mhurhangee/ep-ind-claims huggingface dataset:
A process to produce syngas, said method comprising: (a) adding carbonaceous material and molecular oxygen to a gasification apparatus to produce a first syngas with CO/CO 2 molar ratio less than 0.5; (b) measuring temperature of said first syngas downstream of said gasification apparatus and prior to entry into a syngas cooler; and (c) wherein at least a portion of said first syngas is passed through said syngas cooler to produce a cooled first syngas and at least a portion of said cooled first syngas is mixed with said portion of first syngas prior to passing through said syngas cooler to produce said cooled first syngas and upon said temperature of said first syngas prior to entry in said syngas cooler attaining a first target temperature, reducing the addition of molecular oxygen per unit mass of carbonaceous material in said gasification apparatus to produce a second syngas with CO/CO 2 molar ratio greater than that of said first syngas, wherein at least a portion of said second syngas is passed through said syngas cooler to produce a cooled second syngas, and at least a portion of said cooled second syngas is mixed with at least a portion of said second syngas prior to passing through said syngas cooler, and further wherein the linear velocity of the mixture of said cooled first syngas and said first syngas flowing through said syngas cooler is greater than 24 metres/second, and the linear velocity of the mixture of said cooled second syngas and said second syngas flowing through said syngas cooler is greater than 24 metres/second. (a) adding carbonaceous material and molecular oxygen to a gasification apparatus to produce a first syngas with CO/CO 2 molar ratio less than 0.5; (b) measuring temperature of said first syngas downstream of said gasification apparatus and prior to entry into a syngas cooler; and (c) wherein at least a portion of said first syngas is passed through said syngas cooler to produce a cooled first syngas and at least a portion of said cooled first syngas is mixed with said portion of first syngas prior to passing through said syngas cooler to produce said cooled first syngas
Use as herbicide, in particular as root-penetrating, systemic and/or post-emergence herbicide, of at least one compound chosen from the compounds of general formula said compound of general formula corresponding to the general formula (Ia): in which • n is an integer ranging from 1 to 6, • R 1, R 2 and R 3 independently of one another represent a hydrogen or halogen atom, a C 1 to C 5 alkyl radical or a group chosen from -OH, -COOH, -COOR", -OR" and -SO 2 R'', with R" being a C 1 to C 5 alkyl radical, with it being possible for the alkyl radicals to be substituted by one or more halogen atoms or hydroxyl groups, with R 2 preferably representing a -COOH group, • R represents a C 1 to C 5 alkyl or cycloalkyl radical, optionally substituted by one or more halogen atoms, and • the symbol indicates a single bond or a double bond in position 2, 3 or 4 of the 7-membered fused heterocycle, with at least one double bond being present, and organic or inorganic salts thereof and isomers thereof. said compound of general formula corresponding to the general formula (Ia): in which • n is an integer ranging from 1 to 6, • R 1, R 2 and R 3 independently of one another represent a hydrogen or halogen atom, a C 1 to C 5 alkyl radical or a group chosen from -OH, -COOH, -COOR", -OR" and -SO 2 R'', with R" being a C 1 to C 5 alkyl radical, with it being possible for the alkyl radicals to be substituted by one or more halogen atoms or hydroxyl groups, with R 2 preferably representing a -COOH group, • R represents a C 1 to C 5 alkyl or cycloalkyl radical, optionally substituted by one or more halogen atoms, and • the symbol indicates a single bond or a double bond in position 2, 3 or 4 of the 7-membered fused heterocycle, with at least one double bond being present, and organic or inorganic salts thereof and isomers thereof. • n is an integer ranging from 1 to 6, • R 1, R 2 and R 3 independently of one another represent a hydrogen or halogen atom, a C 1 to C 5 alkyl radical or a group chosen from -OH, -COOH, -COOR", -OR" and -SO 2 R'', with R" being a C 1 to C 5 alkyl radical, with it being possible for the alkyl radicals to be substituted by one or more halogen atoms or hydroxyl groups, with R 2 preferably representing a -COOH group, • R represents a C 1 to C 5 alkyl or cycloalkyl radical, optionally substituted by one or more halogen atoms, and • the symbol indicates a single bond or a double bond in position 2, 3 or 4 of the 7-membered fused heterocycle, with at least one double bond being present, and organic or inorganic salts thereof and isomers thereof.
A razor cartridge comprising: two or more razor blades, each of said razor blades having a cutting edge; at least one non-cutting element disposed between two of said razor blades, a frame provided with a plurality of slots (15 a,b,c,d,e) or openings for receiving said razor blades and said non-cutting element(s), characterized in that the non-cutting element and razor blades are each disposed in a separate slot or opening (15a,b,c,d,e). two or more razor blades, each of said razor blades having a cutting edge; at least one non-cutting element disposed between two of said razor blades, a frame provided with a plurality of slots (15 a,b,c,d,e) or openings for receiving said razor blades and said non-cutting element(s), characterized in that the non-cutting element and razor blades are each disposed in a separate slot or opening (15a,b,c,d,e).
