mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method to construct a set of indirect token transactions in a token transfer process for transferring tokens between a plurality of participating nodes comprising pairs of sender nodes and respective recipient nodes using a blockchain, the method implemented by an initiator node, U 0, which is randomly chosen from the plurality of participating nodes, the method comprising: receiving a number of rounds, r, of a protocol and a number of transactions, q, per round; receiving an initial quantity of tokens available for use in the protocol, stored as a vector m = ( m 1,..., m n) with ∑ l = 1 n m l = M, where M is a total quantity of tokens committed to the protocol; receiving a final state in which the participating nodes are to be placed, m ( T r) = ( m 1,..., m A - Δ*,..., m B + Δ*,..., m n) which defines a final allocation of the tokens to be made between a sender-recipient pair; generating, based on the received parameters ( r, q, m, and m ( T r)), a set of indirect token transactions between multiple different pairs of the participating nodes; wherein each indirect token transaction is secured by a public key Q of a secret value k such that Q = kG, where G is a basepoint on the Elliptic Curve, and wherein each user is given a secret share k i of the secret value k such that the plurality of participating nodes are required to reconstruct the value k from their secret shares to unlock the indirect token transactions; and wherein the plurality of participating nodes collaborate to generate the public key Q corresponding to the private key k, wherein a calculation of Q is accomplished without any participant node revealing their individual key shares and without the participants collaborating to first find the private key, k. receiving a number of rounds, r, of a protocol and a number of transactions, q, per round; receiving an initial quantity of tokens available for use in the protocol, stored as a vector m = ( m 1,..., m n) with ∑ l = 1 n m l = M, where M is a total quantity of tokens committed to the protocol; receiving a final state in which the participating nodes are to be placed, m ( T r) = ( m 1,..., m A - Δ*,..., m B + Δ*,..., m n) which defines a final allocation of the tokens to be made between a sender-recipient pair; generating, based on the received parameters ( r, q, m, and m ( T r)), a set of indirect token transactions between multiple different pairs of the participating nodes; wherein each indirect token transaction is secured by a public key Q of a secret value k such that Q = kG, where G is a basepoint on the Elliptic Curve, and wherein each user is given a secret share k i of the secret value k such that the plurality of participating nodes are required to reconstruct the value k from their secret shares to unlock the indirect token transactions; and wherein the plurality of participating nodes collaborate to generate the public key Q corresponding to the private key k, wherein a calculation of Q is accomplished without any participant node revealing their individual key shares and without the participants collaborating to first find the private key, k.
Ground vehicle comprising a supercharged internal combustion engine equipped with after treatment system and an exhaust gas recirculation system, the engine comprising - an intake manifold, - exhaust manifolds (5, 5'), at least one of said exhaust manifolds being connected to the intake manifold to recirculate an exhaust gas flow rate according to predetermined operating conditions (rpm, T) of the engine, - means of injection, in the ATS, of an aqueous additive for reducing pollutant emissions, - control unit configured to control continuously said exhaust gas recirculation and said aqueous additive injection, maximizing a distance to be covered based on residual quantities of the fuel and of the additive; characterized in that said control unit is configured, in case of maximum power required to the engine, to regulate said aqueous additive injection at a maximum saturation level, and also to regulate said exhaust gas recirculation as a function of an advance value of the fuel injection time in cylinders of the internal combustion engine. - an intake manifold, - exhaust manifolds (5, 5'), at least one of said exhaust manifolds being connected to the intake manifold to recirculate an exhaust gas flow rate according to predetermined operating conditions (rpm, T) of the engine, - means of injection, in the ATS, of an aqueous additive for reducing pollutant emissions, - control unit configured to control continuously said exhaust gas recirculation and said aqueous additive injection, maximizing a distance to be covered based on residual quantities of the fuel and of the additive;
Method for the production of animal feedstuff from crustaceans of the genus Artemia or Copepoda or Daphnia or from micro-organisms in the form of rotifers or protozoa, characterised in that the crustacean/micro-organism cultures are fed at least partly with vinasse, preferably thin vinasse, especially from bioethanol production, and the yeast cells contained therein.
