mhurhangee/patent-ind-claim-en huggingface dataset:
A method for parsing a bitstream, performed by a decoder, comprising: parsing a slice header of a current slice to obtain an identifier of a parameter set comprising information on coding tools used for decoding the current slice, wherein the coding tools include an adaptive loop filter coding tool or a sample adaptive offset coding tool or a weighted prediction tool, wherein an existing parameter set is enabled for decoding the current slice; decoding the current slice by overwriting coding tool parameters of the coding tool from the existing parameter set with different coding tool parameters obtained in parsing the parameter set and using the coding tool parameters obtained by the overwriting based on a flag in the parameter set for the coding tool in case the flag has a first value; decoding the current slice using the coding tool parameters of the coding tool from the existing parameter set in case the flag has a second value; wherein the parameter set is a data structure containing common information of the coding tools used in the process of encoding/decoding one or more slices. parsing a slice header of a current slice to obtain an identifier of a parameter set comprising information on coding tools used for decoding the current slice, wherein the coding tools include an adaptive loop filter coding tool or a sample adaptive offset coding tool or a weighted prediction tool, wherein an existing parameter set is enabled for decoding the current slice; decoding the current slice by overwriting coding tool parameters of the coding tool from the existing parameter set with different coding tool parameters obtained in parsing the parameter set and using the coding tool parameters obtained by the overwriting based on a flag in the parameter set for the coding tool in case the flag has a first value; decoding the current slice using the coding tool parameters of the coding tool from the existing parameter set in case the flag has a second value; wherein the parameter set is a data structure containing common information of the coding tools used in the process of encoding/decoding one or more slices.
Process for obtaining para-xylene from a feedstock containing xylenes, ethylbenzene and C9+ hydrocarbons, said process comprising - a single stage A of separation in a simulated moving bed of said feedstock, said stage being carried out with a zeolite as adsorbent and a desorbent, at a temperature between 20 and 250°C, under a pressure between the bubble pressure of the xylenes at the operating temperature and 2.0 MPa, and with a ratio by volume of the desorbent to the feedstock in the unit for separation in a simulated moving bed between 0.4 and 2.5, and making it possible to obtain at least three fractions, □ a fraction A1 comprising a mixture of para-xylene and of desorbent, and □ two fractions A21, A22 comprising ethylbenzene (EB), ortho-xylene (OX) and meta-xylene (MX) and desorbent, - a stage B of fractionation by distillation in a distillation column of the fractions A21 and A22 resulting from stage A, in which said fractions are introduced separately at distinct injection points, and makes it possible to obtain a fraction B2 containing ethylbenzene, ortho-xylene and meta-xylene, and a fraction B42 devoid of aromatic compounds containing 8 carbon atoms and containing desorbent. - a single stage A of separation in a simulated moving bed of said feedstock, said stage being carried out with a zeolite as adsorbent and a desorbent, at a temperature between 20 and 250°C, under a pressure between the bubble pressure of the xylenes at the operating temperature and 2.0 MPa, and with a ratio by volume of the desorbent to the feedstock in the unit for separation in a simulated moving bed between 0.4 and 2.5, and making it possible to obtain at least three fractions, □ a fraction A1 comprising a mixture of para-xylene and of desorbent, and □ two fractions A21, A22 comprising ethylbenzene (EB), ortho-xylene (OX) and meta-xylene (MX) and desorbent, □ a fraction A1 comprising a mixture of para-xylene and of desorbent, and □ two fractions A21, A22 comprising ethylbenzene (EB), ortho-xylene (OX) and meta-xylene (MX) and desorbent, - a stage B of fractionation by distillation in a distillation column of the fractions A21 and A22 resulting from stage A, in which said fractions are introduced separately at distinct injection points, and makes it possible to obtain a fraction B2 containing ethylbenzene, ortho-xylene and meta-xylene, and a fraction B42 devoid of aromatic compounds containing 8 carbon atoms and containing desorbent.
Apparatus configured and designed for automatic defeathering of slaughtered poultry , comprising a transport means configured and designed for freely hanging transport of poultry suspended from their feet, in the transport direction (T) along a transport path, and two side cheeks spaced apart and arranged on opposite sides of the transport path and forming a channel , which on their insides facing each other and turned towards the transport path each have means for defeathering the poultry transported through the channel , wherein the defeathering means can be brought into contact with the poultry to be defeathered, wherein the apparatus has a stationary means for active support of entry of the poultry between the two side cheeks and the defeathering means arranged thereon, which is arranged in the inlet region (E) of the poultry into the channel , characterised in that the means for active support of entry of the poultry between the two side cheeks is configured and designed to apply a mechanical force component in the transport direction (T) of the poultry .
