mhurhangee/patent-ind-claim-en huggingface dataset:
A protective slider zipper, comprising a zipper and a slider for opening and closing the zipper , wherein the slider has an upper part and a lower part, where the lower part is slidably attached on the zipper for opening and closing the zipper , and the upper part of the slider includes a protection structure ; the root part of the protection structure is in a bending structure that is capable of being repeatedly bent, and that connects the protection structure with the slider ; the protection structure has two opposite facing surfaces, a first work support surface , at one side of the protection structure , which includes a first slider hand ; and a first protection support surface at another side of the protection structure opposing the first work support surface ; the zipper comprises a female strip and a male strip ; the female strip is connectable with and separable from the male strip through the slider ; a second work support surface and a work positioning step arranged at one end of the slider opposite to the protection structure , such that the protection structure is bendable in order to lie onto the second work support surface and is fixable thereon by means of the work positioning step ; a second slider hand is arranged at an inner side of a lower part of the second work support surface such that the second slider hand penetrates into a first outline for clearing the residues in the male strip when the zipper is closed; a second protection support surface and a protection positioning step for fixing the protection structure are arranged at the other end of the slider ; the protection structure is pushed back and forth by hands, such that when the first protection support surface at one side of the protection structure contacts the second protection support surface on the slide block, the protection positioning step fixes the protection structure on the second protection support surface , and the slider is in a protected state; and such that when the first work support surface at one side of the protection structure contacts the second work support surface on the slider , the work positioning step fixes the protection structure on the second work support surface , and the slider is in a working state.
A combination of a FGFR inhibitor selected from N-(3,5-dimethoxyphenyl)-N'-(1-methylethyl)-N- [3 -(1 -methyl-1H-pyrazol-4-yl)quinoxalin-6-yl]ethane-1 ,2-diamine or a pharmaceutically acceptable salt thereof or a solvate thereof, and N-(2-fluoro-3,5-dimethoxyphenyl)-N-(1H-imidazol-2-ylmethyl)-3-(1-methyl-1H-pyrazol-4-yl)pyrido[2,3-b]pyrazin-6-amine or a pharmaceutically acceptable salt thereof or a solvate thereof, and an IGF1R inhibitor.
Forming tube unit for shaping an irregularly shaped produce piece consisting of a resilient material, e.g. a piece of meat , into a shape having a uniform cross-section (100") over its length , comprising - a main body , - a forming tube , which has a forming cavity of variable cross-section which is open continuously from one to the opposite end face, i.e. in the longitudinal direction , comprising - longitudinal walls (20 a - d) which adjoin one another in the peripheral direction (U) and peripherally surround the forming cavity , - the longitudinal walls (20 a - d) being movable relative to one another in the transverse direction (11.1, 11.2) relative to the longitudinal direction of the forming tube , - a common actuation element for moving the longitudinal walls (20a - d), - all the longitudinal walls (20a - d) being arranged so as to be movable relative to the main body , characterised in that - the common actuation element is an actuation ring that surrounds the forming tube , and - the actuation ring is rotatable relative to the main body about a longitudinal centre line of the forming tube . - a main body , - a forming tube , which has a forming cavity of variable cross-section which is open continuously from one to the opposite end face, i.e. in the longitudinal direction , comprising - longitudinal walls (20 a - d) which adjoin one another in the peripheral direction (U) and peripherally surround the forming cavity , - the longitudinal walls (20 a - d) being movable relative to one another in the transverse direction (11.1, 11.2) relative to the longitudinal direction of the forming tube , - longitudinal walls (20 a - d) which adjoin one another in the peripheral direction (U) and peripherally surround the forming cavity , - the longitudinal walls (20 a - d) being movable relative to one another in the transverse direction (11.1, 11.2) relative to the longitudinal direction of the forming tube , - a common actuation element for moving the longitudinal walls (20a - d), - all the longitudinal walls (20a - d) being arranged so as to be movable relative to the main body , characterised in that - the common actuation element is an actuation ring that surrounds the forming tube , and - the actuation ring is rotatable relative to the main body about a longitudinal centre line of the forming tube .