A valve body comprising: an inlet configured to receive pressurized fluid; a first port; a diaphragm (16, 616) comprising a first side and an opposing second side; two one-way valves disposed as follows: a first one-way valve disposed so as to allow fluid to flow from the inlet to the first side of the diaphragm, and a second one-way valve disposed so as to allow fluid to flow from the inlet to the first port; wherein the second side of the diaphragm (16, 616) is in fluid communication with the first port and with atmosphere, and the first side of the diaphragm (16, 616) is in fluid communication with the first one-way valve, such that when fluid pressure in the first port approximately equals fluid pressure at the first valve, the diaphragm (16, 616) substantially seals the first port from atmosphere, and when fluid pressure in the first port exceeds fluid pressure at the first one-way valve, the diaphragm (16, 616) may flex to allow fluid to flow from the first port to atmosphere. an inlet configured to receive pressurized fluid; a first port; a diaphragm (16, 616) comprising a first side and an opposing second side; two one-way valves disposed as follows: a first one-way valve disposed so as to allow fluid to flow from the inlet to the first side of the diaphragm, and a second one-way valve disposed so as to allow fluid to flow from the inlet to the first port; a first one-way valve disposed so as to allow fluid to flow from the inlet to the first side of the diaphragm, and a second one-way valve disposed so as to allow fluid to flow from the inlet to the first port; wherein the second side of the diaphragm (16, 616) is in fluid communication with the first port and with atmosphere, and the first side of the diaphragm (16, 616) is in fluid communication with the first one-way valve, such that when fluid pressure in the first port approximately equals fluid pressure at the first valve, the diaphragm (16, 616) substantially seals the first port from atmosphere, and when fluid pressure in the first port exceeds fluid pressure at the first one-way valve, the diaphragm (16, 616) may flex to allow fluid to flow from the first port to atmosphere.
A transportation system method, the transportation system comprising an elevator installation, the method comprising: receiving, using an input device (160, 162, 164, 166, 168, 420, 422), trip information for a trip for at least one passenger using the elevator installation, the trip information comprising elevator trip information, the elevator trip information comprising a destination floor, a start floor, a passenger energy setting, and identifying information for the at least one passenger; selecting, based at least in part on the trip information and using a computer, an energy setting out of a plurality of energy settings for at least a portion of the trip using at least one elevator car in the elevator installation; and determining the passenger energy setting based at least in part on identifying information for the at least one passenger. receiving, using an input device (160, 162, 164, 166, 168, 420, 422), trip information for a trip for at least one passenger using the elevator installation, the trip information comprising elevator trip information, the elevator trip information comprising a destination floor, a start floor, a passenger energy setting, and identifying information for the at least one passenger; selecting, based at least in part on the trip information and using a computer, an energy setting out of a plurality of energy settings for at least a portion of the trip using at least one elevator car in the elevator installation; and determining the passenger energy setting based at least in part on identifying information for the at least one passenger.
A method of detecting a thyroid stimulating hormone receptor antibody in a sample, said method comprising: providing in combination in an assay medium a sample suspected of containing a thyroid stimulating hormone receptor antibody, a composition comprising an aqueous medium, a receptor, a chelating agent in an amount of about 0.1 mM to about 20 mM, and a C2-C6 polyol in an amount of about 5% to about 50% by weight, wherein the receptor is a thyroid-stimulating hormone receptor chimera, wherein the thyroid stimulating hormone receptor is bound to a support and a second thyroid stimulating hormone receptor bound to a label, examining the combination for the formation of a complex comprising the thyroid stimulating hormone receptor antibody, the composition comprising an aqueous medium, a receptor, a chelating agent in an amount of about 0.1 mM to about 20 mM, and a C2-C6 polyol in an amount of about 5% to about 50% by weight,wherein the receptor is a thyroid-stimulating hormone receptor chimera, wherein the thyroid stimulating hormone receptor is bound to a support and the second thyroid stimulating hormone receptor bound to a label, and relating the presence of the complex to one or both of a presence and an amount of the thyroid stimulating hormone receptor antibody in the sample. providing in combination in an assay medium a sample suspected of containing a thyroid stimulating hormone receptor antibody, a composition comprising an aqueous medium, a receptor, a chelating agent in an amount of about 0.1 mM to about 20 mM, and a C2-C6 polyol in an amount of about 5% to about 50% by weight, wherein the receptor is a thyroid-stimulating hormone receptor chimera, wherein the thyroid stimulating hormone receptor is bound to a support and a second thyroid stimulating hormone receptor bound to a label, examining the combination for the formation of a complex comprising the thyroid stimulating hormone receptor antibody, the composition comprising an aqueous medium, a receptor, a chelating agent in an amount of about 0.1 mM to about 20 mM, and a C2-C6 polyol in an amount of about 5% to about 50% by weight,wherein the receptor is a thyroid-stimulating hormone receptor chimera, wherein the thyroid stimulating hormone receptor is bound to a support and the second thyroid stimulating hormone receptor bound to a label, and relating the presence of the complex to one or both of a presence and an amount of the thyroid stimulating hormone receptor antibody in the sample.
