mhurhangee/ep-ind-claims huggingface dataset:
A heat-shrinkable polyester-based film, wherein the polyester comprises ethylene terephthalate unit in an amount of 95 mol% or more and 0 mol% or more and 5 mol% or less of a monomer component that can be an amorphous component in the whole polyester resin components, and having a main shrinkage direction in the longitudinal direction, wherein the heat-shrinkable polyester-based film satisfies the following requirements to: a hot water heat shrinkage rate in the longitudinal direction is 15 % or more and 50 % or less when the film is treated in hot water at 90 °C for 10 seconds; a hot water heat shrinkage rate in the width direction orthogonal to the longitudinal direction is 0 % or more and 12 % or less when the film is treated in hot water at 90 °C for 10 seconds; and a refractive index in the longitudinal direction is 1.570 or more, a refractive index in the width direction is 1.570 or more, and the refractive index in the width direction, which is the direction orthogonal to the main shrinkage direction, is higher than the refractive index in the longitudinal direction, which is the main shrinkage direction. a hot water heat shrinkage rate in the longitudinal direction is 15 % or more and 50 % or less when the film is treated in hot water at 90 °C for 10 seconds; a hot water heat shrinkage rate in the width direction orthogonal to the longitudinal direction is 0 % or more and 12 % or less when the film is treated in hot water at 90 °C for 10 seconds; and a refractive index in the longitudinal direction is 1.570 or more, a refractive index in the width direction is 1.570 or more, and the refractive index in the width direction, which is the direction orthogonal to the main shrinkage direction, is higher than the refractive index in the longitudinal direction, which is the main shrinkage direction.
A cowling structure of a saddle-riding type vehicle including side cowls covering sides of the vehicle, each of the side cowls being provided with a stepped portion forming a downward face which faces downward of a body of the vehicle, characterized in that the downward face is provided with an air guide outlet for guiding air inside the cowling to the outside of the cowling, and the stepped portion is provided with a turn signal lamp jutting outward of the vehicle; and the air guide outlet is provided behind the turn signal lamp.
A flow-control assembly (10, 10', 10") for fluid, comprising: a. a body comprising (i) an inlet for fluid, (ii) an outlet for fluid, and (iii) a bypass opening (50, 50') having an effective size for receiving fluid; and b. a spring, c. a member moveable within the body so as to change the effective size of the bypass opening (50, 50'), a position of the member indicating, through the bypass opening (50, 50'), information about the fluid flow rate through the body, the member being a piston operating under influence of the spring, the spring biasing the piston to a normal position closing the bypass opening (50, 50'), characterized in that the bypass opening (50, 50') has irregular shape, with its lower boundary (58, 58') being longer than its upper boundary (62, 62'). a. a body comprising (i) an inlet for fluid, (ii) an outlet for fluid, and (iii) a bypass opening (50, 50') having an effective size for receiving fluid; and b. a spring, c. a member moveable within the body so as to change the effective size of the bypass opening (50, 50'), a position of the member indicating, through the bypass opening (50, 50'), information about the fluid flow rate through the body, the member being a piston operating under influence of the spring, the spring biasing the piston to a normal position closing the bypass opening (50, 50'), characterized in that the bypass opening (50, 50') has irregular shape, with its lower boundary (58, 58') being longer than its upper boundary (62, 62').
Travel plug adapter having a housing with inner walls, outer walls, and a bottom surface and furthermore having a plug receptacle, and at least a first plug of a first standard that has at least a first contact pin, wherein the first plug, by being displaced along a first distance, may be moved out of a standby position, in which the plug is essentially disposed within the housing, into a usage position, in which the plug is usably disposed outside of the housing, characterized in that a contact surface is provided in the housing and the plug is connected to at least one actuation element that, when the plug is moved from the standby position into the usage position, at least temporarily, comes into contact with the contact surface and that is connected to a transmission unit such that by the transmission unit the at least one contact pin is moved along a second distance that is greater than the first distance.
