mhurhangee/patent-ind-claim-en huggingface dataset:
A data transmission method, comprising: obtaining (S201), by a receiving device, second data, and demodulating (S202) the second data to obtain to-be-decoded data; and iterative decoding (S203), by the receiving device, the to-be-decoded data by using a block matrix in a quasi-cyclic low-density parity-check, LDPC, matrix and by using a layered min sum, MS, algorithm, wherein the block matrix is a submatrix in the quasi-cyclic LDPC matrix; wherein, in the quasi-cyclic LDPC matrix, - a row weight of a row (H-1) is less than or equal to a row weight of a row H such that overall row weights in the quasi-cyclic LDPC matrix increase row by row, or - a row weight of a row (H-1) is greater than or equal to a row weight of a row H such that overall row weights in the quasi cyclic LDPC matrix decrease row by row, - wherein H is an integer and 0 ≤ H ≤ M -1, and M represents a quantity of rows in the quasi-cyclic LDPC matrix; wherein the row weight of a row represents the quantity of non-negative elements in said row in the quasi-cyclic LDPC matrix; wherein each non-negative element in the quasi-cyclic LDPC matrix represents a non-zero matrix; and characterized in that the iterative decoding of the block matrix is performed according to an increasing row weight order of the row weights of the block matrix. obtaining (S201), by a receiving device, second data, and demodulating (S202) the second data to obtain to-be-decoded data; and iterative decoding (S203), by the receiving device, the to-be-decoded data by using a block matrix in a quasi-cyclic low-density parity-check, LDPC, matrix and by using a layered min sum, MS, algorithm, wherein the block matrix is a submatrix in the quasi-cyclic LDPC matrix; wherein, in the quasi-cyclic LDPC matrix, - a row weight of a row (H-1) is less than or equal to a row weight of a row H such that overall row weights in the quasi-cyclic LDPC matrix increase row by row, or - a row weight of a row (H-1) is greater than or equal to a row weight of a row H such that overall row weights in the quasi cyclic LDPC matrix decrease row by row, - wherein H is an integer and 0 ≤ H ≤ M -1, and M represents a quantity of rows in the quasi-cyclic LDPC matrix; - a row weight of a row (H-1) is less than or equal to a row weight of a row H such that overall row weights in the quasi-cyclic LDPC matrix increase row by row, or - a row weight of a row (H-1) is greater than or equal to a row weight of a row H such that overall row weights in the quasi cyclic LDPC matrix decrease row by row, - wherein H is an integer and 0 ≤ H ≤ M -1, and M represents a quantity of rows in the quasi-cyclic LDPC matrix; wherein the row weight of a row represents the quantity of non-negative elements in said row in the quasi-cyclic LDPC matrix; wherein each non-negative element in the quasi-cyclic LDPC matrix represents a non-zero matrix; and characterized in that the iterative decoding of the block matrix is performed according to an increasing row weight order of the row weights of the block matrix.
A radiator with heat transfer fluid comprising a first pipe , a second pipe and a façade assembly forming a facade of the radiator , the facade assembly comprising a plurality of hollow blades that are in fluid communication with the first and second pipes , the radiator being characterised in that it further comprises several tubes , called distribution tubes, that are located behind the façade assembly and that are in fluid communication on the one hand with the first pipe , and on the other hand with at least one blade of the façade assembly, at at least one location of the at least one blade , said at least one location being located in the part of the at least one blade that is located near the second pipe , so as to allow the heat transfer fluid, during operation, to enter the distribution tubes from the first pipe , to flow along the distribution tubes , then to enter the at least one blade and to flow along the at least one blade to again enter the first pipe .
A method for preparation of insoluble molecular imprinted polymers (MIPs), the method comprising: a. providing soluble or semi-soluble MIPs that 1) substantially all bind template agents and 2) have sizes which enable their separation in a chromatographic step utilizing packed bed chromatography, wherein the sizes of the soluble or semi-soluble MIPs are such that they will be filtrated through membrane filter having a 900 nm cutoff, b. cross-linking the template agent binding soluble MIPs provided in step a so as to obtain insoluble template agent binding MIPs, and c. optionally isolating, concentrating or purifying the MIPs obtained by the cross-linking in step b. a. providing soluble or semi-soluble MIPs that 1) substantially all bind template agents and 2) have sizes which enable their separation in a chromatographic step utilizing packed bed chromatography, wherein the sizes of the soluble or semi-soluble MIPs are such that they will be filtrated through membrane filter having a 900 nm cutoff, b. cross-linking the template agent binding soluble MIPs provided in step a so as to obtain insoluble template agent binding MIPs, and c. optionally isolating, concentrating or purifying the MIPs obtained by the cross-linking in step b.
