mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol container having a longitudinal axis and being usable for an aerosol dispenser , said aerosol container comprising: an outer container having a closed end bottom, an open threaded neck longitudinally opposed thereto, said open neck having a periphery; a valve disposed in said neck , said valve having a housing , a moving assembly disposed in said housing , said moving assembly having a valve stem therein for dispensing product therethrough; a cap overlying said valve and having an opening for receiving said valve stem therethrough, said cap and said outer container each having a plurality of co-acting splines , threads , bayonet fittings or spikes to prevent reverse rotation of said valve from said container neck ; and a seal ; characterized in that the seal comprises a surface sealing the valve to the outer container and is disposed below the valve to prevent escape of said product to ambient. an outer container having a closed end bottom, an open threaded neck longitudinally opposed thereto, said open neck having a periphery; a valve disposed in said neck , said valve having a housing , a moving assembly disposed in said housing , said moving assembly having a valve stem therein for dispensing product therethrough; a cap overlying said valve and having an opening for receiving said valve stem therethrough, said cap and said outer container each having a plurality of co-acting splines , threads , bayonet fittings or spikes to prevent reverse rotation of said valve from said container neck ; and a seal ; characterized in that the seal comprises a surface sealing the valve to the outer container and is disposed below the valve to prevent escape of said product to ambient.
A method of wireless communication at a user equipment, UE , comprising: receiving a very low duty cycle signal, LDCS, configuration for a low power node, LPN (806a; 806b), from a second entity ; monitoring for an LDCS from the LPN (806a; 806b) based on the received LDCS configuration; receiving an LDCS from a plurality of low power nodes, LPNs (806a; 806b), based on the received LDCS configurations from the second entity , wherein the LDCS for each of the LPNs (806a; 806b) comprises at least one of backhaul quality information and loading capability information for the corresponding LPN (806a; 806b); determining a buffer status at the UE ; and determining whether to access any of the plurality of LPNs (806a; 806b) based on at least one of the received backhaul quality information and the loading capability information for the corresponding LPN (806a; 806b) in combination with the determined buffer status of the UE . receiving a very low duty cycle signal, LDCS, configuration for a low power node, LPN (806a; 806b), from a second entity ; monitoring for an LDCS from the LPN (806a; 806b) based on the received LDCS configuration; receiving an LDCS from a plurality of low power nodes, LPNs (806a; 806b), based on the received LDCS configurations from the second entity , wherein the LDCS for each of the LPNs (806a; 806b) comprises at least one of backhaul quality information and loading capability information for the corresponding LPN (806a; 806b); determining a buffer status at the UE ; and determining whether to access any of the plurality of LPNs (806a; 806b) based on at least one of the received backhaul quality information and the loading capability information for the corresponding LPN (806a; 806b) in combination with the determined buffer status of the UE .
An image capturing method, the method comprising: receiving, by an image sensor, a sequence of images comprising a plurality of red, green, and blue (RGB) image frames and color event data (S3010); generating a plurality of pseudo color filter array (CFA) frames based on the color event data (S3012) between two neighboring RGB frames of a first RGB frame and a second RGB frame among the plurality of RGB frames; determining, based on a degree of movements of an object included in the sequence of images, a first exposure region in each of the plurality of pseudo CFA frames; generating, by combining the two neighboring RGB frames and the plurality of pseudo CFA frames, a plurality of color adjusted pseudo CFA frames by adjusting colors in the first exposure region; and generating images by de-mosaicking the plurality of color adjusted pseudo CFA frames (S3014). receiving, by an image sensor, a sequence of images comprising a plurality of red, green, and blue (RGB) image frames and color event data (S3010); generating a plurality of pseudo color filter array (CFA) frames based on the color event data (S3012) between two neighboring RGB frames of a first RGB frame and a second RGB frame among the plurality of RGB frames; determining, based on a degree of movements of an object included in the sequence of images, a first exposure region in each of the plurality of pseudo CFA frames; generating, by combining the two neighboring RGB frames and the plurality of pseudo CFA frames, a plurality of color adjusted pseudo CFA frames by adjusting colors in the first exposure region; and generating images by de-mosaicking the plurality of color adjusted pseudo CFA frames (S3014).
