mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic flow meter for measuring the flow of a fluid through a pipeline, comprising: a spool piece including a throughbore and a transducer port (165, 465) extending from the outer surface of the spool piece to the throughbore; a transducer assembly (200, 500, 700, 800) disposed in the transducer port, wherein the transducer assembly has a central axis (205, 505) and comprises: a transducer holder (230, 511) having a first end proximal the throughbore of the spool piece, and a second end distal the throughbore of the spool piece; a piezoelectric capsule (210, 510) including a piezoelectric element (212, 512), wherein the piezoelectric capsule is coupled to the transducer holder and extends generally axially from the first end of the transducer holder; characterized in that the transducer assembly further comprises a transformer capsule (250, 550) including a transformer (252, 552), wherein the transformer capsule is coupled to the transducer holder and is axially spaced apart from the piezoelectric capsule. a spool piece including a throughbore and a transducer port (165, 465) extending from the outer surface of the spool piece to the throughbore; a transducer assembly (200, 500, 700, 800) disposed in the transducer port, wherein the transducer assembly has a central axis (205, 505) and comprises: a transducer holder (230, 511) having a first end proximal the throughbore of the spool piece, and a second end distal the throughbore of the spool piece; a piezoelectric capsule (210, 510) including a piezoelectric element (212, 512), wherein the piezoelectric capsule is coupled to the transducer holder and extends generally axially from the first end of the transducer holder; a transducer holder (230, 511) having a first end proximal the throughbore of the spool piece, and a second end distal the throughbore of the spool piece; a piezoelectric capsule (210, 510) including a piezoelectric element (212, 512), wherein the piezoelectric capsule is coupled to the transducer holder and extends generally axially from the first end of the transducer holder; characterized in that the transducer assembly further comprises a transformer capsule (250, 550) including a transformer (252, 552), wherein the transformer capsule is coupled to the transducer holder and is axially spaced apart from the piezoelectric capsule.
A rotorcraft comprising: an airframe; a rotor assembly (12, 18) operably connected to the airframe; and a fluid cooled system comprising: a first heat generating component comprising a first engine; a second heat generating component comprising a second engine; a first airflow pathway to direct a first flow of air across a first heat exchanger; and a second airflow pathway to direct a second flow of air across a second heat exchanger; wherein a first working fluid is flowed from the first heat generating component, through the first heat exchanger and through the second heat exchanger and returned to the first heat generating component, wherein a second working fluid is flowed from the second heat generating component, through the second heat exchanger and through the first heat exchanger and returned to the second heat generating component, and wherein the fluid cooled system is a fluid cooled engine system operably connected to the rotor assembly (12, 18) with the first heat generating component. an airframe; a rotor assembly (12, 18) operably connected to the airframe; and a fluid cooled system comprising: a first heat generating component comprising a first engine; a second heat generating component comprising a second engine; a first airflow pathway to direct a first flow of air across a first heat exchanger; and a second airflow pathway to direct a second flow of air across a second heat exchanger; wherein a first working fluid is flowed from the first heat generating component, through the first heat exchanger and through the second heat exchanger and returned to the first heat generating component, wherein a second working fluid is flowed from the second heat generating component, through the second heat exchanger and through the first heat exchanger and returned to the second heat generating component, and wherein the fluid cooled system is a fluid cooled engine system operably connected to the rotor assembly (12, 18) with the first heat generating component. a first heat generating component comprising a first engine; a second heat generating component comprising a second engine; a first airflow pathway to direct a first flow of air across a first heat exchanger; and a second airflow pathway to direct a second flow of air across a second heat exchanger; wherein a first working fluid is flowed from the first heat generating component, through the first heat exchanger and through the second heat exchanger and returned to the first heat generating component, wherein a second working fluid is flowed from the second heat generating component, through the second heat exchanger and through the first heat exchanger and returned to the second heat generating component, and wherein the fluid cooled system is a fluid cooled engine system operably connected to the rotor assembly (12, 18) with the first heat generating component.
A method for recovering tin and/or tin alloy from a substrate comprising: providing a substrate having tin and/or tin alloy thereon; contacting the tin and/or tin alloy with a stripping solution comprising from 50 to 300 g/L of an acid, wherein the acid is selected from sulfuric acid, hydrochloric acid and alkane sulfonic acids and at least 50 g/L of a persulfate compound; adding a flocculant to the stripping solution; recovering tin salt and/or tin alloy salt precipitated from the stripping solution; and recovering tin and/or tin alloy from the tin salt and/or tin alloy salt, respectively. providing a substrate having tin and/or tin alloy thereon; contacting the tin and/or tin alloy with a stripping solution comprising from 50 to 300 g/L of an acid, wherein the acid is selected from sulfuric acid, hydrochloric acid and alkane sulfonic acids and at least 50 g/L of a persulfate compound; adding a flocculant to the stripping solution; recovering tin salt and/or tin alloy salt precipitated from the stripping solution; and recovering tin and/or tin alloy from the tin salt and/or tin alloy salt, respectively.