A method for determining pilot power, the method comprises: acquiring a plurality of sample level values of a received current frame signal; determining a current power of the current frame signal based on the plurality of sample level values; determining a current traffic signal ratio of the current frame signal based on the plurality of sample level values, wherein the traffic signal ratio indicates a ratio of a number of active users of a base station to a capacity of the base station; taking the current power as a current pilot power of the current frame signal if it is determined that the current traffic signal ratio is less than or equal to a predetermined ratio; and determining the current pilot power of the current frame signal based on the current power, a current power floating upper limit and a current power floating lower limit if it is determined that the current traffic signal ratio is greater than the predetermined ratio. acquiring a plurality of sample level values of a received current frame signal; determining a current power of the current frame signal based on the plurality of sample level values; determining a current traffic signal ratio of the current frame signal based on the plurality of sample level values, wherein the traffic signal ratio indicates a ratio of a number of active users of a base station to a capacity of the base station; taking the current power as a current pilot power of the current frame signal if it is determined that the current traffic signal ratio is less than or equal to a predetermined ratio; and determining the current pilot power of the current frame signal based on the current power, a current power floating upper limit and a current power floating lower limit if it is determined that the current traffic signal ratio is greater than the predetermined ratio.
A computer-implemented method for encoding a current block of image or video data, the method comprising: transforming data of the current block to produce transform coefficients; quantizing the transform coefficients to produce quantized transform coefficients, wherein the quantized transform coefficients include non-zero value coefficients and zero value coefficients; identifying, according to a first scan order, a first bounding box which encloses a first total number of coefficients, wherein the first total number of coefficients includes at least each of the non-zero value coefficients and a first number of the zero value coefficients; characterized by identifying, according to a second scan order, a second bounding box which encloses a second total number of coefficients, wherein the second total number of coefficients also includes at least each of the non-zero value coefficients and a second number of the zero value coefficients; determining that the first total number of coefficients is lower than the second total number of coefficients; and responsive to determining that the first total number of coefficients is lower than the second total number of coefficients, encoding, to a bitstream, data representative of the first total number of coefficients and dimensional information of the bounding box, wherein the dimensional information is configured to signal the bounding box to a decoder. transforming data of the current block to produce transform coefficients; quantizing the transform coefficients to produce quantized transform coefficients, wherein the quantized transform coefficients include non-zero value coefficients and zero value coefficients; identifying, according to a first scan order, a first bounding box which encloses a first total number of coefficients, wherein the first total number of coefficients includes at least each of the non-zero value coefficients and a first number of the zero value coefficients; characterized by identifying, according to a second scan order, a second bounding box which encloses a second total number of coefficients, wherein the second total number of coefficients also includes at least each of the non-zero value coefficients and a second number of the zero value coefficients; determining that the first total number of coefficients is lower than the second total number of coefficients; and responsive to determining that the first total number of coefficients is lower than the second total number of coefficients, encoding, to a bitstream, data representative of the first total number of coefficients and dimensional information of the bounding box, wherein the dimensional information is configured to signal the bounding box to a decoder.
