mhurhangee/ep-ind-claims huggingface dataset:
A dipped elastomeric article comprising an elastomeric film containing one or more film layers, and at least two types of particles including: (a) magnetic particles, and/or conductive particles having electrical conductivity of at least 3.0 × 10 7 S/m at 20°C, and (b) particles containing one or more high atomic mass elements with an atomic mass of at least 132, dispersed throughout at least one of said film layers. (a) magnetic particles, and/or conductive particles having electrical conductivity of at least 3.0 × 10 7 S/m at 20°C, and (b) particles containing one or more high atomic mass elements with an atomic mass of at least 132,
Jet regulator having at least one jet splitter, which splits up the inflowing stream of water, having a sleeve-shaped inner housing, which is enclosed by an outer housing, and having at least one ventilation channel, which is arranged between the inner housing and the outer housing and has at least one inlet opening and at least one through-opening that is provided on the housing circumference of the inner housing, wherein the at least one jet splitter is in the form of an atomizer nozzle, characterized in that the atomizer nozzle splits up the inflowing stream of water into a substantially hollow-conical water jet, and in that an annularly encircling impingement zone, in which the hollow-conically split-up water jet impinges on the housing inner circumference of the inner housing, is arranged underneath the at least one through-opening in the direction of flow, on the inner circumference of the inner housing.
A vortex-type mixing device for a multi-bed down-flow catalytic reactor, the mixing device comprising: a. a horizontal cover plate having an inner surface; b. a base plate extending parallel to the cover plate, the base plate having an inner surface and a base plate aperture; c. a plurality of inwardly-curved vanes extending vertically between the inner surfaces of the cover and base plates, wherein the inwardly-curved vanes are arranged to tangentially direct liquid and gas to flow in an arcuate or circular flow pattern; d. a vertical weir ring extending vertically from the base plate inner surface proximal to the base plate aperture, the weir ring having a weir ring top edge and a weir ring diameter; e. a mixing region; and f. a bubble cap extending downwardly from the inner surface of the cover plate into the mixing region, the bubble cap having a bubble cap diameter and a bottom edge, the bubble cap diameter being smaller than the weir ring diameter, the bubble cap bottom edge extending below the weir ring top edge, wherein each of the plurality of inwardly-curved vanes has a vane external end affixed proximal to an outer periphery of the cover plate and a vane internal end, the mixing region being defined by the area between opposing vane internal ends. a. a horizontal cover plate having an inner surface; b. a base plate extending parallel to the cover plate, the base plate having an inner surface and a base plate aperture; c. a plurality of inwardly-curved vanes extending vertically between the inner surfaces of the cover and base plates, wherein the inwardly-curved vanes are arranged to tangentially direct liquid and gas to flow in an arcuate or circular flow pattern; d. a vertical weir ring extending vertically from the base plate inner surface proximal to the base plate aperture, the weir ring having a weir ring top edge and a weir ring diameter; e. a mixing region; and f. a bubble cap extending downwardly from the inner surface of the cover plate into the mixing region, the bubble cap having a bubble cap diameter and a bottom edge, the bubble cap diameter being smaller than the weir ring diameter, the bubble cap bottom edge extending below the weir ring top edge,
A blood pump, comprising: a rotor within a housing; a stator for generating a rotating magnetic field for applying a torque to the rotor; a commutator circuit for providing a plurality of phase voltages to the stator; and a controller for adjusting the plurality of phase voltages provided by the commutator circuit to modify a magnetic force of the stator on the rotor to periodically move the rotor in an axial direction from a first balanced position to a second balanced position. a rotor within a housing; a stator for generating a rotating magnetic field for applying a torque to the rotor; a commutator circuit for providing a plurality of phase voltages to the stator; and a controller for adjusting the plurality of phase voltages provided by the commutator circuit to modify a magnetic force of the stator on the rotor to periodically move the rotor in an axial direction from a first balanced position to a second balanced position.
