mhurhangee/patent-ind-claim-en huggingface dataset:
A structure , comprising: a fluid-dynamic body , wherein the fluid-dynamic body comprises a wing; a translating trailing edge coupled to the fluid-dynamic body and operable to move aft to increase an area of the wing on a side thereby causing extra lift and associated roll, wherein the translating trailing edge comprises a full-span combination flap and aileron that is segmented into a first control surface and a second control surface over a span of the fluid-dynamic body by an elastomer panel , wherein the first control surface comprises a flap and the second control surface comprises an aileron; a first elastomer interface coupled to the full-span combination flap and aileron and the fluid-dynamic body using continuous moldline technology wherein the first elastomer interface is conformed to a continuous moldline such that a first joint gap caused by movement of the full-span combination flap and aileron relative to the fluid-dynamic body is filled; and the elastomer panel comprising a second elastomer interface, coupled to the first control surface , the second control surface and the first elastomeric interface such that a second joint gap caused by movement of the first control surface relative to the second control surface is filled. a fluid-dynamic body , wherein the fluid-dynamic body comprises a wing; a translating trailing edge coupled to the fluid-dynamic body and operable to move aft to increase an area of the wing on a side thereby causing extra lift and associated roll, wherein the translating trailing edge comprises a full-span combination flap and aileron that is segmented into a first control surface and a second control surface over a span of the fluid-dynamic body by an elastomer panel , wherein the first control surface comprises a flap and the second control surface comprises an aileron; a first elastomer interface coupled to the full-span combination flap and aileron and the fluid-dynamic body using continuous moldline technology wherein the first elastomer interface is conformed to a continuous moldline such that a first joint gap caused by movement of the full-span combination flap and aileron relative to the fluid-dynamic body is filled; and the elastomer panel comprising a second elastomer interface, coupled to the first control surface , the second control surface and the first elastomeric interface such that a second joint gap caused by movement of the first control surface relative to the second control surface is filled.
A method for encoding a source word, comprising: receiving a 1 × K source word row vector u ; and generating a 1 × N codeword vector c = u - G , wherein G is a K × N generator matrix of a low density parity check, LDPC, code with an LDPC matrix H n , the matrix H n having a lifting factor Z, and wherein the matrix H n comprises two rows and sixteen columns of submatrices, each submatrix having a size Z × Z with Z = 42 or Z = 84, and wherein at least one submatrix has m, diagonals of "1", and wherein m 1 = 2 ; and wherein the matrix H n is 37+35 31+19 18+41 23+22 11+40 21+41 6+39 20+6 32+28 9+18 12+17 29+3 -+28 0+- 13+- -+- 25+29 22+30 4+0 34+8 31+33 3+22 14+17 15+4 4+27 -+28 14+20 18+27 13+24 13+23 22+- 24+- wherein "-+-" is the Z × Z submatrix with all entries equal to zero, "i+-" is the Z × Z submatrix obtained by cyclically shifting the columns of the Z × Z identity matrix to the right by i elements, "-+i" is equal to "i+-", and "i+j" is the sum of the Z × Z submatrices "i+-" and "-+j", wherein i and j are non-negative integers. receiving a 1 × K source word row vector u ; and generating a 1 × N codeword vector c = u - G , wherein G is a K × N generator matrix of a low density parity check, LDPC, code with an LDPC matrix H n , the matrix H n having a lifting factor Z, and wherein the matrix H n comprises two rows and sixteen columns of submatrices, each submatrix having a size Z × Z with Z = 42 or Z = 84, and wherein at least one submatrix has m, diagonals of "1", and wherein m 1 = 2 ; and wherein the matrix H n is 37+35 31+19 18+41 23+22 11+40 21+41 6+39 20+6 32+28 9+18 12+17 29+3 -+28 0+- 13+- -+- 25+29 22+30 4+0 34+8 31+33 3+22 14+17 15+4 4+27 -+28 14+20 18+27 13+24 13+23 22+- 24+- wherein "-+-" is the Z × Z submatrix with all entries equal to zero, "i+-" is the Z × Z submatrix obtained by cyclically shifting the columns of the Z × Z identity matrix to the right by i elements, "-+i" is equal to "i+-", and "i+j" is the sum of the Z × Z submatrices "i+-" and "-+j", wherein i and j are non-negative integers. G is a K × N generator matrix of a low density parity check, LDPC, code with an LDPC matrix H n , the matrix H n having a lifting factor Z, and wherein the matrix H n comprises two rows and sixteen columns of submatrices, each submatrix having a size Z × Z with Z = 42 or Z = 84, and wherein at least one submatrix has m, diagonals of "1", and wherein m 1 = 2 ; and wherein the matrix H n is 37+35 31+19 18+41 23+22 11+40 21+41 6+39 20+6 32+28 9+18 12+17 29+3 -+28 0+- 13+- -+- 25+29 22+30 4+0 34+8 31+33 3+22 14+17 15+4 4+27 -+28 14+20 18+27 13+24 13+23 22+- 24+- wherein "-+-" is the Z × Z submatrix with all entries equal to zero, "i+-" is the Z × Z submatrix obtained by cyclically shifting the columns of the Z × Z identity matrix to the right by i elements, "-+i" is equal to "i+-", and "i+j" is the sum of the Z × Z submatrices "i+-" and "-+j", wherein i and j are non-negative integers.
