mhurhangee/ep-ind-claims huggingface dataset:
A topical composition comprising - a component with acaricidal and biocidal activity - a physiologically acceptable cross-linked polymer, and a dermatologically acceptable carrier, characterized in that the acaricidal and biocidal component is terpinen-4-ol and the cross-linked polymer is hyaluronic acid cross-linked with urea. - a component with acaricidal and biocidal activity - a physiologically acceptable cross-linked polymer, and a dermatologically acceptable carrier,
- High-power pulse generator comprising: - a first series of power modules, named standard modules, each comprising a switch, named standard switch, provided with a trigger electrode, positioned in series with at least one capacitor with a first capacitance value, said standard modules being designed to produce a pulse at a first frequency when said switch is closed; - a second series of power modules, named modified modules, each comprising a switch, named modified switch, provided with a trigger electrode, positioned in series with at least one capacitor with a second capacitance value, said modified modules being designed to produce a pulse at a second frequency when said switch is closed, said second frequency being substantially three times that of the first frequency; - a central core comprising a magnetic core that comprises at least one ferromagnetic ring designed to add the pulses produced by said standard and modified modules in a load concentric to said ring(s) and to obtain a substantially quadrangular shaped resulting pulse comprising a rising edge, a plateau and a falling edge; - a trigger device designed to control said standard and modified switches (6s; 6m) by a trigger signal applied to their trigger electrode (9s; 9m), said generator being characterised in that said trigger signal is applied to said switches through a trigger impedance (10m; 10s) connected to the trigger electrode of the switch, with the trigger impedance of said modified switches, named modified impedance, being distinct from the trigger impedance of said standard switches, named standard impedance, and in that a slope of the pulse plateau depends on the difference between the value of said standard impedance and that of said modified impedance. - a first series of power modules, named standard modules, each comprising a switch, named standard switch, provided with a trigger electrode, positioned in series with at least one capacitor with a first capacitance value, said standard modules being designed to produce a pulse at a first frequency when said switch is closed; - a second series of power modules, named modified modules, each comprising a switch, named modified switch, provided with a trigger electrode, positioned in series with at least one capacitor with a second capacitance value, said modified modules being designed to produce a pulse at a second frequency when said switch is closed, said second frequency being substantially three times that of the first frequency; - a central core comprising a magnetic core that comprises at least one ferromagnetic ring designed to add the pulses produced by said standard and modified modules in a load concentric to said ring(s) and to obtain a substantially quadrangular shaped resulting pulse comprising a rising edge, a plateau and a falling edge; - a trigger device designed to control said standard and modified switches (6s; 6m) by a trigger signal applied to their trigger electrode (9s; 9m),
Aircraft gas-turbine having an oil tank with a breather outlet tube branching off from an upper area of the oil tank and connecting to a breather and with a connecting tube joining a bottom area of the oil tank, characterized in that in the upper area of the oil tank an air guide tube which is open at both ends is arranged, with the air guide tube protruding into the breather outlet tube and extending towards a center area of the oil tank.
A method for treating a sludge in a continuous process comprising the steps of: (a) conditioning the sludge so as to make the sludge pumpable, wherein the conditioned sludge comprises from 14% to 40% solids; (b) adding the conditioned sludge to a pressure vessel; (c) adding concentrated acid and an ammonia separately to the conditioned sludge forming a mix, so that the conditioned sludge is incompletely ammoniated; (d) maintaining the mix in a stress condition for a retention period, wherein the stress condition sterilizes the mix and comprises a temperature that exceeds 85°C and an increase in pressure that exceeds 206.8 kPa (30 psi); and treating the mix after the retention period with ammonia to complete ammoniation thereby forming an ammonium salt. (a) conditioning the sludge so as to make the sludge pumpable, wherein the conditioned sludge comprises from 14% to 40% solids; (b) adding the conditioned sludge to a pressure vessel; (c) adding concentrated acid and an ammonia separately to the conditioned sludge forming a mix, so that the conditioned sludge is incompletely ammoniated; (d) maintaining the mix in a stress condition for a retention period, wherein the stress condition sterilizes the mix and comprises a temperature that exceeds 85°C and an increase in pressure that exceeds 206.8 kPa (30 psi); and