A ginseng fruit extract for use in activating the brain, in improving, treating or preventing chronic fatigue syndrome, or in improving the symptoms of chronic fatigue syndrome, wherein the ginseng fruit extract comprises a protopanaxadiol-based ginsenoside and a protopanaxatriol-based ginsenoside at a weight ratio (PD/PT) of 0.1-0.95.
A method for handling a contention-based random access procedure in a user equipment, named UE hereinafter, of a wireless communication system, the method comprising: sending a Scheduled Transmission message, the Scheduled Transmission message applying a Hybrid Automatic Repeat request, named HARQ hereinafter, process for transmission; starting a Contention Resolution Timer and monitoring a Physical Downlink Control Channel, named PDCCH hereinafter; and receiving an HARQ NACK in response to the scheduled Transmission message; characterized by flushing a buffer of the HARQ process used for transmission of the Scheduled Transmission message when a contention result of the random access procedure is determined. sending a Scheduled Transmission message, the Scheduled Transmission message applying a Hybrid Automatic Repeat request, named HARQ hereinafter, process for transmission; starting a Contention Resolution Timer and monitoring a Physical Downlink Control Channel, named PDCCH hereinafter; and receiving an HARQ NACK in response to the scheduled Transmission message; characterized by flushing a buffer of the HARQ process used for transmission of the Scheduled Transmission message when a contention result of the random access procedure is determined.
A micro-fluidic device, comprising: a rotational body; a micro-fluidic structure placed on the rotational body, having multiple chambers (10, 41, 46a 50, 50a, 60, 65, 80, 84, 90), multiple channels (34, 34a, 42, 61, 61a, 81) through which a fluid flows between the multiple chambers, and multiple valves (35, 51, 62, 63, 82, 83) arranged in the channels to control a flow of the fluid, wherein the fluid is transported via centrifugal force generated by rotation of the rotational body; and a first binder provided in a first chamber of the multiple chambers in the micro-fluidic structure wherein the binder comprises a first capture material that specifically binds to a first site of a target material to be detected and a first solid particle; and a second binder provided in a second chamber of the multiple chambers in the micro-fluidic structure wherein the second binder is specifically binds to a second site of the target material to be detected, and wherein the second site of the target material is different from the first site of the target material; characterized in that the second binder is coupled to a second solid particle to which a second capture material binds, and the second solid particle has a specific gravity larger than that of the first binder. a rotational body; a micro-fluidic structure placed on the rotational body, having multiple chambers (10, 41, 46a 50, 50a, 60, 65, 80, 84, 90), multiple channels (34, 34a, 42, 61, 61a, 81) through which a fluid flows between the multiple chambers, and multiple valves (35, 51, 62, 63, 82, 83) arranged in the channels to control a flow of the fluid, wherein the fluid is transported via centrifugal force generated by rotation of the rotational body; and a first binder provided in a first chamber of the multiple chambers in the micro-fluidic structure wherein the binder comprises a first capture material that specifically binds to a first site of a target material to be detected and a first solid particle; and a second binder provided in a second chamber of the multiple chambers in the micro-fluidic structure wherein the second binder is specifically binds to a second site of the target material to be detected, and wherein the second site of the target material is different from the first site of the target material; characterized in that the second binder is coupled to a second solid particle to which a second capture material binds, and the second solid particle has a specific gravity larger than that of the first binder.
Network node (21; 23; 2) for a streaming tree network, wherein said node (21; 23) is configured to maintain local backup information on at least one potential backup node that is capable of replacing a parent node (6; 4) of said network node (21; 23) and/or a parent node of a further network node in case of failure of said parent node (6; 4; 5), characterized in that said local backup information comprises information on one or more sibling network nodes (6, 8) of said parent node, and in that said network node is configured to determine a potential backup node out of said one or more sibling network nodes (6, 8) of its parent node depending on its own node ID and/or on at least one of its own sibling nodes (9, 11).
