mhurhangee/ep-ind-claims huggingface dataset:
A spinning nozzle for an air-spinning machine, serving to produce a yarn from a fiber composite, • wherein the spinning nozzle has a base body with an interior eddy chamber, • wherein the spinning nozzle has an inlet opening for the fiber composite entering the eddy chamber during operation of the air-spinning machine in a direction of transport, • wherein a fiber guide channel for guiding the fiber composite entering the inlet opening is present between the inlet opening and the eddy chamber, • wherein the spinning nozzle has a yarn-forming element, which extends at least partially into the eddy chamber and has an inlet opening as well as a draw-off channel for the yarn following that in the direction of transport, • wherein the spinning nozzle has air nozzles directed into the eddy chamber, opening into the eddy chamber in the area of a wall surrounding the eddy chamber, • wherein the spinning nozzle has an attachment releasably attached to the base body in the area of the inlet opening, and • wherein the fiber guide channel following the inlet opening is formed by a channel section of the attachment, characterized in that the base body also has a channel section, which is connected to the channel section of the attachment, as seen in the direction of transport and together with it forms the fiber guide channel. • wherein the spinning nozzle has a base body with an interior eddy chamber, • wherein the spinning nozzle has an inlet opening for the fiber composite entering the eddy chamber during operation of the air-spinning machine in a direction of transport, • wherein a fiber guide channel for guiding the fiber composite entering the inlet opening is present between the inlet opening and the eddy chamber, • wherein the spinning nozzle has a yarn-forming element, which extends at least partially into the eddy chamber and has an inlet opening as well as a draw-off channel for the yarn following that in the direction of transport, • wherein the spinning nozzle has air nozzles directed into the eddy chamber, opening into the eddy chamber in the area of a wall surrounding the eddy chamber, • wherein the spinning nozzle has an attachment releasably attached to the base body in the area of the inlet opening, and • wherein the fiber guide channel following the inlet opening is formed by a channel section of the attachment,
An antenna apparatus comprising: a feeding coil connected to a feeding circuit; a booster antenna that includes a conductor at which a conductor aperture and a slit for connecting the conductor aperture and an outer edge of the conductor are formed, wherein the booster antenna has an area larger than an area of the feeding coil and wherein the feeding coil is configured to induce a current on the booster antenna; and a ground conductor facing the booster antenna; and wherein the conductor aperture is formed at a position near the outer edge of the conductor, characterised by further comprising a ground connection conductor connecting the booster antenna to the ground conductor, said ground connection conductor being disposed either at two positions on either side of the slit outside an area in which a current density of the induced current flowing through the booster antenna is in a range from its maximum value to 80% of the maximum value, or only on one side of the slit in the area in which a current density of the induced current flowing through the booster antenna is in a range from its maximum value to 80% of the maximum value. a feeding coil connected to a feeding circuit; a booster antenna that includes a conductor at which a conductor aperture and a slit for connecting the conductor aperture and an outer edge of the conductor are formed, wherein the booster antenna has an area larger than an area of the feeding coil and wherein the feeding coil is configured to induce a current on the booster antenna; and a ground conductor facing the booster antenna; and wherein the conductor aperture is formed at a position near the outer edge of the conductor, characterised by further comprising a ground connection conductor connecting the booster antenna to the ground conductor, said ground connection conductor being disposed either at two positions on either side of the slit outside an area in which a current density of the induced current flowing through the booster antenna is in a range from its maximum value to 80% of the maximum value, or only on one side of the slit in the area in which a current density of the induced current flowing through the booster antenna is in a range from its maximum value to 80% of the maximum value.
A stacked light-receiving sensor comprising: a first substrate; and a second substrate bonded to the first substrate, the first substrate including a pixel array in which a plurality of unit pixels are arranged in a two-dimensional matrix, the second substrate including a converter configured to convert an analog pixel signal output from the pixel array to digital image data and a processing unit configured to perform a process based on a neural network calculation model for data based on the image data, wherein on a surface of the second substrate at least a part of the converter is disposed on a first side of the surface, and the processing unit is disposed on a second side of the surface opposite to the first side in a region not overlapping with the pixel array in a stacking direction of the first substrate and the second substrate. a first substrate; and a second substrate bonded to the first substrate, the first substrate including a pixel array in which a plurality of unit pixels are arranged in a two-dimensional matrix, the second substrate including a converter configured to convert an analog pixel signal output from the pixel array to digital image data and a processing unit configured to perform a process based on a neural network calculation model for data based on the image data, wherein a converter configured to convert an analog pixel signal output from the pixel array to digital image data and a processing unit configured to perform a process based on a neural network calculation model for data based on the image data, wherein on a surface of the second substrate at least a part of the converter is disposed on a first side of the surface, and the processing unit is disposed on a second side of the surface opposite to the first side in a region not overlapping with the pixel array in a stacking direction of the first substrate and the second substrate.