A protocol transmitter for protecting signals exchanged between a card reader and a contactless smartcard, comprising: a transmit circuit configured to: receive a first frequency used by the card reader and a sub-carrier frequency used by the a contactless smartcard; generate a blocking signal having the first frequency used by the card reader to communicate with the contactless smartcard; simulate data from the card reader by amplitude modulating the blocking signal during a first interval; and simulate data from the contactless smartcard during a second interval by modulating the blocking signal at the sub-carrier frequency used by the contactless smartcard to communicate with the card reader; a processor coupled to the transmit circuit and configured to modulate the blocking signal to simulate a data exchange between the card reader and the contactless smartcard according to a communication protocol of the contactless smartcard; and a first antenna (240, 310a) disposed a predetermined distance from the card reader and coupled to the transmit circuit so as to radiate the blocking signal. a transmit circuit configured to: receive a first frequency used by the card reader and a sub-carrier frequency used by the a contactless smartcard; generate a blocking signal having the first frequency used by the card reader to communicate with the contactless smartcard; simulate data from the card reader by amplitude modulating the blocking signal during a first interval; and simulate data from the contactless smartcard during a second interval by modulating the blocking signal at the sub-carrier frequency used by the contactless smartcard to communicate with the card reader; a processor coupled to the transmit circuit and configured to modulate the blocking signal to simulate a data exchange between the card reader and the contactless smartcard according to a communication protocol of the contactless smartcard; and a first antenna (240, 310a) disposed a predetermined distance from the card reader and coupled to the transmit circuit so as to radiate the blocking signal. receive a first frequency used by the card reader and a sub-carrier frequency used by the a contactless smartcard; generate a blocking signal having the first frequency used by the card reader to communicate with the contactless smartcard; simulate data from the card reader by amplitude modulating the blocking signal during a first interval; and simulate data from the contactless smartcard during a second interval by modulating the blocking signal at the sub-carrier frequency used by the contactless smartcard to communicate with the card reader; a processor coupled to the transmit circuit and configured to modulate the blocking signal to simulate a data exchange between the card reader and the contactless smartcard according to a communication protocol of the contactless smartcard; and a first antenna (240, 310a) disposed a predetermined distance from the card reader and coupled to the transmit circuit so as to radiate the blocking signal.
A smoke or air diluter device for mounting or integration in or on chimney stacks or ventilation systems for dilution, ejection and dissipation of high-temperature flue gas or contaminated air, consisting of a pipe that has an inlet for hot contaminated air, and an inlet for atmospheric air as cooling air for a motor, and wherein the pipe has an outlet for the mixture of said atmospheric air and said hot contaminated air, the device further comprising: a cooling unit with a ventilator part, comprising the motor arranged in a motor space delimited by an interior cooling cup, within the pipe, and having a ventilator medium on an output shaft for movement of said air mixture, and a cooling medium for movement of cooling air from the surroundings to the motor space and onwards, characterised in that the interior cooling cup is further surrounded by an exterior cooling cup for forming an independently cooled heat protection space, in which cooling air passes through and out to said air mixture and which, in operation, does not allow ingress of high-temperature smoke, gas or particles, and in which the cooling medium is arranged.
A curable composition, comprising: a curable resin and a magnetic body, wherein the magnetic body comprises magnetic particles and a surface treatment agent introduced into the surface of the magnetic particles, wherein the curable composition has dielectric breakdown strength of 10 kV/mm or more, or the curable composition forms a cured product having dielectric breakdown strength of 10 kV/mm or more, the measurement of the breakdown strength is made according to ASTM D149 and wherein the curable composition comprises 0.01 to 60 parts by weight of the magnetic body relative to 100 parts by weight of the curable resin. a curable resin and a magnetic body, wherein the magnetic body comprises magnetic particles and a surface treatment agent introduced into the surface of the magnetic particles, wherein the curable composition has dielectric breakdown strength of 10 kV/mm or more, or the curable composition forms a cured product having dielectric breakdown strength of 10 kV/mm or more, the measurement of the breakdown strength is made according to ASTM D149 and wherein the curable composition comprises 0.01 to 60 parts by weight of the magnetic body relative to 100 parts by weight of the curable resin. wherein the magnetic body comprises magnetic particles and a surface treatment agent introduced into the surface of the magnetic particles, wherein the curable composition has dielectric breakdown strength of 10 kV/mm or more, or the curable composition forms a cured product having dielectric breakdown strength of 10 kV/mm or more, the measurement of the breakdown strength is made according to ASTM D149 and wherein the curable composition comprises 0.01 to 60 parts by weight of the magnetic body relative to 100 parts by weight of the curable resin.
