mhurhangee/ep-ind-claims huggingface dataset:
Support device for a shower head, comprising: - a device body extending mainly along a device axis comprising a proximal portion suitable for sliding along a rod of the shower, said rod extending along a rod axis which is perpendicular to the device axis, in installed condition,, and a distal portion for supporting a shower head, wherein said proximal portion is crossed by a through opening for the rod; - a device blocking mechanism fixed inside said proximal portion and supporting a movable blocking member comprising a control member, said movable blocking member being movable, by actuation of the control member by a user, between an advanced position, in which it is suitable for engaging the shower rod, and a retracted position, in which it is suitable for disengaging from said rod, wherein the distal portion is connected to the device blocking mechanism by means of a rotation coupling suitable to allow controlled rotation of the distal portion relative to the proximal portion around a rotation axis perpendicular to the rod axis, wherein said controlled rotation is given by the sliding of a toothed surface of the distal portion on a toothed counter-surface of the blocking mechanism, the coupling between the teeth of the toothed surface and the teeth of the toothed counter-surface being suitable to allow the arrest of the distal portion in one of a plurality of angular positions with respect to the proximal portion, and wherein said toothed surface and toothed counter-surface extend along an arc of circumference, wherein the toothed surface is a concave surface made in a swivel attachment of the distal portion, and in which the toothed counter-surface is a convex surface made on a distal appendage of the blocking mechanism. - a device body extending mainly along a device axis comprising a proximal portion suitable for sliding along a rod of the shower, said rod extending along a rod axis which is perpendicular to the device axis, in installed condition,, and a distal portion for supporting a shower head, wherein said proximal portion is crossed by a through opening for the rod; - a device blocking mechanism fixed inside said proximal portion and supporting a movable blocking member comprising a control member, said movable blocking member being movable, by actuation of the control member by a user, between an advanced position, in which it is suitable for engaging the shower rod, and a retracted position, in which it is suitable for disengaging from said rod,
An automotive headlamp apparatus comprising: a lamp unit (10, 10a, 10b, 10c, 10d, 10e) configured to be capable of forming an additional light distribution pattern (Hi) that includes an upper area above the cut-off line of a light distribution pattern for low beam (Lo) and that is divided into a plurality of individual patterns (Hia-Hie); a controller (228,228L,228R) configured to control formation of each of the individual patterns(Hia-Hie) in accordance with presence of a forward vehicle, characterized in that in response to detection of a forward vehicle, the controller (228, 228L, 228R) performs a control step (104, 204) in which the controller reduces the illuminance of an individual pattern (Hie) overlapping an area where said forward vehicle is present from an initial illuminance of the individual pattern (Hie) formed in a state where a forward vehicle is not present, and increases the illuminance of at least one of other individual patterns(Hia-Hid) from its initial illuminance. a lamp unit (10, 10a, 10b, 10c, 10d, 10e) configured to be capable of forming an additional light distribution pattern (Hi) that includes an upper area above the cut-off line of a light distribution pattern for low beam (Lo) and that is divided into a plurality of individual patterns (Hia-Hie); a controller (228,228L,228R) configured to control formation of each of the individual patterns(Hia-Hie) in accordance with presence of a forward vehicle, characterized in that in response to detection of a forward vehicle, the controller (228, 228L, 228R) performs a control step (104, 204) in which the controller reduces the illuminance of an individual pattern (Hie) overlapping an area where said forward vehicle is present from an initial illuminance of the individual pattern (Hie) formed in a state where a forward vehicle is not present, and increases the illuminance of at least one of other individual patterns(Hia-Hid) from its initial illuminance.