A method for configuring a home-automation installation comprising: - at least one control unit of a first type (3A, 4A), designed to communicate according to a first mode of communication, and - at least one actuator (5A, 6A, 5C, 6C): - designed to communicate, at the end of the execution of the configuration method, according to the first mode of communication, with at least one control unit of the first type (3A, 4A, 4C'), during an operation in utilization mode, and - capable of communicating according to a second mode of communication, made secure by means of an encryption key, with a configuration device, during an operation in configuration mode, the method being implemented by the configuration device and comprising at least: - a step for determining at least one actuator (5A, 6A, 6C) able to be configured, - a step for obtaining a temporary encryption key (KTi) having a limited period of validity ΔT_KTi), - a step for sending a message containing the temporary encryption key (KTi) to the at least one actuator (5A, 6A, 5C, 6C) able to be configured, - a first step for communicating according to the second mode of communication, made secure by means of the temporary encryption key (KTi), with the at least one actuator (5A, 6A, 5C, 6C) operating in configuration mode, and - a step for erasing the temporary encryption key, from a memory of the actuator upon the expiration of the period of validity of the temporary encryption key. - at least one control unit of a first type (3A, 4A), designed to communicate according to a first mode of communication, and - at least one actuator (5A, 6A, 5C, 6C): - designed to communicate, at the end of the execution of the configuration method, according to the first mode of communication, with at least one control unit of the first type (3A, 4A, 4C'), during an operation in utilization mode, and - capable of communicating according to a second mode of communication, made secure by means of an encryption key, with a configuration device, during an operation in configuration mode, - designed to communicate, at the end of the execution of the configuration method, according to the first mode of communication, with at least one control unit of the first type (3A, 4A, 4C'), during an operation in utilization mode, and - capable of communicating according to a second mode of communication, made secure by means of an encryption key, with a configuration device, during an operation in configuration mode, - a step for determining at least one actuator (5A, 6A, 6C) able to be configured, - a step for obtaining a temporary encryption key (KTi) having a limited period of validity ΔT_KTi), - a step for sending a message containing the temporary encryption key (KTi) to the at least one actuator (5A, 6A, 5C, 6C) able to be configured, - a first step for communicating according to the second mode of communication, made secure by means of the temporary encryption key (KTi), with the at least one actuator (5A, 6A, 5C, 6C) operating in configuration mode, and - a step for erasing the temporary encryption key, from a memory of the actuator upon the expiration of the period of validity of the temporary encryption key.
Thermally separated profiled element comprising at least one plastic profiled element and at least two metal profiled elements extending in the longitudinal direction of the plastic profiled element, wherein the metal profiled elements have first grooves, into which the at least one plastic profiled element at least partially meshes via first projections extending in the longitudinal direction of the profiled element, wherein the metal profiled elements are produced by deforming metal bands, in particular steel bands, wherein these profiled elements (3, 5) are joined to the thermally separated profiled element and connected to each other, wherein the plastic profiled element is glued to the metal profiled elements with an adhesive, wherein in the plastic profiled element second grooves (41, 77, 79, 81) are arranged, into which second projections (43, 83, 85, 87) arranged on the metal profiled elements mesh, and wherein a gap between the second projections (43, 83, 85, 87) and the second grooves (41, 77, 79, 81), in which the second projections (43, 83, 85, 87) are received, is at least partially filled with the adhesive, characterised in that the adhesive is pressed onto the profiled element longitudinal side from a nozzle in the gap of the profiled element.
