mhurhangee/ep-ind-claims huggingface dataset:
A nozzle for projecting fire fighting foam in a substantially focused stream, comprising: a nozzle structured for projecting at least 0.38 m 3 /minute (100 gpm) aerated foam at 689476 Pa (100 psi); the nozzle having a tip portion defining a longitudinal axis and terminating in a solid bore discharge orifice, the tip portion having a stream shaper; the stream shaper having at least four fins with a longitudinal dimension greater than a radial dimension, the fins terminating flush with the nozzle tip discharge orifice. a nozzle structured for projecting at least 0.38 m 3 /minute (100 gpm) aerated foam at 689476 Pa (100 psi); the nozzle having a tip portion defining a longitudinal axis and terminating in a solid bore discharge orifice, the tip portion having a stream shaper; the stream shaper having at least four fins with a longitudinal dimension greater than a radial dimension, the fins terminating flush with the nozzle tip discharge orifice.
A semiconductor structure, characterized by comprising: a substrate; a first transistor, comprising a first channel region located in the substrate; a second transistor, comprising a second channel region located in the substrate, and the first transistor and the second transistor having a common source or a common drain; and a memory cell, connected to the common source or the common drain characterised by the second channel region having an area different from an area of the first channel region. a substrate; a first transistor, comprising a first channel region located in the substrate; a second transistor, comprising a second channel region located in the substrate, and the first transistor and the second transistor having a common source or a common drain; and a memory cell, connected to the common source or the common drain
Wiper device, in particular windscreen wiper device, having a nozzle unit, wherein at least one covering element which is provided for at least partially covering the nozzle unit in a mounted state in at least one covering direction, characterized in that a wiper arm adapter is provided which is provided for releasably connecting a wiper blade to a wiper arm and which at least partially surrounds the covering element, wherein the nozzle unit has at least one first coupling element, which is provided for coupling to the wiper arm adapter, and at least one second coupling element, which is provided for coupling to a further component.
A computer-implemented method of modeling fluids in a simulation of fluid production in a multi-reservoir system with a common surface network, the method comprising: determining pressure-volume-temperature data for fluids in each of a plurality of reservoirs coupled to the common surface network; generating a shared equation of state characterization representing each of the fluids across the plurality of reservoirs, based on the corresponding PVT data for the fluids in each reservoir, comprising defining a common set of light components with identical EOS properties for use by all fluid characterizations and defining a C7+ characterization for the C7+ range of fluid components in each of the plurality of reservoirs, the C7+ characterizations comprising at least one unique component that is different from other fluids, further comprising determining a common set of components for the C7+ range of fluid components; calculating data representing properties of the fluids in each reservoir, based on the shared EOS characterization of the fluids, including applying component mixing rules to determine the composition and properties of the components; determining whether or not the calculated data matches the PVT data associated with the fluids in each reservoir; and when the calculated data is determined not to match the PVT data, adjusting the shared EOS characterization based on a difference between the calculated data and the PVT data. determining pressure-volume-temperature data for fluids in each of a plurality of reservoirs coupled to the common surface network; generating a shared equation of state characterization representing each of the fluids across the plurality of reservoirs, based on the corresponding PVT data for the fluids in each reservoir, comprising defining a common set of light components with identical EOS properties for use by all fluid characterizations and defining a C7+ characterization for the C7+ range of fluid components in each of the plurality of reservoirs, the C7+ characterizations comprising at least one unique component that is different from other fluids, further comprising determining a common set of components for the C7+ range of fluid components; calculating data representing properties of the fluids in each reservoir, based on the shared EOS characterization of the fluids, including applying component mixing rules to determine the composition and properties of the components; determining whether or not the calculated data matches the PVT data associated with the fluids in each reservoir; and when the calculated data is determined not to match the PVT data, adjusting the shared EOS characterization based on a difference between the calculated data and the PVT data.