Process for producing polyamides with optimized flow guidance, comprising the following steps: a) polymerizing lactam to a polyamide-containing polymer melt, b) granulating the polymer melt to PA granules using granulation liquid, c) extracting monomeric and oligomeric constituents from the PA granules in an extraction column, wherein the PA granules are guided countercurrently to an extraction liquid stream, carried out in a device for producing polyamides with optimized flow guidance, comprising a polymerization system, a granulation system and an extraction column having at least one inlet at the top for PA granules, at least one outlet at the bottom for PA granules, at least one inlet at the bottom for extraction liquid, at least one outlet at the top for extraction liquid, and a plurality of infeed points for granulation liquid, wherein the granulation system and the plurality of infeed points are connected to one another via a line through which a portion of the granulation liquid used in the granulation system can be transferred to the infeed points, wherein the temperature of the granulation liquid before it is fed into the extraction liquid stream is lower than the temperature of the extraction liquid stream before the granulation liquid is fed in, characterized in that at least a portion of the granulation liquid is fed into the extraction liquid stream at a number of infeed points that are situated at different heights of the extraction column in order to adjust the temperature and lactam concentration of the extraction liquid stream, wherein the granulation liquid is fed at from 1 to 10 infeed points. a) polymerizing lactam to a polyamide-containing polymer melt, b) granulating the polymer melt to PA granules using granulation liquid, c) extracting monomeric and oligomeric constituents from the PA granules in an extraction column, wherein the PA granules are guided countercurrently to an extraction liquid stream,
A method for a radio access network, RAN, node in a wireless communication system, the method comprising: transmitting, to a core network, CN, node, an RAN-CN interface setup request message including 1) a global identifier, ID, of the RAN node, and 2) information related to slice support of the RAN node; receiving, from the CN node, a RAN-CN interface setup response message including 1) identification information of the CN node, and 2) information related to slice support of the CN node; and setting up an RAN-CN interface between the RAN node and the CN node based on the RAN-CN interface setup request message and the RAN-CN interface setup response message. transmitting, to a core network, CN, node, an RAN-CN interface setup request message including 1) a global identifier, ID, of the RAN node, and 2) information related to slice support of the RAN node; receiving, from the CN node, a RAN-CN interface setup response message including 1) identification information of the CN node, and 2) information related to slice support of the CN node; and setting up an RAN-CN interface between the RAN node and the CN node based on the RAN-CN interface setup request message and the RAN-CN interface setup response message.
A biological nanoparticle detection method with high-sensitivity, comprising the following steps: Step S1: reacting a copper compound nanoparticle with a surface membrane protein aptamer having a sulfhydryl group to obtain a copper compound-membrane protein aptamer conjugate, characterized in that: wherein the copper compound nanoparticle is one or more selected from a group consisting of: cupric sulfide, cuprous oxide, and cuprous sulfide; Step S2: filtering a biological nanoparticle solution containing the biological nanoparticle through a first filter membrane, and adding the copper compound-membrane protein aptamer conjugate to the filtered solution, to obtain a biological nanoparticle-copper compound conjugate after reaction; Step S3: adding a surfactant to the reaction solution obtained in Step S2, filtering through a second filter membrane, and washing the second filter membrane with PBS to obtain a filter membrane containing the biological nanoparticle-copper compound conjugate, wherein a pore size of the second filter membrane is 50 nm; and Step S4: adding a AgNO 3 solution to the filter membrane obtained in Step S3 and reacting: and then adding a mixed solution of triethylamine hydrochloride, hydrogen peroxide and 3,3',5,5'-tetramethylbenzidine, reacting for development, and observing the color change of the filter membrane visually by naked eyes or by means of a camera. Step S1: reacting a copper compound nanoparticle with a surface membrane protein aptamer having a sulfhydryl group to obtain a copper compound-membrane protein aptamer conjugate, characterized in that: wherein the copper compound nanoparticle is one or more selected from a group consisting of: cupric sulfide, cuprous oxide, and cuprous sulfide; Step S2: filtering a biological nanoparticle solution containing the biological nanoparticle through a first filter membrane, and adding the copper compound-membrane protein aptamer conjugate to the filtered solution, to obtain a biological nanoparticle-copper compound conjugate after reaction; Step S3: adding a surfactant to the reaction solution obtained in Step S2, filtering through a second filter membrane, and washing the second filter membrane with PBS to obtain a filter membrane containing the biological nanoparticle-copper compound conjugate, wherein a pore size of the second filter membrane is 50 nm; and Step S4: adding a AgNO 3 solution to the filter membrane obtained in Step S3 and reacting: and then adding a mixed solution of triethylamine hydrochloride, hydrogen peroxide and 3,3',5,5'-tetramethylbenzidine, reacting for development, and observing the color change of the filter membrane visually by naked eyes or by means of a camera.
A heat exchanger comprising a tank and a collector plate assembled together, the tank comprising a foot and the collector comprising a receiving groove in the shape of a U which comprises a base and two flanges (31, 32), the base being a foot receiving surface, wherein the foot comprises a groove in which a gasket is placed, and which groove is faced by a foot receiving surface so that together they form a closed cavity within the foot defining a compression volume for the gasket, and characterised in that the foot comprises a compression arrangement providing a filling rate δ of the compressed gasket after assembly less than 100% of the compression volume.