Thermochemical energy storage , comprising - one or more thermochemical cells , each comprising a container in which, in an operating state, a reaction phase comprising at least one reactant and solvent , and a gas phase , comprising a carrier gas enriched with solvent , is formed, - a primary heat medium circuit with a heat transfer medium for removing and introducing thermal energy from the thermochemical energy storage or in the thermochemical energy storage , - a fluid circuit for diverting the carrier gas from at least one of the thermochemical cells and for introducing the carrier gas in at least one of the thermochemical cells , - at least one solvent line for introducing solvent into the reaction phase of at least one of the thermochemical cells , whereby the reactant is selected from a group consisting of salts, hydroxides, carbonates and ionic liquids, so that when the solvent is fed into the reaction phase of at least one of the thermochemical cells , due to an exothermic reaction of the reactant with the solvent , thermal energy is released to the heat transfer medium in the primary heat medium circuit and when heat is supplied via the heat transfer medium to the reaction phase of at least one of the thermochemical cells , solvent is transferred from the reaction phase into the gas phase , and wherein the container of the at least one thermochemical cell comprises a fluid inlet and a fluid outlet connected to the fluid circuit , which end in the gas phase in the container , respectively. - one or more thermochemical cells , each comprising a container in which, in an operating state, a reaction phase comprising at least one reactant and solvent , and a gas phase , comprising a carrier gas enriched with solvent , is formed, - a primary heat medium circuit with a heat transfer medium for removing and introducing thermal energy from the thermochemical energy storage or in the thermochemical energy storage , - a fluid circuit for diverting the carrier gas from at least one of the thermochemical cells and for introducing the carrier gas in at least one of the thermochemical cells , - at least one solvent line for introducing solvent into the reaction phase of at least one of the thermochemical cells ,
A decoding method comprising: decoding a plurality of reference blocks (S120), wherein a single transform is applied to samples of each reference block of the plurality of reference blocks, wherein each of the plurality of reference blocks is a transform block on which a same transform is applied, and wherein edges of the plurality of reference blocks are adjacent to a current block of a picture; obtaining (S130) a plurality of filtered reference blocks by filtering with a deblocking filter along the top and left edges of each of the plurality of decoded reference blocks; and decoding (S140) the current block by intra prediction from the plurality of filtered reference blocks, wherein the single transform is applied to samples of the current block. decoding a plurality of reference blocks (S120), wherein a single transform is applied to samples of each reference block of the plurality of reference blocks, wherein each of the plurality of reference blocks is a transform block on which a same transform is applied, and wherein edges of the plurality of reference blocks are adjacent to a current block of a picture; obtaining (S130) a plurality of filtered reference blocks by filtering with a deblocking filter along the top and left edges of each of the plurality of decoded reference blocks; and decoding (S140) the current block by intra prediction from the plurality of filtered reference blocks, wherein the single transform is applied to samples of the current block.
A video processing method, comprising: receiving a scalable bitstream comprising a base layer and an enhancement layer, wherein the base layer comprises a picture and is associated with a first color space that covers a first volume of colors, wherein the enhancement layer is associated with a second color space that covers a broader volume of colors compared to the first volume of colors, wherein the picture comprises at least a first component and a second component, wherein, when the first component is a luma component (L), the second component is either a first chroma component (Cr) or a second chroma component (Cb), wherein, when the first component is the first chroma component (Cr) or the second chroma component (Cb), the second component is the luma component (L), and wherein sampling locations of the first component and sampling locations of the second component are misaligned; interpolating, for each sampling location of the second component that misaligns with the sampling location of the first component, two or four values of the first component to determine an interpolated value of the first component at the sampling location of the second component, thereby aligning the sampling locations of the first component with the sampling locations of the second component, wherein the interpolation is based on the sampling location of the second component at which the interpolated value of the first component is determined, wherein interpolated values of the first component are associated with the first color space; and converting, for each sampling location of the second component, the value of the second component to the second color space based on a 3-dimensional look up table and the interpolated value of the first component. wherein the picture comprises at least a first component and a second component, wherein, when the first component is a luma component (L), the second component is either a first chroma component (Cr) or a second chroma component (Cb), wherein, when the first component is the first chroma component (Cr) or the second chroma component (Cb), the second component is the luma component (L), and wherein sampling locations of the first component and sampling locations of the second component are misaligned; interpolating, for each sampling location of the second component that misaligns with the sampling location of the first component, two or four values of the first component to determine an interpolated value of the first component at the sampling location of the second component, thereby aligning the sampling locations of the first component with the sampling locations of the second component, wherein the interpolation is based on the sampling location of the second component at which the interpolated value of the first component is determined, wherein interpolated values of the first component are associated with the first color space; and converting, for each sampling location of the second component, the value of the second component to the second color space based on a 3-dimensional look up table and the interpolated value of the first component.