Composition comprising: a) one or more fatty acids selected from the group consisting of straight or branched saturated fatty acids in C 8 -C 30 , b) at least one basic agent, c) at least one lipophilic UV absorption agent, d) at least hydrophobic silica aerogel particles, and e) at least one aqueous phase, wherein said fatty acid(s) is(are) preset in the composition in an amount comprised from 4% to 25% by weight relative to the total weight of the composition. a) one or more fatty acids selected from the group consisting of straight or branched saturated fatty acids in C 8 -C 30 , b) at least one basic agent, c) at least one lipophilic UV absorption agent, d) at least hydrophobic silica aerogel particles, and e) at least one aqueous phase,
A method for wireless communication, the method performed by a first type of user equipment, UE, that communicates on one or more narrowband regions of a wider system bandwidth, the method comprising: detecting, within the one or more narrowband regions of the wider system bandwidth, a primary synchronization signal, PSS, transmitted and generated by a base station, BS, utilizing a binary code cover and at least one sequence applied to a number of symbols within one or more subframes of a frame, wherein: the binary code cover comprises a length = 11 symbol sequence of [1 1 1 1 -1 -1 1 1 1 -1 1]; and the at least one sequence comprises a Zadoff-Chu sequence of size 11 with root index 5; performing an initial time and frequency acquisition based on the detected PSS; detecting, within the one or more narrowband regions, a secondary synchronization signal, SSS; and determining a cell identification, cell ID on the detected SSS. detecting, within the one or more narrowband regions of the wider system bandwidth, a primary synchronization signal, PSS, transmitted and generated by a base station, BS, utilizing a binary code cover and at least one sequence applied to a number of symbols within one or more subframes of a frame, wherein: the binary code cover comprises a length = 11 symbol sequence of [1 1 1 1 -1 -1 1 1 1 -1 1]; and the at least one sequence comprises a Zadoff-Chu sequence of size 11 with root index 5; the binary code cover comprises a length = 11 symbol sequence of [1 1 1 1 -1 -1 1 1 1 -1 1]; and the at least one sequence comprises a Zadoff-Chu sequence of size 11 with root index 5; performing an initial time and frequency acquisition based on the detected PSS; detecting, within the one or more narrowband regions, a secondary synchronization signal, SSS; and determining a cell identification, cell ID on the detected SSS.
A polyamide resin composition comprising 100 parts by mass of a semi-aromatic polyamide (A), 3.0 to 10.0 parts by mass of a polyalcohol (B), and more than 0.0 parts by mass and 4.0 parts by mass or less of an aromatic polycarboxylic acid (C), wherein a total amount of a carboxyl group of (A) and (C) is 80 to 600 mmol per 1 kg in total of (A), (B), and (C) and the aromatic polycarboxylic acid (C) is an aromatic tricarboxylic acid represented by general formula : wherein R 1 , R 2 , and R 3 each independently represent a single bond or a divalent group selected from a methylene group, an ethylene group, a propylene group, a butylene group, a cyclohexylene group, and a phenylene group. a total amount of a carboxyl group of (A) and (C) is 80 to 600 mmol per 1 kg in total of (A), (B), and (C) and the aromatic polycarboxylic acid (C) is an aromatic tricarboxylic acid represented by general formula : wherein R 1 , R 2 , and R 3 each independently represent a single bond or a divalent group selected from a methylene group, an ethylene group, a propylene group, a butylene group, a cyclohexylene group, and a phenylene group.
A three-dimensional knitted textile insert obtained in a single step by warp knitting technology, on a double-needle Raschel machine or on a crocheting machine, comprising in the production direction at least two tubes (102, 202; 103, 203; 501 ; 601) extending parallel to one another, and separated from one another by a binding area at the level of which the sheets resulting from the knitting are interlinked, respectively a main tube of greater diameter and at least one side tube , characterized in that a straight yarn or an assembly of capstan-mounted yarns , which thus does not loop, a band, optical fibers, or any other material having length as a main dimension, a rod, a cord, or a rigidifying element, intended to ease the implementation of the insert implantation, is introduced into one or the side tubes, that is, other than the so-called main tube, in a single step on forming of the insert on the knitting machine.
A method for operating an oscillation drive for a mold or a mold mount in a continuous casting device guided in a mechanical manner in the strand axial direction and being in operative connection with an eccentric part or a (connecting rod) bearing of a rotatable shaft by at least one drive or connecting rod means and the shaft being moved by an electric drive, the electric drive being formed of an electric motor supplied by a converter and having speed control, torque control and position control, characterized in that the shaft can be rotated in a controlled manner by the electric drive by an angle of up to 90° in either direction from a position in which a connecting line from its axis and the axis of rotation of the eccentric part is aligned in a perpendicular manner in relation to the strand axis, the maximum stroke of the mold or of the mold mount thus being obtainable, the electric drive rotating the shaft in an alternating manner within desired angle limits (ω) while being controlled by a control, resulting in the intended stroke of the mold oscillation.