A decorative sheet characterized in that the decorative sheet comprises: a top coat layer as an outermost layer; and a transparent resin layer as an underlayer of the top coat layer, wherein an organic ultraviolet absorbent and an inorganic ultraviolet absorbent are added to at least one of the top coat layer and the transparent resin layer, and the organic ultraviolet absorbent and the inorganic ultraviolet absorbent are each encapsulated in vesicles having a monolayer outer membrane and provided as organic ultraviolet absorbent vesicles and inorganic ultraviolet absorbent vesicles, respectively. a top coat layer as an outermost layer; and a transparent resin layer as an underlayer of the top coat layer, wherein an organic ultraviolet absorbent and an inorganic ultraviolet absorbent are added to at least one of the top coat layer and the transparent resin layer, and the organic ultraviolet absorbent and the inorganic ultraviolet absorbent are each encapsulated in vesicles having a monolayer outer membrane and provided as organic ultraviolet absorbent vesicles and inorganic ultraviolet absorbent vesicles, respectively.
A correction information generation method of causing a processor to generate correction information transmitted to a terminal (130, 621-624) communicating with a reference station via at least one of a plurality of relay stations (120, 611-616), the method comprising: causing the processor to acquire information for specifying a relay station (120, 611-616) communicating with the terminal (130, 621-624); and causing, in a case where an available bandwidth between the reference station and the relay station (120, 611-616) communicating with the terminal (130, 621-624) is not greater than a predetermined first value and is greater than a predetermined second value, which is smaller than the predetermined first value, the processor to generate (S525) correction information based on a positioning signal from a satellite which is received by the reference station and based on coordinates of the relay station (120, 611-616) communicating with the terminal (130, 621-624). causing the processor to acquire information for specifying a relay station (120, 611-616) communicating with the terminal (130, 621-624); and causing, in a case where an available bandwidth between the reference station and the relay station (120, 611-616) communicating with the terminal (130, 621-624) is not greater than a predetermined first value and is greater than a predetermined second value, which is smaller than the predetermined first value, the processor to generate (S525) correction information based on a positioning signal from a satellite which is received by the reference station and based on coordinates of the relay station (120, 611-616) communicating with the terminal (130, 621-624).
A method for determining an unworn state of a sensor system comprising a pair of sensors configured for mounting on first and second body parts either side of a joint , wherein each sensor (10a; 10b) contains one or more motion sensing devices which permit either {i} the pitch and/or roll of the individual sensor (10a; 10b) to be determined or {ii} the relative pitch and/or roll between the sensors to be determined, the method comprising: obtaining one or more measurements from each sensor (10a; 10b); calculating a relative angle between the two sensors using one or more of the obtained one or more measurements; calculating , using one or more of the obtained one or more measurements, a joint angle between the first and second body parts, where the joint angle is defined in a plane of normal bending of the joint; and determining , based on the calculated angles, whether either or both of the sensors (10a; 10b) is not mounted and if so, determining that the system is in an unworn state. obtaining one or more measurements from each sensor (10a; 10b); calculating a relative angle between the two sensors using one or more of the obtained one or more measurements; calculating , using one or more of the obtained one or more measurements, a joint angle between the first and second body parts, where the joint angle is defined in a plane of normal bending of the joint; and determining , based on the calculated angles, whether either or both of the sensors (10a; 10b) is not mounted and if so, determining that the system is in an unworn state.