A system for guiding placement of a filter within the vasculature of a patient, the system comprising: a delivery device having a proximal end and a distal end, a distal portion of the delivery device being configured to receive the filter to be placed; an intravascular ultrasound transducer disposed at the distal end of the delivery device; an interface configured to receive input regarding a surgical procedure including an insertion site and a destination site for placing the filter according to the surgical procedure; a display; characterised by a processor programmed to: receive input from the interface regarding the surgical procedure, including the insertion site and the destination site for placing the filter according to the surgical procedure; determine anatomical landmarks between the insertion site and the destination site; display the landmarks in the display; receive an intravascular ultrasound signal from the intravascular ultrasound transducer; process the intravascular ultrasound signal into an image; and send the image to the display. a delivery device having a proximal end and a distal end, a distal portion of the delivery device being configured to receive the filter to be placed; an intravascular ultrasound transducer disposed at the distal end of the delivery device; an interface configured to receive input regarding a surgical procedure including an insertion site and a destination site for placing the filter according to the surgical procedure; a display; characterised by a processor programmed to: receive input from the interface regarding the surgical procedure, including the insertion site and the destination site for placing the filter according to the surgical procedure; determine anatomical landmarks between the insertion site and the destination site; display the landmarks in the display; receive an intravascular ultrasound signal from the intravascular ultrasound transducer; process the intravascular ultrasound signal into an image; and send the image to the display. receive input from the interface regarding the surgical procedure, including the insertion site and the destination site for placing the filter according to the surgical procedure; determine anatomical landmarks between the insertion site and the destination site; display the landmarks in the display; receive an intravascular ultrasound signal from the intravascular ultrasound transducer; process the intravascular ultrasound signal into an image; and send the image to the display.
Method for classifying data relating to a parking space for a motor vehicle by means of a mobile handheld device, wherein information about the parking space is determined in the form of meta data by the classification and is made available to a driver of the motor vehicle, by carrying out the following method steps: a) transmitting the data, which represent a potential parking area for the motor vehicle, to the mobile handheld device, wherein the mobile handheld device retrieves the data from a computing module of the motor vehicle, and b) classifying the transmitted data relating to the parking space by way of the mobile handheld device, wherein the mobile handheld device has a neural network and uses the neural network to classify the transmitted data, wherein the mobile handheld device transmits a result relating to the parking space to the computing module of the motor vehicle after classification. a) transmitting the data, which represent a potential parking area for the motor vehicle, to the mobile handheld device, wherein the mobile handheld device retrieves the data from a computing module of the motor vehicle, and b) classifying the transmitted data relating to the parking space by way of the mobile handheld device, wherein the mobile handheld device has a neural network and uses the neural network to classify the transmitted data, wherein the mobile handheld device transmits a result relating to the parking space to the computing module of the motor vehicle after classification.
An electric storage device comprising: a container; an electrode assembly contained in the container, the electrode assembly comprising a positive electrode comprising a positive electrode substrate and a positive electrode active material layer formed on the positive electrode substrate, the positive electrode active material layer containing a positive electrode active material, a negative electrode comprising a negative electrode substrate and a negative electrode active material layer formed on the negative electrode substrate, the negative electrode active material layer containing a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode, the separator having a thickness of 15 μm or more and 25 μm or less; and an electrolyte contained in the container, wherein the negative electrode active material contains at least one of hard carbon and graphite, and wherein the separator is configured such that a stress that is caused at a specific compressed depth in the separator, which corresponds to 5% of the thickness of the negative electrode active material layer, is 0.5 MPa or more and 14 MPa or less. a container; an electrode assembly contained in the container, the electrode assembly comprising a positive electrode comprising a positive electrode substrate and a positive electrode active material layer formed on the positive electrode substrate, the positive electrode active material layer containing a positive electrode active material, a negative electrode comprising a negative electrode substrate and a negative electrode active material layer formed on the negative electrode substrate, the negative electrode active material layer containing a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode, the separator having a thickness of 15 μm or more and 25 μm or less; and a positive electrode comprising a positive electrode substrate and a positive electrode active material layer formed on the positive electrode substrate, the positive electrode active material layer containing a positive electrode active material, a negative electrode comprising a negative electrode substrate and a negative electrode active material layer formed on the negative electrode substrate, the negative electrode active material layer containing a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode, the separator having a thickness of 15 μm or more and 25 μm or less; and an electrolyte contained in the container, wherein the negative electrode active material contains at least one of hard carbon and graphite, and wherein the separator is configured such that a stress that is caused at a specific compressed depth in the separator, which corresponds to 5% of the thickness of the negative electrode active material layer, is 0.5 MPa or more and 14 MPa or less.