A method to perform a soft demapping, the method comprising: receiving a reception signal (415, 435) from a rotated QAM symbol transmitted from a transmitter, the rotated QAM symbol representing bits; and selecting (630, 1030) candidates from among constellation points of either a rotated QAM constellation or a de-rotated QAM constellation, wherein the de-rotated QAM constellation corresponds to the rotated QAM constellation rotated in a reverse direction to arrange constellation points in a horizontally parallel shape or a vertically parallel shape; wherein the selecting of the candidates comprises: vertically projecting the reception signal (415, 435) to each of parallel lines formed by constellation points in the rotated or the de-rotated QAM constellation; selecting, for each of the parallel lines, a best candidate constellation point as the constellation point closest to the point to which the reception signal (415, 435) is projected; and calculating (650, 1040) a log-likelihood ratio, LLR, for each bit based on a single best candidate for each line, wherein the lines include a sqrt number of constellation points, where "M" = 2 n and "n" is an integer greater than two. receiving a reception signal (415, 435) from a rotated QAM symbol transmitted from a transmitter, the rotated QAM symbol representing bits; and selecting (630, 1030) candidates from among constellation points of either a rotated QAM constellation or a de-rotated QAM constellation, wherein the de-rotated QAM constellation corresponds to the rotated QAM constellation rotated in a reverse direction to arrange constellation points in a horizontally parallel shape or a vertically parallel shape; wherein the selecting of the candidates comprises: vertically projecting the reception signal (415, 435) to each of parallel lines formed by constellation points in the rotated or the de-rotated QAM constellation; selecting, for each of the parallel lines, a best candidate constellation point as the constellation point closest to the point to which the reception signal (415, 435) is projected; and calculating (650, 1040) a log-likelihood ratio, LLR, for each bit based on a single best candidate for each line, wherein the lines include a sqrt number of constellation points, where "M" = 2 n and "n" is an integer greater than two. vertically projecting the reception signal (415, 435) to each of parallel lines formed by constellation points in the rotated or the de-rotated QAM constellation; selecting, for each of the parallel lines, a best candidate constellation point as the constellation point closest to the point to which the reception signal (415, 435) is projected; and calculating (650, 1040) a log-likelihood ratio, LLR, for each bit based on a single best candidate for each line, wherein the lines include a sqrt number of constellation points, where "M" = 2 n and "n" is an integer greater than two.
A product transport mechanism (40, 80) for a vending machine having a product storage area comprising a plurality of vertically spaced product storage locations (26a-e) and a product collection area, characterised in that the product transport mechanism comprises: a plurality of vertically arranged product transport carriages each of which is movable in the same vertical plane between: a first position in which the product transport carriage is arranged to receive a product dispensed from a predetermined one of the vertically spaced product storage locations (26a-e); and a second position below the first position in which the product transport carriage is located in the product collection area to enable collection of the vended product by a customer from the product transport carriage; each product transport carriage being arranged to nest with the product transport carriage immediately below it so that more than one of the product transport carriages can simultaneously adopt the second position in the product collection area. a plurality of vertically arranged product transport carriages each of which is movable in the same vertical plane between: a first position in which the product transport carriage is arranged to receive a product dispensed from a predetermined one of the vertically spaced product storage locations (26a-e); and a second position below the first position in which the product transport carriage is located in the product collection area to enable collection of the vended product by a customer from the product transport carriage; each product transport carriage being arranged to nest with the product transport carriage immediately below it so that more than one of the product transport carriages can simultaneously adopt the second position in the product collection area.