A can lid and a can barrel comprising: a panel including an outer peripheral edge, and attached to an aperture of the can barrel; a score line including a U-shaped portion that has a first end section and a second end section, formed to swell toward the outer peripheral edge side of the panel and includes a vertex section on the outer peripheral edge side, and facilitating breakage of the panel; and a tab attached to an attachment section positioned within an enclosed region of the panel, enclosed by the U-shaped portion, arranged along one direction from the vertex section side of the U-shaped portion toward a center portion side of the panel to press the inside of the enclosed region of the panel, and pressing a side on which the vertex section is positioned with respect to a virtual line, which is orthogonal to the one direction and passes through the attachment section when pressing, wherein the panel is provided with a second score line that is connected to the U-shaped portion of the score line and is headed toward the inside of the enclosed region from a location of being connected to the U-shaped portion, and the second score line is connected to a portion, of the U-shaped portion, positioned between one of the first end section and the second end section and the vertex section, characterized in that the score line is further provided with a portion, which is connected to one of the first end section and the second end section of the U-shaped portion, and extends, from a connecting section with the one of the first end section and the second end section as a starting point, toward the other of the first end section and the second end section. a panel including an outer peripheral edge, and attached to an aperture of the can barrel; a score line including a U-shaped portion that has a first end section and a second end section, formed to swell toward the outer peripheral edge side of the panel and includes a vertex section on the outer peripheral edge side, and facilitating breakage of the panel; and a tab attached to an attachment section positioned within an enclosed region of the panel, enclosed by the U-shaped portion, arranged along one direction from the vertex section side of the U-shaped portion toward a center portion side of the panel to press the inside of the enclosed region of the panel, and pressing a side on which the vertex section is positioned with respect to a virtual line, which is orthogonal to the one direction and passes through the attachment section when pressing, wherein the panel is provided with a second score line that is connected to the U-shaped portion of the score line and is headed toward the inside of the enclosed region from a location of being connected to the U-shaped portion, and the second score line is connected to a portion, of the U-shaped portion, positioned between one of the first end section and the second end section and the vertex section,
A coating composition having a solids content of greater than 70% by weight and/or a Volatile Organic Content of less than 250 g/l, comprising a polyester polyol, the polyester polyol prepared from reactants comprising: (a) from 10 to 40 weight percent of one or more polyols comprising 3 or more hydroxyl groups per molecule, (b) from 10 to 40 weight percent of one or more aromatic polycarboxylic acid(s) comprising 2 or more acid groups per molecule or corresponding ester(s) and/or anhydride(s) thereof, and (c) from 30 to 75 weight percent of one or a mixture of C 6 -C 20 monobasic fatty acids, wherein the one or the mixture of C 6 -C 20 monobasic fatty acids have an iodine value of less than 30cg/g and is a liquid in conformity with ASTM D4359-90, wherein the polyester polyol has a hydroxyl value of greater than 60 and less than 200 mgKOH/g, and the weight percent of each component (a), (b) or (c) is the percentage of the weight of that component to the total weight of (a)+(b)+(c), and at least one isocyanate-functional a curing agent, and wherein the coating composition is capable of curing at ambient temperature. (a) from 10 to 40 weight percent of one or more polyols comprising 3 or more hydroxyl groups per molecule, (b) from 10 to 40 weight percent of one or more aromatic polycarboxylic acid(s) comprising 2 or more acid groups per molecule or corresponding ester(s) and/or anhydride(s) thereof, and (c) from 30 to 75 weight percent of one or a mixture of C 6 -C 20 monobasic fatty acids, wherein the one or the mixture of C 6 -C 20 monobasic fatty acids have an iodine value of less than 30cg/g and is a liquid in conformity with ASTM D4359-90, wherein the polyester polyol has a hydroxyl value of greater than 60 and less than 200 mgKOH/g, and the weight percent of each component (a), (b) or (c) is the percentage of the weight of that component to the total weight of (a)+(b)+(c), and at least one isocyanate-functional a curing agent, and wherein the coating composition is capable of curing at ambient temperature.
A reusable stage for a space launch vehicle, having a main body including a first end and a second end, and defining a central longitudinal axis between the first end and the second end, and the reusable stage further comprising: a reusable stage rocket engine arranged at or near the first end of the reusable stage to propel the launch vehicle vertically upwards at take-off, and a plurality of electrically powered fans for providing lift during a landing procedure of the stage, wherein the fans have rotational axes arranged substantially perpendicular to the central longitudinal axis. a reusable stage rocket engine arranged at or near the first end of the reusable stage to propel the launch vehicle vertically upwards at take-off, and a plurality of electrically powered fans for providing lift during a landing procedure of the stage, wherein the fans have rotational axes arranged substantially perpendicular to the central longitudinal axis.
Drive device, having at least one motor (M1-M6) and at least one further drive component from the group of a gearing, a torque converter, a clutch and/or a brake (B1-B6), and having a control device designed to automatically actuate the at least one motor (M1-M6), wherein the at least one motor (M1-M6) and/or the at least one further drive component have/has a control means which changes the torque transmission, characterized in that the control means comprises at least one lamp (21.1) and a material (21.2) which influences the torque transmission and comprises at least one light-stabilized dynamic material (LSDM), wherein the control means is configured to change the torque transmission through actuation of the lamp (21.1), which radiates onto the light-stabilized dynamic material (LSDM).