A dual mold spacer for use with a dual mold assembly , comprising: a first side portion that is configured to engage a first side rail of the dual mold assembly ; a second side portion that is configured to engage a second side rail of the dual mold assembly ; a body portion that extends from the first side portion to the second side portion , wherein the body portion is configured to be located between a press of the dual mold assembly and first and second molds of the dual mold assembly , wherein the body portion is configured for being spaced from and free from engagement with the first and second molds (26; 28) of the dual mold assembly ; characterized in that the channel of the first side bar is defined by a pair of flanges (58; 60) wherein one of the pair of flanges (58; 60) is longer in a vertical direction of the dual mold assembly than the other one of the pair of flanges (58; 60). a first side portion that is configured to engage a first side rail of the dual mold assembly ; a second side portion that is configured to engage a second side rail of the dual mold assembly ; a body portion that extends from the first side portion to the second side portion , wherein the body portion is configured to be located between a press of the dual mold assembly and first and second molds of the dual mold assembly , wherein the body portion is configured for being spaced from and free from engagement with the first and second molds (26; 28) of the dual mold assembly ; characterized in that the channel of the first side bar is defined by a pair of flanges (58; 60) wherein one of the pair of flanges (58; 60) is longer in a vertical direction of the dual mold assembly than the other one of the pair of flanges (58; 60).
A liquid fabric softener composition, comprising: a) from 3.0% to 20% by weight of the total composition of a quaternary ammonium ester softening active, wherein the iodine value of the parent fatty acid compound from which the quaternary ammonium ester softening active is formed is from 25 to 50; b) from 0.01% to 5 % by weight of the composition of cellulose fibers wherein the cellulose fiber is microfibrous cellulose, and c) from 0.1% to 10 % by weight of the composition of dispersed perfume. a) from 3.0% to 20% by weight of the total composition of a quaternary ammonium ester softening active, wherein the iodine value of the parent fatty acid compound from which the quaternary ammonium ester softening active is formed is from 25 to 50; b) from 0.01% to 5 % by weight of the composition of cellulose fibers wherein the cellulose fiber is microfibrous cellulose, and c) from 0.1% to 10 % by weight of the composition of dispersed perfume.
An image sensor comprising: a substrate ; a first pixel (50a-1) including a first photoelectric conversion area (71-1) and a first GND area (201-1) provided in the substrate ; a second pixel (50a-2) including a second photoelectric conversion area (71-2) adjacent to the first photoelectric conversion area (71-1) and a second GND area (201-2) and provided in the substrate ; a trench provided in the substrate between the first photoelectric conversion area (71-1) and the second photoelectric conversion area (71-2); a connection portion that is formed in a part of the trench and is in contact with the first GND area (201-1) and the second GND area (201-2); wherein the first GND area (201-1), the second GND area (201-2) and the connection portion are of the same semiconductor type. a substrate ; a first pixel (50a-1) including a first photoelectric conversion area (71-1) and a first GND area (201-1) provided in the substrate ; a second pixel (50a-2) including a second photoelectric conversion area (71-2) adjacent to the first photoelectric conversion area (71-1) and a second GND area (201-2) and provided in the substrate ; a trench provided in the substrate between the first photoelectric conversion area (71-1) and the second photoelectric conversion area (71-2); a connection portion that is formed in a part of the trench and is in contact with the first GND area (201-1) and the second GND area (201-2); wherein the first GND area (201-1), the second GND area (201-2) and the connection portion are of the same semiconductor type.
An object recognition method applied to a mobile terminal with a camera, wherein the method comprises: acquiring a first image through the camera in a first operating state in a case where the mobile terminal is in a screen-off state; if the first image has image characteristics of a target object type, controlling the camera to enter a second operating state, and acquiring a second image through the camera in the second operating state; and if it is recognized that the second image includes an incomplete image with the image characteristics, outputting prompt information for indicating that the second image is incomplete; wherein an operating power of the camera in the second operating state is higher than an operating power of the camera in the first operating state; characterized in that outputting the prompt information for indicating that the second image is incomplete comprises: outputting voice prompt information including a moving direction of the mobile terminal according to characteristics of the incomplete image. acquiring a first image through the camera in a first operating state in a case where the mobile terminal is in a screen-off state; if the first image has image characteristics of a target object type, controlling the camera to enter a second operating state, and acquiring a second image through the camera in the second operating state; and if it is recognized that the second image includes an incomplete image with the image characteristics, outputting prompt information for indicating that the second image is incomplete; wherein an operating power of the camera in the second operating state is higher than an operating power of the camera in the first operating state; characterized in that outputting the prompt information for indicating that the second image is incomplete comprises: outputting voice prompt information including a moving direction of the mobile terminal according to characteristics of the incomplete image.
