mhurhangee/ep-ind-claims huggingface dataset:
A LNG ship having a structure in which a substantially prismatic tank is installed inside a hold while not being integrated with a double hull structure material (34, 35), wherein the tank is a long tank, which has a larger dimension of a ship longitudinal direction than that of a ship width direction and is installed above pedestals provided on the hull structure material inside the hold along the ship longitudinal direction, the long tank is divided into two or more liquid cargo compartments by one or more bulkhead plates, each of which is formed in the ship width direction as one plate, - a tank group is formed in the ship longitudinal direction so that tanks, each of which is not divided in the ship longitudinal direction and has a single liquid cargo compartment, are arranged at the front and rear sides of the long tank, - a key portion is integrally formed with a substantially center upper portion of the long tank in the ship longitudinal direction, in a protruding manner and anchor point chocks for thermal deformation having a width in the ship width direction are provided in the hull structure material so as to be located at front and rear sides in the center line direction of the ship corresponding to the key portion, - the center upper portion of the long tank is set as a thermal deformation center of the tank, and - a space between the long tank and each tank being adjacent to the long tank and having the single liquid cargo compartment has a cofferdam structure. - a tank group is formed in the ship longitudinal direction so that tanks, each of which is not divided in the ship longitudinal direction and has a single liquid cargo compartment, are arranged at the front and rear sides of the long tank, - a key portion is integrally formed with a substantially center upper portion of the long tank in the ship longitudinal direction, in a protruding manner and anchor point chocks for thermal deformation having a width in the ship width direction are provided in the hull structure material so as to be located at front and rear sides in the center line direction of the ship corresponding to the key portion, - the center upper portion of the long tank is set as a thermal deformation center of the tank, and - a space between the long tank and each tank being adjacent to the long tank and having the single liquid cargo compartment has a cofferdam structure.
Method for separating at least one solid body portion from a solid body, wherein the solid body includes or consists of silicon carbide (SiC), comprising at least the steps of: modifying the crystal lattice of the solid body by way of a laser, wherein a plurality of modifications are produced in the crystal lattice, wherein silicon carbide is converted into Si, i.e. silicon, and DLC, i.e. diamond-like carbon, phases, wherein, after the modifications, the crystal lattice in the regions surrounding the modifications develops tears at least in each case in one portion, wherein the tears in the region of the modifications define a detachment region, wherein more modifications are produced in one direction, in particular with respect to the length or width or height, than in two other directions, wherein the solid body has a length such that more than two solid body layers having a thickness of less than 1000 μm are separable therefrom, wherein the tears are undercritical and extend less than 5 mm in the solid body, wherein a main tear, produced owing to mechanical stresses, is guided along a detachment region and through the detachment region, wherein, owing to the stresses, the main tear in the solid body propagates along the detachment region through which the solid body layer is separated from the solid body, wherein at least the plurality of the previously produced tears in the region of the modifications are connected to one another by the main tear. modifying the crystal lattice of the solid body by way of a laser, wherein a plurality of modifications are produced in the crystal lattice, wherein silicon carbide is converted into Si, i.e. silicon, and DLC, i.e. diamond-like carbon, phases, wherein, after the modifications, the crystal lattice in the regions surrounding the modifications develops tears at least in each case in one portion, wherein the tears in the region of the modifications define a detachment region,
A method for data transfer in a conveyance system, the method comprising: moving a conveyance system component along a travel path, the conveyance system component including a memory; the method being characterized by mapping locations of the conveyance system component along the travel path to network signal strength; and by transferring data, by at least one of sending data from the memory or receiving data to the memory, in response to available network signal strength. moving a conveyance system component along a travel path, the conveyance system component including a memory; the method being characterized by mapping locations of the conveyance system component along the travel path to network signal strength; and by transferring data, by at least one of sending data from the memory or receiving data to the memory, in response to available network signal strength.