A bolt, comprising a screw cap and a bolt bar, wherein the bolt bar comprises a positioning bar, a flexible bar and a threaded portion, the positioning bar is connected to one end of the screw cap, and the flexible bar is connected to the positioning bar and the threaded portion respectively; wherein an anti-shearing stand is formed on the flexible bar; the threaded portion comprises standard threads wherein the thread height (H 0) of the standard threads keeps constant; characterised in that: the threaded portion further comprises transition threads, wherein the transition threads are formed between the flexible bar and the standard threads, and a thread height of the transition threads is smaller than a thread height (H 0) of the standard threads, the diameter (d 2) of the flexible bar is 0.85 times a nominal diameter (d 0) of the bolt; and in an axial direction of the bolt, a length of the positioning bar is 20mm, and a length of the anti-shearing stand is 8mm to 10mm. a screw cap and a bolt bar, wherein the bolt bar comprises a positioning bar, a flexible bar and a threaded portion, the positioning bar is connected to one end of the screw cap, and the flexible bar is connected to the positioning bar and the threaded portion respectively; wherein an anti-shearing stand is formed on the flexible bar; the threaded portion comprises standard threads wherein the thread height (H 0) of the standard threads keeps constant; characterised in that: the threaded portion further comprises transition threads, wherein the transition threads are formed between the flexible bar and the standard threads, and a thread height of the transition threads is smaller than a thread height (H 0) of the standard threads, the diameter (d 2) of the flexible bar is 0.85 times a nominal diameter (d 0) of the bolt; and in an axial direction of the bolt, a length of the positioning bar is 20mm, and a length of the anti-shearing stand is 8mm to 10mm. the threaded portion further comprises transition threads, wherein the transition threads are formed between the flexible bar and the standard threads, and a thread height of the transition threads is smaller than a thread height (H 0) of the standard threads, the diameter (d 2) of the flexible bar is 0.85 times a nominal diameter (d 0) of the bolt; and in an axial direction of the bolt, a length of the positioning bar is 20mm, and a length of the anti-shearing stand is 8mm to 10mm.
A rotor blade assembly for a wind turbine, the rotor blade assembly comprising: a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge each extending between a tip and a root, the rotor blade further defining a span and a chord; and a surface feature configured to be installed on an exterior surface defining a pressure side or a suction side of the rotor blade, the surface feature being flexible and having an exterior mounting surface, at least a portion of the exterior mounting surface having a contour in an uninstalled state different from a contour of the exterior surface of the rotor blade at a mount location of the surface feature on the rotor blade. a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge each extending between a tip and a root, the rotor blade further defining a span and a chord; and a surface feature configured to be installed on an exterior surface defining a pressure side or a suction side of the rotor blade, the surface feature being flexible and having an exterior mounting surface, at least a portion of the exterior mounting surface having a contour in an uninstalled state different from a contour of the exterior surface of the rotor blade at a mount location of the surface feature on the rotor blade.
An antifouling coating composition comprising: a hydrolyzable polymer containing a metal ester group, cuprous oxide, a copper pyrithione, and medetomidine, wherein the content of the hydrolyzable polymer in the solid content of the antifouling coating composition is from 8 to 20% by mass, the content of the cuprous oxide in the solid content of the antifouling coating composition is from 35 to 65% by mass, the content of the copper pyrithione in the solid content of the antifouling coating composition is from 0.5 to 7% by mass, the content of the medetomidine in the solid content of the antifouling coating composition is from 0.02 to 2% by mass, and the hydrolyzable polymer contains at least one selected from the group consisting of a polymer (A1') having a constituent unit derived from a polymerizable compound represented by the following formula (1-1') and a polymer (A2') having a constituent unit derived from a polymerizable compound represented by the following formula (1-2'): wherein R 12 each independently represent a hydrogen atom or a methyl group; and M represents copper or zinc, wherein R 23 represents a hydrogen atom or a methyl group; R 24 represents a monovalent organic group having 1 to 30 carbon atoms containing no terminal ethylenically unsaturated group; and M represents copper or zinc. a hydrolyzable polymer containing a metal ester group, cuprous oxide, a copper pyrithione, and medetomidine, wherein the content of the hydrolyzable polymer in the solid content of the antifouling coating composition is from 8 to 20% by mass, the content of the cuprous oxide in the solid content of the antifouling coating composition is from 35 to 65% by mass, the content of the copper pyrithione in the solid content of the antifouling coating composition is from 0.5 to 7% by mass, the content of the medetomidine in the solid content of the antifouling coating composition is from 0.02 to 2% by mass, and the hydrolyzable polymer contains at least one selected from the group consisting of a polymer (A1') having a constituent unit derived from a polymerizable compound represented by the following formula (1-1') and a polymer (A2') having a constituent unit derived from a polymerizable compound represented by the following formula (1-2'): wherein R 12 each independently represent a hydrogen atom or a methyl group; and M represents copper or zinc, wherein R 23 represents a hydrogen atom or a methyl group; R 24 represents a monovalent organic group having 1 to 30 carbon atoms containing no terminal ethylenically unsaturated group; and M represents copper or zinc.