An air conditioner comprising: a main body in which an air inhalant port and an air discharge port are formed to discharge air after inhaling air and performing air conditioning: a wind adjustment member rotatably disposed at the main body to adjust the wind of air discharged to the air discharge port; a wind adjustment member driving device for rotating the wind adjustment member; characterized in that the air conditioner furthermore comprises: a harmful insect extermination device installed in the wind adjustment member to exterminate harmful insects while changing a position according to a rotation of the wind adjustment member. a main body in which an air inhalant port and an air discharge port are formed to discharge air after inhaling air and performing air conditioning: a wind adjustment member rotatably disposed at the main body to adjust the wind of air discharged to the air discharge port; a wind adjustment member driving device for rotating the wind adjustment member; characterized in that the air conditioner furthermore comprises: a harmful insect extermination device installed in the wind adjustment member to exterminate harmful insects while changing a position according to a rotation of the wind adjustment member.
A combination therapy comprising; a) a therapeutically effective amount of a compound of formula: an enantiomer thereof or a pharmaceutically acceptable salts of any one of the same, and b) a chemotherapeutic agent or a combination of chemotherapeutic agents, for use in sensitising a human cancer patient to chemotherapy, wherein the chemotherapeutic agent is a platinum based chemotherapeutic. a) a therapeutically effective amount of a compound of formula: an enantiomer thereof or a pharmaceutically acceptable salts of any one of the same, and b) a chemotherapeutic agent or a combination of chemotherapeutic agents, for use in sensitising a human cancer patient to chemotherapy, wherein the chemotherapeutic agent is a platinum based chemotherapeutic.
A method comprising: operating a vehicle including an internal combustion engine and a controller configured to conditionally stop and re-start the internal combustion engine in response to a vehicle stop event; determining a stop event type associated with the vehicle stop event; stopping, with the controller, the internal combustion engine during the vehicle stop event with one or more nominal engine start-stop control parameters in response to a first stop event type being determined by the controller; and stopping, with the controller, the internal combustion engine during the vehicle stop event with one or more alternative engine start-stop control parameters that deviate from the one or more nominal engine start-stop control parameters in response to a second stop event type being determined by the controller, wherein at least one of a location and a payload (304, 306) associated with the second stop event type is provided as an input to the controller before the vehicle arrives at the stop event. operating a vehicle including an internal combustion engine and a controller configured to conditionally stop and re-start the internal combustion engine in response to a vehicle stop event; determining a stop event type associated with the vehicle stop event; stopping, with the controller, the internal combustion engine during the vehicle stop event with one or more nominal engine start-stop control parameters in response to a first stop event type being determined by the controller; and stopping, with the controller, the internal combustion engine during the vehicle stop event with one or more alternative engine start-stop control parameters that deviate from the one or more nominal engine start-stop control parameters in response to a second stop event type being determined by the controller, wherein at least one of a location and a payload (304, 306) associated with the second stop event type is provided as an input to the controller before the vehicle arrives at the stop event.
An active multicompartment pressure redistribution system, comprising: a plurality of containment vessels filled with a fluid substance arranged in a matrix, each containment vessel comprising multiple fluid flow channels by means of which each containment vessel is interconnected to all surrounding containment vessels; a plurality of flow regulators, each flow regulator located in each fluid flow channel; a plurality of pressure sensors, at least one pressure sensor located on each containment vessel; and a microcontroller in the matrix connected for communication with the plurality of pressure sensors and plurality of flow regulators; whereby the microcontroller activates the flow regulators in response to data received from the pressure sensors. a plurality of containment vessels filled with a fluid substance arranged in a matrix, each containment vessel comprising multiple fluid flow channels by means of which each containment vessel is interconnected to all surrounding containment vessels; a plurality of flow regulators, each flow regulator located in each fluid flow channel; a plurality of pressure sensors, at least one pressure sensor located on each containment vessel; and a microcontroller in the matrix connected for communication with the plurality of pressure sensors and plurality of flow regulators; whereby the microcontroller activates the flow regulators in response to data received from the pressure sensors.