A monitoring apparatus, comprising: a power source comprising at least one electrochemical cell ; a receptacle configured to receive the power source, the at least one electrochemical cell being coupled to the receptacle; an imaging device configured to capture an image of the at least one electrochemical cell; a temperature sensor configured to sense a temperature of the power source ; and a controller in communication with the imaging device, the controller configured to at least: instruct the imaging device to capture a first image of the at least one electrochemical cell at a first time; determine a first dimension of the at least one electrochemical cell based at least in part on the first image; receive a first temperature of the at least one electrochemical cell from the temperature sensor at the first time; and calculate at least one of a state of charge or a state of health of the power source based at least in part on the first dimension and the first temperature. a power source comprising at least one electrochemical cell ; a receptacle configured to receive the power source, the at least one electrochemical cell being coupled to the receptacle; an imaging device configured to capture an image of the at least one electrochemical cell; a temperature sensor configured to sense a temperature of the power source ; and a controller in communication with the imaging device, the controller configured to at least: instruct the imaging device to capture a first image of the at least one electrochemical cell at a first time; determine a first dimension of the at least one electrochemical cell based at least in part on the first image; receive a first temperature of the at least one electrochemical cell from the temperature sensor at the first time; and calculate at least one of a state of charge or a state of health of the power source based at least in part on the first dimension and the first temperature. instruct the imaging device to capture a first image of the at least one electrochemical cell at a first time; determine a first dimension of the at least one electrochemical cell based at least in part on the first image; receive a first temperature of the at least one electrochemical cell from the temperature sensor at the first time; and calculate at least one of a state of charge or a state of health of the power source based at least in part on the first dimension and the first temperature.
A method of producing a prepreg , comprising: allowing a reinforcing fiber sheet to pass substantially vertically downward through the inside of a coating section storing a matrix resin to apply said matrix resin to said reinforcing fiber sheet ; wherein a coating section comprises a liquid pool and a narrowed section which are in communication with each other; wherein said liquid pool has a portion whose cross-sectional area decreases continuously along a running direction (Z) of said reinforcing fiber sheet , and wherein said narrowed section has a slit-like cross-section characterized in that said narrowed section further has a gap (26; D), wherein increased liquid pressure allows the reinforcing fiber sheet to be automatically aligned with the center of the gap (26; D), so that the reinforcing fiber sheet is not directly abraded against the wall surfaces of the narrowed section , said slit-like cross-section has a smaller cross-sectional area than the top side of said liquid pool , and and a resin film is applied to a primary impregnate prepreg withdrawn from said coating section . wherein a coating section comprises a liquid pool and a narrowed section which are in communication with each other; wherein said liquid pool has a portion whose cross-sectional area decreases continuously along a running direction (Z) of said reinforcing fiber sheet , and wherein said narrowed section has a slit-like cross-section characterized in that said narrowed section further has a gap (26; D), wherein increased liquid pressure allows the reinforcing fiber sheet to be automatically aligned with the center of the gap (26; D), so that the reinforcing fiber sheet is not directly abraded against the wall surfaces of the narrowed section , said slit-like cross-section has a smaller cross-sectional area than the top side of said liquid pool , and and a resin film is applied to a primary impregnate prepreg withdrawn from said coating section .
A washing device for filter media in Continuous Backwash Sand (CBS) filters wherein the filter medium is a sand filter, comprising: - an air-lift pump that propels a mixture of sand and water with impurities upwards from the bottom to the top of the filter medium , by injecting compressed air from - a compressed air pipe that connects to - an air-lift riser pipe , the mixture crossing the filter medium and a filtered water zone , up to - a sand washer device that is located at the upper part of the CBS filter for receiving the mixture and washing the impurities from the sand with the washing water; - means for measuring the flow rate of the sand washed, located at one exit of the sand washer device and above the upper part of the filter medium inside the CBS filter, being connected to - a regulating valve of the compressed air injected in the air-lift pump , located at the compressed air pipe ; and - means for measuring the compressed air injected to the air-lift riser pipe , which is a compressed air flow-meter located in the compressed air pipe outside the CBS filter, connected to - means for operating a driver for a gate that controls the flow of washing water that exits the CBS filter through a washing water pipe . - an air-lift pump that propels a mixture of sand and water with impurities upwards from the bottom to the top of the filter medium , by injecting compressed air from - a compressed air pipe that connects to - an air-lift riser pipe , the mixture crossing the filter medium and a filtered water zone , up to - a sand washer device that is located at the upper part of the CBS filter for receiving the mixture and washing the impurities from the sand with the washing water; - means for measuring the flow rate of the sand washed, located at one exit of the sand washer device and above the upper part of the filter medium inside the CBS filter, being connected to - a regulating valve of the compressed air injected in the air-lift pump , located at the compressed air pipe ; and - means for measuring the compressed air injected to the air-lift riser pipe , which is a compressed air flow-meter located in the compressed air pipe outside the CBS filter, connected to - means for operating a driver for a gate that controls the flow of washing water that exits the CBS filter through a washing water pipe .