A thruster comprising: a plasma source (100, 200, 500) having an output that emits plasma; an accelerator (300, 600) positioned near the output to receive the plasma and accelerate the plasma; a metal cone (302, 604) coupled to the plasma source, said metal cone having an input that receives the plasma and an output; a magnet (610,620) positioned about a distal end of said plasma source and a proximal end of said metal cone; and further characterised by a screen grid (310,320) positioned adjacent the cone output and having one or more screen grid openings, said screen grid positively charged to repel ions between the one or more screen grid openings; and said accelerator comprising an accelerator grid positioned adjacent the screen grid and having one or more accelerator grid openings, said accelerator grid negatively charged to attract ions between the screen grid openings and accelerate the ions through the accelerator grid openings. a plasma source (100, 200, 500) having an output that emits plasma; an accelerator (300, 600) positioned near the output to receive the plasma and accelerate the plasma; a metal cone (302, 604) coupled to the plasma source, said metal cone having an input that receives the plasma and an output; a magnet (610,620) positioned about a distal end of said plasma source and a proximal end of said metal cone; and further characterised by a screen grid (310,320) positioned adjacent the cone output and having one or more screen grid openings, said screen grid positively charged to repel ions between the one or more screen grid openings; and said accelerator comprising an accelerator grid positioned adjacent the screen grid and having one or more accelerator grid openings, said accelerator grid negatively charged to attract ions between the screen grid openings and accelerate the ions through the accelerator grid openings.
An air data probe (10, 10A) comprising: a strut (14, 14A) including: a socket (40, 40A) defining an interior surface (42, 42A) of the strut; and an interior groove (44, 44A) extending radially into the interior surface; a probe head (12, 12A) partially positioned within the socket, the probe head including: an exterior surface (36, 36A); and an exterior groove (38, 38A) extending radially into the exterior surface, the exterior groove being axially alignable with the interior groove (44, 44A) of the strut (14, 14A); and a retaining ring (18, 18A) being partially positioned within the exterior groove (38, 38A) of the probe head (12, 12A) and partially positioned within the interior groove (44, 44A) of the strut (14, 14A) when the exterior groove (38, 38A) of the probe head (12, 12A) and the interior groove (44, 44A) of the strut (14, 14A) are axially aligned to axially retain the probe head (12, 12A) to the strut (14, 14A) while allowing the probe head (12, 12A) to rotate relative to the strut (14, 14A) prior to being permanently bonded to the strut (14, 14A). a strut (14, 14A) including: a socket (40, 40A) defining an interior surface (42, 42A) of the strut; and an interior groove (44, 44A) extending radially into the interior surface; a socket (40, 40A) defining an interior surface (42, 42A) of the strut; and an interior groove (44, 44A) extending radially into the interior surface; a probe head (12, 12A) partially positioned within the socket, the probe head including: an exterior surface (36, 36A); and an exterior groove (38, 38A) extending radially into the exterior surface, the exterior groove being axially alignable with the interior groove (44, 44A) of the strut (14, 14A); and an exterior surface (36, 36A); and an exterior groove (38, 38A) extending radially into the exterior surface, the exterior groove being axially alignable with the interior groove (44, 44A) of the strut (14, 14A); and a retaining ring (18, 18A) being partially positioned within the exterior groove (38, 38A) of the probe head (12, 12A) and partially positioned within the interior groove (44, 44A) of the strut (14, 14A) when the exterior groove (38, 38A) of the probe head (12, 12A) and the interior groove (44, 44A) of the strut (14, 14A) are axially aligned to axially retain the probe head (12, 12A) to the strut (14, 14A) while allowing the probe head (12, 12A) to rotate relative to the strut (14, 14A) prior to being permanently bonded to the strut (14, 14A).
Measuring arrangement comprising a pipe with a pipe axis and an ultrasonic flowmeter, wherein the ultrasonic flowmeter has a sensor unit, which is secured in a hole in the pipe, said hole being implemented in the pipe wall essentially perpendicular to the pipe axis, wherein the sensor unit has a rail or a rod with a longitudinal axis, wherein the rail or the rod have at least two ultrasonic converters (4 and 13) which define a signal path, wherein the signal path runs parallel to or on the longitudinal axis of the rail or the rod and wherein the signal path is angled in relation to a vertical connecting line between the center of the hole and the pipe axis, characterized in that the rail or the rod can be aligned by rotation by means of a bar in the pipe.