mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining an authorization for implementing a composite resource (RC), said composite resource comprising at least two resources, said method being implemented within a blockchain and being characterized in that it comprises: - a step of receiving (POll), by a smart contract (Ctrt1) of the blockchain, called composite contract, a request (Quer) from a requesting entity ENT wishing to obtain an authorization for implementing the composite resource (RC); - a step of obtaining, by the composite contract (Ctrt1), at least one address (@2,...) of at least one smart contract (Ctrt2,...) within a blockchain, said at least one smart contact (Ctrt2,...) being associated with at least one resource comprised in said composite resource (RC); and, for each smart contract (Ctrt2,...) - a step of transmitting (POlla) an authorization request for implementing the resource associated with this smart contact (Ctrt2,...) ; and - a step of receiving (POllb) a result provided by this smart contact (Ctrt2,...) ; - a step of compiling (P011c) the results from said at least one smart contract (Ctrt2,...) delivering a result (Resp) that is representative of the authorization for implementing the composite resource (RC). - a step of receiving (POll), by a smart contract (Ctrt1) of the blockchain, called composite contract, a request (Quer) from a requesting entity ENT wishing to obtain an authorization for implementing the composite resource (RC); - a step of obtaining, by the composite contract (Ctrt1), at least one address (@2,...) of at least one smart contract (Ctrt2,...) within a blockchain, said at least one smart contact (Ctrt2,...) being associated with at least one resource comprised in said composite resource (RC); and, for each smart contract (Ctrt2,...) - a step of transmitting (POlla) an authorization request for implementing the resource associated with this smart contact (Ctrt2,...) ; and - a step of receiving (POllb) a result provided by this smart contact (Ctrt2,...) ; - a step of compiling (P011c) the results from said at least one smart contract (Ctrt2,...) delivering a result (Resp) that is representative of the authorization for implementing the composite resource (RC). - a step of transmitting (POlla) an authorization request for implementing the resource associated with this smart contact (Ctrt2,...) ; and - a step of receiving (POllb) a result provided by this smart contact (Ctrt2,...) ; - a step of compiling (P011c) the results from said at least one smart contract (Ctrt2,...) delivering a result (Resp) that is representative of the authorization for implementing the composite resource (RC).
A secondary battery monitoring device configured to detect an abnormality of a secondary battery (C1, C2), comprising: a resistance circuit to which both ends of the secondary battery are to be connected and which is configured to output a detection voltage from an output terminal thereof; a detection circuit configured to detect the abnormality of the secondary battery, based on the detection voltage; a voltage-to-current conversion circuit to which both ends of the secondary battery are to be connected and which is configured to convert a voltage of the secondary battery to a current; a current-to-voltage conversion circuit configured to convert the current of the voltage-to-current conversion circuit to a voltage; a first current generation circuit configured to generate a first current (Ic) proportional to the voltage of the secondary battery, based on the voltage of the current-to-voltage conversion circuit; a second current generation circuit configured to generate a second current (Ir) proportional to a voltage for setting the output terminal of the resistance circuit to a failure diagnosis voltage; a current mirror circuit configured to generate a failure detection current corresponding to the first current and the second current; and a switch which permits the failure detection current to flow to the output terminal of the resistance circuit. a resistance circuit to which both ends of the secondary battery are to be connected and which is configured to output a detection voltage from an output terminal thereof; a detection circuit configured to detect the abnormality of the secondary battery, based on the detection voltage; a voltage-to-current conversion circuit to which both ends of the secondary battery are to be connected and which is configured to convert a voltage of the secondary battery to a current; a current-to-voltage conversion circuit configured to convert the current of the voltage-to-current conversion circuit to a voltage; a first current generation circuit configured to generate a first current (Ic) proportional to the voltage of the secondary battery, based on the voltage of the current-to-voltage conversion circuit; a second current generation circuit configured to generate a second current (Ir) proportional to a voltage for setting the output terminal of the resistance circuit to a failure diagnosis voltage; a current mirror circuit configured to generate a failure detection current corresponding to the first current and the second current; and a switch which permits the failure detection current to flow to the output terminal of the resistance circuit.
A personal care composition comprising: a cationic surfactant; a nonionic surfactant system comprising at least one surfactant chosen from an amine oxide and a fatty acid amide; and a structuring agent comprising polyacrylate-1 crosspolymer in an amount of 3 wt % to 7 wt % by weight of the composition. a cationic surfactant; a nonionic surfactant system comprising at least one surfactant chosen from an amine oxide and a fatty acid amide; and a structuring agent comprising polyacrylate-1 crosspolymer in an amount of 3 wt % to 7 wt % by weight of the composition.