A method for operating a cryptographic system, comprising: obtaining ciphertext by the cryptographic system; performing operations by the cryptographic system to determine whether a given sequence of values exists within the ciphertext, wherein length of the sequence of values can be selected by a user; and synchronizing the cryptographic system with another cryptographic system using the ciphertext as a bitrate portion R of an initialization value B for a cryptographic algorithm and zero as a capacity portion C of the initialization value for the cryptographic algorithm, by causing a state of the cryptographic algorithm to be re-initialized using the ciphertext as an initialization value, when a determination is made that the given sequence of values exist within the ciphertext, wherein B=R+C; characterized in that the cryptographic algorithm comprises an adaptation of a sponge construction framework and the adaptation of the sponge construction framework comprises a duplex construction in which a permutation function is iteratively performed, wherein the cryptographic algorithm comprises a unique permutation function f that is used with a sponge construction and/or the duplex construction. obtaining ciphertext by the cryptographic system; performing operations by the cryptographic system to determine whether a given sequence of values exists within the ciphertext, wherein length of the sequence of values can be selected by a user; and synchronizing the cryptographic system with another cryptographic system using the ciphertext as a bitrate portion R of an initialization value B for a cryptographic algorithm and zero as a capacity portion C of the initialization value for the cryptographic algorithm, by causing a state of the cryptographic algorithm to be re-initialized using the ciphertext as an initialization value, when a determination is made that the given sequence of values exist within the ciphertext, wherein B=R+C; characterized in that the cryptographic algorithm comprises an adaptation of a sponge construction framework and the adaptation of the sponge construction framework comprises a duplex construction in which a permutation function is iteratively performed, wherein the cryptographic algorithm comprises a unique permutation function f that is used with a sponge construction and/or the duplex construction.
Particles of doped lithium cobalt oxide of formula LiCo y O z ·t MO x wherein the doping agent MO x is selected from the group of lanthanide oxides, and wherein the molar ratios expressed by y, z, t and x are selected so as to produce desired stoichiometric ratios in said particles of doped lithium cobalt oxide, characterized in that said doping agent MO x is nano-sized and wherein the molar ratio y of cobalt is y = 1 - t and the molar ratio t of the doping agent MO x is in the range of 0.005 to 0.3, the molar ratio z of oxygen is such as to ensure electric neutrality of said particles of doped lithium cobalt oxide and the molar ratio x of oxygen is from 0.7 to 1.1.
A display device comprising: a substrate; a pixel including a driving thin film transistor on the substrate; a first planarization layer covering the pixel; a concave portion in the first planarization layer; a light emitting diode in the concave portion, the light emitting diode including a first electrode and a second electrode; a second planarization layer on the first planarization layer; a pixel electrode electrically connected to the driving thin film transistor and the first electrode of the light emitting diode; and a common electrode electrically connected to the second electrode of the light emitting diode, wherein the pixel electrode is on the second planarization layer, wherein the light emitting diode is surrounded by the first planarization layer and the second planarization layer, and wherein the second planarization layer covers the light emitting diode device except for an area of a first electrode contact hole through which the first electrode is electrically connected to the pixel electrode and an area of a second electrode contact hole through which the second electrode is electrically connected to the common electrode. a substrate; a pixel including a driving thin film transistor on the substrate; a first planarization layer covering the pixel; a concave portion in the first planarization layer; a light emitting diode in the concave portion, the light emitting diode including a first electrode and a second electrode; a second planarization layer on the first planarization layer; a pixel electrode electrically connected to the driving thin film transistor and the first electrode of the light emitting diode; and a common electrode electrically connected to the second electrode of the light emitting diode, wherein the pixel electrode is on the second planarization layer, wherein the light emitting diode is surrounded by the first planarization layer and the second planarization layer, and wherein the second planarization layer covers the light emitting diode device except for an area of a first electrode contact hole through which the first electrode is electrically connected to the pixel electrode and an area of a second electrode contact hole through which the second electrode is electrically connected to the common electrode.
A combustor within which a combustion zone is defined, comprising: an annular liner having a first mixing hole defined therein at a first axial position; a flow sleeve, having a second mixing hole defined therein at a second axial position, the flow sleeve surrounding the liner to form a first flow space at an exterior of the liner; a port, coupled to the flow sleeve at the second axial position, which is configured to remove air from the first flow space via the second mixing hole; and a shield, having a third mixing hole defined therein at the second axial position, the shield being disposed to shield the liner and to form a second annular flow space within the liner, which is communicable with the combustion zone via the third mixing hole and with the first flow space via the first mixing hole, wherein at least one of the liner and the shield comprises protrusions, the protrusions protruding into the second annular flow space to extend and span the effective sizes of the second annular flow space. an annular liner having a first mixing hole defined therein at a first axial position; a flow sleeve, having a second mixing hole defined therein at a second axial position, the flow sleeve surrounding the liner to form a first flow space at an exterior of the liner; a port, coupled to the flow sleeve at the second axial position, which is configured to remove air from the first flow space via the second mixing hole; and a shield, having a third mixing hole defined therein at the second axial position, the shield being disposed to shield the liner and to form a second annular flow space within the liner, which is communicable with the combustion zone via the third mixing hole and with the first flow space via the first mixing hole, wherein at least one of the liner and the shield comprises protrusions, the protrusions protruding into the second annular flow space to extend and span the effective sizes of the second annular flow space.