A method of regenerating a degraded hydroxyoxime based organic extraction solution used in the recovery of metals by liquid-liquid extraction, comprising the step of (a) contacting the organic extraction solution with a wetted hydroxylamine or salt thereof in its solid form in the presence of a solid alkaline salt and thereafter removing the solid particles from the organic extraction solution, and (b) purifying the organic extraction solution by adsorption purification by bringing said organic extraction solution into contact with an adsorption material in a solid form, wherein the method is performed without the use of a phase transfer catalyst.
An aqueous dispersion comprising an emulsion comprising a silicone which is a condensation reaction product of the following components (A-1) and: (A-1) a linear organopolysiloxane being the addition reaction product of a linear organopolysiloxane having two alkenylsilyl groups, each only being at each of the molecular terminals, and a linear organopolysiloxane having two hydrosilyl groups, each only being at each of the molecular terminals, provided that the ratio of the number of the hydrosilyl group in component to the number of the alkenylsilyl group in component is 0.98 to 2; 5 to 40 parts by mass of a hydrolysable silane having, in one moleculte, at least three groups selected from the group consisting of a silanol group and an alkoxy group, relative to 100 parts by mass of component (A-1); 0.1 to 20 parts by mass of (A-2) a surfactant, relative to 100 parts by mass of component (A-1); and 10 to 200 parts by mass of (A-3) water, relative to 100 parts by mass of component (A-1). an emulsion comprising a silicone which is a condensation reaction product of the following components (A-1) and: (A-1) a linear organopolysiloxane being the addition reaction product of a linear organopolysiloxane having two alkenylsilyl groups, each only being at each of the molecular terminals, and a linear organopolysiloxane having two hydrosilyl groups, each only being at each of the molecular terminals, provided that the ratio of the number of the hydrosilyl group in component to the number of the alkenylsilyl group in component is 0.98 to 2; 5 to 40 parts by mass of a hydrolysable silane having, in one moleculte, at least three groups selected from the group consisting of a silanol group and an alkoxy group, relative to 100 parts by mass of component (A-1); (A-1) a linear organopolysiloxane being the addition reaction product of a linear organopolysiloxane having two alkenylsilyl groups, each only being at each of the molecular terminals, and a linear organopolysiloxane having two hydrosilyl groups, each only being at each of the molecular terminals, provided that the ratio of the number of the hydrosilyl group in component to the number of the alkenylsilyl group in component is 0.98 to 2; 5 to 40 parts by mass of a hydrolysable silane having, in one moleculte, at least three groups selected from the group consisting of a silanol group and an alkoxy group, relative to 100 parts by mass of component (A-1); 0.1 to 20 parts by mass of (A-2) a surfactant, relative to 100 parts by mass of component (A-1); and 10 to 200 parts by mass of (A-3) water, relative to 100 parts by mass of component (A-1).
A cooling structure, comprising: a flow path configuration member made of resin and forming a flow path through which a refrigerant flows; and a cooling fin extending from an inner wall of the flow path toward an inside of the flow path, having a distal end that is in contact with the inner wall, and having a surface made of resin, characterized by further comprising a heat diffuser disposed at a root of the cooling fin and a nut body connected to the heat diffuser. a flow path configuration member made of resin and forming a flow path through which a refrigerant flows; and a cooling fin extending from an inner wall of the flow path toward an inside of the flow path, having a distal end that is in contact with the inner wall, and having a surface made of resin, characterized by further comprising a heat diffuser disposed at a root of the cooling fin and a nut body connected to the heat diffuser.