A uromodulin polypeptide for use in prevention or therapy of vascular calcification or a disease caused by vascular calcification.
A turbo mechanism having a single-piece bearing structure with compressor side film forming holes and turbine side film forming holes , an internal channel , an axial support ring and a force support surface , which can bear axial loads along with the radial loads, wherein said mechanism comprises a single-piece bearing and a turbo body , an oil inlet feeding channel on said turbo body , an internal oil channel at the bottom of said oil inlet feeding channel which enables lubrication of the bearing , characterised in that a groove is formed by a recess on the bearing which enables transfer of oil to the compressor side film forming holes and the turbine side film forming holes on the external surface of the bearing and which extends along the external surface of said bearing , two installation recesses on the bearing which are angled at most 179.5° relative to each other and two assembly means on the turbo body which are angled at most 179.5° relative to each other. a turbo body , an oil inlet feeding channel on said turbo body , an internal oil channel at the bottom of said oil inlet feeding channel which enables lubrication of the bearing , characterised in that a groove is formed by a recess on the bearing which enables transfer of oil to the compressor side film forming holes and the turbine side film forming holes on the external surface of the bearing and which extends along the external surface of said bearing , two installation recesses on the bearing which are angled at most 179.5° relative to each other and two assembly means on the turbo body which are angled at most 179.5° relative to each other.
A crystal of 2,2'-bis(carboxymethoxy)-1,1'-binaphthyl, the crystal having an endothermic peak top temperature within a range of 215 to 220°C as measured by differential scanning calorimetry and also having an aerated bulk density within a range of 0.3 to 0.6 g/cm 3 .
Antivibration kit-of-parts configured for reducing vibration of an airfoil structure , the airfoil structure being movably attachable to an aircraft , wherein the antivibration kit-of-parts comprises: - a spring device configured for generating a spring force (F) due to deflection from a spring neutral position of the spring device ; and - a cam device configured for transforming the spring force (F) into an airfoil torque (M) while, when both the spring device and the cam device are in an operating condition, the cam device contacts the spring device , and the cam device is configured for applying the airfoil torque (M) to the airfoil structure while, when both the spring device and the cam device are in an operating condition, the cam device is operatively coupled to the airfoil structure , wherein the cam device comprises a cam device mounting portion configured for mounting the cam device to the airfoil structure and a hinge portion defining an axis of rotation (R) about which the cam device is rotatable, characterized in that the cam device comprises a lever portion that extends from the hinge portion and that is configured to contribute in transforming the spring force (F) into an airfoil torque (M), wherein the cam device comprises a head portion that is adjacent to the lever portion and spaced apart from the hinge portion via the lever portion , wherein the cam device comprises a cam that is formed on the head portion and the cam is formed on a single lateral side of the cam device and a single front side with respect to a longitudinal direction of the cam device . - a spring device configured for generating a spring force (F) due to deflection from a spring neutral position of the spring device ; and - a cam device configured for transforming the spring force (F) into an airfoil torque (M) while, when both the spring device and the cam device are in an operating condition, the cam device contacts the spring device , and the cam device is configured for applying the airfoil torque (M) to the airfoil structure while, when both the spring device and the cam device are in an operating condition, the cam device is operatively coupled to the airfoil structure , wherein the cam device comprises a cam device mounting portion configured for mounting the cam device to the airfoil structure and a hinge portion defining an axis of rotation (R) about which the cam device is rotatable,
A computer-implemented method of suggesting chemical compounds as substitutes for a chemical compound that is present in a food item, comprising: training an artificial intelligence model based on first digital data representing plurality of source chemical compounds and second digital data representing flavors and odors of the plurality of source chemical compounds, wherein the artificial intelligence model is a neural network based model including a graph neural network and a feed forward network ; applying the trained artificial intelligence model to the plurality of source chemical compounds to generate a plurality of source compound embeddings for the plurality of source chemical compounds; performing gas chromatography mass spectrometry (GCMS) analysis on the particular food item; and generating, from the GCMS analysis, a list of chemical compounds, wherein each of the chemical compounds in the list of chemical compounds is a chemical compound present in the particular food item; applying the trained artificial intelligence model to a target chemical compound to generate a target compound embedding for the target chemical compound, the target chemical compound is a chemical compound that is present in a particular food item, wherein the target chemical compound is identified from the list of chemical compounds; and determining, from the plurality of source chemical compounds, one or more alternative chemical compounds for which corresponding source compound embeddings are closest to the target compound embedding for the target chemical compound. training an artificial intelligence model based on first digital data representing plurality of source chemical compounds and second digital data representing flavors and odors of the plurality of source chemical compounds, wherein the artificial intelligence model is a neural network based model including a graph neural network and a feed forward network ; applying the trained artificial intelligence model to the plurality of source chemical compounds to generate a plurality of source compound embeddings for the plurality of source chemical compounds; performing gas chromatography mass spectrometry (GCMS) analysis on the particular food item; and generating, from the GCMS analysis, a list of chemical compounds, wherein each of the chemical compounds in the list of chemical compounds is a chemical compound present in the particular food item; applying the trained artificial intelligence model to a target chemical compound to generate a target compound embedding for the target chemical compound, the target chemical compound is a chemical compound that is present in a particular food item, wherein the target chemical compound is identified from the list of chemical compounds; and determining, from the plurality of source chemical compounds, one or more alternative chemical compounds for which corresponding source compound embeddings are closest to the target compound embedding for the target chemical compound.
