mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a reception section adapted to receive a downlink shared channel that is scheduled by first downlink control information; and a control section adapted to if the terminal transmits an uplink shared channel over multiple slots and at least one slot of the multiple slots overlaps with a slot in which the terminal transmits a transmission acknowledgement signal for the downlink shared channel, characterised in that the control section is further adapted to control to map the transmission acknowledgement signal in transmission of the uplink shared channel in a specific slot of the multiple slots, wherein the control section is adapted to apply, in each of the multiple slots, intra-slot frequency hopping to the uplink shared channel, and the control section is adapted to map, in each of the multiple slots, a demodulation reference signal to a first symbol of each of an uplink shared channel domain of a first hop and an uplink shared channel domain of a second hop. a reception section adapted to receive a downlink shared channel that is scheduled by first downlink control information; and a control section adapted to if the terminal transmits an uplink shared channel over multiple slots and at least one slot of the multiple slots overlaps with a slot in which the terminal transmits a transmission acknowledgement signal for the downlink shared channel, characterised in that the control section is further adapted to control to map the transmission acknowledgement signal in transmission of the uplink shared channel in a specific slot of the multiple slots, wherein the control section is adapted to apply, in each of the multiple slots, intra-slot frequency hopping to the uplink shared channel, and the control section is adapted to map, in each of the multiple slots, a demodulation reference signal to a first symbol of each of an uplink shared channel domain of a first hop and an uplink shared channel domain of a second hop.
A moisture curable composition comprising a physical blend of: a moisture curable, silane modified polymer of structure (I) B(-A n -R-SiXYZ) l (I). wherein B is an organic backbone and B will not be a siloxane backbone, A is a divalent linking group linking the polymer backbone to the R group, I is an integer from 1 to 6, n is 0 or 1, R is a divalent C 1 -C 12 hydrocarbon group that optionally comprises a heteroatom, and at least one of X, Y and Z is a hydrolysable group; a moisture curable, silane functional additive that is the reaction product of a mixture comprising an isocyanatosilane and a polyol selected from a polyol having a linear ethylene oxide backbone and a functionality of 2 to 4, a polyether polyol comprising at least one tertiary nitrogen atom in the backbone and a functionality equal or greater than 2, and combinations thereof, wherein the polyol is free of groups pendant from the backbone and propylene oxide; and a crosslinker; wherein cured reaction products of the moisture curable composition have greater strength and greater elongation compared to the moisture curable composition without the moisture curable, silane functional additive. a moisture curable, silane modified polymer of structure (I) B(-A n -R-SiXYZ) l (I). wherein B is an organic backbone and B will not be a siloxane backbone, A is a divalent linking group linking the polymer backbone to the R group, I is an integer from 1 to 6, n is 0 or 1, R is a divalent C 1 -C 12 hydrocarbon group that optionally comprises a heteroatom, and at least one of X, Y and Z is a hydrolysable group; wherein B is an organic backbone and B will not be a siloxane backbone, A is a divalent linking group linking the polymer backbone to the R group, I is an integer from 1 to 6, n is 0 or 1, R is a divalent C 1 -C 12 hydrocarbon group that optionally comprises a heteroatom, and at least one of X, Y and Z is a hydrolysable group; a moisture curable, silane functional additive that is the reaction product of a mixture comprising an isocyanatosilane and a polyol selected from a polyol having a linear ethylene oxide backbone and a functionality of 2 to 4, a polyether polyol comprising at least one tertiary nitrogen atom in the backbone and a functionality equal or greater than 2, and combinations thereof, wherein the polyol is free of groups pendant from the backbone and propylene oxide; and a crosslinker; wherein cured reaction products of the moisture curable composition have greater strength and greater elongation compared to the moisture curable composition without the moisture curable, silane functional additive.
A positive electrode active material for a secondary battery, the positive electrode active material being a primary particle having a monolithic structure that includes a lithium composite metal oxide of Formula 1 below, wherein the primary particle has an average particle size, D 50 , of 2 μm to 8μm and a Brunauer-Emmett-Teller, BET, specific surface area of 0.15 m 2 /g to 0.5 m 2 /g: [Formula 1] Li a Ni 1-x-y Co x M1 y M3 z M2 w O 2 wherein in Formula 1, M1 is at least one selected from the group consisting of Al and Mn, M2 is any one or two or more elements selected from the group consisting of Zr, Ti, Mg, Ta, and Nb, M3 is any one or two or more elements selected from the group consisting of W, Mo, and Cr, and 1.0<a≤1.5, 0<x≤0.5, 0≤y≤0.5, 0.002≤z≤0.03, 0≤w≤0.04, 0<x+y≤0.7.
