and at least one liquid polyisocyanate compound having an isocyanate functionality of 1.9 to 4, and in which the isocyanate index is 0.3 to 0.9, the organic polymer having a main dry glass transition temperature as measured by dynamic mechanical thermal analysis of 40 to 130°C, a wet aged glass transition temperature at least 15°C lower than the main dry glass transition temperature but not greater than 60°C, wherein the wet aged glass transition temperature is measured by immersing a sample of the polymer in deionized water at 50°C for 18 hours and then measuring the glass transition temperature of the polymer by dynamic mechanical thermal analysis, a density of at least 500 kg/m 3 and no more than 0.25% by weight isocyanate groups; and b) heating the mass at a bonding temperature of at least 40°C and up to 100°C in the presence of water and applied pressure to bond the solid pieces at the bondline or bondlines to form the bonded mass. a) forming a mass of two or more separate solid pieces, such that a contacting surface of each of said solid pieces is in contact with a contacting surface of one or more adjacent solid pieces at one or more bondlines, wherein said contacting surfaces each are of a solid, non-melting organic polymer produced in a reaction of a reaction mixture containing at least one liquid polyol having an average functionality of at least 2.5 and at least one liquid polyisocyanate compound having an isocyanate functionality of 1.9 to 4, and in which the isocyanate index is 0.3 to 0.9, the organic polymer having a main dry glass transition temperature as measured by dynamic mechanical thermal analysis of 40 to 130°C, a wet aged glass transition temperature at least 15°C lower than the main dry glass transition temperature but not greater than 60°C, wherein the wet aged glass transition temperature is measured by immersing a sample of the polymer in deionized water at 50°C for 18 hours and then measuring the glass transition temperature of the polymer by dynamic mechanical thermal analysis, a density of at least 500 kg/m 3 and no more than 0.25% by weight isocyanate groups; and b) heating the mass at a bonding temperature of at least 40°C and up to 100°C in the presence of water and applied pressure to bond the solid pieces at the bondline or bondlines to form the bonded mass.
A crystalline form of (2 Z)-2-(2-amino-5-chlorothiazol-4-yl)-2-(3- N-tert- butoxycarbonylaminopropoxyimino)acetic acid triethylamine salt; wherein the crystalline form is characterized by at least one of the following properties: (a) a powder x-ray diffraction pattern comprising diffraction peaks at 2θ values of 5.00±0.20, 12.92±0.20, 15.00±0.20, 16.92±0.20, 22.36±0.20, 23.36±0.20 and 24.54±0.20; (b) a melting onset temperature of about 139 °C; or (c) crystalline parameters at 293 K comprising (i) a monoclinic crystal system, (ii) a P 2 1 / c space group, and (iii) unit cell dimensions substantially equal to: a = 8.587 Ǻ, b = 35.594 Ǻ, c = 8.308 Ǻ and β = 100.63 °. (a) a powder x-ray diffraction pattern comprising diffraction peaks at 2θ values of 5.00±0.20, 12.92±0.20, 15.00±0.20, 16.92±0.20, 22.36±0.20, 23.36±0.20 and 24.54±0.20; (b) a melting onset temperature of about 139 °C; or (c) crystalline parameters at 293 K comprising (i) a monoclinic crystal system, (ii) a P 2 1 / c space group, and (iii) unit cell dimensions substantially equal to: a = 8.587 Ǻ, b = 35.594 Ǻ, c = 8.308 Ǻ and β = 100.63 °.