An organic light-emitting diode, OLED, display panel, comprising a cover and a backplane which are cell-assembled, a plurality of color filter units, auxiliary electrodes, a planarization layer, a plurality of spacers and a transparent electrode layer, wherein the plurality of color filter units are arranged in an array on the cover; the auxiliary electrodes are filled into gaps among the CF units; the auxiliary electrodes comprise a black matrix, BM,, a buffer layer and a metal layer which are sequentially disposed on the cover; the planarization layer is disposed on the auxiliary electrodes and the CF units; the plurality of spacers are disposed on the planarization layer at the locations corresponding to the auxiliary electrodes, and abut against and support the cover and the backplane; characterized by: the auxiliary electrodes being auxiliary cathodes; a plurality of openings disposed in the planarization layer at locations corresponding to the auxiliary cathodes; and the transparent electrode layer disposed on the planarization layer and the spacers and is electrically communicated with the auxiliary electrodes via at least a part of the openings, and the plurality of color filter units of the cover are oppositely arranged to pixel regions of the backplane. the plurality of color filter units are arranged in an array on the cover; the auxiliary electrodes are filled into gaps among the CF units; the auxiliary electrodes comprise a black matrix, BM,, a buffer layer and a metal layer which are sequentially disposed on the cover; the planarization layer is disposed on the auxiliary electrodes and the CF units; the plurality of spacers are disposed on the planarization layer at the locations corresponding to the auxiliary electrodes, and abut against and support the cover and the backplane; characterized by: the auxiliary electrodes being auxiliary cathodes; a plurality of openings disposed in the planarization layer at locations corresponding to the auxiliary cathodes; and the transparent electrode layer disposed on the planarization layer and the spacers and is electrically communicated with the auxiliary electrodes via at least a part of the openings, and the plurality of color filter units of the cover are oppositely arranged to pixel regions of the backplane. the auxiliary electrodes being auxiliary cathodes; a plurality of openings disposed in the planarization layer at locations corresponding to the auxiliary cathodes; and the transparent electrode layer disposed on the planarization layer and the spacers and is electrically communicated with the auxiliary electrodes via at least a part of the openings, and the plurality of color filter units of the cover are oppositely arranged to pixel regions of the backplane.
A method implemented by an authorization verification service of a service layer, the method comprising: receiving, from a device, a request to access at least one of data or a service made available by the service layer; determining an authorization policy associated with the at least one of the data or service made available by the service layer; determining one or more context aware states associated with the authorization policy, wherein the one or more context aware states comprise an indication of one or more conditions for accessing the at least one of the data or service made available by the service layer, and wherein the one or more conditions comprise a number of allowed accesses to the at least one of the data or service made available by the service layer; determining whether the one or more conditions associated with the one or more context aware states are valid; and granting, to the device and based on determining that the one or more conditions associated with the one or more context aware states are valid, access to the at least one of the data or service made available by the service layer. receiving, from a device, a request to access at least one of data or a service made available by the service layer; determining an authorization policy associated with the at least one of the data or service made available by the service layer; determining one or more context aware states associated with the authorization policy, wherein the one or more context aware states comprise an indication of one or more conditions for accessing the at least one of the data or service made available by the service layer, and wherein the one or more conditions comprise a number of allowed accesses to the at least one of the data or service made available by the service layer; determining whether the one or more conditions associated with the one or more context aware states are valid; and granting, to the device and based on determining that the one or more conditions associated with the one or more context aware states are valid, access to the at least one of the data or service made available by the service layer.
An apparatus comprising: a first substrate having one or more microelectromechanical systems coupled thereto; and a second substrate coupled with the first substrate, the second substrate having one or more components coupled thereto, wherein a sealed chamber is defined between the first and second substrates and has therein the one or more microelectromechanical systems and the one or more components that are coupled with the second substrate; characterised in that the substrates each comprise a singulated die, in that the one or more microelectromechanical systems are fabricated on the first substrate, in that the one or more components coupled to the second substrate comprise one or more passive components fabricated on the second substrate, and in that the apparatus further comprises one or more interconnects within the chamber that connect the first substrate with the second substrate. a first substrate having one or more microelectromechanical systems coupled thereto; and a second substrate coupled with the first substrate, the second substrate having one or more components coupled thereto, wherein a sealed chamber is defined between the first and second substrates and has therein the one or more microelectromechanical systems and the one or more components that are coupled with the second substrate; characterised in that the substrates each comprise a singulated die, in that the one or more microelectromechanical systems are fabricated on the first substrate, in that the one or more components coupled to the second substrate comprise one or more passive components fabricated on the second substrate, and in that the apparatus further comprises one or more interconnects within the chamber that connect the first substrate with the second substrate.