A harvester cleaning system comprising: a first cleaning zone extending in a first inclined plane , the first cleaning zone comprising a first set of louvers ; a second cleaning zone extending in a second inclined plane different than the first inclined plane , the second cleaning zone comprising a second set of louvers and a single actuator operably coupled to the first set of louvers and the second set of louvers so as to concurrently rotate both the first set of louvers and the second set of louvers , wherein a first set of louver wires is coupled to the first set of louvers ; a second set of louver wires is coupled to the second set of louvers , a first adjustment arm having slots receives the first set of louver wires , the first adjustment arm being connected to the actuator , a second adjustment arm having slots receiving the second set of louvers ; characterized in that a connector connects the first adjustment arm and the second adjustment arm , wherein the second adjustment arm moves in response to movement of the first adjustment arm and wherein movement of the first adjustment arm and the second adjustment arm rotate the first set of louver wires and the second set of louver wires to rotate the first set of louvers and the second set of louvers , respectively a first cleaning zone extending in a first inclined plane , the first cleaning zone comprising a first set of louvers ; a second cleaning zone extending in a second inclined plane different than the first inclined plane , the second cleaning zone comprising a second set of louvers and a single actuator operably coupled to the first set of louvers and the second set of louvers so as to concurrently rotate both the first set of louvers and the second set of louvers , wherein a first set of louver wires is coupled to the first set of louvers ; a second set of louver wires is coupled to the second set of louvers , a first adjustment arm having slots receives the first set of louver wires , the first adjustment arm being connected to the actuator , a second adjustment arm having slots receiving the second set of louvers ; characterized in that a connector connects the first adjustment arm and the second adjustment arm , wherein the second adjustment arm moves in response to movement of the first adjustment arm and wherein movement of the first adjustment arm and the second adjustment arm rotate the first set of louver wires and the second set of louver wires to rotate the first set of louvers and the second set of louvers , respectively
A bioreactor for the cultivation of mammalian cells, which is a biocompatible tank or vessel having a volume of at least 500 liters and at least one top impeller and at least one bottom impeller, wherein the at least one top impeller has a power number (N p ) between 0.1 and 0.9, wherein the at least one top impeller has a flow number (N q ) between 0.4 and 0.9, wherein the at least one bottom impeller has a power number (N p ) between 0.5 and 0.9, wherein an impeller spacing (D s ) between the at least one top impeller and the at least one bottom impeller is between 1.229 x the diameter of the bottom impeller (D bottom ) and 2 x D bottom , wherein the height of a liquid above the at least one top impeller (D 0 ) is between 0.3 x the diameter of the at least one top impeller (D top ) and 2.5 x D top , and wherein a bottom clearance (D c ) between the tank bottom and the center-line of the bottom impeller is at least 0.35 x D bottom , and wherein the bioreactor maintains a homogeneous environment such that pH, dissolved oxygen tension (DOT) and temperature.
A refrigerator door child lock system comprising a microcontroller unit (MCU) and a latching mechanism, wherein the latching mechanism is configured to open the refrigerator door based on signal received from the MCU , wherein the system further includes a plurality of elastic balloons with an air duct , a constant voltage source and a conductive contact connected to the constant voltage source , wherein the elastic balloon is configured to lift the conductive contact by the air filled inside the elastic balloon , thereby the conductive plate sends '0' voltage to the MCU , wherein the elastic balloon is configured to un-lift the conductive contact by the air released from the elastic balloon , thereby the conductive plate sends 'constant' voltage to the MCU , wherein the MCU is configured to send an signal to open the latching mechanism as soon as the MCU reads the constant voltage from the conductive contact .
A computer-implemented method comprising: mapping , within a layout of a first surface in a flip chip configuration, a bump restriction area according to a set of bump placement restrictions, wherein a first bump placement restriction specifies an allowed distance range between a bump and a qubit chip element in a layout of the first surface, and wherein a second bump placement restriction specifies an allowed distance range between the bump and a qubit chip element in a layout of a second surface in the flip chip configuration; checking conformity of the layout of the first surface with a third bump placement restriction and a fourth bump placement restriction, wherein the third bump placement restriction specifies an allowed distance range between each bump in the layout of the first surface, and wherein the fourth bump placement restriction specifies a minimum allowable bump density of a portion of the layout of the first surface; and adjusting, responsive to the checking, the bump density, the set of bump placement restrictions comprising: the first bump placement restriction, the second bump placement restriction; the third bump placement restriction; and the fourth bump placement restriction. mapping , within a layout of a first surface in a flip chip configuration, a bump restriction area according to a set of bump placement restrictions, wherein a first bump placement restriction specifies an allowed distance range between a bump and a qubit chip element in a layout of the first surface, and wherein a second bump placement restriction specifies an allowed distance range between the bump and a qubit chip element in a layout of a second surface in the flip chip configuration; checking conformity of the layout of the first surface with a third bump placement restriction and a fourth bump placement restriction, wherein the third bump placement restriction specifies an allowed distance range between each bump in the layout of the first surface, and wherein the fourth bump placement restriction specifies a minimum allowable bump density of a portion of the layout of the first surface; and adjusting, responsive to the checking, the bump density, the set of bump placement restrictions comprising: the first bump placement restriction, the second bump placement restriction; the third bump placement restriction; and the fourth bump placement restriction.