A memory device, comprising: a plurality of strings of charge storage devices, each string comprising a plurality of charge storage devices associated with a respective pillar comprising semiconductor material, each of the plurality of strings coupled to a common source through both a source gate device and a source select device; wherein each source gate device includes a gate, and is configured to at least partially control conduction between the pillar of the respective string and the common source; wherein each source select device includes a gate and is configured to at least partially control conduction between the pillar (204, 504) of the respective string and the common source; wherein the gates (140, 350, 650) of the source gate devices associated with each of the plurality of strings of charge storage devices are coupled together to be controlled in common; and wherein the gates of source select devices associated with a first group of strings of the plurality of strings of charge storage devices are coupled together to be controlled in common, wherein the first group of strings is less than all of the multiple strings of charge storage devices. a plurality of strings of charge storage devices, each string comprising a plurality of charge storage devices associated with a respective pillar comprising semiconductor material, each of the plurality of strings coupled to a common source through both a source gate device and a source select device; wherein each source gate device includes a gate, and is configured to at least partially control conduction between the pillar of the respective string and the common source; wherein each source select device includes a gate and is configured to at least partially control conduction between the pillar (204, 504) of the respective string and the common source; wherein the gates (140, 350, 650) of the source gate devices associated with each of the plurality of strings of charge storage devices are coupled together to be controlled in common; and wherein the gates of source select devices associated with a first group of strings of the plurality of strings of charge storage devices are coupled together to be controlled in common, wherein the first group of strings is less than all of the multiple strings of charge storage devices.
A moving robot comprising: a main body; a driving unit moving the main body; a camera installed on one side of the main body and capturing an image related to a marker; a memory storing information related to a pattern of the marker, wherein the marker has a cylindrical shape, and the pattern of the marker includes at least one diagonal line segment and a plurality of longitudinal line segments, wherein the at least one diagonal line segment intersects the plurality of longitudinal line segments; and a controller configured to extract information related to the plurality of longitudinal line segments (510a, 510b, 510c) intersected by the at least one diagonal line segment from the captured image, detect information related to a position and a posture of the main body on the basis of information related to the pattern, and control the driving unit on the basis of at least one of the detected position and posture of the main body. a main body; a driving unit moving the main body; a camera installed on one side of the main body and capturing an image related to a marker; a memory storing information related to a pattern of the marker, wherein the marker has a cylindrical shape, and the pattern of the marker includes at least one diagonal line segment and a plurality of longitudinal line segments, wherein the at least one diagonal line segment intersects the plurality of longitudinal line segments; and a controller configured to extract information related to the plurality of longitudinal line segments (510a, 510b, 510c) intersected by the at least one diagonal line segment from the captured image, detect information related to a position and a posture of the main body on the basis of information related to the pattern, and control the driving unit on the basis of at least one of the detected position and posture of the main body.
Gas burner of the type comprising at least two flame spreaders (2, 3), at least one diffusion chamber obtained between said at least two flame spreaders for the diffusion of an air/ gas mixture for at least one of said at least two flame spreaders, and at least one interignition duct for the flame passage between said at least two flame spreaders, said at least one duct being disposed transversally inside said at least one diffusion chamber so that to define a first and a second region in said at least one diffusion chamber, characterized by comprising at least one connecting element for the direct fluidic connection between said first and said second region of said at least one diffusion chamber, said at least one connecting element being connected on top with said at least one interignition duct.
A vehicle-mounted power battery comprising a housing, a charging reception coil, and a battery core module, wherein the housing includes a base plate, a top plate disposed opposite to the base plate, and two side plates connected between the base plate and the top plate, wherein the base plate is concave in a direction facing the top plate to form a recess disposed on an outer surface of the housing, and the housing further comprises an accommodation cavity disposed in the housing; the charging reception coil is accommodated in the recess, and is configured to receive energy from a power supply apparatus and output the energy; and the battery core module is accommodated in the accommodation cavity and electrically connected to the charging reception coil, and is configured to receive and store the energy output by the charging reception coil, wherein the housing is made of a metal material. wherein the housing includes a base plate, a top plate disposed opposite to the base plate, and two side plates connected between the base plate and the top plate, wherein the base plate is concave in a direction facing the top plate to form a recess disposed on an outer surface of the housing, and the housing further comprises an accommodation cavity disposed in the housing; the charging reception coil is accommodated in the recess, and is configured to receive energy from a power supply apparatus and output the energy; and the battery core module is accommodated in the accommodation cavity and electrically connected to the charging reception coil, and is configured to receive and store the energy output by the charging reception coil, wherein the housing is made of a metal material.