A wireless power receiver configured to wirelessly receive power from a wireless power supplier, the wireless power receiver comprising: a power receiver configured to receive the power wirelessly from the wireless power supplier, wherein the power receiver comprises a coil , a first capacitor connected to the coil in series and a second capacitor connected to the series connection of the coil and the first capacitor , in parallel; a rectifier , connected to the power receiver , configured to rectify the received power; a switch configured to connect the rectifier to an output end; and a controller configured to: determine a magnitude of power to be delivered from the rectifier to the output end, determine a duration of a first time period and a duration of a second time period based on the magnitude of power to be delivered from the rectifier to the output end, control the switch to disconnect the rectifier from the output end for the duration of the first time period such that the received power circulates in a closed loop composed of the coil , the first capacitor and the second capacitor , and control the switch to connect the rectifier to the output end for delivering the rectified power to the output end for the duration of the second time period, periodically. a power receiver configured to receive the power wirelessly from the wireless power supplier, wherein the power receiver comprises a coil , a first capacitor connected to the coil in series and a second capacitor connected to the series connection of the coil and the first capacitor , in parallel; a rectifier , connected to the power receiver , configured to rectify the received power; a switch configured to connect the rectifier to an output end; and a controller configured to: determine a magnitude of power to be delivered from the rectifier to the output end, determine a duration of a first time period and a duration of a second time period based on the magnitude of power to be delivered from the rectifier to the output end, control the switch to disconnect the rectifier from the output end for the duration of the first time period such that the received power circulates in a closed loop composed of the coil , the first capacitor and the second capacitor , and control the switch to connect the rectifier to the output end for delivering the rectified power to the output end for the duration of the second time period, periodically. determine a magnitude of power to be delivered from the rectifier to the output end, determine a duration of a first time period and a duration of a second time period based on the magnitude of power to be delivered from the rectifier to the output end, control the switch to disconnect the rectifier from the output end for the duration of the first time period such that the received power circulates in a closed loop composed of the coil , the first capacitor and the second capacitor , and control the switch to connect the rectifier to the output end for delivering the rectified power to the output end for the duration of the second time period, periodically.
A method for making an olefin polymerization catalyst, consisting of: combining one or more supports with one or more magnesium-containing compounds under reaction conditions to form a first reacted product, wherein the support is or includes alumina, silica, or a combination thereof; combining one or more chlorinating compounds selected from the group consisting of one or more chloro substituted silanes comprising dimethyldichlorosilane, chlorotrimethylsilane, methyltrichlorosilane, diethyldichlorosilane, t-butyldimethylsilyl chloride, n-butyltrichlorosilane, and a combination thereof with the first reacted product under reaction conditions to form a second reacted product; and combining one or more titanium-containing compounds selected from the group consisting of one or more titanium alkoxides, one or more titanium halides, and a combination thereof with the second reacted product under reaction conditions to form a catalyst, wherein the catalyst is essentially free of donor compounds. combining one or more supports with one or more magnesium-containing compounds under reaction conditions to form a first reacted product, wherein the support is or includes alumina, silica, or a combination thereof; combining one or more chlorinating compounds selected from the group consisting of one or more chloro substituted silanes comprising dimethyldichlorosilane, chlorotrimethylsilane, methyltrichlorosilane, diethyldichlorosilane, t-butyldimethylsilyl chloride, n-butyltrichlorosilane, and a combination thereof with the first reacted product under reaction conditions to form a second reacted product; and combining one or more titanium-containing compounds selected from the group consisting of one or more titanium alkoxides, one or more titanium halides, and a combination thereof with the second reacted product under reaction conditions to form a catalyst, wherein the catalyst is essentially free of donor compounds.
A functionalized elastomer comprising the reaction product of a living anionic elastomeric polymer and a polymerization terminator of formula I where n is an integer from 1 to 3; X is a tetravalent organic group selected from a hydrocarbyl group of formula C m H 2m-2 where m is an integer from 1 to 10, a group of formula II where R 3 is selected from a C1 alkane diyl to a C10 alkane diyl, and the group of phenyl diyl; R 1 and R 2 are independently selected from a C1 alkyl to a C10 alkyl and a group of formula III where R 4 , R 5 are independently selected from a C1 alkyl to a C10 alkyl, and R 6 is C1 to C10 alkanediyl; or R 1 and R 2 taken together with their common Si atom form a five-membered heterocyclic ring selected from formulas IV and V where R7 is selected from a from C1 alkyl to a C10 alkyl. where n is an integer from 1 to 3; X is a tetravalent organic group selected from a hydrocarbyl group of formula C m H 2m-2 where m is an integer from 1 to 10, a group of formula II where R 3 is selected from a C1 alkane diyl to a C10 alkane diyl, and the group of phenyl diyl; R 1 and R 2 are independently selected from a C1 alkyl to a C10 alkyl and a group of formula III where R 4 , R 5 are independently selected from a C1 alkyl to a C10 alkyl, and R 6 is C1 to C10 alkanediyl; or R 1 and R 2 taken together with their common Si atom form a five-membered heterocyclic ring selected from formulas IV and V
Method for the recovery of succinic acid, comprising the steps of - providing a magnesium succinate solution; - acidifying the magnesium succinate solution with hydrogen chloride (HCl), thereby obtaining a solution comprising succinic acid and magnesium chloride (MgCl 2 ); - optionally a concentration step, wherein the solution comprising succinic acid and MgCl 2 is concentrated; - precipitating succinic acid from the solution comprising succinic acid and MgCl 2 , thereby obtaining a succinic acid precipitate and a MgCl 2 solution; and, - subjecting the MgCl 2 solution to a thermal decomposition step at temperatures of at least 300 °C, thereby decomposing the MgCl 2 to magnesium oxide (MgO) and HCl. - providing a magnesium succinate solution; - acidifying the magnesium succinate solution with hydrogen chloride (HCl), thereby obtaining a solution comprising succinic acid and magnesium chloride (MgCl 2 ); - optionally a concentration step, wherein the solution comprising succinic acid and MgCl 2 is concentrated; - precipitating succinic acid from the solution comprising succinic acid and MgCl 2 , thereby obtaining a succinic acid precipitate and a MgCl 2 solution; and, - subjecting the MgCl 2 solution to a thermal decomposition step at temperatures of at least 300 °C, thereby decomposing the MgCl 2 to magnesium oxide (MgO) and HCl.