A quantum rod panel (110, 210, 310) comprising: a first substrate (130, 230, 330) and a second substrate (140, 240, 340) facing each other; a pixel electrode (180, 280, 380) and a common electrode (182, 282, 382) between the first substrate (130, 230, 330) and the second substrate (140, 240, 340), and spaced apart from each other; and a quantum rod layer (150, 250, 350) between the pixel electrode (180, 280, 380) and the common electrode (182, 282, 382) and including quantum rods (152, 252, 352) and metal particles (156, 256, 356), wherein each of the quantum rods includes a core and a shell covering the core, wherein each of the core and the shell includes at least one of II-VI, III-V, or VI-IV semiconductor materials, and wherein the metal particles (156, 256, 356) are insulator-coated metal particles (256, 356), each of the insulator-coated metal particles comprising a core of a metal being surrounded by a shell of an insulating material. a first substrate (130, 230, 330) and a second substrate (140, 240, 340) facing each other; a pixel electrode (180, 280, 380) and a common electrode (182, 282, 382) between the first substrate (130, 230, 330) and the second substrate (140, 240, 340), and spaced apart from each other; and a quantum rod layer (150, 250, 350) between the pixel electrode (180, 280, 380) and the common electrode (182, 282, 382) and including quantum rods (152, 252, 352) and metal particles (156, 256, 356), wherein each of the quantum rods includes a core and a shell covering the core, wherein each of the core and the shell includes at least one of II-VI, III-V, or VI-IV semiconductor materials, and wherein the metal particles (156, 256, 356) are insulator-coated metal particles (256, 356), each of the insulator-coated metal particles comprising a core of a metal being surrounded by a shell of an insulating material.
A method comprising: identifying, by a processor of camera modular alignment and test (CMAT) equipment, a set of camera components and a corresponding set of first lenses that are loaded into the CMAT equipment for producing a portion of a final camera assembly; controlling, by the processor, the CMAT equipment to execute an initial five-axis lens alignment check that measures an initial modulation transfer function performance for the first lenses when dry-fit assembled with the camera components; determining, by the processor, whether the initial MTF performance for the first lenses satisfies a MTF threshold; and responsive to determining that the initial MTF performance for the first lenses does not satisfy the MTF threshold, further controlling the CMAT equipment to: use a set of second lenses that are loaded into the CMAT equipment for producing the portion of the final camera assembly with the camera components; compute a rotation to apply to the first lenses for use in producing a portion of another final camera assembly with different camera components; and store the first lenses within the CMAT equipment such that the portion of the other final camera assembly includes the first lenses with the rotation applied. identifying, by a processor of camera modular alignment and test (CMAT) equipment, a set of camera components and a corresponding set of first lenses that are loaded into the CMAT equipment for producing a portion of a final camera assembly; controlling, by the processor, the CMAT equipment to execute an initial five-axis lens alignment check that measures an initial modulation transfer function performance for the first lenses when dry-fit assembled with the camera components; determining, by the processor, whether the initial MTF performance for the first lenses satisfies a MTF threshold; and responsive to determining that the initial MTF performance for the first lenses does not satisfy the MTF threshold, further controlling the CMAT equipment to: use a set of second lenses that are loaded into the CMAT equipment for producing the portion of the final camera assembly with the camera components; compute a rotation to apply to the first lenses for use in producing a portion of another final camera assembly with different camera components; and store the first lenses within the CMAT equipment such that the portion of the other final camera assembly includes the first lenses with the rotation applied. use a set of second lenses that are loaded into the CMAT equipment for producing the portion of the final camera assembly with the camera components; compute a rotation to apply to the first lenses for use in producing a portion of another final camera assembly with different camera components; and store the first lenses within the CMAT equipment such that the portion of the other final camera assembly includes the first lenses with the rotation applied.
A vulcanizable rubber composition comprising: a diene based elastomer; from 10 to 60 parts by weight, per 100 parts by weight of elastomer (phr), of an oxidized carbon black comprising on its surface at least one functional group selected carboxylic acid (-COOH) and hydroxide (-OH); and from 0.1 to 0.5 phr of a polymeric amine comprising a primary amine functionality. a diene based elastomer; from 10 to 60 parts by weight, per 100 parts by weight of elastomer (phr), of an oxidized carbon black comprising on its surface at least one functional group selected carboxylic acid (-COOH) and hydroxide (-OH); and from 0.1 to 0.5 phr of a polymeric amine comprising a primary amine functionality.