A ship propulsion device comprising: a main engine that is provided with a turbocharger and configured to drive a propulsion propeller of a ship; a gas turbine that is configured to be driven by exhaust gas from the main engine; a turbine generator that is configured to be driven by the gas turbine; and a power-assist motor that is configured to assist propulsion of the ship and is configured to be driven depending on a surplus power amount that is the difference between the amount of power generated by the turbine generator and the amount of power required by ship equipment, a gas turbine control valve that is configured to control a bleed exhaust gas flow to the gas turbine of the exhaust gas from the main engine and to be fully opened unless the scavenging pressure of the main engine falls more than needed; and a valve opening degree control device that is configured to control a valve opening degree of the gas turbine control valve, the valve opening degree control device including a totaling unit, a comparing unit, and a valve opening degree computing unit, wherein the valve opening degree control device is configured to reduce said bleed exhaust gas flow of exhaust gas to the gas turbine by controlling the gas turbine control valve in a direction in which the valve opening degree of the gas turbine control valve is closed, when the power consumption amount of the power-assist motor arrives at a preset power amount and the amount of said generated power exceeds the total of said power consumption amount of the power-assist motor and said required power amount of the ship equipment. a main engine that is provided with a turbocharger and configured to drive a propulsion propeller of a ship; a gas turbine that is configured to be driven by exhaust gas from the main engine; a turbine generator that is configured to be driven by the gas turbine; and a power-assist motor that is configured to assist propulsion of the ship and is configured to be driven depending on a surplus power amount that is the difference between the amount of power generated by the turbine generator and the amount of power required by ship equipment, a gas turbine control valve that is configured to control a bleed exhaust gas flow to the gas turbine of the exhaust gas from the main engine and to be fully opened unless the scavenging pressure of the main engine falls more than needed; and a valve opening degree control device that is configured to control a valve opening degree of the gas turbine control valve, the valve opening degree control device including a totaling unit, a comparing unit, and a valve opening degree computing unit, wherein the valve opening degree control device is configured to reduce said bleed exhaust gas flow of exhaust gas to the gas turbine by controlling the gas turbine control valve in a direction in which the valve opening degree of the gas turbine control valve is closed, when the power consumption amount of the power-assist motor arrives at a preset power amount and the amount of said generated power exceeds the total of said power consumption amount of the power-assist motor and said required power amount of the ship equipment.
Use of a fabric softening composition: i) during a rinse stage of a first fabric treatment process; or ii) directly applied to a fabric to reduce airborne fibers release during a subsequent treatment of the fabric in a vented tumble dryer. i) during a rinse stage of a first fabric treatment process; or ii) directly applied to a fabric
A method for virtual pairing of a first peer device with a second peer device, comprising: generating a nonce at the first peer device for use in virtually pairing the first and second peer devices to establish a first-type wireless connection, wherein the first-type wireless connection has first-type transmission characteristics; forwarding the nonce from the first peer device to the second peer device over an already established second-type wireless connection between the first and second peer devices, wherein the second-type wireless connection has second-type transmission characteristics; generating at least one new key from the nonce and a shared key for the already established second-type wireless connection; and virtually pairing the first peer device with the second peer device using the at least one new key to establish the first-type wireless connection between the first and second peer devices, when the first-type transmission characteristics are more favorable than the second-type transmission characteristics. generating a nonce at the first peer device for use in virtually pairing the first and second peer devices to establish a first-type wireless connection, wherein the first-type wireless connection has first-type transmission characteristics; forwarding the nonce from the first peer device to the second peer device over an already established second-type wireless connection between the first and second peer devices, wherein the second-type wireless connection has second-type transmission characteristics; generating at least one new key from the nonce and a shared key for the already established second-type wireless connection; and virtually pairing the first peer device with the second peer device using the at least one new key to establish the first-type wireless connection between the first and second peer devices, when the first-type transmission characteristics are more favorable than the second-type transmission characteristics.
A telescope comprising a fastener plate, a primary mirror carried by a front face of the plate, and a secondary mirror held facing the primary mirror by a support, the telescope being of Cassegrain type and characterized in that the plate has a rear surface including positioning references for positioning the telescope relative to an image capture device arranged facing the rear face, the positioning references being obtained by optical quality machining, and they comprise a face perpendicular to the optical axis of the telescope in order to form a tilt reference, a central bore in order to form a centering reference, and a concave surface in the form of a spherical cap having a center on the optical axis in order to define a distance for the image capture device relative to the secondary mirror.