Method to optimize the command and control of an electric motor of an automation unit , comprising a mechanical member , driven by a shaft of said electric motor , to carry out an operating cycle, and a central command and control unit , the automation unit comprising at least a position detection mean to detect the instantaneous angular position of said shaft of the electric motor and/or of said mechanical member , said position detection mean and said central command and control unit being connected by data connection lines , wherein said electric motor is directly connected to said mechanical member , said electric motor and said mechanical member constituting an operating unit suitable to perform at least a portion of a complete rotation of one angle of the mechanical member carrying out said operating cycle, said method comprising the following steps: i) receiving, by said central command and control unit , at least signals of the angular position of the shaft of the electric motor and/or of the mechanical member from said position detection mean via said data connection lines ; ii) dividing said operating cycle into a plurality of operating sub-phases ("n") representing equal intervals of position or time; iii) establishing, by said central command and control unit , in which operating sub-phase ("n") the operating unit is, based on signals from said position detection mean ; characterised by iv) for each of said operating sub-phases ("n"), generating and sending to the electric motor , by said central command and control unit , a value of reference current in feed forward; said value of reference current being obtained by means of self-learning techniques, or pre-memorized in tables. i) receiving, by said central command and control unit , at least signals of the angular position of the shaft of the electric motor and/or of the mechanical member from said position detection mean via said data connection lines ; ii) dividing said operating cycle into a plurality of operating sub-phases ("n") representing equal intervals of position or time; iii) establishing, by said central command and control unit , in which operating sub-phase ("n") the operating unit is, based on signals from said position detection mean ; characterised by iv) for each of said operating sub-phases ("n"), generating and sending to the electric motor , by said central command and control unit , a value of reference current in feed forward; said value of reference current being obtained by means of self-learning techniques, or pre-memorized in tables.
An electric motor assembly comprising: a primary electric motor including a primary rotor assembly and a primary stator assembly configured to be actuated to cause the primary rotor assembly to rotate based on an amount of magnetic flux in the rotor assembly; a secondary electric motor including a secondary rotor assembly and a secondary stator assembly; a controllable magnetic device coupled to at least one of the primary rotor assembly and the secondary rotor assembly; characterised by a controller configured to actuate the secondary electric motor based on a failure of the primary electric motor, and apply electric current to the controllable magnetic device to reduce back electromotive force (BEMF) caused by rotation of the primary rotor assembly during actuation of the secondary electric motor. a primary electric motor including a primary rotor assembly and a primary stator assembly configured to be actuated to cause the primary rotor assembly to rotate based on an amount of magnetic flux in the rotor assembly; a secondary electric motor including a secondary rotor assembly and a secondary stator assembly; a controllable magnetic device coupled to at least one of the primary rotor assembly and the secondary rotor assembly; characterised by a controller configured to actuate the secondary electric motor based on a failure of the primary electric motor, and apply electric current to the controllable magnetic device to reduce back electromotive force (BEMF) caused by rotation of the primary rotor assembly during actuation of the secondary electric motor.