Use of a at least one layer of a predetermined material as coating of at least one solid surface of a heat exchanger element for enhancing the heat transfer between the solid surface and a gas by thermo-acoustic impedance matching, characterized in that said at least one layer has a thickness in a range between 1 μm to 100 μm.
A solar panel module, comprising: - a solar cell panel ; - a wiring box electrically connected to the solar cell panel and mounted on or at a back surface of the solar cell panel , - wherein the wiring box comprises a case having an inner space and a circuit portion positioned inside the case , - wherein the case comprises a first case portion , a second case portion to seal the inner space, - wherein the case comprises a through hole being formed on the first case portion ; and - an adhesive member disposed between a front surface of the first case portion and the back surface of the solar cell panel to attach the wiring box and the solar cell panel , - wherein an air gap (G) opened to an outside and having a thickness corresponding to a thickness of the adhesive member is provided between the solar cell panel and the wiring box by the adhesive member , characterized in that - the adhesive member comprises a first adhesive member having an open end to form the air gap (G) between the wiring box and the solar cell panel , and a second adhesive member having a closed space surrounding the through hole , and which is spaced apart from the first adhesive member , and - wherein a space between the first adhesive member and the second adhesive member is an air flow path (AP) adapted to allow air to flow through the air flow path (AP). - a solar cell panel ; - a wiring box electrically connected to the solar cell panel and mounted on or at a back surface of the solar cell panel , - wherein the wiring box comprises a case having an inner space and a circuit portion positioned inside the case , - wherein the case comprises a first case portion , a second case portion to seal the inner space, - wherein the case comprises a through hole being formed on the first case portion ; and - an adhesive member disposed between a front surface of the first case portion and the back surface of the solar cell panel to attach the wiring box and the solar cell panel , - wherein an air gap (G) opened to an outside and having a thickness corresponding to a thickness of the adhesive member is provided between the solar cell panel and the wiring box by the adhesive member , characterized in that - the adhesive member comprises a first adhesive member having an open end to form the air gap (G) between the wiring box and the solar cell panel , and a second adhesive member having a closed space surrounding the through hole , and which is spaced apart from the first adhesive member , and - wherein a space between the first adhesive member and the second adhesive member is an air flow path (AP) adapted to allow air to flow through the air flow path (AP).
An unmanned operation vehicle comprising a housing , a self-propelled wheel provided in the housing , and a lawn mowing blade provided under the housing , characterised in that the housing includes a plurality of cameras configured to capture an image of an outside of the unmanned operation vehicle , the plurality of cameras are arranged substantially at a center of an upper surface of the housing in a plan view so that the plurality of cameras can capture imaging ranges that have a central axis extending in a direction parallel to the ground and that extend substantially parallel the ground as a whole, and, when the plurality of cameras are viewed in plan view, cameras adjacent to each other in the plurality of cameras are arranged such that limiting lines of imaging ranges of the cameras intersect on or inside an outer periphery of the housing ,.
Method for manufacturing a microelectronic device comprising: a) a step of providing a semiconductor-on-insulator substrate comprising a support substrate over one face of which, called main face , rests at least two stacks each provided, in this order and starting from the main face , with a dielectric layer and with a semiconductor layer , each stack forming an island over which one or several active component(s) are intended to be formed, each island being laterally delimited by sidewalls, called first sidewalls , and the islands being separated from one another by at least one isolation trench which extends over at least the entirety of a thickness of the stack up to a first bottom formed on or in the support substrate , each isolation trench being configured to be filled with a first dielectric material , b) a step of roughening a passive section of the first bottom of the isolation trench configured to generate, at said section , a roughness quadratic mean comprised between 2 nm and 6 nm, and c) a step of forming a component, called passive component , covering the first dielectric material and directly above the passive section . a) a step of providing a semiconductor-on-insulator substrate comprising a support substrate over one face of which, called main face , rests at least two stacks each provided, in this order and starting from the main face , with a dielectric layer and with a semiconductor layer , each stack forming an island over which one or several active component(s) are intended to be formed, each island being laterally delimited by sidewalls, called first sidewalls , and the islands being separated from one another by at least one isolation trench which extends over at least the entirety of a thickness of the stack up to a first bottom formed on or in the support substrate , each isolation trench being configured to be filled with a first dielectric material , b) a step of roughening a passive section of the first bottom of the isolation trench configured to generate, at said section , a roughness quadratic mean comprised between 2 nm and 6 nm, and c) a step of forming a component, called passive component , covering the first dielectric material and directly above the passive section .