Applicator 4 for a liquid or viscous cosmetic, in particular for nail polish, extending along a longitudinal extension direction and comprising a distal end, called the distal end of the applicator A d, and a proximal end, called the proximal end of the applicator A p, the applicator comprising: - an end-piece 11, at the proximal end A p, able to be fastened to a rod 3 of an applicator assembly 1, - a spatula 12, at the distal end A d, - a base 13 that connects the end-piece 11 and the spatula 12, the end-piece 11, the base 13 and the spatula 12 being a single part made of polymer material, characterised in that the spatula 12 comprises: - at least two tongues 18, each having one end connected to a solid portion 14 of the spatula 12 and one opposite end, - at least two application tabs 20 formed in the extension of each tongue 18 on the opposite end, each tab 20 having a free end forming the distal end of the applicator, - each one of the tongues 18 being separated by a longitudinal slot 19, and in that the tongues 18 and the tabs 20 are not secured to one another. - an end-piece 11, at the proximal end A p, able to be fastened to a rod 3 of an applicator assembly 1, - a spatula 12, at the distal end A d, - a base 13 that connects the end-piece 11 and the spatula 12, the end-piece 11, the base 13 and the spatula 12 being a single part made of polymer material, - at least two tongues 18, each having one end connected to a solid portion 14 of the spatula 12 and one opposite end, - at least two application tabs 20 formed in the extension of each tongue 18 on the opposite end, each tab 20 having a free end forming the distal end of the applicator, - each one of the tongues 18 being separated by a longitudinal slot 19, and in that the tongues 18 and the tabs 20 are not secured to one another.
Apparatus with an electromagnetic flowmeter and a process connection and a L-sealing ring, wherein the L-sealing ring is inserted between the electromagnetic flowmeter and the process connection, wherein, in the cross-section through the line of the L-sealing ring, the L-sealing ring has two interconnected L-shaped legs (2, 3), wherein a first leg is limited in relation to the environment by a first section, the first section being part of the shell surface around an axis of rotation of the L-sealing ring, wherein the first leg is located between the first section and the axis of rotation, and wherein a second leg is limited in relation to the environment by a second section, said first and second section (4, 5) being interconnected by a connection contour, characterized in that a point of intersection of a first and a second straight line, which are each an extension of the first and second section (4, 5) respectively, forms a corner point of a triangle, wherein the respective end points (8, 9) of the first and second section (4, 5) form other corner points of the triangle (7, 8, 9), wherein the L-sealing ring is designed in such a way that the surface area of the cross-sectional area of the line of the L-sealing ring in the triangle is at maximum 60% of the surface area of the triangle, wherein the surface of the L-sealing ring in the triangle is not concave, and in particular is convex, and wherein the L-sealing ring, in the installed state, forms an alternate space for expansion in combination with an outer stop of the electromagnetic flowmeter to be sealed, wherein, when the alternate space is used, the sealing ring presents an increase in the surface area of the cross-sectional area of the line of the L-sealing ring in the triangle, wherein the L-sealing ring has a second radius in the surface of the second leg facing towards the axis of rotation of the L-sealing ring, said surface being curved in a concave manner.