A redox flow battery frame body comprising a window, wherein the expressions A > C, B > D, and (B/A) ≥ 0.2 are satisfied, where A represents the length of a long side of a rectangle that envelops the window, B represents the width of a horizontal frame of the frame body corresponding to the long side, C represents the length of a short side of the rectangle, and D represents the width of a vertical frame of the frame body corresponding to the short side; wherein the frame body is formed of a resin.
Method for producing a honeycomb insulating building block from natural or reconstituted stone or from concrete or clay, comprising horizontal faces, vertical lateral faces extending in the direction of the largest dimension of the block and vertical end faces, comprising: - defining a first honeycomb arrangement pattern comprising one or more cells of predefined shapes and solid material portions of predefined shapes, - defining a second honeycomb arrangement pattern comprising one or more cells of predefined shapes and solid material portions of predefined shapes, that cannot be stacked on the previous one, and - forming, in the body of a block, according to successive vertical geometric planes, spaced apart from each other, alternately, grooves that reproduce the first and second honeycomb patterns such that the solid material portions corresponding to each plane are offset relative to the solid material portions of the contiguous plane or planes and the cells corresponding to each plane are communicating and isolated from the cells of the contiguous plane or planes by a portion of material of uniform thickness, characterised in that at least one of the grooves in contact with the portions bearing the vertical lateral faces of the block is wider than the other grooves. - defining a first honeycomb arrangement pattern comprising one or more cells of predefined shapes and solid material portions of predefined shapes, - defining a second honeycomb arrangement pattern comprising one or more cells of predefined shapes and solid material portions of predefined shapes, that cannot be stacked on the previous one, and - forming, in the body of a block, according to successive vertical geometric planes, spaced apart from each other, alternately, grooves that reproduce the first and second honeycomb patterns such that the solid material portions corresponding to each plane are offset relative to the solid material portions of the contiguous plane or planes and the cells corresponding to each plane are communicating and isolated from the cells of the contiguous plane or planes by a portion of material of uniform thickness, characterised in that at least one of the grooves in contact with the portions bearing the vertical lateral faces of the block is wider than the other grooves.
Method for steering a vehicle comprising at least two steerable axles VA1, HA1, each having an angle sensor, wherein in an all-wheel steering mode, a rear axle HA1 is synchronously steered with the front axle VA1 in the opposite direction, this being referred to as a 4x4 steering system; a control device for adjusting the steering angles of the axles on the basis of the data provided by the angle sensors, characterized in that a second steerable rear axle HA2 of an add-on attachment and a second steerable front axle VA2 of a further add-on attachment are provided, which are each detachably connected to the vehicle and which each have an angle sensor, wherein when the second rear axle HA2 or the second rear axle HA2 and the second front axle VA2 are coupled, the second front axle VA2 and the two rear axles HA1 and HA2 of the first front axle VA1 are tracked, wherein on the basis of data the control device identifies the 4X4 mode or the 6x6 mode or the 8x8 mode and automatically switches to the synchronization mode of the 4x4 or the 6x6 or the 8x8 steering system. at least two steerable axles VA1, HA1, each having an angle sensor, wherein in an all-wheel steering mode, a rear axle HA1 is synchronously steered with the front axle VA1 in the opposite direction, this being referred to as a 4x4 steering system; a control device for adjusting the steering angles of the axles on the basis of the data provided by the angle sensors, characterized in that a second steerable rear axle HA2 of an add-on attachment and a second steerable front axle VA2 of a further add-on attachment are provided, which are each detachably connected to the vehicle and which each have an angle sensor, wherein when the second rear axle HA2 or the second rear axle HA2 and the second front axle VA2 are coupled, the second front axle VA2 and the two rear axles HA1 and HA2 of the first front axle VA1 are tracked, wherein on the basis of data the control device identifies the 4X4 mode or the 6x6 mode or the 8x8 mode and automatically switches to the synchronization mode of the 4x4 or the 6x6 or the 8x8 steering system.
