mhurhangee/ep-ind-claims huggingface dataset:
An occlusion determination device, comprising a bite frame and an extraoral bracket which are connected to one another, wherein the extraoral bracket is configured as a reference element which extends vertically offset relative to the bite frame, comprises at least one vertical leg and at least one horizontal leg and is connected with the bite frame by way of a bipupillary joint, wherein in addition to the bipupillary joint a Camper's joint is provided on the occlusion determination device, wherein the Camper's joint, the joint axis of which is configured transversely to the bipupillary joint, extends between the bite frame and the bipupillary joint, wherein a pin is disposed between the joints (24, 40), wherein at least one joint, in particular both joints, are provided with an angular detection device (36, 50) via which the angles of the parts of the occlusion determination device which are connected to one another by the joint and pivotable against each other are detectable, in particular readable, wherein the bipupillary joint allows an adjustment of the angular position of the occlusal plane relative to the bipupillary line and a detection by fixation, characterized in that the Camper's joint consists of a first part in the form of a pin and a second part, which are screwed together by means of the knurled nut along the direction of the pivot axis of the Camper's joint and that the knurled nut allows an adjustment of the friction force of the first and second part relative to each other. wherein the extraoral bracket is configured as a reference element which extends vertically offset relative to the bite frame, comprises at least one vertical leg and at least one horizontal leg and is connected with the bite frame by way of a bipupillary joint, wherein in addition to the bipupillary joint a Camper's joint is provided on the occlusion determination device, wherein the Camper's joint, the joint axis of which is configured transversely to the bipupillary joint, extends between the bite frame and the bipupillary joint, wherein a pin is disposed between the joints (24, 40), wherein at least one joint, in particular both joints, are provided with an angular detection device (36, 50) via which the angles of the parts of the occlusion determination device which are connected to one another by the joint and pivotable against each other are detectable, in particular readable, wherein the bipupillary joint allows an adjustment of the angular position of the occlusal plane relative to the bipupillary line and a detection by fixation, characterized in that the Camper's joint consists of a first part in the form of a pin and a second part, which are screwed together by means of the knurled nut along the direction of the pivot axis of the Camper's joint and that the knurled nut allows an adjustment of the friction force of the first and second part relative to each other.
Method for making a 3D nanostructure having a nanosubstructure, comprising the steps of: i) providing a mold comprising at least one sharp concave corner; ii) conformal depositing at least one structural material in at least the sharp concave corner; iii) isotropically removing a first portion of said structural material, deposited in step ii), so that at least a second portion remains within the mold in the sharp concave corner; iv) depositing at least one other structural material in the mold, wherein said second portion is used as an inversion mask; v) removing the second portion of structural material, so that at least a third portion of the at least one other structural material remains within the mold; vi) thereafter forming a nanosubstructure by depositing a layer of structural material over the mold; and vii) removing the mold thereby providing the 3D nanostructure having the nanosubstructure. i) providing a mold comprising at least one sharp concave corner; ii) conformal depositing at least one structural material in at least the sharp concave corner; iii) isotropically removing a first portion of said structural material, deposited in step ii), so that at least a second portion remains within the mold in the sharp concave corner; iv) depositing at least one other structural material in the mold, wherein said second portion is used as an inversion mask; v) removing the second portion of structural material, so that at least a third portion of the at least one other structural material remains within the mold; vi) thereafter forming a nanosubstructure by depositing a layer of structural material over the mold; and vii) removing the mold thereby providing the 3D nanostructure having the nanosubstructure.
