mhurhangee/patent-ind-claim-en huggingface dataset:
Single-layer or multi-layer, biaxially oriented polyester film bearing on at least one film surface a coating for transparency increase, characterized in that : • the polyester film has a particle fraction of not more than 0.5 % by weight, and • the coating represents the product of drying of a water-based or solvent-based solution and/or dispersion, where (i) the coating has a dry coat thickness of 60 - 130 nm, (ii) the coating for transparency increase comprises at least one acrylic acid-based and/or methacrylic acid-based polymer and (iii) comprises as flame stabilizer at least one alkylphosphonate and/or oligo-alkylphosphonate, where (iv) the coating has a refractive index n < 1.64 and (v) the phosphorus fraction of the coating is between 2 and 18 % by weight, the refractive index being determined according to the description. • the polyester film has a particle fraction of not more than 0.5 % by weight, and • the coating represents the product of drying of a water-based or solvent-based solution and/or dispersion, where (i) the coating has a dry coat thickness of 60 - 130 nm, (ii) the coating for transparency increase comprises at least one acrylic acid-based and/or methacrylic acid-based polymer and (iii) comprises as flame stabilizer at least one alkylphosphonate and/or oligo-alkylphosphonate, where (iv) the coating has a refractive index n < 1.64 and (v) the phosphorus fraction of the coating is between 2 and 18 % by weight, the refractive index being determined according to the description. (i) the coating has a dry coat thickness of 60 - 130 nm, (ii) the coating for transparency increase comprises at least one acrylic acid-based and/or methacrylic acid-based polymer and (iii) comprises as flame stabilizer at least one alkylphosphonate and/or oligo-alkylphosphonate, where (iv) the coating has a refractive index n < 1.64 and (v) the phosphorus fraction of the coating is between 2 and 18 % by weight, the refractive index being determined according to the description.
A composition characterized in that it comprises the association of: a) Melaleuca alternifolia oil extract, b) mandelic acid, c) α-Tocopherol polyethylene glycol succinate, wherein said three components of the association respectively are in weight ratio: tea tree oil/mandelic acid/Vit. E TPGS of 12/0.5/0.5. a) Melaleuca alternifolia oil extract, b) mandelic acid, c) α-Tocopherol polyethylene glycol succinate,
A method for providing on-demand access to data services to a subscriber device , the method comprising: facilitating, via a gateway , on-demand access of the subscriber device to the data services, while the subscriber device is roaming in a visited network , wherein when the subscriber device requests the data services while roaming in the visited network , when the data services request is received by the gateway , the gateway provides access to the data services responsive to receiving the request by modifying an Access Point Name (APN) to route access to the data services through one of the visited network and a home network , and wherein the gateway provides the subscriber device with an option to access data services either through the visited network 106 or the home network . facilitating, via a gateway , on-demand access of the subscriber device to the data services, while the subscriber device is roaming in a visited network , wherein when the subscriber device requests the data services while roaming in the visited network , when the data services request is received by the gateway , the gateway provides access to the data services responsive to receiving the request by modifying an Access Point Name (APN) to route access to the data services through one of the visited network and a home network , and wherein the gateway provides the subscriber device with an option to access data services either through the visited network 106 or the home network .
A charging port locking device, comprising: a charging port that has an engaged portion to be engaged with an engaging portion of a charging connector by an operation of an operator; and a lock mechanism that achieves a locking state that restricts release of the engaged state by restricting the releasing operation of the engaging portion due to rotational movement of a restricting member in the locking direction and an unlock state that allows the releasing operation through a movement in the unlocking direction opposite to the locking direction; and a cover member that covers the lock mechanism from the insertion and removal direction of the charging connector and that is formed with an opening for enabling the engaging member to be inserted, wherein the distance between the inner periphery surface of the cover member on the side of the lock mechanism and an outermost diameter portion of the restricting member is configured to be greater as the distance from the opening increases, characterized in that the opening is closed by the outermost diameter portion of the restricting member in the locking state. a charging port that has an engaged portion to be engaged with an engaging portion of a charging connector by an operation of an operator; and a lock mechanism that achieves a locking state that restricts release of the engaged state by restricting the releasing operation of the engaging portion due to rotational movement of a restricting member in the locking direction and an unlock state that allows the releasing operation through a movement in the unlocking direction opposite to the locking direction; and a cover member that covers the lock mechanism from the insertion and removal direction of the charging connector and that is formed with an opening for enabling the engaging member to be inserted, wherein the distance between the inner periphery surface of the cover member on the side of the lock mechanism and an outermost diameter portion of the restricting member is configured to be greater as the distance from the opening increases, characterized in that the opening is closed by the outermost diameter portion of the restricting member in the locking state.