A microneedle puncture instrument comprising: a pinch section ; and a puncture section configured to puncture the skin while pinching the skin in a pinch direction, including a microneedle for puncturing the skin and a support portion that supports the microneedle , characterized in that the pinch section includes a first pinch element and a second pinch element arrayed in an array direction and configured to individually pinch the skin in the pinch direction, which intersects with the array direction, the first pinch element and the second pinch element being connected to each other with a distance therebetween maintained within a predetermined range, and in that the puncture section is configured to puncture the skin while pinching the skin in the pinch direction at a position between the first pinch element and the second pinch element in the array direction. a pinch section ; and a puncture section configured to puncture the skin while pinching the skin in a pinch direction, including a microneedle for puncturing the skin and a support portion that supports the microneedle , characterized in that the pinch section includes a first pinch element and a second pinch element arrayed in an array direction and configured to individually pinch the skin in the pinch direction, which intersects with the array direction, the first pinch element and the second pinch element being connected to each other with a distance therebetween maintained within a predetermined range, and in that the puncture section is configured to puncture the skin while pinching the skin in the pinch direction at a position between the first pinch element and the second pinch element in the array direction.
Container handling system comprising - an inspection device for checking containers , in particular drink containers, and - a container transport device for moving the containers into an inspection position (P) of the inspection device , wherein the inspection device comprises at least two control modules combined to form a structural unit from the group: - control module for checking a tamperproof securing element on a container closure, - control module for determining a filling quantity of the container , - control module for detecting the position of closure logo on the container closure, - control module for detecting the position of a code on the container , and/or - control module for detecting the position of a container label wherein the container , in the only inspection position (P) can be detected by at least two control modules, wherein the term "inspection position" is understood to be a position of the container in which a control module can inspect the container , namely checking, detecting, or also determining a feature of the container , wherein each control module inspects an actual state of one of features of the container , and compares this with a reference state with the aid of an evaluation unit or control unit. - an inspection device for checking containers , in particular drink containers, and - a container transport device for moving the containers into an inspection position (P) of the inspection device , - control module for checking a tamperproof securing element on a container closure, - control module for determining a filling quantity of the container , - control module for detecting the position of closure logo on the container closure, - control module for detecting the position of a code on the container , and/or - control module for detecting the position of a container label wherein the container , in the only inspection position (P) can be detected by at least two control modules, wherein the term "inspection position" is understood to be a position of the container in which a control module can inspect the container , namely checking, detecting, or also determining a feature of the container , wherein each control module inspects an actual state of one of features of the container , and compares this with a reference state with the aid of an evaluation unit or control unit.
An oxygen concentrator comprising: at least one canister comprising a first end and a second end ; and gas separation adsorbent disposed in the at least one canister , wherein the gas separation adsorbent separates at least some nitrogen from air in the canister to produce oxygen enriched gas, characterized in that the first end of the at least one canister has a diameter larger than a diameter of the second end , wherein the at least one canister is positioned in the oxygen concentrator such that gas passes through the canister from the second end toward the first end during separation of nitrogen from air to produce oxygen enriched gas, and wherein the at least one canister is substantially filled with the gas separation adsorbent, such that the gas separation adsorbent extends through the canister from the second end to the first end . at least one canister comprising a first end and a second end ; and gas separation adsorbent disposed in the at least one canister , wherein the gas separation adsorbent separates at least some nitrogen from air in the canister to produce oxygen enriched gas, the first end of the at least one canister has a diameter larger than a diameter of the second end , wherein the at least one canister is positioned in the oxygen concentrator such that gas passes through the canister from the second end toward the first end during separation of nitrogen from air to produce oxygen enriched gas, and wherein the at least one canister is substantially filled with the gas separation adsorbent, such that the gas separation adsorbent extends through the canister from the second end to the first end .