mhurhangee/patent-ind-claim-en huggingface dataset:
An inter prediction method, performed by a decoding apparatus, the method comprising: obtaining picture order count, POC, information in a slice header; deriving POC values for reference pictures based on the POC information; constructing a reference picture list based on the POC values of the reference pictures; and performing an inter prediction on a current block based on the reference picture list, to derive a predicted sample of the current block, wherein the POC information in the slice header includes POC difference value information, wherein a POC value of an i-th reference picture is derived based on a POC difference derived from the POC difference value information, wherein the reference pictures subsequent to a current picture in POC order are ordered in ascending order, wherein for the reference pictures subsequent to the current picture in the POC order, the POC difference represents a difference between a POC value of the current picture and a POC value of the i-th reference picture when i is equal to 0, and the POC difference represents a difference between the POC value of the i-th reference picture and a POC value of an (i-1)-th reference picture when i is greater than 0, and wherein the reference pictures with the POC values greater than the POC value of the current picture are ordered in ascending order of the POC values for the reference pictures. obtaining picture order count, POC, information in a slice header; deriving POC values for reference pictures based on the POC information; constructing a reference picture list based on the POC values of the reference pictures; and performing an inter prediction on a current block based on the reference picture list, to derive a predicted sample of the current block, wherein the POC information in the slice header includes POC difference value information, wherein a POC value of an i-th reference picture is derived based on a POC difference derived from the POC difference value information, wherein the reference pictures subsequent to a current picture in POC order are ordered in ascending order, wherein for the reference pictures subsequent to the current picture in the POC order, wherein the POC information in the slice header includes POC difference value information, wherein a POC value of an i-th reference picture is derived based on a POC difference derived from the POC difference value information, wherein the reference pictures subsequent to a current picture in POC order are ordered in ascending order, wherein for the reference pictures subsequent to the current picture in the POC order, the POC difference represents a difference between a POC value of the current picture and a POC value of the i-th reference picture when i is equal to 0, and the POC difference represents a difference between the POC value of the i-th reference picture and a POC value of an (i-1)-th reference picture when i is greater than 0, and wherein the reference pictures with the POC values greater than the POC value of the current picture are ordered in ascending order of the POC values for the reference pictures.
Method for producing a facing (P, P'), in particular a facing of a room partition or of a lining partition, said facing (P, P') comprising at least one first panel and one second panel that are each delimited by a front face and a rear face connected by a lateral edge , the method comprising at least the following steps: a) a first panel is fitted and fastened to a framework, the framework comprising plurality of point support elements provided, at a first end, with an overall planar surface for the direct support of a panel and, at a second end, with means for fastening it to an adjacent structure, b) a first part of a connector is fastened to the first panel such that the rear face of the first panel is placed against the first part of the connector and such that a second part of the connector projects beyond said first panel , c) a second panel is fitted next to the first panel such that the rear face of the second panel is placed against the second part of the connector and fastened to the second part of the connector , the connector not being visible following the production of the facing, wherein the first part of the connector comprises a main face and at least one lug comprising a wedging wing extending from said main face , and during step b), the main face of the first part of the connector is fitted on the rear face of the first panel and the wedging wing is wedged against the edge of the first panel , the method being characterized in that the lug is cut or broken at the end of step b) or step c). a) a first panel is fitted and fastened to a framework, the framework comprising plurality of point support elements provided, at a first end, with an overall planar surface for the direct support of a panel and, at a second end, with means for fastening it to an adjacent structure, b) a first part of a connector is fastened to the first panel such that the rear face of the first panel is placed against the first part of the connector and such that a second part of the connector projects beyond said first panel , c) a second panel is fitted next to the first panel such that the rear face of the second panel is placed against the second part of the connector and fastened to the second part of the connector , the connector not being visible following the production of the facing, wherein the first part of the connector comprises a main face and at least one lug comprising a wedging wing extending from said main face , and during step b), the main face of the first part of the connector is fitted on the rear face of the first panel and the wedging wing is wedged against the edge of the first panel , the method being characterized in that the lug is cut or broken at the end of step b) or step c).