An image coding method for coding an image on a per coding unit basis, said image having luminance data, first chrominance data and second chrominance data in either one of the 4:2:0 format and the 4:2:2 format, the method comprising: dividing (S101) the image into a plurality of coding units dividing (S102) each of the coding units into one or more transform units, wherein each coding unit consists of one or more blocks of a predetermined size and each of said blocks consists of one or more transform units, applying (S105) a frequency transform to the luminance data of each transform unit; determining (S108), for each transform unit, whether a first chroma size of the transform unit is smaller than the predetermined size; combining (S109, S110), when the first chroma size of the transform unit is smaller than the predetermined size, the transform units of the corresponding block and applying (S112, S115) the frequency transform to each of the first chrominance data and the second chrominance data of the combined transform units; applying (S112, S115), when the first chroma size of the transform unit is not smaller than the predetermined size, the frequency transform to each of the first chrominance data and the second chrominance data of the transform unit; coding (S106, S113, S116) the transformed luminance data of each block and then the transformed chrominance data of said block to generate a bitstream in which the transformed luminance data and the transformed chrominance data are grouped on a per block basis. dividing (S101) the image into a plurality of coding units dividing (S102) each of the coding units into one or more transform units, wherein each coding unit consists of one or more blocks of a predetermined size and each of said blocks consists of one or more transform units, applying (S105) a frequency transform to the luminance data of each transform unit; determining (S108), for each transform unit, whether a first chroma size of the transform unit is smaller than the predetermined size; combining (S109, S110), when the first chroma size of the transform unit is smaller than the predetermined size, the transform units of the corresponding block and applying (S112, S115) the frequency transform to each of the first chrominance data and the second chrominance data of the combined transform units; applying (S112, S115), when the first chroma size of the transform unit is not smaller than the predetermined size, the frequency transform to each of the first chrominance data and the second chrominance data of the transform unit; coding (S106, S113, S116) the transformed luminance data of each block and then the transformed chrominance data of said block to generate a bitstream in which the transformed luminance data and the transformed chrominance data are grouped on a per block basis.
A polymeric formulation comprising a biocompatible polymeric shell and a core containing an agent that is an antigen, wherein the shell, the core or both are multilayered structures produced by three dimensional printing or micromolding and wherein the antigen is released in two or more bursts and the formulation is suitable for administration to an individual, optionally wherein the formulation comprises a stabilizer.
A non-therapeutic method for the treatment and/or prevention of hair loss comprising the following steps in any order: (a) topically applying a composition comprising minoxidil to the scalp and leaving the composition in contact with the scalp for 5 to 15 h; (b) topically applying a composition comprising a surfactant and optionally caffeine to the scalp and leaving the composition in contact with the scalp for 1 to 10 minutes; and at least in case when composition does not comprise caffeine (c) topically applying a composition comprising caffeine to the scalp and leaving the composition in contact with the scalp for at least 6 h. (a) topically applying a composition comprising minoxidil to the scalp and leaving the composition in contact with the scalp for 5 to 15 h; (b) topically applying a composition comprising a surfactant and optionally caffeine to the scalp and leaving the composition in contact with the scalp for 1 to 10 minutes; and at least in case when composition does not comprise caffeine (c) topically applying a composition comprising caffeine to the scalp and leaving the composition in contact with the scalp for at least 6 h.
A gas cooler comprising: a casing ; a cooling unit provided within the casing and configured to cool gas; an upper space located above the cooling unit and a bottom space located below the cooling unit , the upper space and the bottom space being formed separately from each other by the cooling unit within the casing ; a lead-in port for leading the gas into the upper space ; a lead-out port for leading out the gas from the bottom space ; and a drain scattering prevention member disposed in the bottom space and being configured to collect therein drain water accompanied by the gas as the gas passes, the drain water being produced by condensation of moisture contained in the gas by cooling with the cooling unit , characterized in that the drain scattering prevention member is laid on a bottom wall of the casing so as to suppress the drain water on the bottom wall from being blown up and scattered by the gas flow blown on the bottom wall . a casing ; a cooling unit provided within the casing and configured to cool gas; an upper space located above the cooling unit and a bottom space located below the cooling unit , the upper space and the bottom space being formed separately from each other by the cooling unit within the casing ; a lead-in port for leading the gas into the upper space ; a lead-out port for leading out the gas from the bottom space ; and a drain scattering prevention member disposed in the bottom space and being configured to collect therein drain water accompanied by the gas as the gas passes, the drain water being produced by condensation of moisture contained in the gas by cooling with the cooling unit , characterized in that the drain scattering prevention member is laid on a bottom wall of the casing so as to suppress the drain water on the bottom wall from being blown up and scattered by the gas flow blown on the bottom wall .