A chemochromic indicator for detecting an ammonia compound comprising: a. A first adhesive layer; and b. a chemochromic copper compound, the copper compound disposed in the adhesive layer, wherein exposure to an ammonia compound changes the color of the adhesive layer, and wherein the copper compound comprises copper sulfate, copper chloride, copper nitrate, copper acetate and/or mixtures thereof. a. A first adhesive layer; and b. a chemochromic copper compound, the copper compound disposed in the adhesive layer, wherein exposure to an ammonia compound changes the color of the adhesive layer, and wherein the copper compound comprises copper sulfate, copper chloride, copper nitrate, copper acetate and/or mixtures thereof.
A travel control method for a vehicle for presenting the vehicle traveling on a route to a preliminarily set destination with overtaking information as to whether or not to accept execution of an overtaking assist function for overtaking a preceding vehicle by changing lanes through autonomous travel control, the travel control method comprising: detecting a position of the vehicle on the route; and detecting whether or not there is a traveling direction change point on the route ahead of the position of the vehicle, the traveling direction change point being a point at which the vehicle is required to change its traveling direction, wherein when a distance from the vehicle to the traveling direction change point is shorter than the presentation prohibition distance, the presentation of the overtaking information is not performed, The travel control method being characterised by : providing a navigation function of presenting the route and guiding the driver to the destination and a route travelling assist function of controlling the vehicle to travel along the route by autonomous travel control; when the route travelling assist function is executed, setting a first presentation prohibition distance as the presentation prohibition distance; and when the navigation function is executed, setting a second presentation prohibition distance shorter than the first presentation prohibition distance as the presentation prohibition distance. detecting a position of the vehicle on the route; and detecting whether or not there is a traveling direction change point on the route ahead of the position of the vehicle, the traveling direction change point being a point at which the vehicle is required to change its traveling direction, wherein when a distance from the vehicle to the traveling direction change point is shorter than the presentation prohibition distance, the presentation of the overtaking information is not performed, The travel control method being characterised by : providing a navigation function of presenting the route and guiding the driver to the destination and a route travelling assist function of controlling the vehicle to travel along the route by autonomous travel control; when the route travelling assist function is executed, setting a first presentation prohibition distance as the presentation prohibition distance; and when the navigation function is executed, setting a second presentation prohibition distance shorter than the first presentation prohibition distance as the presentation prohibition distance. providing a navigation function of presenting the route and guiding the driver to the destination and a route travelling assist function of controlling the vehicle to travel along the route by autonomous travel control; when the route travelling assist function is executed, setting a first presentation prohibition distance as the presentation prohibition distance; and when the navigation function is executed, setting a second presentation prohibition distance shorter than the first presentation prohibition distance as the presentation prohibition distance.
A method for electrospinning comprising: (a) providing an electrospinning apparatus comprising: (i) a target, (ii) an applicator in fluid communication with a flowable polymer, said applicator configured to direct a stream of the flowable polymer to the target, (b) applying a first electromotive force on the applicator and a second electromotive force on the target to generate a first electrical potential therebetween; (c) delivering the flowable polymer through the applicator onto the target under first delivery conditions that provide a first flowability while applying a first electrical potential to produce a first set of fibers; (d) adjusting the delivery conditions to provide a second flowability; and (e) delivering the flowable polymer through the applicator onto the target after adjusting the delivery conditions while applying an electrical potential to produce a second set of fibers, wherein said second set of fibers have a substantially flattened cross section. (a) providing an electrospinning apparatus comprising: (i) a target, (ii) an applicator in fluid communication with a flowable polymer, said applicator configured to direct a stream of the flowable polymer to the target, (i) a target, (ii) an applicator in fluid communication with a flowable polymer, said applicator configured to direct a stream of the flowable polymer to the target, (b) applying a first electromotive force on the applicator and a second electromotive force on the target to generate a first electrical potential therebetween; (c) delivering the flowable polymer through the applicator onto the target under first delivery conditions that provide a first flowability while applying a first electrical potential to produce a first set of fibers; (d) adjusting the delivery conditions to provide a second flowability; and (e) delivering the flowable polymer through the applicator onto the target after adjusting the delivery conditions while applying an electrical potential to produce a second set of fibers, wherein said second set of fibers have a substantially flattened cross section.