A production method for natural compost for soil fertilisation composed of biological constituents as the main constituent in a content by mass of 60% to 90%, characterised by the steps of: - mixing the main constituent with chamber filter cake, said chamber filter cake being obtained from the elutriable super-fine constituents in a limestone and/or dolomite wash after said elutriable super-fine constituents have been dewatered in a chamber filter press or sedimentation tank, said chamber filter cake containing 10 - 70% siliceous compounds in the dry matter; and - depositing the freshly mixed compost and leaving it to decompose for a decomposition period. - mixing the main constituent with chamber filter cake, said chamber filter cake being obtained from the elutriable super-fine constituents in a limestone and/or dolomite wash after said elutriable super-fine constituents have been dewatered in a chamber filter press or sedimentation tank, said chamber filter cake containing 10 - 70% siliceous compounds in the dry matter; and - depositing the freshly mixed compost and leaving it to decompose for a decomposition period.
Cosmetic preparation comprising a UV filter combination of a) 4-(tert-butyl)-4'-methoxydibenzoylmethane, b) 2,4,6-tris[anilino-(p-carbo-2'-ethyl-1'-hexyloxy)]-1,3,5-triazine (INCI: Ethylhexyl Triazone), c) 2,4-bis-{[4-(2-ethylhexyloxy)-2-hydroxy]phenyl}-6-(4-methoxyphenyl)-1,3,5-triazine (INCI: Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine) and d) one or more salicylates selected from the group of compounds comprising 2-ethylhexyl 2-hydroxybenzoate (INCI: Ethylhexyl Salicylate) and 3,3,5-trimethylcyclohexyl 2-hydroxybenzoate (INCI: Homosalate), wherein the preparation comprises silica dimethyl silylate, characterized in that the preparation does not comprise any titanium dioxide and zinc oxide. a) 4-(tert-butyl)-4'-methoxydibenzoylmethane, b) 2,4,6-tris[anilino-(p-carbo-2'-ethyl-1'-hexyloxy)]-1,3,5-triazine (INCI: Ethylhexyl Triazone), c) 2,4-bis-{[4-(2-ethylhexyloxy)-2-hydroxy]phenyl}-6-(4-methoxyphenyl)-1,3,5-triazine (INCI: Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine) and d) one or more salicylates selected from the group of compounds comprising 2-ethylhexyl 2-hydroxybenzoate (INCI: Ethylhexyl Salicylate) and 3,3,5-trimethylcyclohexyl 2-hydroxybenzoate (INCI: Homosalate), wherein the preparation comprises silica dimethyl silylate, characterized in that the preparation does not comprise any titanium dioxide and zinc oxide.
A method of supporting first and second longitudinally moving elongated products in first and second parallel lanes during cutting comprising the steps of: a) supporting the first product in a first lane by first and second supports (38, 39) which are spaced apart in the longitudinal direction of the first product to provide a first gap, b) supporting the second product in a second lane by third and fourth supports (38, 39) which are spaced apart in the longitudinal direction of the second product to provide a second gap, c) moving the first product in a longitudinal direction over the first and second supports and moving the second product in a longitudinal direction over the third and fourth supports, d) cutting the first product by passing a cutting blade through the longitudinally moving first product and through said first gap while moving the cutting blade in said longitudinal direction, e) cutting the second product by passing said cutting blade through the longitudinally moving second product and through said second gap while moving the cutting blade in said longitudinal direction, characterized by: f) during the cutting step of the first product moving at least one of the first and second supports (3 8, 3 9) in said longitudinal direction, and g) during the cutting step of the second product moving at least one of the third and fourth supports (38, 39) in said longitudinal direction. a) supporting the first product in a first lane by first and second supports (38, 39) which are spaced apart in the longitudinal direction of the first product to provide a first gap, b) supporting the second product in a second lane by third and fourth supports (38, 39) which are spaced apart in the longitudinal direction of the second product to provide a second gap, c) moving the first product in a longitudinal direction over the first and second supports and moving the second product in a longitudinal direction over the third and fourth supports, d) cutting the first product by passing a cutting blade through the longitudinally moving first product and through said first gap while moving the cutting blade in said longitudinal direction, e) cutting the second product by passing said cutting blade through the longitudinally moving second product and through said second gap while moving the cutting blade in said longitudinal direction, characterized by: f) during the cutting step of the first product moving at least one of the first and second supports (3 8, 3 9) in said longitudinal direction, and g) during the cutting step of the second product moving at least one of the third and fourth supports (38, 39) in said longitudinal direction.