A method of operation at a wireless device configured for operation in a wireless communication network , the method comprising: forming a group of physical antenna ports in response to determining that network coverage conditions at the wireless device are below a certain coverage level; transmitting a signal simultaneously from the group of physical antenna ports at the wireless device , based on associating disjoint frequency sub-bands with respective ones of the physical antenna ports , wherein the frequency sub-bands collectively span a frequency bandwidth and each physical antenna port supports transmission over the frequency bandwidth and has a per-port transmit power associated therewith, and allocating the per-port transmit power of each physical antenna port in the group only to frequency elements of the signal that fall within the frequency sub-band associated with the physical antenna port ; and during a period before or after forming the group of physical antenna ports , operating the physical antenna ports individually rather than as said group , such that the per-port transmit power of each physical antenna port is available for transmission across the frequency bandwidth. forming a group of physical antenna ports in response to determining that network coverage conditions at the wireless device are below a certain coverage level; transmitting a signal simultaneously from the group of physical antenna ports at the wireless device , based on associating disjoint frequency sub-bands with respective ones of the physical antenna ports , wherein the frequency sub-bands collectively span a frequency bandwidth and each physical antenna port supports transmission over the frequency bandwidth and has a per-port transmit power associated therewith, and allocating the per-port transmit power of each physical antenna port in the group only to frequency elements of the signal that fall within the frequency sub-band associated with the physical antenna port ; and during a period before or after forming the group of physical antenna ports , operating the physical antenna ports individually rather than as said group , such that the per-port transmit power of each physical antenna port is available for transmission across the frequency bandwidth.
Assembly of a part on a hollow element , the latter comprising a first wall and a second wall that are substantially parallel, characterized in that the part comprises at least one cylindrical protrusion of flexible material that encloses a recess for receiving a snap-fitting peg , the peg being made of a material that is more rigid than the flexible material of the protrusion , the assembly being able to be transformed between, on one hand, an initial configuration in which the protrusion , with the peg partially engaged in the recess , is inserted into an opening of the first wall and, on the other hand, a final configuration in which the peg is fully engaged in the recess under the influence of the thrust exerted by the second wall on the peg when the protrusion is inserted into the opening , wherein the full engagement of the peg in the recess causes radial expansion of the protrusion , causing it to hook onto the rim of the opening in the first wall .
A surface machining device having: - a substrate support to receive a substrate to be machined , - a machining unit adjustable relative to the substrate support along a first and a second movement axis, wherein the movement axes preferably run at a right angle relative to each other or are oriented at an angle of 75°-105°, preferably 80°-100°, particularly preferably 85°-95° relative to each other, and the machining unit is adjustable at least along the first movement axis by means of a first gantry drive , - a position detecting unit for ascertaining the orientation of the substrate on the substrate support , and - a control unit for controlling the movement of the machining unit depending on the orientation of the substrate on the substrate support , wherein the machining unit can be pivoted relative to the substrate support about a vertical axis extending perpendicular to the plane formed by the first and second movement axes, the substrate support has a circulating conveyor belt for receiving the substrate, and the conveyor belt can swing about the vertical axis and can also be designed inclinable. - a substrate support to receive a substrate to be machined , - a machining unit adjustable relative to the substrate support along a first and a second movement axis, wherein the movement axes preferably run at a right angle relative to each other or are oriented at an angle of 75°-105°, preferably 80°-100°, particularly preferably 85°-95° relative to each other, and the machining unit is adjustable at least along the first movement axis by means of a first gantry drive , - a position detecting unit for ascertaining the orientation of the substrate on the substrate support , and - a control unit for controlling the movement of the machining unit depending on the orientation of the substrate on the substrate support ,
A hot beverage preparation machine comprising - a body ; - a water reservoir wherein water is filled; - a water heater enabling the water in the water reservoir to be heated; - a brewing chamber wherein the raw material of the beverage to be prepared is put and whereto the water heated in the water reservoir is transferred, wherein the brewing process is performed as a result of the interaction between the raw beverage material and water; - a cover for isolating the brewing chamber from the outer environment; - a housing which is situated on the body , under the brewing chamber ; and - a pot which is placed into the housing , the top surface thereof being at least partially open and whereto the beverage brewed in the brewing chamber is transferred; characterized by - a first brewing receptacle which can be detachably mounted into the brewing chamber and wherein raw material of tea is added, - a second brewing receptacle wherein raw material of coffee is added, and - a control unit which is adapted to provide the identification of the first brewing receptacle or the second brewing receptacle and which is adapted to offer brewing recommendations to the user depending on the identified type of receptacle (9 or 10). - a body ; - a water reservoir wherein water is filled; - a water heater enabling the water in the water reservoir to be heated; - a brewing chamber wherein the raw material of the beverage to be prepared is put and whereto the water heated in the water reservoir is transferred, wherein the brewing process is performed as a result of the interaction between the raw beverage material and water; - a cover for isolating the brewing chamber from the outer environment; - a housing which is situated on the body , under the brewing chamber ; and - a pot which is placed into the housing , the top surface thereof being at least partially open and whereto the beverage brewed in the brewing chamber is transferred; - a first brewing receptacle which can be detachably mounted into the brewing chamber and wherein raw material of tea is added, - a second brewing receptacle wherein raw material of coffee is added, and - a control unit which is adapted to provide the identification of the first brewing receptacle or the second brewing receptacle and which is adapted to offer brewing recommendations to the user depending on the identified type of receptacle (9 or 10).