A machine for shaping a metal sheet comprising: - feed means of a metal sheet to be processed; - a calender comprising a first roller and a second roller ; - motor means (5', 5") adapted to operate at least one of said first and second roller; - recovery means of the processed metal sheet ; - a forming mold having a supporting surface for said metal sheet , where said supporting surface comprises gaps , wherein: - said second roller comprises a surface made of a rigid material; characterized in that - said first roller comprises at least an outer layer made of an elastically yielding material, having a smooth surface, where - said first roller is adapted to exert a pressing force on said metal sheet arranged on said supporting surface of said forming mold , so that said elastically yielding material is compressed as a result of the pressure and expands only at said gaps deforming the metal sheet below, - said feed and recovery means each comprise a motorized roller conveyor on which said forming mold during use is transported; - said machine comprises an abutment panel on which said forming mold during use rests and said abutment panel is during use moved by means of said feed and recovery means. - feed means of a metal sheet to be processed; - a calender comprising a first roller and a second roller ; - motor means (5', 5") adapted to operate at least one of said first and second roller; - recovery means of the processed metal sheet ; - a forming mold having a supporting surface for said metal sheet , where said supporting surface comprises gaps , wherein: - said second roller comprises a surface made of a rigid material; - said first roller comprises at least an outer layer made of an elastically yielding material, having a smooth surface, where - said first roller is adapted to exert a pressing force on said metal sheet arranged on said supporting surface of said forming mold , so that said elastically yielding material is compressed as a result of the pressure and expands only at said gaps deforming the metal sheet below, - said feed and recovery means each comprise a motorized roller conveyor on which said forming mold during use is transported; - said machine comprises an abutment panel on which said forming mold during use rests and said abutment panel is during use moved by means of said feed and recovery means.
A medical equipment for tissue laser treatments, comprising: - a device comprised of: a first duct having a proximal end, associated with a hand-piece, and an open distal end , the first duct communicating with an inlet port for a liquid containing scattering particles and configured to dispense liquid containing scattering particles in an area to be treated; a light guide arranged and configured to convey a laser radiation near or at the open distal end of the first duct ; - a laser source connectable to the light guide ; - a supply circuit that contains a liquid where the scattering particles are suspended, the scattering particles being configured to scatter a laser radiation emitted by the laser source and emitted by the light guide , said supply circuit being connectable to the first duct of the device . - a device comprised of: a first duct having a proximal end, associated with a hand-piece, and an open distal end , the first duct communicating with an inlet port for a liquid containing scattering particles and configured to dispense liquid containing scattering particles in an area to be treated; a light guide arranged and configured to convey a laser radiation near or at the open distal end of the first duct ; - a laser source connectable to the light guide ; - a supply circuit that contains a liquid where the scattering particles are suspended, the scattering particles being configured to scatter a laser radiation emitted by the laser source and emitted by the light guide , said supply circuit being connectable to the first duct of the device .
Device for heating a fluid, comprising - a plurality of electrically conductive pipelines for accommodating the fluid (F), and - a plurality of voltage sources , characterized in that - in each case one voltage source is assigned to each pipeline , said voltage source being connected to the respective pipeline , wherein the respective voltage source is designed to generate an electric current in the respective pipeline which heats the respective pipeline in order to heat the fluid (F), - wherein the respective voltage source has at least M outer conductors (L1,...,LM), where M is a natural number of greater than or equal to two, and wherein the respective voltage source is designed to provide an AC voltage at its outer conductors (L1,...,LM), - wherein various AC voltages are phase-shifted with respect to one another through 2π/M, and wherein the outer conductors (L1,...,LM) of the respective voltage source are electrically conductively connected to the respective pipeline in such a way that a star circuit is formed, in which each outer conductor (L1,...,LM) is electrically conductively connected to the neutral point (S) of the star circuit over at least part of the respective pipeline . - a plurality of electrically conductive pipelines for accommodating the fluid (F), and - a plurality of voltage sources , characterized in that - in each case one voltage source is assigned to each pipeline , said voltage source being connected to the respective pipeline , wherein the respective voltage source is designed to generate an electric current in the respective pipeline which heats the respective pipeline in order to heat the fluid (F), - wherein the respective voltage source has at least M outer conductors (L1,...,LM), where M is a natural number of greater than or equal to two, and wherein the respective voltage source is designed to provide an AC voltage at its outer conductors (L1,...,LM), - wherein various AC voltages are phase-shifted with respect to one another through 2π/M, and wherein the outer conductors (L1,...,LM) of the respective voltage source are electrically conductively connected to the respective pipeline in such a way that a star circuit is formed, in which each outer conductor (L1,...,LM) is electrically conductively connected to the neutral point (S) of the star circuit over at least part of the respective pipeline .