A system comprising an audible alert system for a locomotive and an assembly mountable to handrailing of the locomotive and the audible alert system, the audible alert system comprising a speaker, an audio amplifier, an audio file player, and an enclosure, wherein the audio amplifier and the audio file player are within an enclosure configured to provide protection for the audio amplifier and the audio file player from the environment, characterized in that the speaker of the audible alert system is mountable to the assembly, such that the speaker of the audible alert system is mountable via the assembly to the handrailing of the locomotive, wherein the system further comprises a speaker bracket positionable generally between wherein the speaker and a portion of the assembly, and the speaker bracket includes: fastener holes alignable with corresponding fastener holes of the portion of the assembly, whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the portion of the assembly to thereby couple the speaker bracket to the portion of the assembly; and/or fastener holes alignable with corresponding fastener holes of the speaker, whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the speaker to thereby couple the speaker bracket to the speaker. fastener holes alignable with corresponding fastener holes of the portion of the assembly, whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the portion of the assembly to thereby couple the speaker bracket to the portion of the assembly; and/or fastener holes alignable with corresponding fastener holes of the speaker, whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the speaker to thereby couple the speaker bracket to the speaker.
Radar apparatus, comprising an antenna for discharging a transmission beam with frequencies corresponding to elevation/depression angles with respect to a particular surface, the antenna discharging the transmission beam at various azimuths while rotating about a rotational shaft perpendicular to the particular surface, and receiving a reflection echo from a plurality of reflective bodies; and a reception means operable to detect an elevation/depression angle of said reflective bodies based on a frequency component of a reception signal received by said antenna and operable to detect a distance of said reflective bodies based on a time component of said reception signal, characterised in that said reception means comprises a target object estimating means configured to estimate a reference surface based on azimuth, distance and elevation/depression angle information of said reflective bodies detected by said reception means, and configured to determine that said reception signal from a particular reflective body is from a target object if said reception signal indicates that said particular reflective body is located above said reference surface.
A fat-based confection comprising (i) a non-alkalised chocolate composition or non-alkalised cocoa liquor and (ii) a flavor composition consisting of potassium lactate, potassium acetate, or a combination thereof, wherein the flavor composition is present at a concentration of from 0.1% w/w to 6.5% w/w by weight of the fat-based confection when the fat-based confection comprises a non-alkalised chocolate composition, or the flavor composition is present at a concentration of from 1% w/w to 15% w/w by weight of the fat-based confection when the fat-based confection comprises non-alkalised cocoa liquor. (i) a non-alkalised chocolate composition or non-alkalised cocoa liquor and (ii) a flavor composition consisting of potassium lactate, potassium acetate, or a combination thereof,
A reflector for providing a wall-washing lighting pattern from an electrically-powered light radiation source, the reflector including a body traversed by a light propagation cavity which defines a light propagation path between a light injection window lying in a first plane and a light emission window lying in a second plane, wherein the light propagation cavity is of a flattened shape, with first and second light reflective surfaces lying on opposite sides with respect to said light injection window, characterized in that said light emission window includes two parallel linear edges connected by curved edges with corresponding portions of the light propagation cavity bordering on said edges.
A foam dispensing container including a container body made of a material possessing elasticity, a lid body mounted to a mouth of the container body, and a tube body connecting the inside of a trunk portion of the container body and the inside of the lid body, and when the container body is pressed from the outside, a foaming liquid contained in the trunk portion of the container body and air in an upper space in the container body are mixed to produce foam in an air-liquid mixing chamber provided in the lid body, and the foam is discharged from an opening of the lid body, wherein the lid body includes; a plurality of liquid intake paths (q) that are connected through the tube body to the inside of the trunk portion of the container body so as to deliver the foaming liquid into the air-liquid mixing chamber, a plurality of air intake paths (p) that are connected to the upper space in the container body so as to deliver the air into the air-liquid mixing chamber, an outside-air intake that is configured to close to seal the container body when the container body is pressed and to open to connect the inside of the container body to the outside and to allow air to enter from the outside when the pressure of the container body is reduced, a foam discharge passage connected to the downstream side of the air-liquid mixing chamber, and a foam discharge opening that is provided at the downstream end of the foam discharge passage and that discharges foam to the outside, characterized in that the liquid intake paths (q) include at least an enlarged flow path portion (ql,q2) that is connected to the tube body and has a greater cross-sectional area than the flow path (s) of the tube body and branch flow path portions that are connected to the enlarged flow path portion (q1,q2) and that branch into a plurality of flow paths, each of the flow paths being connected to the air-liquid mixing chamber, and the cross-sectional area of a single flow path in the branch flow path portions is smaller than the cross-sectional area of the flow path (s) in the tube body, and the total cross-sectional area of the plurality of flow paths in the branch flow path portions is greater than the cross-sectional area of the flow path (s) in the tube body.