A computer implemented encoding method, comprising: obtaining K information bits, wherein K is a positive integer not less than 1; determining to-be-encoded bits, wherein the to-be-encoded bits comprise (K+P) bits, the (K+P) bits comprise the K information bits and P check bits, the K information bits correspond to K polarization channels, the P check bits comprise T first-type check bits, all the T first-type check bits are parity check, PC, bits, reliability of a polarization channel corresponding to each of the T first-type check bits is greater than a minimum value of reliability of the K polarization channels, both P and T are nonnegative integers, and T≤P; performing polar coding on the to-be-encoded bits to obtain encoded bits, wherein the (K+P) bits are in a one-to-one correspondence with (K+P) rows in a generator matrix of the encoded bits, a minimum row weight of the (K+P) rows is W 1, a maximum row weight corresponding to the T first-type check bits is less than or equal to W 2, W 2 represents a minimum value other than W 1 in row weights of the (K+P) rows, and both W 1 and W 2 are positive integers not less than 1, characterised in that: the (K+P) rows comprise t1 first target rows, a row weight of each of the t1 first target rows is Wi, the t1 first target rows are in a one-to-one correspondence with t1 polarization channels, the T first-type check bits comprise f1 first-type check bits, the f1 first-type check bits correspond to f1 polarization channels with highest reliability in the t1 polarization channels, both t1 and f1 are positive integers not less than 1, t1<(K+P), and f1≤P. obtaining K information bits, wherein K is a positive integer not less than 1; determining to-be-encoded bits, wherein the to-be-encoded bits comprise (K+P) bits, the (K+P) bits comprise the K information bits and P check bits, the K information bits correspond to K polarization channels, the P check bits comprise T first-type check bits, all the T first-type check bits are parity check, PC, bits, reliability of a polarization channel corresponding to each of the T first-type check bits is greater than a minimum value of reliability of the K polarization channels, both P and T are nonnegative integers, and T≤P; performing polar coding on the to-be-encoded bits to obtain encoded bits, wherein the (K+P) bits are in a one-to-one correspondence with (K+P) rows in a generator matrix of the encoded bits, a minimum row weight of the (K+P) rows is W 1, a maximum row weight corresponding to the T first-type check bits is less than or equal to W 2, W 2 represents a minimum value other than W 1 in row weights of the (K+P) rows, and both W 1 and W 2 are positive integers not less than 1, characterised in that: the (K+P) rows comprise t1 first target rows, a row weight of each of the t1 first target rows is Wi, the t1 first target rows are in a one-to-one correspondence with t1 polarization channels, the T first-type check bits comprise f1 first-type check bits, the f1 first-type check bits correspond to f1 polarization channels with highest reliability in the t1 polarization channels, both t1 and f1 are positive integers not less than 1, t1<(K+P), and f1≤P.
Actuator for driving a home-automation screen, this actuator comprising: - an electric motor, - a reduction gear for transmitting the movement of the motor to the home-automation screen, and - a brake, characterised in that the motor is an electronically commutated motor and the brake is a mechanical brake having a continuous drag torque. - an electric motor, - a reduction gear for transmitting the movement of the motor to the home-automation screen, and - a brake,
An eye surgery system comprising: an eye interface device configured to interface with an eye of a patient; a scanning assembly supporting the eye interface device and operable to scan a focal point of an electromagnetic radiation beam to different locations within the eye; a beam source configured to generate the electromagnetic radiation beam; a free-floating mechanism that supports the scanning assembly and is configured to accommodate movement of the eye and provide a variable optical path for the electronic radiation beam and a portion of the electronic radiation beam reflected from the focal point location, the variable optical path being disposed between the beam source and the scanning assembly and having an optical path length that changes in response to movement of the eye; and a detection assembly configured to generate an intensity signal indicative of intensity of a portion of the electromagnetic radiation beam reflected from the focal point location. an eye interface device configured to interface with an eye of a patient; a scanning assembly supporting the eye interface device and operable to scan a focal point of an electromagnetic radiation beam to different locations within the eye; a beam source configured to generate the electromagnetic radiation beam; a free-floating mechanism that supports the scanning assembly and is configured to accommodate movement of the eye and provide a variable optical path for the electronic radiation beam and a portion of the electronic radiation beam reflected from the focal point location, the variable optical path being disposed between the beam source and the scanning assembly and having an optical path length that changes in response to movement of the eye; and a detection assembly configured to generate an intensity signal indicative of intensity of a portion of the electromagnetic radiation beam reflected from the focal point location.
A method comprising: transmitting (304, 404, 506) a message from a wireless device (110a-110f) in a wireless network to a plurality of access points (108a-108e) in the wireless network; and determining, by the wireless device, whether at least one acknowledgement message is received at the wireless device from at least one of the access points; wherein the message includes data along with a group identifier that identifies three or more access points that are intended to receive, process and forward the message, the group identifier also identifying an order in which each of the three or more access points send acknowledgement messages to the wireless device; and wherein the at least one access point that receives the message from the wireless device determines that the at least one access point is associated with the group identifier and identifies a time or position to transmit the at least one acknowledgement message to the wireless device. transmitting (304, 404, 506) a message from a wireless device (110a-110f) in a wireless network to a plurality of access points (108a-108e) in the wireless network; and determining, by the wireless device, whether at least one acknowledgement message is received at the wireless device from at least one of the access points; wherein the message includes data along with a group identifier that identifies three or more access points that are intended to receive, process and forward the message, the group identifier also identifying an order in which each of the three or more access points send acknowledgement messages to the wireless device; and wherein the at least one access point that receives the message from the wireless device determines that the at least one access point is associated with the group identifier and identifies a time or position to transmit the at least one acknowledgement message to the wireless device.