A lighting module comprising: a flat flexible carrier, the flat flexible carrier comprising at least one electrically insulating flexible substrate with a first surface and a second surface, and at least one planar electrically conductive lead that is arranged on one of the first or second surfaces of said flexible substrate ; and at least one light emitting element and at least one electronic component , the light emitting element and the electronic component and/or a second light emitting element being electrically connected to each other by means of said at least one electrically conductive lead ; wherein, in at least one stretchable region, which is part of the same flat flexible carrier, said conductive lead is patterned to form at least one meander loop, which extends from the longitudinal middle axis further than the first and second margin of the flat flexible carrier outside the stretchable region extending along the longitudinal middle axis, and said substrate has at least one cut-out which forms an incision that is open at the margin of the substrate and that is provided adjacent to the meander loop in a way that the at least one meander loop partly encircles the cut-out , wherein the parts of the loops that extend further than the margins are folded back towards the longitudinal middle axis of the flat flexible substrate , so that an essentially straight outline along the first and second margin is formed along the lighting module . a flat flexible carrier, the flat flexible carrier comprising at least one electrically insulating flexible substrate with a first surface and a second surface, and at least one planar electrically conductive lead that is arranged on one of the first or second surfaces of said flexible substrate ; and at least one light emitting element and at least one electronic component , the light emitting element and the electronic component and/or a second light emitting element being electrically connected to each other by means of said at least one electrically conductive lead ; wherein, in at least one stretchable region, which is part of the same flat flexible carrier, said conductive lead is patterned to form at least one meander loop, which extends from the longitudinal middle axis further than the first and second margin of the flat flexible carrier outside the stretchable region extending along the longitudinal middle axis, and said substrate has at least one cut-out which forms an incision that is open at the margin of the substrate and that is provided adjacent to the meander loop in a way that the at least one meander loop partly encircles the cut-out , wherein the parts of the loops that extend further than the margins are folded back towards the longitudinal middle axis of the flat flexible substrate , so that an essentially straight outline along the first and second margin is formed along the lighting module .
A light-emitting device , comprising: a mounting substrate including a mounting surface ; a light-emitting element disposed on the mounting surface ; a light transmissive component disposed on the light-emitting element; and a resin component that covers a side surface of the light-emitting element and a side surface of the light transmissive component , wherein the resin component includes a cover portion that covers an outer edge portion of a topmost surface of the light transmissive component , a height (A1) from the mounting surface to a top of the cover portion is greater than a height (A2) from the mounting surface to the topmost surface of the light transmissive component , and the topmost surface of the light transmissive component includes an exposed region that is exposed from the resin component , characterised in that the cover portion has an outwardly curved surface which is the exposed surface curved outwardly toward the exposed region . a mounting substrate including a mounting surface ; a light-emitting element disposed on the mounting surface ; a light transmissive component disposed on the light-emitting element; and a resin component that covers a side surface of the light-emitting element and a side surface of the light transmissive component , wherein the resin component includes a cover portion that covers an outer edge portion of a topmost surface of the light transmissive component , a height (A1) from the mounting surface to a top of the cover portion is greater than a height (A2) from the mounting surface to the topmost surface of the light transmissive component , and the topmost surface of the light transmissive component includes an exposed region that is exposed from the resin component , characterised in that the cover portion has an outwardly curved surface which is the exposed surface curved outwardly toward the exposed region .