Ply having a main body consisting of fibres, the fibres being manufactured from or containing polybutyl terephthalate, polyethylene terephthalate, polyacrylonitrile, polyvinylidene fluoride, polyether ether ketones, polyethylene naphthalate, polysulphones, polyimide, Polyester, polypropylene, polyoxymethylene, polyamide, polyvinylpyrrolidone, cellulose, or viscose, the main body being a fibrous nonwoven web fabric with a thickness of not more than 100 μm and having pores, the ply including at least one binder consisting of organic polymers, the binder being crosslinked and the binder containing an organic polymer selected from the group consisting of the polymers of beta-unsaturated carboxylic acids, their salts, their esters, amides and nitriles and also of acrylates, methacrylates and their derivatives, and copolymers of these compounds, and the main body being at least partially filled with particles, which particles at least partially fill first pores and form regions filled with particles, wherein the particles in the filled regions form second pores and wherein the particles are fabricated from organic polymers selected from the group consisting of polypropylene, polyvinylpyrrolidone, polyvinylidene fluoride, polyester, fluorinated polymers, chlorinated polymers, polytetrafluoroethylene, perfluoroethylene-propylene, polystyrene, styrenebutadiene copolymers, polyacrylate, nitrile-butadiene polymers, polymethacrylates, polyether amides, polyether imides, polyether ketones, EPDM rubber, fluorinated rubber, polyvinylpyridine, polyether ketones, polybutyl terephthalate, polyethylene terephthalate, polyacrylonitrile, polyethylene naphthalate, polysulphone, polyethylene, polyoxymethylene, polybenzimidazole and copolymers and mixtures of the aforementioned polymers or wherein the particles are inorganic particles and are selected from metal oxides, metal hydroxides, nitrides, carbonitrides, carbooxonitrides, borates, sulphates, carbonates, glass particles, silicates and/or are present as a particles mixture of the abovementioned inorganic and organic particles, and the average diameter of the particles is greater than the average pore size of the majority of the seconds pores.
Process of manufacturing a co-ground calcium carbonate material comprising GCC and PCC, presenting: - a fraction of particles finer than 1 μm of greater than 80 %, preferably of greater than 85 %, more preferably of greater than 90 %, and even more preferably of greater than 95 %, and - a BET specific surface area less than 25 m 2 /g and characterised in that it comprises the steps of: (a) providing GCC in the form of an aqueous suspension, (b) co-grinding GCC and PCC, optionally with at least another mineral material, until the fraction of particles finer than 1 μm is of greater than 80 %, preferably of greater than 85 %, more preferably of greater than 90 %, and even more preferably of greater than 95 %; and until the BET specific surface area is less than 25 m 2 /g, (c) optionally screening and / or upconcentrating the co-ground calcium carbonate material obtained following step (b), (d) optionally drying the co-ground calcium carbonate material obtained following step (b) or (c). - a fraction of particles finer than 1 μm of greater than 80 %, preferably of greater than 85 %, more preferably of greater than 90 %, and even more preferably of greater than 95 %, and - a BET specific surface area less than 25 m 2 /g (a) providing GCC in the form of an aqueous suspension, (b) co-grinding GCC and PCC, optionally with at least another mineral material, until the fraction of particles finer than 1 μm is of greater than 80 %, preferably of greater than 85 %, more preferably of greater than 90 %, and even more preferably of greater than 95 %; and until the BET specific surface area is less than 25 m 2 /g, (c) optionally screening and / or upconcentrating the co-ground calcium carbonate material obtained following step (b), (d) optionally drying the co-ground calcium carbonate material obtained following step (b) or (c).
A navigation system exchanging location information through a messenger program, the navigation system comprising a first navigation device wherein the messenger program is installed, and which includes a communication device adapted to transmit/receive messenger information including the location information to/from another navigation device, and wherein the first navigation device is adapted to display the location information of the other navigation device received through the messenger program on a map for route guidance at a screen of the first navigation device, wherein the messenger program enables users of navigation devices to perform conversation, and wherein the messenger information includes destination information about a destination of the other navigation device, navigation device location information about a location of the other navigation device, destination description information including destination text information about the destination of the other navigation device, and conversation information through the messenger program between the first navigation device and the other navigation device, characterized in that the destination description information includes destination alarm information, and wherein the first navigation device is adapted to display the destination text information on the screen of the first navigation device, in response to that a distance between the destination and the first navigation device is within a predetermined distance which is set in the destination alarm information.