A combine comprising: a harvest amount sensor capable of determining a grain storage amount of grains stored in a grain storage section; a communication section capable of communication with an external drier; a setting section capable of setting a target storage amount based on a requested grain amount requested by the drier; and a calculation section for calculating a total harvest amount based on the grain storage amount determined by the harvest amount sensor; the harvest amount sensor being capable of a first determination for determining the grain storage amount intermittently during reaping traveling of a traveling vehicle body; the combine being characterized in that the harvest amount sensor is capable of a second determination for determining the grain storage amount based on a manual operation during stopped state of the traveling vehicle body; the calculation section is configured to calculate the total harvest amount based on a first determination amount by the first determination and a second determination amount by the second determination; a decision section is provided for deciding whether the total harvest amount has exceeded the target storage amount or not; and an informing section is provided for effecting completion informing if the decision section decides that the total harvest amount has exceeded the target storage amount. a harvest amount sensor capable of determining a grain storage amount of grains stored in a grain storage section; a communication section capable of communication with an external drier; a setting section capable of setting a target storage amount based on a requested grain amount requested by the drier; and a calculation section for calculating a total harvest amount based on the grain storage amount determined by the harvest amount sensor; the harvest amount sensor being capable of a first determination for determining the grain storage amount intermittently during reaping traveling of a traveling vehicle body; the combine being characterized in that the harvest amount sensor is capable of a second determination for determining the grain storage amount based on a manual operation during stopped state of the traveling vehicle body; the calculation section is configured to calculate the total harvest amount based on a first determination amount by the first determination and a second determination amount by the second determination; a decision section is provided for deciding whether the total harvest amount has exceeded the target storage amount or not; and an informing section is provided for effecting completion informing if the decision section decides that the total harvest amount has exceeded the target storage amount.
A method of identifying objects in an ultrasound image (40, 42) comprising: using a processor, configured to receive ultrasound information which may be converted into an ultrasound image, to: locate the ultrasound information within a three-dimensional cardiac model having two or more distinct objects, where each distinct object has a unique identifier; extract objects coincident with the plane of the ultrasound information from the three-dimensional cardiac model, such objects including two-dimensional boundary information that is coincident between the model and the plane containing ultrasound information, the boundary information corresponding to at least one distinct object of the model; overlaying the extracted objects on an independent visualization of the ultrasound information; display a two-dimensional augmented echo image including the visual representation of ultrasound information and boundary lines representing the extracted, coincident boundary information; and identify the at least one distinct object within the visual representation of the ultrasound information using an identifier corresponding to the identifier provided for that object in the three-dimensional cardiac model. locate the ultrasound information within a three-dimensional cardiac model having two or more distinct objects, where each distinct object has a unique identifier; extract objects coincident with the plane of the ultrasound information from the three-dimensional cardiac model, such objects including two-dimensional boundary information that is coincident between the model and the plane containing ultrasound information, the boundary information corresponding to at least one distinct object of the model; overlaying the extracted objects on an independent visualization of the ultrasound information; display a two-dimensional augmented echo image including the visual representation of ultrasound information and boundary lines representing the extracted, coincident boundary information; and identify the at least one distinct object within the visual representation of the ultrasound information using an identifier corresponding to the identifier provided for that object in the three-dimensional cardiac model.
A channel estimation method in an orthogonal frequency division multiplexing, OFDM, based communication system, said method comprising: receiving a plurality of transmissions of a reference signal on a plurality of subcarriers; and calculating a plurality of raw channel estimate values based on the received plurality of transmissions of the reference signal, wherein the calculating includes compensating the plurality of transmissions of the reference signal by a first time offset; said method being characterized by: processing the plurality of raw channel estimate values to obtain a revised channel estimate, wherein the processing includes multiplying the plurality of raw channel estimate values by a term whose phase is a function of a second time offset to flatten a phase response of an autocorrelation function of the plurality of raw channel estimate values. receiving a plurality of transmissions of a reference signal on a plurality of subcarriers; and calculating a plurality of raw channel estimate values based on the received plurality of transmissions of the reference signal, wherein the calculating includes compensating the plurality of transmissions of the reference signal by a first time offset; said method being characterized by: processing the plurality of raw channel estimate values to obtain a revised channel estimate, wherein the processing includes multiplying the plurality of raw channel estimate values by a term whose phase is a function of a second time offset to flatten a phase response of an autocorrelation function of the plurality of raw channel estimate values. processing the plurality of raw channel estimate values to obtain a revised channel estimate, wherein the processing includes multiplying the plurality of raw channel estimate values by a term whose phase is a function of a second time offset to flatten a phase response of an autocorrelation function of the plurality of raw channel estimate values.