A kit for manufacturing a wind turbine blade component, comprising: - a first panel section comprising at least one core element of a core material, the first panel section having a first side surface, an opposite second side surface, a first edge surface and an opposite second edge surface, - at least a second panel section comprising at least one core element of a core material, the second panel section further having a first side surface, an opposite second side surface, a first edge surface and an opposite second edge surface, - at least one interlocking device (22, 37, 39) configured to interlock the first and second panel sections (20a, 20b) relative to each other, the at least interlocking device has a first end, an opposite second end, a third side surface and an opposite fourth side surface, - wherein at least the first panel section has at least one first recess arranged in at least its first or second edge surface (27, 28), the at least one first recess is shaped to receive said first end of the at least one interlocking device, wherein the at least one interlocking device and at least the first panel section have the same thickness so that, when interlocked, said third and fourth side surfaces (29, 40) are substantially flushed with said first and second side surfaces (26, 38), and a first gap is formed between an inner edge surface of the at least one first recess and an outer edge surface of the first end of the at least one interlocking device, wherein said first gap has a predetermined maximum width. - a first panel section comprising at least one core element of a core material, the first panel section having a first side surface, an opposite second side surface, a first edge surface and an opposite second edge surface, - at least a second panel section comprising at least one core element of a core material, the second panel section further having a first side surface, an opposite second side surface, a first edge surface and an opposite second edge surface, - at least one interlocking device (22, 37, 39) configured to interlock the first and second panel sections (20a, 20b) relative to each other, the at least interlocking device has a first end, an opposite second end, a third side surface and an opposite fourth side surface, - wherein at least the first panel section has at least one first recess arranged in at least its first or second edge surface (27, 28), the at least one first recess is shaped to receive said first end of the at least one interlocking device, wherein the at least one interlocking device and at least the first panel section have the same thickness so that, when interlocked, said third and fourth side surfaces (29, 40) are substantially flushed with said first and second side surfaces (26, 38), and a first gap is formed between an inner edge surface of the at least one first recess and an outer edge surface of the first end of the at least one interlocking device, wherein said first gap has a predetermined maximum width.
A clothes treatment apparatus comprising: a cabinet defining an external appearance of the apparatus; a drum rotatably installed in the cabinet and configured to accommodate an object to be treated; and a door installed on a front side of the cabinet, wherein the door includes at least one separable fluid storage tank configured to store at least one of a detergent and a fabric softener, wherein the fluid storage tank is connected to a tube, the tube serving to guide the detergent or the fabric softener stored in the fluid storage tank to an inside of the cabinet. characterized in that the door includes a frame unit and a transparent glass unit provided in a center of the frame unit, and the fluid storage tank is provided on the frame unit. a cabinet defining an external appearance of the apparatus; a drum rotatably installed in the cabinet and configured to accommodate an object to be treated; and a door installed on a front side of the cabinet, wherein the door includes at least one separable fluid storage tank configured to store at least one of a detergent and a fabric softener, wherein the fluid storage tank is connected to a tube, the tube serving to guide the detergent or the fabric softener stored in the fluid storage tank to an inside of the cabinet. characterized in that the door includes a frame unit and a transparent glass unit provided in a center of the frame unit, and the fluid storage tank is provided on the frame unit.
An oral care implement comprising: a handle; a head connected to the handle, the head comprising a first surface, and a plurality of cleaning elements comprising a first array of arcuate cleaning element walls and a second array of arcuate cleaning element walls located and oriented on the head and forming the appearance of two whirls of spirals extending from a central zone wherein each of the first and second arrays of arcuate cleaning element walls (133, 134) circumferentially surround the central zone. a handle; a head connected to the handle, the head comprising a first surface, and a plurality of cleaning elements comprising a first array of arcuate cleaning element walls and a second array of arcuate cleaning element walls located and oriented on the head and forming the appearance of two whirls of spirals extending from a central zone wherein each of the first and second arrays of arcuate cleaning element walls (133, 134) circumferentially surround the central zone.