A wireless multi-power transmission device for transmitting a power signal to a wireless device in a wireless manner, wherein the wireless multi-power transmission device includes a wireless charger case formed as an external body, and a central controller mounted thereinside to transmit a power signal to the wireless device in a wireless manner, wherein the wireless charger case has a wireless charger table, wherein the wireless charger table has a plurality of charger blocks, each of which includes a primary charging core, and wherein a reception signal processor module coupled to the plurality of the charger blocks to process a signal transmitted from the wireless device and supply the processed signal to the central controller is provided, and wherein the wireless multi-power transmission device further includes a power supply unit, characterized in that the wireless charger case has full-bridge resonant converters, and the full-bridge resonant converters are present in a plural form and coupled respectively to the plurality of the charger blocks, wherein a multi-gate driver module is provided to transmit a converted power signal to each of the full-bridge resonant converters under the control of the central controller, wherein the central controller comprises: a power supply block coupled to the power supply unit to supply a power source of the wireless multi-power transmission device; a signal output block for outputting a display signal; a gate output signal processor block coupled to the multi-gate driver module to transmit the power signal transmitted to the primary charging core; a received signal processor block coupled to one side of the primary charging core for processing a signal transmitted from the reception signal processor module for processing a signal transmitted from the wireless device; and a main controller for controlling the power supply block, the signal output block, the gate output signal processor block and the received signal processor block. a power supply block coupled to the power supply unit to supply a power source of the wireless multi-power transmission device; a signal output block for outputting a display signal; a gate output signal processor block coupled to the multi-gate driver module to transmit the power signal transmitted to the primary charging core; a received signal processor block coupled to one side of the primary charging core for processing a signal transmitted from the reception signal processor module for processing a signal transmitted from the wireless device; and a main controller for controlling the power supply block, the signal output block, the gate output signal processor block and the received signal processor block.
A stator for an electrical machine, the stator comprising: - an active part for magnetically interacting with a rotor of the electrical machine, - a first bearing and a second bearing for supporting the rotor of the electrical machine with respect to the active part, and - a mechanical structure constituting a first lubricant oil room encompassing the first bearing and enabling oil-bath lubrication of the first bearing, and a second lubricant oil room encompassing the second bearing and enabling oil-bath lubrication of the second bearing, wherein the mechanical structure comprises a first channel connecting the first and second lubricant oil rooms to each other and enabling lubricant oil to flow between the first and second lubricant oil rooms, a closing-mechanism (108, 118) for closing the first channel so as to prevent the lubricant oil from flowing between the first and second lubricant oil rooms, and at least one second channel for supplying the lubricant oil to both the first and second lubricant oil rooms when the closing-mechanism is in a position allowing the lubricant oil to flow between the first and second lubricant oil rooms. - an active part for magnetically interacting with a rotor of the electrical machine, - a first bearing and a second bearing for supporting the rotor of the electrical machine with respect to the active part, and - a mechanical structure constituting a first lubricant oil room encompassing the first bearing and enabling oil-bath lubrication of the first bearing, and a second lubricant oil room encompassing the second bearing and enabling oil-bath lubrication of the second bearing,
A heating module for a heating system of a habitable vehicle, the heating module comprising: - a module housing with an air inlet opening and an air outlet opening; - an air conduction element housed within the module housing, which has a plurality of conduction sections (92, 94, 96) and which is connected to the air inlet opening and the air outlet opening; and - at least one heating element (110, 112; 210, 212), wherein the heating element (110, 112; 210, 212) is adapted to heat air flowing from the air inlet opening to the air outlet opening; wherein the air conduction element has the following conduction sections: - a first conduction section which is connected to the air inlet opening, - a second conduction section which is connected to the air outlet opening, and - a third conduction section received between and connected to the first and second conduction section (92, 94); and wherein - the heating element (110, 112; 210, 212) is received within the third conduction section; characterized in that - the heating module has a sensor device adapted to record the temperature of the air flowing through the heating module; - the sensor device is arranged within a sensor holder held by a plurality of bars, and wherein the bars substantially extend in a radial direction from the sensor holder; and - some or all bars have an air conduction channel configured to direct passing air towards the sensor device. - a module housing with an air inlet opening and an air outlet opening; - an air conduction element housed within the module housing, which has a plurality of conduction sections (92, 94, 96) and which is connected to the air inlet opening and the air outlet opening; and - at least one heating element (110, 112; 210, 212), wherein the heating element (110, 112; 210, 212) is adapted to heat air flowing from the air inlet opening to the air outlet opening; - a first conduction section which is connected to the air inlet opening, - a second conduction section which is connected to the air outlet opening, and - a third conduction section received between and connected to the first and second conduction section (92, 94); - the heating element (110, 112; 210, 212) is received within the third conduction section; - the heating module has a sensor device adapted to record the temperature of the air flowing through the heating module; - the sensor device is arranged within a sensor holder held by a plurality of bars, and wherein the bars substantially extend in a radial direction from the sensor holder; and - some or all bars have an air conduction channel configured to direct passing air towards the sensor device.
Surface covering comprising: a sealing layer based on a first synthetic resin and a cover layer, arranged above the sealing layer, based on a second synthetic resin, the cover layer comprising a granular aggregate for improving the slip resistance and/or the wear resistance of the surface covering, the granular aggregate having been applied as an admixture with the cover layer and the proportion of the granular aggregate with respect to the cover layer being less than 30 vol.%, characterised in that at least an underside of the cover layer is structured, the height difference between the elevations and depressions of the structure of the underside preferably being no greater than the maximum grain size of the granular aggregate of the cover layer, in that the cover layer is made of a polyaspartic-based coating material, and in that the layer thickness of the cover layer in the region of the elevations is no greater than the maximum grain size of the aggregate.