A display panel comprising: a base substrate comprising a front surface and a rear surface, and including a display area and a periphery area adjacent to the display area in a plan view; a pixel layer comprising a plurality of pixels, wherein each of the plurality of pixels comprises a thin film transistor and the plurality of pixels are in the display area; and a cover layer on the base substrate and containing an inorganic material and covering the front surface of the base substrate, wherein the base substrate comprises: a module hole defined in the display area and passing through the front surface and the rear surface of the base substrate; and wherein the display panel further comprises a blocking groove defined in the display area and adjacent to the module hole, wherein the blocking groove has a shape of a closed curve surrounding the module hole when viewed in a plane; and wherein the transistors are disposed on the front surface of the base substrate, characterized in that the blocking groove is recessed from the front surface of the base substrate, and the cover layer comprises a passing-through portion (MSL-OP) overlapping the blocking groove. a base substrate comprising a front surface and a rear surface, and including a display area and a periphery area adjacent to the display area in a plan view; a pixel layer comprising a plurality of pixels, wherein each of the plurality of pixels comprises a thin film transistor and the plurality of pixels are in the display area; and a cover layer on the base substrate and containing an inorganic material and covering the front surface of the base substrate, wherein the base substrate comprises: a module hole defined in the display area and passing through the front surface and the rear surface of the base substrate; and wherein the display panel further comprises a blocking groove defined in the display area and adjacent to the module hole, wherein the blocking groove has a shape of a closed curve surrounding the module hole when viewed in a plane; and wherein the transistors are disposed on the front surface of the base substrate, characterized in that the blocking groove is recessed from the front surface of the base substrate, and the cover layer comprises a passing-through portion (MSL-OP) overlapping the blocking groove. a module hole defined in the display area and passing through the front surface and the rear surface of the base substrate; and wherein the display panel further comprises a blocking groove defined in the display area and adjacent to the module hole, wherein the blocking groove has a shape of a closed curve surrounding the module hole when viewed in a plane; and wherein the transistors are disposed on the front surface of the base substrate, characterized in that the blocking groove is recessed from the front surface of the base substrate, and the cover layer comprises a passing-through portion (MSL-OP) overlapping the blocking groove.
A dispensing closure for attachment to a container, the dispensing closure comprising: a closure body adapted for coupling to the container and defining a dispensing surface; a dispensing orifice formed in the closure body and defining an orifice axis along which an initial fluid flow path extends from the dispensing orifice; and a deflector coupled to the closure body and supported in spaced relation to the dispensing surface to define a dispensing gap between the closure body and the deflector, the deflector including a deflector surface oriented to face the dispensing orifice, the deflector surface configured to generate a spray pattern extending at a deflection angle with respect to the orifice axis, the spray pattern extending in at least two directions simultaneously, characterized in that the deflector surface is formed on a deflector disc that is rotatably coupled to the deflector. a closure body adapted for coupling to the container and defining a dispensing surface; a dispensing orifice formed in the closure body and defining an orifice axis along which an initial fluid flow path extends from the dispensing orifice; and a deflector coupled to the closure body and supported in spaced relation to the dispensing surface to define a dispensing gap between the closure body and the deflector, the deflector including a deflector surface oriented to face the dispensing orifice, the deflector surface configured to generate a spray pattern extending at a deflection angle with respect to the orifice axis, the spray pattern extending in at least two directions simultaneously, characterized in that the deflector surface is formed on a deflector disc that is rotatably coupled to the deflector.
A method for determining a distance upper bound by a verifier device (102, 402), comprising: measuring a first round-trip time to receive a first response from a target device (104, 404) corresponding to a first message sent to the target device (104, 404); measuring a second round-trip time to receive a second response from the target device (104, 404) corresponding to a second message sent to the target device (104, 404), the second response being delayed by a processing time multiplier; determining a transit time measurement based on the first round-trip time, the second round-trip time and the processing time multiplier, wherein the transit time measurement is determined independent of a processing time of the target device (104,404); and determining the distance upper bound based on the transit time measurement. measuring a first round-trip time to receive a first response from a target device (104, 404) corresponding to a first message sent to the target device (104, 404); measuring a second round-trip time to receive a second response from the target device (104, 404) corresponding to a second message sent to the target device (104, 404), the second response being delayed by a processing time multiplier; determining a transit time measurement based on the first round-trip time, the second round-trip time and the processing time multiplier, wherein the transit time measurement is determined independent of a processing time of the target device (104,404); and determining the distance upper bound based on the transit time measurement.
A prepreg for manufacturing a fibre-reinforced composite material, the prepreg comprising a body comprising a layer of fibrous reinforcement impregnated with a matrix resin material, and a powder coating layer on at least one major surface of the body and adhered to the matrix resin material, the powder coating layer including particles projecting outwardly from the matrix resin material and being porous to air flow in a direction along the plane of the powder coating layer, wherein the particles comprise a resin material which is co-polymerisable with the matrix resin material.