Method for continuously treating vacuum residuals originating from the refinery of crude oil, wherein the crude oil is subjected to a first and a second distillation step), wherein the second distillation step is performed under vacuum conditions, wherein the vacuum residuals are obtained after the second distillation step, characterized in that the vacuum residuals are continuously fed into an agitated vessel, wherein the agitated vessel is a single-shaft mixer kneader, wherein the vacuum residuals are continuously fed into the single-shaft mixer kneader through at least one feed point of that single-shaft mixer kneader, wherein the shaft of the single-shaft mixer kneader is equipped with kneading elements and wherein the single-shaft mixer kneader comprises a housing which is equipped with kneading counter-elements, wherein the kneading elements and the kneading counter-elements are arranged in a co-operating fashion, wherein the housing comprises at least one vapour connection, wherein the vacuum residuals are conveyed alongside the single-shaft mixer kneader to a discharge device of the single-shaft mixer kneader, wherein the vacuum residuals in the single-shaft mixer kneader are subjected to a vacuum of 10 mbar or lower and to a temperature of at least 300°C to remove volatiles which could not be removed by the distillation steps through the at least one vapour connection, and wherein the remaining non-volatile matter is discharged through the discharge device.
A device for introducing an air flow into a submarine, comprising a first duct which is fixed relative to the hull of the submarine and a second duct which is telescopically movable relative to the first duct, for emerging from the water with its upper end and allowing the air above to be sucked in while the submarine is running at periscope depth, said first and second ducts (3, 4) being in fluid connection with air sucking means and being at least partly housed in a tower of the submarine, an aeraulic machine operating along one of said first or second ducts (3, 4), said aeraulic machine being designed to at least partly compensate for pressure losses in the air flow passing through at least said second duct, at least one sensor indicating operating parameters of said air flow, said sensor being positioned along one of either the first or the second ducts (3, 4), and control means for controlling the operating parameters of said aeraulic machine, said control means being operatable depending on a signal detected by said sensor.
A method for purifying a reclaimed polyolefin comprising: a. Obtaining the reclaimed polyolefin wherein said reclaimed polyolefin is selected from the group consisting of post-consumer use polymers, post-industrial use polymers, and combinations thereof; b. Contacting the reclaimed polyolefin at a temperature from 80°C to 220 °C and at a pressure from 1.03MPa (150 psig) to 103.43 MPA (15,000 psig) with a first fluid solvent having a standard boiling point less than 70°C, to produce an extracted reclaimed polyolefin; c. Dissolving the extracted reclaimed polyolefin in a solvent selected from the group consisting of the first fluid solvent, a second fluid solvent, and mixtures thereof, at a temperature from 90°C to 220°C and a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) to produce a polymer solution; d. Purifying said polymer solution at a temperature from 90°C to 220°C and at a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) by contacting said polymer solution with solid media to produce a purer polymer solution; and e. Separating a purer polymer from said purer polymer solution; wherein said second fluid solvent is of the same chemical composition or a different chemical composition as the first fluid solvent. a. Obtaining the reclaimed polyolefin wherein said reclaimed polyolefin is selected from the group consisting of post-consumer use polymers, post-industrial use polymers, and combinations thereof; b. Contacting the reclaimed polyolefin at a temperature from 80°C to 220 °C and at a pressure from 1.03MPa (150 psig) to 103.43 MPA (15,000 psig) with a first fluid solvent having a standard boiling point less than 70°C, to produce an extracted reclaimed polyolefin; c. Dissolving the extracted reclaimed polyolefin in a solvent selected from the group consisting of the first fluid solvent, a second fluid solvent, and mixtures thereof, at a temperature from 90°C to 220°C and a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) to produce a polymer solution; d. Purifying said polymer solution at a temperature from 90°C to 220°C and at a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) by contacting said polymer solution with solid media to produce a purer polymer solution; and e. Separating a purer polymer from said purer polymer solution;