An earplug (100, 200, 300, 400) comprising: an elongate core (110, 210, 310) comprising a first material and having first and second ends (111,112) and an outer major surface; and an outer layer (120, 220, 320, 420) comprising a second material and covering at least a portion of the outer major surface of the elongate core; wherein the second material comprises thermoplastic spheres, characterized in that the outer layer comprises a sound attenuating portion (121, 221, 321, 421) having a first average density ρ1 and a stem portion (122, 222, 322, 422) having a second average density ρ2, and | ρ2 > 1.2 ρ1|, and wherein the outer layer comprises a contiguous layer and extends from the first end of the elongate core to the second end of the elongate core. an elongate core (110, 210, 310) comprising a first material and having first and second ends (111,112) and an outer major surface; and an outer layer (120, 220, 320, 420) comprising a second material and covering at least a portion of the outer major surface of the elongate core; wherein the second material comprises thermoplastic spheres, characterized in that the outer layer comprises a sound attenuating portion (121, 221, 321, 421) having a first average density ρ1 and a stem portion (122, 222, 322, 422) having a second average density ρ2, and | ρ2 > 1.2 ρ1|, and wherein the outer layer comprises a contiguous layer and extends from the first end of the elongate core to the second end of the elongate core.
A wet concrete composition, comprising from 140 to 220 l/m 3 of effective water in combination with: - at least 10% of the dry binder premix comprising, in mass proportions: - Portland clinker having a Blaine specific surface area comprised from 5500 to 8000 cm 2 /g, the minimum quantity of the said clinker by mass percentage relative to the total mass of the premix being determined according to the following formula: − 6.10 − 3 × BSS k + 75 in which BSS k is the Blaine specific surface area of the clinker given in cm 2 /g; - fly ash; - at least one alkali sulfate, the quantity of alkali sulfate being such that the quantity of equivalent Na 2 O in the premix is greater than or equal to 5 % by mass percentage relative to the mass of fly ash; - at least one source of SO 3, in a quantity such that the quantity of SO 3 in the premix is greater than or equal to 2 % by mass percentage relative to the mass of Portland clinker; - complementary materials having a Dv90 less than or equal to 200 μm selected from limestone powders; the quantity of clinker + the quantity of fly ash being greater than or equal to 75 %, preferably 78 %, by mass percentage relative to the total mass of the premix; the total quantity of clinker in the premix being strictly less than 60 % by mass percentage relative to the total mass of the premix, - up to 90 % of aggregates; the mass percentages of premix and aggregate being given relative to the total dry mass of the composition. - at least 10% of the dry binder premix comprising, in mass proportions: - Portland clinker having a Blaine specific surface area comprised from 5500 to 8000 cm 2 /g, the minimum quantity of the said clinker by mass percentage relative to the total mass of the premix being determined according to the following formula: − 6.10 − 3 × BSS k + 75 in which BSS k is the Blaine specific surface area of the clinker given in cm 2 /g; - fly ash; - at least one alkali sulfate, the quantity of alkali sulfate being such that the quantity of equivalent Na 2 O in the premix is greater than or equal to 5 % by mass percentage relative to the mass of fly ash; - at least one source of SO 3, in a quantity such that the quantity of SO 3 in the premix is greater than or equal to 2 % by mass percentage relative to the mass of Portland clinker; - complementary materials having a Dv90 less than or equal to 200 μm selected from limestone powders; the quantity of clinker + the quantity of fly ash being greater than or equal to 75 %, preferably 78 %, by mass percentage relative to the total mass of the premix; the total quantity of clinker in the premix being strictly less than 60 % by mass percentage relative to the total mass of the premix, - up to 90 % of aggregates;