A camping tool comprising: a spatula including a blade , a spatula handle, a tongs dovetail connector arranged on a first side of the spatula handle , and a storage dovetail connector arranged on a second side of the spatula handle opposite the first side; a spoon including a bowl , a spoon handle , and a spoon connector including a spoon flange sized to be received in the tongs dovetail connector or the storage dovetail connector ; a fork including tines , a fork handle , and a fork connector including a fork flange sized to be received in the tongs dovetail connector or the storage dovetail connector ; and a tool including at least one of a can opener , a package opener, a bottle opener , and a vegetable peeler , and a tool flange sized to be received in the storage dovetail connector . a spatula including a blade , a spatula handle, a tongs dovetail connector arranged on a first side of the spatula handle , and a storage dovetail connector arranged on a second side of the spatula handle opposite the first side; a spoon including a bowl , a spoon handle , and a spoon connector including a spoon flange sized to be received in the tongs dovetail connector or the storage dovetail connector ; a fork including tines , a fork handle , and a fork connector including a fork flange sized to be received in the tongs dovetail connector or the storage dovetail connector ; and a tool including at least one of a can opener , a package opener, a bottle opener , and a vegetable peeler , and a tool flange sized to be received in the storage dovetail connector .
A communication method, comprising: sending downlink control information, wherein the downlink control information is used to indicate K times of transmission of a first transport block, K is an integer greater than 1, and the K times of transmission meet at least one of the following conditions: sizes of frequency-domain resources occupied by at least two times of transmission during the K times of transmission are different, and sizes of time-domain resources occupied by at least two times of transmission during the K times of transmission are different; and transmitting the first transport block for K times based on the downlink control information. sending downlink control information, wherein the downlink control information is used to indicate K times of transmission of a first transport block, K is an integer greater than 1, and the K times of transmission meet at least one of the following conditions: sizes of frequency-domain resources occupied by at least two times of transmission during the K times of transmission are different, and sizes of time-domain resources occupied by at least two times of transmission during the K times of transmission are different; and transmitting the first transport block for K times based on the downlink control information.
A method for detecting the presence of mycotoxins in cereals, the method comprising: capturing at least one diffuse-light absorption spectrum of a collection of unprocessed cereal grains using an integrating sphere; capturing at least one diffuse-light absorption spectrum of an individual cereal grain from the collection of unprocessed cereal grains using an integrating sphere; and classifying the level of mycotoxin contamination in the individual cereal grain by performing multivariate data analysis on the at least one diffuse-light absorption spectrum of the collection of cereal grains and the at least one diffuse-light absorption spectrum of the individual cereal grain. capturing at least one diffuse-light absorption spectrum of a collection of unprocessed cereal grains using an integrating sphere; capturing at least one diffuse-light absorption spectrum of an individual cereal grain from the collection of unprocessed cereal grains using an integrating sphere; and classifying the level of mycotoxin contamination in the individual cereal grain by performing multivariate data analysis on the at least one diffuse-light absorption spectrum of the collection of cereal grains and the at least one diffuse-light absorption spectrum of the individual cereal grain.
A return air bulkhead for a temperature controlled container , the bulkhead comprising: a lower section configured to couple to the container ; an upper section separate from the lower section , the upper section adjustably engageable to the lower section at varying heights relative to the lower section such that a total height (H) of the return air bulkhead is adjustable; wherein the lower section comprises a first set of grooves and the upper section comprises a second set of grooves , wherein the first set of grooves and the second set of grooves meshingly engage each other when the upper section and the lower section are engaged to orient the upper section at a desired height relative to the lower section ; wherein the lower section further comprises a first structural support pocket and the upper section further comprises a second structural support pocket , wherein the first structural support pocket includes an inner wall having the first set of grooves , and wherein the second structural support pocket includes an inner wall having the second set of grooves . a lower section configured to couple to the container ; an upper section separate from the lower section , the upper section adjustably engageable to the lower section at varying heights relative to the lower section such that a total height (H) of the return air bulkhead is adjustable; wherein the lower section comprises a first set of grooves and the upper section comprises a second set of grooves , wherein the first set of grooves and the second set of grooves meshingly engage each other when the upper section and the lower section are engaged to orient the upper section at a desired height relative to the lower section ; wherein the lower section further comprises a first structural support pocket and the upper section further comprises a second structural support pocket , wherein the first structural support pocket includes an inner wall having the first set of grooves , and wherein the second structural support pocket includes an inner wall having the second set of grooves .