A mobile device comprising: a memory having a device administrator and at least one delegated administrator stored thereon, the device administrator configured to delegate at least one permission to the at least one delegated administrator via a mobile device management, MDM, framework by providing the at least one delegated permission to the MDM framework , the delegated administrator configured to apply a security policy to the MDM framework based on the at least one permission; and at least one processor configured to execute the MDM framework that is configured to: receive the at least one delegated permission from the device administrator ; grant the at least one delegated permission to the at least one delegated administrator ; receive the applied security policy from the at least one delegated administrator ; and enforce the applied security policy on the mobile device . a memory having a device administrator and at least one delegated administrator stored thereon, the device administrator configured to delegate at least one permission to the at least one delegated administrator via a mobile device management, MDM, framework by providing the at least one delegated permission to the MDM framework , the delegated administrator configured to apply a security policy to the MDM framework based on the at least one permission; and at least one processor configured to execute the MDM framework that is configured to: receive the at least one delegated permission from the device administrator ; grant the at least one delegated permission to the at least one delegated administrator ; receive the applied security policy from the at least one delegated administrator ; and enforce the applied security policy on the mobile device . receive the at least one delegated permission from the device administrator ; grant the at least one delegated permission to the at least one delegated administrator ; receive the applied security policy from the at least one delegated administrator ; and enforce the applied security policy on the mobile device .
A tire comprising: a plurality of joined components each having a joint portion at a predetermined position in a circumferential direction; and an RFID tag , wherein the plurality of joined components include an inner liner forming an inner surface of the tire , and at least one metal reinforcing component including a steel cord, the joint portion of the inner liner , the joint portion of the metal reinforcing component, and the RFID tag are placed so as to be dispersed in the circumferential direction, positions (Ji, Jc, Js) of the joint portions of the joined components and a position of the RFID tag are represented by angles about a rotation axis of the tire , and the tire is characterized in that when the position (Ji) of the joint portion of the inner liner is defined as 0 degrees, the joint portion of the metal reinforcing component is located in a range of not less than 90 degrees and not greater than 270 degrees, and the RFID tag is located in a range of not less than 60 degrees and not greater than 90 degrees or a range of not less than 270 degrees and not greater than 300 degrees. a plurality of joined components each having a joint portion at a predetermined position in a circumferential direction; and an RFID tag , wherein the plurality of joined components include an inner liner forming an inner surface of the tire , and at least one metal reinforcing component including a steel cord, the joint portion of the inner liner , the joint portion of the metal reinforcing component, and the RFID tag are placed so as to be dispersed in the circumferential direction, positions (Ji, Jc, Js) of the joint portions of the joined components and a position of the RFID tag are represented by angles about a rotation axis of the tire , and the tire is characterized in that when the position (Ji) of the joint portion of the inner liner is defined as 0 degrees, the joint portion of the metal reinforcing component is located in a range of not less than 90 degrees and not greater than 270 degrees, and the RFID tag is located in a range of not less than 60 degrees and not greater than 90 degrees or a range of not less than 270 degrees and not greater than 300 degrees.