Ion sensor based on differential measurement that comprises: • connection tracks , • a first ion-selective field effect transistor and at least one second ion-selective field effect transistor , electrically connected by the connection tracks to an ion measurement system; • an electrode that is able to be in contact with a solution to measure; • at least one chip on the surface whereof are integrated the ion-selective field effect transistors ; and • a substrate whereon is integrated the at least one chip, the connection tracks and the electrode; wherein the ion sensor comprises: • a structure adhered on the first ion-selective field effect transistor configured to create a microreservoir on one gate of the first ion-selective field effect transistor, wherein the microreservoir is filled with a reference solution, so the first ion-selective field effect transistor is in contact with the reference solution and the at least one second ion-selective field effect transistor is in contact with the solution to measure; • at least one microchannel which connects the microreservoir with the exterior, the at least one microchannel filled with the reference solution; and, • an encapsulating material which completely insulates the connection tracks and partially insulates the first and the at least one second ion-selective field effect transistors of the solution to measure, wherein the gates of the first and the at least one second ion-selective field effect transistors and the outlet of the at least one microchannel are uncovered. • connection tracks , • a first ion-selective field effect transistor and at least one second ion-selective field effect transistor , electrically connected by the connection tracks to an ion measurement system; • an electrode that is able to be in contact with a solution to measure; • at least one chip on the surface whereof are integrated the ion-selective field effect transistors ; and • a substrate whereon is integrated the at least one chip, the connection tracks and the electrode; • a structure adhered on the first ion-selective field effect transistor configured to create a microreservoir on one gate of the first ion-selective field effect transistor, wherein the microreservoir is filled with a reference solution, so the first ion-selective field effect transistor is in contact with the reference solution and the at least one second ion-selective field effect transistor is in contact with the solution to measure; • at least one microchannel which connects the microreservoir with the exterior, the at least one microchannel filled with the reference solution; and, • an encapsulating material which completely insulates the connection tracks and partially insulates the first and the at least one second ion-selective field effect transistors of the solution to measure, wherein the gates of the first and the at least one second ion-selective field effect transistors and the outlet of the at least one microchannel are uncovered.
An antifouling paint composition comprising a resin composition comprising a (meth)acrylic copolymer, the (meth)acrylic copolymer comprising: a constituent unit (B) derived from a polysiloxane block-containing polymerizable monomer (b) represented by Formula (b1), and at least one constituent unit (A) selected from the group consisting of a constituent unit (A1) having at least one structure (I) represented by Formula , Formula , or Formula , a constituent unit (A2) containing a triorganosilyloxycarbonyl group, and a constituent unit (A3) having at least one structure (III) represented by Formula or Formula : wherein, in Formula (b1), R 30 represents a hydrogen atom or a methyl group, a represents an integer of 2 to 5, b represents a number of 0 to 50, c represents an integer of 0 to 18, d represents a number of 1 to 1000, e represents a number of 1 to 80, R 31 to R 39 each represents an alkyl group, an alkoxy group, a phenyl group, a substituted phenyl group, a phenoxy group, or a substituted phenoxy group; wherein, in Formulae to , X represents -O-, -S-, or -NR 14 -, R 14 represents a hydrogen atom or an alkyl group, R 1 and R 2 each represents a hydrogen atom or an alkyl group having 1 to 10 carbon atoms, R 3 and R 5 each represents an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group, or an aryl group, and R 4 and R 6 each represents an alkylene group having 1 to 10 carbon atoms; -COO-M-OCO- ... -COO-M-R 22 ... wherein, in Formulae and , M represents Zn, Cu, Mg, or Ca, and R 22 represents a monovalent organic acid residue. a constituent unit (B) derived from a polysiloxane block-containing polymerizable monomer (b) represented by Formula (b1), and at least one constituent unit (A) selected from the group consisting of a constituent unit (A1) having at least one structure (I) represented by Formula , Formula , or Formula , a constituent unit (A2) containing a triorganosilyloxycarbonyl group, and a constituent unit (A3) having at least one structure (III) represented by Formula or Formula : wherein, in Formula (b1), R 30 represents a hydrogen atom or a methyl group, a represents an integer of 2 to 5, b represents a number of 0 to 50, c represents an integer of 0 to 18, d represents a number of 1 to 1000, e represents a number of 1 to 80, R 31 to R 39 each represents an alkyl group, an alkoxy group, a phenyl group, a substituted phenyl group, a phenoxy group, or a substituted phenoxy group;
A testing apparatus for testing the thermal behavior of an axlebox , especially a railway axlebox, comprising - a sample chamber for placing an axlebox comprising an axlebox housing , an axle end with an axle journal and at least one bearing located between the axle journal and the axlebox housing , and - at least one temperature measuring means , characterized by at least one heating element for replacing the bearing or bearings and/or one or more bearing rings of the bearing or the bearings and/or at least one rolling element of the bearing or the bearings ,and a heating power control for controlling a heating power of the at least one heating element . - a sample chamber for placing an axlebox comprising an axlebox housing , an axle end with an axle journal and at least one bearing located between the axle journal and the axlebox housing , and - at least one temperature measuring means , characterized by at least one heating element for replacing the bearing or bearings and/or one or more bearing rings of the bearing or the bearings and/or at least one rolling element of the bearing or the bearings ,and a heating power control for controlling a heating power of the at least one heating element . at least one heating element for replacing the bearing or bearings and/or one or more bearing rings of the bearing or the bearings and/or at least one rolling element of the bearing or the bearings ,and a heating power control for controlling a heating power of the at least one heating element .