Monitoring system for detecting and/or tracking at least one moving monitoring object in a monitoring area having a plurality of sections which are at least partially arranged without an overlap, having a plurality of monitoring sensors which are spatially distributed and/or can be spatially distributed in the monitoring area and are designed to capture the monitoring object and to output captured object information, wherein the monitoring sensors comprise a plurality of types of sensors comprising monitoring cameras, odour sensors, temperature sensors, scales, acoustic sensors, sensors for capturing electromagnetic radiation and/or sensors for capturing biometric data, having a signature lock (8a, b, c, d) with at least two signature sensors which are designed and/or arranged to capture the monitoring object and to output object signature information, wherein the signature lock (8a, b, c, d) is designed such that the object signature information from the at least two signature sensors is uniquely and/or unmistakably assigned to the monitoring object, wherein all of the signature sensors cover all of the types of monitoring sensors, and having an evaluation device, wherein the evaluation device is designed to combine object signature information in object signatures, wherein the evaluation device is designed to form and/or supplement an object signature of the monitoring object on the basis of the object signature information and to detect and/or track the monitoring object by comparing captured object information with the object signature of the monitoring object, characterized in that only a single monitoring sensor is placed for each section, and at least one signature sensor is a sensor for measuring electromagnetic radiation in order to create an object signature.
An attaching/detaching device for a toilet hinge device comprising: a case in which an insertion hole for insertion of a pin is formed, and wherein a housing space is formed in the case, the housing space being connected to the insertion hole and extending in a direction perpendicular to a longitudinal direction of the insertion hole; a button that is depressible into the case in the direction perpendicular to the longitudinal direction of the insertion hole; and a spring that biases the button in a direction opposite to a depression direction of the button with respect to the case; wherein the spring includes a locking part for locking the pin, and the locking part is positioned within the insertion hole in a state where the button is not depressed, and is moved from the inside of the insertion hole to the inside of the housing space by the button being depressed, characterized in that the locking part is a linear part that extends in a direction in which a parallel extending part perpendicular to the sliding direction of the button and a portion from one end of the locking part to the other end thereof overlap each other. a case in which an insertion hole for insertion of a pin is formed, and wherein a housing space is formed in the case, the housing space being connected to the insertion hole and extending in a direction perpendicular to a longitudinal direction of the insertion hole; a button that is depressible into the case in the direction perpendicular to the longitudinal direction of the insertion hole; and a spring that biases the button in a direction opposite to a depression direction of the button with respect to the case; wherein the spring includes a locking part for locking the pin, and the locking part is positioned within the insertion hole in a state where the button is not depressed, and is moved from the inside of the insertion hole to the inside of the housing space by the button being depressed, characterized in that the locking part is a linear part that extends in a direction in which a parallel extending part perpendicular to the sliding direction of the button and a portion from one end of the locking part to the other end thereof overlap each other.
A robotic sleeving device (1, 11) for potted plants, said device comprising: - a vertical shaft; - at least two upper arms (3,4) arranged on said vertical shaft, each one of said at least two upper arms (3,4) having a gripping unit for gripping and releasing potted plants; - a first picking area located at a first position radially outwards from said vertical shaft; - a sleeving area located at a second position radially outwards from said vertical shaft; - a sleeving unit arranged at said sleeving area; wherein said at least two upper arms (3, 4) are rotatable between said first and said second position about said vertical shaft, wherein said at least two upper arms (3, 4) are arranged to be movable along said vertical shaft; characterized by - at least two lower arms (24, 25) arranged on said vertical shaft below said upper arms (3, 4), each one of said at least two lower arms (24, 25) having a gripping unit for gripping and releasing potted plants; - a second picking area located at third position below said second position; - a loading area arranged at a fourth position below said first position; wherein said at least two lower arms (24, 25) are rotatable between said third and said fourth position about said vertical shaft, wherein said at least two lower arms (24, 25) are arranged to be movable along said vertical shaft. - a vertical shaft; - at least two upper arms (3,4) arranged on said vertical shaft, each one of said at least two upper arms (3,4) having a gripping unit for gripping and releasing potted plants; - a first picking area located at a first position radially outwards from said vertical shaft; - a sleeving area located at a second position radially outwards from said vertical shaft; - a sleeving unit arranged at said sleeving area; - at least two lower arms (24, 25) arranged on said vertical shaft below said upper arms (3, 4), each one of said at least two lower arms (24, 25) having a gripping unit for gripping and releasing potted plants; - a second picking area located at third position below said second position; - a loading area arranged at a fourth position below said first position;