A method performed by a user equipment, UE , for requesting a target system information block, SIB, associated with a target service, the method comprising: receiving and storing at least one SIB segment of a plurality of SIB segments associated with the target SIB on a first active downlink Bandwidth Part, BWP; switching from the first active downlink BWP to a second active downlink BWP; initiating a dedicated SIB request procedure to send, to a serving cell, a request for the target SIB after determining that the second active downlink BWP is not configured with any common search space for receiving system information, the dedicated SIB request procedure initiated while the UE has stored the at least one SIB segment of the plurality of SIB segments associated with the target SIB, and before the target SIB is successfully assembled based on the plurality of SIB segments; transmitting, to the serving cell, the request for the target SIB; and starting a timer upon transmitting the request to the serving cell, wherein a second dedicated SIB request procedure is not initiated while the timer is running. receiving and storing at least one SIB segment of a plurality of SIB segments associated with the target SIB on a first active downlink Bandwidth Part, BWP; switching from the first active downlink BWP to a second active downlink BWP; initiating a dedicated SIB request procedure to send, to a serving cell, a request for the target SIB after determining that the second active downlink BWP is not configured with any common search space for receiving system information, the dedicated SIB request procedure initiated while the UE has stored the at least one SIB segment of the plurality of SIB segments associated with the target SIB, and before the target SIB is successfully assembled based on the plurality of SIB segments; transmitting, to the serving cell, the request for the target SIB; and starting a timer upon transmitting the request to the serving cell, wherein a second dedicated SIB request procedure is not initiated while the timer is running.
Wheat grain (Triticum aestivum) comprising an embryo, an endosperm, starch and and a reduced level or activity of total starch branching enzyme II (SBEII) protein, wherein the embryo comprises a loss of function mutation in each of 5 to 12 alleles of endogenous SBEII genes selected from the group consisting of SBEIIa -A, SBEIIa -B, SBEIIa -D, SBEIIb-A, SBEIIb -B and SBEIIb-D, such that the level or activity of total SBEII protein in the grain is between 2% and 30% of the level or activity of total SBEII protein in a wild-type wheat grain, said 5 to 12 alleles including 4, 5 or 6 SBEIIa alleles each comprising a loss of function mutation, wherein when the number of SBEIIa alleles comprising a loss of function mutation is only 4 then the number of SBEIIb alleles comprising a loss of function mutation is 6, and wherein the grain comprises an amylose content of at least 50% (w/w) as a proportion of the total starch of the grain, and wherein the grain gives rise to a wheat plant which is male and female fertile. such that the level or activity of total SBEII protein in the grain is between 2% and 30% of the level or activity of total SBEII protein in a wild-type wheat grain, said 5 to 12 alleles including 4, 5 or 6 SBEIIa alleles each comprising a loss of function mutation, wherein when the number of SBEIIa alleles comprising a loss of function mutation is only 4 then the number of SBEIIb alleles comprising a loss of function mutation is 6, and wherein the grain comprises an amylose content of at least 50% (w/w) as a proportion of the total starch of the grain, and wherein the grain gives rise to a wheat plant which is male and female fertile.
An elevator operation management system for controlling and managing a plurality of elevator devices in a facility, comprising: a reception unit that acquires information on the number of users to use the elevator devices and elevator car destination information; a learning unit that stores and learns, as past experience data, the information on the number of users and the elevator car destination information acquired from the reception unit; the elevator operation management system is characterized by a per-floor number-of-people estimation unit that estimates the number of users getting off for a time width in each elevator hall floor using storage information of the learning unit ; and a request information output unit that outputs the number of people getting off thus estimated in the facility to a system other than the elevator operation management system . a reception unit that acquires information on the number of users to use the elevator devices and elevator car destination information; a learning unit that stores and learns, as past experience data, the information on the number of users and the elevator car destination information acquired from the reception unit; the elevator operation management system is characterized by a per-floor number-of-people estimation unit that estimates the number of users getting off for a time width in each elevator hall floor using storage information of the learning unit ; and a request information output unit that outputs the number of people getting off thus estimated in the facility to a system other than the elevator operation management system .