Method for the thermal management of a system intended for the storage of energy and for the cogeneration of electricity and heat, the system comprising: - a fuel cell capable of producing electricity and heat according to a first exothermic reaction by recombination of oxygen and of a hydrogen-based compound and capable of producing the hydrogen-based compound according to a second endothermic reaction by decomposition of a hydrogen-comprising fluid, - a device for the storage and release of hydrogen, comprising a material configured in order to generate heat during the storage of the hydrogen-based compound and to release the hydrogen-based compound in the presence of heat, the method comprising: when the fuel cell operates according to the second endothermic reaction: - transporting the hydrogen-based compound released by the second endothermic reaction to the material which is comprised by the device for the storage and release of hydrogen, thus generating heat (Qs); the method being characterized in that it additionally comprises, when the fuel cell operates according to the second endothermic reaction: - transporting at least a portion of the heat (Qs) resulting from the material to a source of the hydrogen-comprising fluid, so that the hydrogen-comprising fluid is brought to a predetermined temperature (Tc); and - feeding the fuel cell with fluid brought to the predetermined temperature (Tc) and with electricity for the decomposition of the fluid brought to a predetermined temperature, thus generating the hydrogen-based compound intended to be stored in the material of the device for the storage and release of hydrogen. - a fuel cell capable of producing electricity and heat according to a first exothermic reaction by recombination of oxygen and of a hydrogen-based compound and capable of producing the hydrogen-based compound according to a second endothermic reaction by decomposition of a hydrogen-comprising fluid, - a device for the storage and release of hydrogen, comprising a material configured in order to generate heat during the storage of the hydrogen-based compound and to release the hydrogen-based compound in the presence of heat, - transporting the hydrogen-based compound released by the second endothermic reaction to the material which is comprised by the device for the storage and release of hydrogen, thus generating heat (Qs); - transporting at least a portion of the heat (Qs) resulting from the material to a source of the hydrogen-comprising fluid, so that the hydrogen-comprising fluid is brought to a predetermined temperature (Tc); and - feeding the fuel cell with fluid brought to the predetermined temperature (Tc) and with electricity
Device for generating a standing wave comprising a wave pool, a water return channel and a compartment, wherein the wave pool comprises a wave area and a suction area, wherein the suction area is arranged downstream of the wave area and is connected to the water return channel and wherein the water return channel is connected to the compartment, wherein the compartment includes an outlet device having an outlet opening through which water can be directed into the wave pool, and wherein a ramp is arranged directly adjacent to the outlet device and adjoins an obstacle at an adjacent location, the ramp being inclined downwardly in the direction of flow over its entire length from the outlet opening to the obstacle, characterized in that the obstacle extends over the entire width of the wave pool, in that an incline of a first water guiding surface of the ramp at the adjacent location is essentially equal to an incline of a second water guiding surface of the obstacle, the obstacle having a curvature which is designed to slope down to a turning point and to slope up after the turning point.
A method for charging a traffic-related toll for at least one vehicle involved in a toll-determining group of a plurality of vehicles, characterized by - receiving by radio at least one first message generated as a result of at least one first determination made by at least one first vehicle (11, 12, 13, 14, 16) about the existence of an extraordinary traffic event from a first vehicle (11, 12, 13, 14,16) and comprising data of the first determination, transmitted by radio, - making a second determination about the existence of an extraordinary traffic event by a second vehicle and - the charging of a traffic-related toll for the first vehicle (11, 12, 13, 14, 16) and/or the second vehicle, when a comparison of data of the first determination from the first message and of data of the second determination in the course of a data processing of this data by a processor (253, 51) results in a similarity of this data within a predetermined frame, which causes the first vehicle (11, 12, 13, 14, 16) and the second vehicle to be assigned to the toll-determining group. - receiving by radio at least one first message generated as a result of at least one first determination made by at least one first vehicle (11, 12, 13, 14, 16) about the existence of an extraordinary traffic event from a first vehicle (11, 12, 13, 14,16) and comprising data of the first determination, transmitted by radio, - making a second determination about the existence of an extraordinary traffic event by a second vehicle and - the charging of a traffic-related toll for the first vehicle (11, 12, 13, 14, 16) and/or the second vehicle, when a comparison of data of the first determination from the first message and of data of the second determination in the course of a data processing of this data by a processor (253, 51) results in a similarity of this data within a predetermined frame, which causes the first vehicle (11, 12, 13, 14, 16) and the second vehicle to be assigned to the toll-determining group.