A vehicle , comprising - a rear end , - a front end located forwardly of the rear end , - a chassis extending between the rear end and the front end , - a battery protection structure provided at the rear end of the vehicle, the battery protection structure comprising a frame portion defining an opening for housing a traction battery , the frame portion having a rear side and a front side , characterized by a projecting portion which projects forwardly from the frame portion and which is connected to the chassis at the rear end of the vehicle, wherein the projecting portion is configured to remain in a fixed connection relative to the chassis under normal operating conditions and to move forwardly along the chassis when the rear side of the frame portion is subjected to a forwardly directed impact force (F) which is greater than a threshold force. - a rear end , - a front end located forwardly of the rear end , - a chassis extending between the rear end and the front end , - a battery protection structure provided at the rear end of the vehicle, the battery protection structure comprising a frame portion defining an opening for housing a traction battery , the frame portion having a rear side and a front side , characterized by a projecting portion which projects forwardly from the frame portion and which is connected to the chassis at the rear end of the vehicle, wherein the projecting portion is configured to remain in a fixed connection relative to the chassis under normal operating conditions and to move forwardly along the chassis when the rear side of the frame portion is subjected to a forwardly directed impact force (F) which is greater than a threshold force.
A nanostructure comprising (a) a plurality of biologically-active proteins reversibly and covalently crosslinked to each other through a degradable linker and (b) polymers reversibly crosslinked through the degradable linker to proteins of the nanostructure, such that the intact, biologically-active proteins are releasable from the nanostructure under physiological conditions, wherein the degradable linker degrades in the presence of a reducing agent under physiological conditions, and wherein the nanostructure is obtainable by: (i) contacting a protein with a degradable linker under conditions that permit reversible covalent cross linking of proteins to each other through the degradable linker, thereby producing a protein nanogel; and (ii) contacting the protein nanogel with the polymers under conditions that permit crosslinking of the polymers to proteins of the nanogels, thereby producing the nanostructure, and wherein the proteins are immunostimulatory proteins selected from cytokines, growth factors, antibodies, and antigens. (i) contacting a protein with a degradable linker under conditions that permit reversible covalent cross linking of proteins to each other through the degradable linker, thereby producing a protein nanogel; and (ii) contacting the protein nanogel with the polymers under conditions that permit crosslinking of the polymers to proteins of the nanogels, thereby producing the nanostructure, and wherein the proteins are immunostimulatory proteins selected from cytokines, growth factors, antibodies, and antigens.
Bypass turbojet engine comprising a fan (S) which is driven, by means of a fan shaft which is supported by at least two first bearings , by a turbine shaft which is supported by at least one second bearing having a fixed ring and a movable ring , said turbine shaft driving said fan shaft through a device for reducing the rotational speed , said device for reducing the rotational speed and said first and second bearings being received in a lubrication vessel (E1), the casing of which comprises fixed portions and movable portions which are interconnected by sealing means , said device for reducing speed having an input wheel which is shaped so as to receive the torque transmitted by said turbine shaft by drive means which are connected to said movable ring, the lubrication vessel (E1) forms a ring which is coaxial with the turbine shaft, and said drive means have a drive ring forming a portion of the movable sealing walls of the casing of the lubrication vessel (E1),, characterised in that said movable portions of the casing of the lubrication vessel (E1) comprise the fan shaft , a downstream extension casing of said fan shaft supporting the sealing means between the fan shaft and said drive means, and said drive means .
A process for additive manufacturing an object comprising: forming a first structural layer comprising a plurality of sublayers , the first structural layer comprising a first void that extends partially through the first structural layer; forming a second structural layer comprising one or more sublayers, the second structural layer comprising a second void that extends fully through the second structural layer to a border between the first structural layer and the second structural layer, wherein the first void and the second void align to form a cross-load void across the border between the first and second structural layers; filling the cross-load void with a reinforcing material to form a cross-load member before proceeding to form a third structural layer ; and forming the third structural layer . forming a first structural layer comprising a plurality of sublayers , the first structural layer comprising a first void that extends partially through the first structural layer; forming a second structural layer comprising one or more sublayers, the second structural layer comprising a second void that extends fully through the second structural layer to a border between the first structural layer and the second structural layer, wherein the first void and the second void align to form a cross-load void across the border between the first and second structural layers; filling the cross-load void with a reinforcing material to form a cross-load member before proceeding to form a third structural layer ; and forming the third structural layer .
A composite comprising ruthenium, a support, and a metal amide compound, wherein the support is a metal oxide support of at least one metal oxide which is selected from the group consisting of ZrO 2 , TiO 2 , CeO 2 and MgO, and the metal amide compound is represented by the formula Ca(NH 2 ) 2 .