A hemostatic wound dressing, characterized in that - it comprises a textile substrate and - halloysite, wherein the wound dressing contains a halloysite content of 10 g/m 2 - 60 g/m 2 . - it comprises a textile substrate and - halloysite,
Process for preparing a crosslinked fluoropolymer film, comprising the successive steps of: formulating an ink containing, preferably consisting of: (a) the product of the reaction of triethylamine with at least one fluorinated copolymer obtained by radical copolymerization of monomers comprising, and preferably consisting of: (i) vinylidene fluoride (VDF), (ii) trifluoroethylene (TrFE), (iii) at least one chlorinated monomer of formula -CXCl=CX 1 X 2 where X, X 1 and X 2 independently denote H, F or CF 3 , it being understood that at most one of X, X 1 and X 2 denotes CF 3 ; (b) at least one crosslinking agent; (c) at least one photoinitiator; and (d) at least one organic solvent; applying said ink in film form to a substrate; and UV-irradiating said film. formulating an ink containing, preferably consisting of: (a) the product of the reaction of triethylamine with at least one fluorinated copolymer obtained by radical copolymerization of monomers comprising, and preferably consisting of: (i) vinylidene fluoride (VDF), (ii) trifluoroethylene (TrFE), (iii) at least one chlorinated monomer of formula -CXCl=CX 1 X 2 where X, X 1 and X 2 independently denote H, F or CF 3 , it being understood that at most one of X, X 1 and X 2 denotes CF 3 ; (b) at least one crosslinking agent; (c) at least one photoinitiator; and (d) at least one organic solvent; applying said ink in film form to a substrate; and UV-irradiating said film.
A method of decoding video data, the method comprising: determining whether a first transform coefficient of a first transform block is a DC transform coefficient; when the transform coefficient is determined to be the DC transform coefficient of the transform block, determining a first context for decoding the first transform coefficient based on the first transform coefficient being the DC transform coefficient without regard for a first size of the first transform block by mapping the DC transform coefficient to the same context data for a plurality of different sizes of transform blocks; determining whether a second transform coefficient of a second transform block is a DC transform coefficient, wherein the second transform block has a second size different from the first size of the first transform block; when the second transform coefficient is determined to be the DC transform coefficient of the second transform block, determining for all possible sizes of second video transform blocks the same context as for the first transform coefficient for decoding the second transform coefficient based on the transform coefficient being the DC transform coefficient of the second transform block without regard for the second size; entropy decoding the transform coefficient using the first context; and entropy decoding the second transform coefficient using the first context. determining whether a first transform coefficient of a first transform block is a DC transform coefficient; when the transform coefficient is determined to be the DC transform coefficient of the transform block, determining a first context for decoding the first transform coefficient based on the first transform coefficient being the DC transform coefficient without regard for a first size of the first transform block by mapping the DC transform coefficient to the same context data for a plurality of different sizes of transform blocks; determining whether a second transform coefficient of a second transform block is a DC transform coefficient, wherein the second transform block has a second size different from the first size of the first transform block; when the second transform coefficient is determined to be the DC transform coefficient of the second transform block, determining for all possible sizes of second video transform blocks the same context as for the first transform coefficient for decoding the second transform coefficient based on the transform coefficient being the DC transform coefficient of the second transform block without regard for the second size; entropy decoding the transform coefficient using the first context; and entropy decoding the second transform coefficient using the first context.
A press apparatus for manufacturing hot formed structural components, comprising: a fixed lower body , a mobile upper body and a mechanism configured to provide upwards and downwards press progression of the mobile upper body with respect to the fixed lower body , wherein the apparatus comprises: a cooling tool configured to cool down a previously heated blank (50; 60; 70; 80; 90) and a press tool configured to draw the blank and which is arranged downstream from the cooling tool , and a blank transfer mechanism to transfer the blank (50; 60; 70; 80; 90) from the cooling tool to the press tool , wherein the press tool comprises an upper pressing die connected to the mobile upper body and a lower pressing die connected to the fixed lower body , and characterised in that the cooling tool has an upper gas cooling tool connected to the mobile upper body and/or a lower gas cooling tool connected to the fixed lower body , wherein the upper gas cooling tool and/or the lower gas cooling tool are configured to provide a pressurized cooling gas flow to impinge on the blank. a cooling tool configured to cool down a previously heated blank (50; 60; 70; 80; 90) and a press tool configured to draw the blank and which is arranged downstream from the cooling tool , and a blank transfer mechanism to transfer the blank (50; 60; 70; 80; 90) from the cooling tool to the press tool , wherein the press tool comprises an upper pressing die connected to the mobile upper body and a lower pressing die connected to the fixed lower body , and characterised in that the cooling tool has an upper gas cooling tool connected to the mobile upper body and/or a lower gas cooling tool connected to the fixed lower body , wherein the upper gas cooling tool and/or the lower gas cooling tool are configured to provide a pressurized cooling gas flow to impinge on the blank.