Procedure for determining a physical parameter of a liquid - said liquid having a gas content, wherein the gas is particularly present in the form of suspended bubbles in the liquid - by means of a sensor with at least a measuring tube to conduct the medium, wherein the at least one measuring tube has an end section on the inlet side and an end section on the outlet side, wherein the sensor has at least a fastening unit on the inlet side and a fastening unit on the outlet side with which the measuring tube is fixed in one of the end sections, wherein the measuring tube can be excited between the two fastening units to produce flexural vibrations of different modes with different natural frequencies, of which an f1 mode does not have any vibration node between the fastening units and an f3 mode has two vibration nodes between the fastening units, wherein the procedure comprises the following steps: Determination of the natural frequency of the f1 mode and of the f3 mode; Determination of a first provisional density value for the gas-laden liquid transported in the measuring tube on the basis of the natural frequency of the f1 mode; Determination of a second provisional density value for the gas-laden liquid transported in the measuring tube on the basis of the natural frequency of the f3 mode; Determination of a value for the sonic velocity of the gas-laden liquid transported in the measuring tube, and at least a correction term, dependent on the sonic velocity and the natural frequency of a mode, for the provisional density value determined on the basis of the natural frequency of the mode, for the purpose of determining a corrected density measured value; where the correction term K i for the provisional density values ρi based on the natural frequency of the f i, mode has the following form: K i: = 1 + r g ⋅ c f i 2 − b, where ρ corr ⋅ = ρ i K i where r and g are gas-independent constants, c is the sonic velocity of the gas-laden liquid, f i is the natural frequency of the f i mode, ρcorr is the corrected density and b is a scaling constant. Determination of the natural frequency of the f1 mode and of the f3 mode; Determination of a first provisional density value for the gas-laden liquid transported in the measuring tube on the basis of the natural frequency of the f1 mode; Determination of a second provisional density value for the gas-laden liquid transported in the measuring tube on the basis of the natural frequency of the f3 mode; Determination of a value for the sonic velocity of the gas-laden liquid transported in the measuring tube, and at least a correction term, dependent on the sonic velocity and the natural frequency of a mode, for the provisional density value determined on the basis of the natural frequency of the mode, for the purpose of determining a corrected density measured value; where the correction term K i for the provisional density values ρi based on the natural frequency of the f i, mode has the following form: K i: = 1 + r g ⋅ c f i 2 − b,
An engine comprising a controller and a fuel injection device, the fuel injection device carrying out fuel injections (3, 4) by a control by the controller, wherein an operation area is divided into a rated operation area including a rated point where a maximum output can be obtained, a maximum torque operation area including a maximum torque point where maximum torque can be obtained, a medium load operation area, and a light load operation area, the rated operation area is an area close to high speed and high load, the maximum torque operation area is an area closer to low speed and the high load than the rated operation area, the medium load operation area is an area closer to the low speed than the rated operation area and closer to the light load than the maximum torque operation area, the light load operation area is an area closer to the light load than the medium load operation area, and the main injection is carried out without the pre-injection in the rated operation area and the pre-injection and the main injection are carried out in each of the other operation areas (D2, D3, and D4) by the control by the controller, characterised in that: injection start timing of the main injection is further advanced in the medium load operation area than in the maximum torque operation area, further advanced in the light load operation area than in the medium load operation area, and further advanced in the rated operation area than in the light load operation area. injection start timing of the main injection is further advanced in the medium load operation area than in the maximum torque operation area, further advanced in the light load operation area than in the medium load operation area, and further advanced in the rated operation area than in the light load operation area.