A terminal wakeup method, comprising: if an access point fails to send a data frame to a station, in terms of if an access point does not receive, within a preset time, an ACK frame sent by the station, and the access point always fails to send a data frame to the station after channel switching, sending, by the access point, a wakeup signal to the station to wake up the station, wherein the channel switching is temporarily switching from an operating channel to another channel.
A system of rotating motor for straightening wire, rod or reinforcing bar, and comprising hyperbolic rollers placed on bearings and shafts inside roller housings, said hyperbolic rollers being positioned at an angle with respect to the wire, rod or re-bar axis defined by the rotating motor, characterised in that said system of rotating motor comprises a system for cleaning, protecting and lubricating said hyperbolic rollers and bearings using air and oil, wherein: - said bearings are protected through rotational gasket seals, so as to define a bearings' area of hyperbolic rollers inside the rotational gasket seals; - means for supplying air at a pressure higher than the atmospheric to said bearings' area inside said rotational gasket seals are provided, so that inflow of contaminants from the environment is inhibited, and the bearings are kept clean from foreign particles, - said system for cleaning, protecting and lubricating is adapted to supply air mixed with oil so that bearings are lubricated, where rotational gasket seals next to bearings of the hyperbolic rollers allow for air flow from the area between the bearings towards the surrounding area. - said bearings are protected through rotational gasket seals, so as to define a bearings' area of hyperbolic rollers inside the rotational gasket seals; - means for supplying air at a pressure higher than the atmospheric to said bearings' area inside said rotational gasket seals are provided, so that inflow of contaminants from the environment is inhibited, and the bearings are kept clean from foreign particles, - said system for cleaning, protecting and lubricating is adapted to supply air mixed with oil so that bearings are lubricated, where rotational gasket seals next to bearings of the hyperbolic rollers allow for air flow from the area between the bearings towards the surrounding area.
Method for determining a mechanical property of a layered soft material, including steps of: a) generating an ultrasound wave focused towards a first point of the material, said wave, upon interacting with a layer (6, 8) of said material, generating in turn a Lamb wave propagating into said layer of the material, b) measuring, at a second point of the material belonging to said layer, a physical parameter of the generated Lamb wave, c) automatically determining the mechanical property of the layered soft material, based on the measured physical parameter, wherein - step a) is performed by exciting a first ultrasonic transducer with a first excitation signal during at most 50 ms, - step b) is performed by exciting a second ultrasonic transducer with a second excitation signal during at most 0,5 ms, to generate multiple excitation ultrasound waves focused towards said second point and, then, collecting multiple reflected waves (W2') emitted in response, - said first and second ultrasonic transducers (401, 402) each comprises an oscillator having a quality factor equal to or superior to 100, preferably equal or superior to 1000. a) generating an ultrasound wave focused towards a first point of the material, said wave, upon interacting with a layer (6, 8) of said material, generating in turn a Lamb wave propagating into said layer of the material, b) measuring, at a second point of the material belonging to said layer, a physical parameter of the generated Lamb wave, c) automatically determining the mechanical property of the layered soft material, based on the measured physical parameter, - step a) is performed by exciting a first ultrasonic transducer with a first excitation signal during at most 50 ms, - step b) is performed by exciting a second ultrasonic transducer with a second excitation signal during at most 0,5 ms, to generate multiple excitation ultrasound waves focused towards said second point and, then, collecting multiple reflected waves (W2') emitted in response, - said first and second ultrasonic transducers (401, 402) each comprises an oscillator having a quality factor equal to or superior to 100, preferably equal or superior to 1000.