Method performed by a User Equipment, UE, for determining separate channel state information, CSI, for a flexible subframe in a wireless communication system applying time division duplex, TDD, the method comprising: for a scheduled downlink flexible subframe: - receiving a signal from a base station; - determining whether a reference signal for CSI measurement is comprised in the received signal; - determining CSI for the flexible subframe based on the reference signal when a reference signal for CSI measurement is comprised in the received signal; and - reporting the determined CSI to the base station, wherein the determined CSI is reported to the base station in one or more configured uplink resources until at least one of the following is fulfilled: - a predefined time period has elapsed after the determining of the CSI; - the CSI has been reported a predefined number of times; and - a more recent CSI for a flexible subframe is determined. - receiving a signal from a base station; - determining whether a reference signal for CSI measurement is comprised in the received signal; - determining CSI for the flexible subframe based on the reference signal when a reference signal for CSI measurement is comprised in the received signal; and - reporting the determined CSI to the base station, - a predefined time period has elapsed after the determining of the CSI; - the CSI has been reported a predefined number of times; and - a more recent CSI for a flexible subframe is determined.
Polypeptide comprising a first and a second immunoglobulin single variable domain (ISV), wherein - said first ISV binds to a first target with an average KD value of between 10 nM and 200 nM as measured by surface plasmon resonance; - said second ISV binds to a second target with an average KD value of between 10 nM and 0.1 pM as measured by surface plasmon resonance; and wherein said first ISV and said second ISV bind to said first target and said second target present on the surface of the same cell, wherein said first target is different from said second target, wherein said second ISV enhances binding of said first ISV, wherein binding by said first ISV inhibits a function of said first target, wherein said first target is chosen from the group consisting of Receptor Tyrosine Kinases (preferably class I), GPCRs, DDR1, Discoidin I (CD167a antigen), DDR2, ErbB-1, C-erbB-2, FGFR-1, FGFR-3, CD135 antigen, CD 117 antigen, Protein tyrosine kinase-1, c-Met, CD148 antigen, C-ret, ROR1, ROR2, Tie-1, Tie-2, CD202b antigen, Trk-A, Trk-B, Trk-C, VEGFR-1, VEGFR-2, VEGFR-3, Notch receptor 1-4, FAS receptor, DR5, DR4, CD47, CX3CR1, CXCR-3, CXCR-4, CXCR-7, Chemokine binding protein 2, and CCR1, CCR2, CCR3, CCR4, CCR5, CCR6, CCR7, CCR8, CCR9, CCR10 and CCR11; and said second target is chosen from the group consisting of carcinoembryonic antigen ("CEA"), MART-1, gp100, MAGE-1, HER-2, and Lewis Y antigens, CD123, CD44, CLL-1, CD96, CD47, CD32, CXCR4, Tim-3, CD25, TAG-72, Ep-CAM, PSMA, PSA, GD2, GD3, CD4, CD5, CD19, CD20, CD22, CD33, CD36, CD45, CD52, and CD147; and Cytokine receptors including Interleukin-2 receptor gamma chain (CD132 antigen); Interleukin-10 receptor alpha chain (IL-10R-A); Interleukin-10 receptor beta chain (IL-10R-B); Interleukin-12 receptor beta-1 chain (IL-12R-beta1); Interleukin-12 receptor beta-2 chain (IL-12 receptor beta-2); Interleukin-13 receptor alpha-1 chain (IL-13R-alpha-1) (CD213 al antigen); Interleukin-13 receptor alpha-2 chain (Interleukin-13 binding protein); Interleukin-17 receptor (IL-17 receptor); Interleukin-17B receptor (IL-17B receptor); Interleukin 21 receptor precursor (IL-21R); Interleukin-1 receptor, type I (IL-1R-1) (CD121a); Interleukin-1 receptor, type II (IL-1R-beta) (CDw121b); Interleukin-1 receptor antagonist protein (IL-1ra); Interleukin-2 receptor alpha chain (CD25 antigen); Interleukin-2 receptor beta chain (CD122 antigen); Interleukin-3 receptor alpha chain (IL-3R-alpha) (CD123 antigen). - said first ISV binds to a first target with an average KD value of between 10 nM and 200 nM as measured by surface plasmon resonance; - said second ISV binds to a second target with an average KD value of between 10 nM and 0.1 pM as measured by surface plasmon resonance; and