A computer-implemented method comprising: receiving a communication intended for a RESTful web server, the communication being associated with a plurality of operations that are to be performed by a web service implemented by the RESTful web server; responsive to said receiving, initiating a distributed agreement protocol with multiple nodes, each node corresponding to a RESTful web server; utilizing the distributed agreement protocol to arrive at a consensus, relative to the plurality of operations, among the nodes; and performing the plurality of operations, characterized in that each node comprises a reverse proxy, the receiving and utilizing the distributed agreement protocol are performed by the reverse proxy component at each node, the consensus is a consensus regarding the ordering of operations in the plurality of operations that is to be performed, and wherein performing the plurality of operations comprises executing the operations in the agreed-upon order. receiving a communication intended for a RESTful web server, the communication being associated with a plurality of operations that are to be performed by a web service implemented by the RESTful web server; responsive to said receiving, initiating a distributed agreement protocol with multiple nodes, each node corresponding to a RESTful web server; utilizing the distributed agreement protocol to arrive at a consensus, relative to the plurality of operations, among the nodes; and performing the plurality of operations, characterized in that each node comprises a reverse proxy, the receiving and utilizing the distributed agreement protocol are performed by the reverse proxy component at each node, the consensus is a consensus regarding the ordering of operations in the plurality of operations that is to be performed, and wherein performing the plurality of operations comprises executing the operations in the agreed-upon order.
A stethoscope, comprising: a housing having a first surface and a second surface, wherein the first surface defines a first groove on a first side of the housing and a second groove on a second side of the housing; a controller; a photoplethysmogram sensor assembly operably coupled to the housing and configured to obtain and push photoplethysmogram data to the controller, the photoplethysmogram sensor assembly including: a first optical sensor operably coupled to the housing within the first groove; and a second optical sensor operably coupled to the housing within the second groove; a phonocardiogram sensor coupled to the second surface of the housing and configured to obtain and push phonocardiogram data to the controller; an electrocardiogram sensor assembly coupled to the housing, wherein the electrocardiogram sensor assembly includes a first electrode disposed in the first groove and a second electrode disposed in the second groove, wherein the electrocardiogram sensor assembly is configured to obtain electrocardiogram data and send the electrocardiogram data to the controller; and a power supply configured to provide an electric current to be applied by the first electrode and detected by the second electrode, wherein the controller is configured to determine an impedance signal based on a variance in the electric current detected by the second electrode. a housing having a first surface and a second surface, wherein the first surface defines a first groove on a first side of the housing and a second groove on a second side of the housing; a controller; a photoplethysmogram sensor assembly operably coupled to the housing and configured to obtain and push photoplethysmogram data to the controller, the photoplethysmogram sensor assembly including: a first optical sensor operably coupled to the housing within the first groove; and a second optical sensor operably coupled to the housing within the second groove; a first optical sensor operably coupled to the housing within the first groove; and a second optical sensor operably coupled to the housing within the second groove; a phonocardiogram sensor coupled to the second surface of the housing and configured to obtain and push phonocardiogram data to the controller; an electrocardiogram sensor assembly coupled to the housing, wherein the electrocardiogram sensor assembly includes a first electrode disposed in the first groove and a second electrode disposed in the second groove, wherein the electrocardiogram sensor assembly is configured to obtain electrocardiogram data and send the electrocardiogram data to the controller; and a power supply configured to provide an electric current to be applied by the first electrode and detected by the second electrode, wherein the controller is configured to determine an impedance signal based on a variance in the electric current detected by the second electrode.
A method performed by a source node in a cellular telecommunications network, for establishing a requested connection between the source node (61, 69) and a destination node (63, 71) in the cellular telecommunications network, the method comprising: generating a source application identifier for the connection within the source node (61, 69) wherein said source application identifier is configured to uniquely identify user equipment (3, 89, 91) associated with said source node (61, 69) over an S1 interface within an eNB, or over an S1 interface within an MME, or over an X2 interface within a source eNB between said source node and said destination node; retrieving a source node identifier for the source node (61, 69); and transmitting the source application identifier and the source node identifier to the destination node (63, 71) to provide a source connection identifier for the requested connection between the source node (61, 69) and the destination node (63, 71). generating a source application identifier for the connection within the source node (61, 69) wherein said source application identifier is configured to uniquely identify user equipment (3, 89, 91) associated with said source node (61, 69) over an S1 interface within an eNB, or over an S1 interface within an MME, or over an X2 interface within a source eNB between said source node and said destination node; retrieving a source node identifier for the source node (61, 69); and transmitting the source application identifier and the source node identifier to the destination node (63, 71) to provide a source connection identifier for the requested connection between the source node (61, 69) and the destination node (63, 71).