A wave energy converter (WEC) intended to be placed in a body of water subjected to wave motion of varying amplitude and frequency, said WEC including a first body tending to move generally in phase with the waves and out of phase with respect to a second body ; and wherein said first body has a top surface extending radially about a central opening along a horizontal plane generally parallel to the water plane and a bottom, underside, portion appended to and depending from said top surface, said underside having a cross section shaped to form an inverted triangular structure, the second body extending along and through the central opening of the first body in a direction which is generally perpendicular to the surface of the water plane , characterized in that the top surface is of a generally toroidal configuration and includes, in use, a section below the water plane extending to the base of the triangular cross section , the section having a thickness H1, wherein H1 is sufficiently large so that a substantial proportion of waves will lead to a relative vertical displacement between the instantaneous wave surface and the water plane of less than H1, whereby the power-producing capability of the WEC is maintained, and the triangular cross section is rotated by 360 degrees about a central vertical axis producing a toroidal float having a wedged toroidal underside for cutting through the underlying water and thereby reducing stresses imparted to said first body when subjected to water slamming.
Vehicle energy management system for a vehicle with an internal combustion engine , including a vehicle energy coordination unit arranged to predict a future route and speed profile within a defined time frame based on historic or current road and traffic data - or a combination thereof - stored in a memory device or received from external road and traffic information sources, said vehicle energy coordination unit being arranged to estimate the probability for future friction braking following an engine braking event along said future route and speed profile, indicating temporarily available surplus kinetic energy that will predictably be lost in friction energy losses during friction braking, said engine being provided with a stop/start system for shutting off the engine at driving cycle long stop events defined as time periods with engine off, characterized in that the vehicle energy coordination unit is further arranged to: - estimate the probability for a long stop event along the predicted future route and speed profile; - register a predicted long stop event if the probability for a long stop event exceeds a predetermined threshold value in a location along the predicted future route and speed profile, and to - use the surplus kinetic energy to operate a compressor in a climate system for a predetermined time period before a registered predicted long stop event, in order to lower the temperature in an evaporator in said climate system to prime said climate system for prolonged operation during the predicted long stop event. - estimate the probability for a long stop event along the predicted future route and speed profile; - register a predicted long stop event if the probability for a long stop event exceeds a predetermined threshold value in a location along the predicted future route and speed profile, and to - use the surplus kinetic energy to operate a compressor in a climate system for a predetermined time period before a registered predicted long stop event, in order to lower the temperature in an evaporator in said climate system to prime said climate system for prolonged operation during the predicted long stop event.
A protective module for use as a water shielding part of a barrier adapted to be positioned between a body of water and an area of land to be protected, the protective module having a main plane and a first , second , third and fourth side, which sides define the main plane of the protective module , the protective module further having at least one first connecting element arranged at the first side and at least one second connecting element arranged at the second side, the first connecting element and the second connecting element being complementary to one another, wherein each connecting element has an insertion part and a locking part , characterised in that the first connecting element consists of protruding portions and the second connecting element consists of slots, the second side has a downwardly bent portion being substantially perpendicular to the main plane of the protective module and wherein the at least one second connecting element is arranged at an angle (v) between the downwardly bent portion and the main plane of the protective module , such that, the insertion part of the at least one second connecting element is arranged on the main plane side of the angle (v) and the locking part of the second connecting element is arranged on the downwardly bent portion side of the angle (v), and the complementary connecting elements are arranged so that when a first protective module is brought from an insertion position into a locking position, by pivoting the main plane of the first protective module relative to the main plane of a corresponding second protective module the first connecting element of the first protective module is locked to the second connecting element of the corresponding second protective module .
An antenna device comprising: a core mandrel having a body and a lip ; a thin film radio frequency -RF- antenna element wrapped around and supported by the body , wherein the lip extends over a top of a portion of the thin film RF antenna element to secure the portion of the thin film RF antenna element between the body and the lip ; an RF connector electrically coupled to the thin film RF antenna element ; and an outer layer molded between shutoff surfaces of the core mandrel and over the thin film RF antenna element . a core mandrel having a body and a lip ; a thin film radio frequency -RF- antenna element wrapped around and supported by the body , wherein the lip extends over a top of a portion of the thin film RF antenna element to secure the portion of the thin film RF antenna element between the body and the lip ; an RF connector electrically coupled to the thin film RF antenna element ; and an outer layer molded between shutoff surfaces of the core mandrel and over the thin film RF antenna element .