A lithium metal secondary battery , comprising: a negative electrode , a separator and a positive electrode , the negative electrode including a lithium metal foil as a negative electrode material without a separate negative electrode active material, wherein a nano imprint pattern structure is formed on a lithium metal foil surface which is a surface of the negative electrode facing the separator, wherein the height h of the surface pattern structure is 50 ~ 500 nm , and the separator is filled in the pattern structure to form a physical bond between the negative electrode and the separator so that the negative electrode and the separator are adhered to each other. a negative electrode , a separator and a positive electrode , the negative electrode including a lithium metal foil as a negative electrode material without a separate negative electrode active material, wherein a nano imprint pattern structure is formed on a lithium metal foil surface which is a surface of the negative electrode facing the separator, wherein the height h of the surface pattern structure is 50 ~ 500 nm , and the separator is filled in the pattern structure to form a physical bond between the negative electrode and the separator so that the negative electrode and the separator are adhered to each other.
A method for selecting supply air device to a ventilation system of a space from a group of supply air devices, which space has a measurable volume, said method comprising steps of - defining total air flow rate of the space, - defining acceptable noise level of the space, - selecting a first subgroup of possible supply air devices based on the air flow capacities of the supply air devices and acceptable noise level of the space, - determining the number of supply air devices needed in the space and - calculating design air flow for the supply air device, when using determined number of supply air devices, characterized in that the method further comprises steps of - defining at least two additional rating properties for the supply air devices, - evaluating the performance of each supply air device of the first subgroup according to each rating property and scoring the performance, - calculating combined rating value for each supply air device of the first subgroup by summing up performance scores of individual rating properties, - ranking the supply air devices of the first subgroup based on the combined rating value and - selecting supply air device to the space based on said ranking. - defining total air flow rate of the space, - defining acceptable noise level of the space, - selecting a first subgroup of possible supply air devices based on the air flow capacities of the supply air devices and acceptable noise level of the space, - determining the number of supply air devices needed in the space and - calculating design air flow for the supply air device, when using determined number of supply air devices, - defining at least two additional rating properties for the supply air devices, - evaluating the performance of each supply air device of the first subgroup according to each rating property and scoring the performance, - calculating combined rating value for each supply air device of the first subgroup by summing up performance scores of individual rating properties, - ranking the supply air devices of the first subgroup based on the combined rating value and - selecting supply air device to the space based on said ranking.
Method for additively manufacturing at least one three-dimensional object by means of successive layerwise selective irradiation and consolidation of build material layers by means of at least one energy beam , comprising - irradiating and thereby consolidating an irradiation area (A) which is to be selectively irradiated and thereby consolidated of a first build material layer , whereby at least one sub-area (SA) of the irradiation area (A) which is at least partly disposed below at least one irradiation area (A) which is to be selectively irradiated and thereby consolidated of a second build material layer which is disposed directly above the first build material layer is excluded from being irradiated and thereby consolidated; and - irradiating the irradiation area (A) of the second build material layer in an area above the at least one sub-area (SA) of the irradiation area (A) of the first build material layer in such a manner that the at least one sub-area (SA) of the irradiation area (A) of the first build material layer is consolidated, wherein by irradiating the irradiation area (A) of the at least one second build material layer , a vertically extending structural element is generated which at least comprises selectively irradiated and thereby consolidated portions of the irradiation area (A) of the at least one second build material layer and the at least one sub-area (SA) of the first build material layer , characterized in that a plurality of vertically extending structural elements are generated which are uniformly or non-uniformly distributed throughout the three-dimensional object which is to be additively manufactured. - irradiating and thereby consolidating an irradiation area (A) which is to be selectively irradiated and thereby consolidated of a first build material layer , whereby at least one sub-area (SA) of the irradiation area (A) which is at least partly disposed below at least one irradiation area (A) which is to be selectively irradiated and thereby consolidated of a second build material layer which is disposed directly above the first build material layer is excluded from being irradiated and thereby consolidated; and - irradiating the irradiation area (A) of the second build material layer in an area above the at least one sub-area (SA) of the irradiation area (A) of the first build material layer in such a manner that the at least one sub-area (SA) of the irradiation area (A) of the first build material layer is consolidated, wherein