A passive matrix single-colour LED display assembly comprising - a matrix of row conductor lines and column conductor lines; - an array of direct-emitting LED packages, wherein an LED package comprising a single LED is mounted on an interposer, and wherein the anode of each LED package is electrically connected to one of the row conductor lines and the cathode of that LED package is connected to one of the column conductor lines; and - a driver configured to apply a bias voltage to a row conductor line and to apply a bias voltage to a column conductor line according to an image (71, 72, 73) to be displayed; wherein the column conductor lines each are shaped to provide a plurality of recesses to accommodate the plurality of row conductor lines, each recess with a depth that corresponds to the depth of a row conductor line and the thickness of an insulating material applied to the underside of the row conductor lines, wherein the anode and cathode of each LED package is soldered or secured by an electrically conductive adhesive to the row conductor lines and column conductor lines, respectively, at row/column intersections of the conductor line matrix, such that the conductor lines (11, 12) are held together by the LED packages without being mounted on or attached to any further carrier or support. - a matrix of row conductor lines and column conductor lines; - an array of direct-emitting LED packages, wherein an LED package comprising a single LED is mounted on an interposer, and wherein the anode of each LED package is electrically connected to one of the row conductor lines and the cathode of that LED package is connected to one of the column conductor lines; and - a driver configured to apply a bias voltage to a row conductor line and to apply a bias voltage to a column conductor line according to an image (71, 72, 73) to be displayed; wherein the column conductor lines each are shaped to provide a plurality of recesses to accommodate the plurality of row conductor lines, each recess with a depth that corresponds to the depth of a row conductor line and the thickness of an insulating material applied to the underside of the row conductor lines, wherein the anode and cathode of each LED package is soldered or secured by an electrically conductive adhesive to the row conductor lines and column conductor lines, respectively, at row/column intersections of the conductor line matrix, such that the conductor lines (11, 12) are held together by the LED packages without being mounted on or attached to any further carrier or support.
A piston for an internal combustion engine, with a cooling duct running around the outside and a cooling chamber inside, the cooling chamber floor having an opening that is closed with a separate closure element that is made of spring steel sheet and that has at least one cooling oil opening and that is held by at least two diametrically opposite catches arranged on the outer edge that snap into at least one snap-in groove provided in the area of boss connections, characterized in that the closure element has at least two diametrically opposite spring tabs, each of which is supported on a bearing surface provided inside the piston in the area of the boss connections below the at least one snap-in groove, namely in the direction away from the cooling chamber, in such a way in such a way that the closure element is held in the at least one snap-in groove under axial pretension between the spring tabs and the catches.
A glycosylated antibody comprising: (a) a heavy chain comprising SEQ ID NO:1; and (b) a light chain comprising SEQ ID NO:2; wherein the glycosylated antibody does not have detectable galactose-alpha- 1,3-galactose moieties, and wherein the glycosylated antibody is produced in mammary gland epithelial cells of a non-human transgenic mammal. (a) a heavy chain comprising SEQ ID NO:1; and (b) a light chain comprising SEQ ID NO:2;
An assembly comprising: an artificial log having an outer wall that is substantially cylindrical and elongated along an axis, the artificial log having a cavity inside the outer wall; a fuel supply in the cavity, the fuel supply having a plurality of fuel outlets closer to the axis than to the outer wall, the fuel outlets being spaced from each other along the axis; and slits through the outer wall to the cavity, at least some of the slits being spaced from each other along the axis and spaced from each other circumferentially about the axis; the fuel supply including a pipe elongated along the axis, characterized in that the fuel supply further includes a plurality of jets extending transversely from the pipe, the jets each having one of the fuel outlets. an artificial log having an outer wall that is substantially cylindrical and elongated along an axis, the artificial log having a cavity inside the outer wall; a fuel supply in the cavity, the fuel supply having a plurality of fuel outlets closer to the axis than to the outer wall, the fuel outlets being spaced from each other along the axis; and slits through the outer wall to the cavity, at least some of the slits being spaced from each other along the axis and spaced from each other circumferentially about the axis; the fuel supply including a pipe elongated along the axis, characterized in that the fuel supply further includes a plurality of jets extending transversely from the pipe, the jets each having one of the fuel outlets.