An aerosol-generating system comprising: a cartridge , the cartridge comprising: a heater assembly comprising at least four individually activatable heating elements arranged in an array, and an aerosol-forming substrate on each of the heating elements; and an aerosol-generating device configured to engage the cartridge, the aerosol-generating device comprising: a power supply , and control circuitry ; wherein the control circuitry is configured to control a supply of power from the power supply to each of the heating elements to generate an aerosol, and wherein the control circuitry is configured to activate the heating elements sequentially such that no two spatially adjacent heating elements are activated consecutively. a cartridge , the cartridge comprising: a heater assembly comprising at least four individually activatable heating elements arranged in an array, and an aerosol-forming substrate on each of the heating elements; and a heater assembly comprising at least four individually activatable heating elements arranged in an array, and an aerosol-forming substrate on each of the heating elements; and an aerosol-generating device configured to engage the cartridge, the aerosol-generating device comprising: a power supply , and control circuitry ; a power supply , and control circuitry ; wherein the control circuitry is configured to control a supply of power from the power supply to each of the heating elements to generate an aerosol, and wherein the control circuitry is configured to activate the heating elements sequentially such that no two spatially adjacent heating elements are activated consecutively.
A method for information transfer, over-the-top, OTT, management in a communication network, the method being performed in an application client, the method comprising: sending (S100, S130) a request for activation of a policy for an application network interaction protocol, ANIP, service to a packet data network gateway, PGW, wherein the request indicates an address to a local ANIP server; receiving (S110, S160) a set of rules related to the requested activation of the policy from the PGW, wherein the set of rules are defined for a packet data network, PDN, session applicable for the ANIP service; and communicating (S120, S170) over the communication network based on the received set of rules. sending (S100, S130) a request for activation of a policy for an application network interaction protocol, ANIP, service to a packet data network gateway, PGW, wherein the request indicates an address to a local ANIP server; receiving (S110, S160) a set of rules related to the requested activation of the policy from the PGW, wherein the set of rules are defined for a packet data network, PDN, session applicable for the ANIP service; and communicating (S120, S170) over the communication network based on the received set of rules.
A display device comprising : a display area (DA) located over a substrate , the display area including a plurality of pixels (P) of which each includes a first electrode , a second electrode and an intermediate layer including an emission layer and at least one functional layer , and arranged between the first electrode and the second electrode ; a pixel-defining layer covering edges of the first electrode of each of the plurality of pixels; a first spacer (115-1) arranged on the pixel-defining layer and including a first portion (SP1) and a second portion (SP2), and the second portion of the first spacer being arranged between the first portion of the first spacer and the substrate; and a first hole (TH1) arranged apart from the first electrode in the display area, the first hole being formed in the second portion of the first spacer and the pixel-defining layer, wherein the first hole has a first upper end (UE1) and a second upper end (UE2), a first height of the first upper end from the substrate (H1) being different from a second height of the second upper end from the substrate (H2); characterized in that the first portion (SP1) of the first spacer has a width increasing toward the substrate and the second portion (SP2) of the first spacer has a width decreasing toward the substrate; wherein the least one functional layer and the second electrode are located inside the first hole (TH1), and the emission layer is not located inside the first hole (TH1). a display area (DA) located over a substrate , the display area including a plurality of pixels (P) of which each includes a first electrode , a second electrode and an intermediate layer including an emission layer and at least one functional layer , and arranged between the first electrode and the second electrode ; a pixel-defining layer covering edges of the first electrode of each of the plurality of pixels; a first spacer (115-1) arranged on the pixel-defining layer and including a first portion (SP1) and a second portion (SP2), and the second portion of the first spacer being arranged between the first portion of the first spacer and the substrate; and a first hole (TH1) arranged apart from the first electrode in the display area, the first hole being formed in the second portion of the first spacer and the pixel-defining layer, wherein the first hole has a first upper end (UE1) and a second upper end (UE2), a first height of the first upper end from the substrate (H1) being different from a second height of the second upper end from the substrate (H2); characterized in that the first portion (SP1) of the first spacer has a width increasing toward the substrate and the second portion (SP2) of the first spacer has a width decreasing toward the substrate; wherein the least one functional layer and the second electrode are located inside the first hole (TH1), and the emission layer is not located inside the first hole (TH1).