A method for robotically cleaning an array of peeler inserts arranged in parallel in the roller-formed channels of a roller-type peeling machine, comprising: a) advancing a robotically positionable cleaning tool along the length of a first insert to clean the first insert; b) translating the cleaning tool to a second insert; c) advancing the cleaning tool along the length of the second insert to clean the second insert; and d) repeating steps (b) and (c) for third and subsequent inserts until all inserts have been cleaned. a) advancing a robotically positionable cleaning tool along the length of a first insert to clean the first insert; b) translating the cleaning tool to a second insert; c) advancing the cleaning tool along the length of the second insert to clean the second insert; and d) repeating steps (b) and (c) for third and subsequent inserts until all inserts have been cleaned.
A pipette (10c...e), comprising - a guide tube (20c...e), - a piston inserted displaceably in the guide tube (20c...e), - an actuating arrangement (42c...e) for exerting a force on the piston in order to displace the piston in the guide tube (20c...e), - a chamber (28, 30) for accommodating a medium to be metered, the medium to be metered being aspiratable or dispensable in accordance with displacement of the piston, wherein the actuating arrangement (40; 40a; 42; 42c...e) is designed for magnetic interaction with the piston (24; 24a; 24b; 24c) and has a magnetic field generating device for generating a magnetic field, and wherein the pipette (10; 10a...e) comprises a control device for controlling the size and/or position and/or direction of the magnetic field, characterized in that the piston comprises a permanent magnet, in that the pipette comprises a position detector providing a detection value indicating the movement or the position of the piston (24; 24a; 24b; 24c) for controlling the piston position and in that the control device is adapted for controlling the piston position by feeding back the detection value indicating the movement or the position of the piston (24; 24a; 24b; 24c). - a guide tube (20c...e), - a piston inserted displaceably in the guide tube (20c...e), - an actuating arrangement (42c...e) for exerting a force on the piston in order to displace the piston in the guide tube (20c...e), - a chamber (28, 30) for accommodating a medium to be metered, the medium to be metered being aspiratable or dispensable in accordance with displacement of the piston,
A method, comprising: providing, by a device and to a network device (220-1,..., 220-N), a subscribe request that includes a request for sensor data based on an event; receiving, by the device and based on the subscribe request, sensor data packets, wherein each of the sensor data packets includes: the sensor data associated with one or more elements of the network device, and a header extension identifying a respective group identifier for a respective group of sensor data and final packet information indicating whether the sensor data packet is a final one for the respective group; storing, by the device, the sensor data packets until the final packet information of one of the sensor data packets indicates that the one of the sensor data packets is a final sensor data packet for the respective group of sensor data; identifying, by the device, a complete set of the sensor data packets when the final packet information of the one of the sensor data packets indicates that the one of the sensor data packets is the final sensor data packet for the respective group of sensor data; and performing, by the device, one or more actions based on the complete set of the sensor data packets. providing, by a device and to a network device (220-1,..., 220-N), a subscribe request that includes a request for sensor data based on an event; receiving, by the device and based on the subscribe request, sensor data packets, wherein each of the sensor data packets includes: the sensor data associated with one or more elements of the network device, and a header extension identifying a respective group identifier for a respective group of sensor data and final packet information indicating whether the sensor data packet is a final one for the respective group; the sensor data associated with one or more elements of the network device, and a header extension identifying a respective group identifier for a respective group of sensor data and final packet information indicating whether the sensor data packet is a final one for the respective group; storing, by the device, the sensor data packets until the final packet information of one of the sensor data packets indicates that the one of the sensor data packets is a final sensor data packet for the respective group of sensor data; identifying, by the device, a complete set of the sensor data packets when the final packet information of the one of the sensor data packets indicates that the one of the sensor data packets is the final sensor data packet for the respective group of sensor data; and performing, by the device, one or more actions based on the complete set of the sensor data packets.
Driver circuit for lighting sources (D1-D6), in particular LEDs, comprising: - a positive power supply terminal connectable to the positive pole of a direct voltage power supply generator (V bat) and a negative terminal connectable to the negative pole of said generator; - a plurality of lighting branches (A, B, C) connected in parallel between said power supply terminals, each of said plurality of lighting branches comprising one or more lighting sources (D1,D2; D3,D4; D5,D6) connected in series to each other and being supplied by a respective branch driving current, - a plurality of lighting transistors (T LEDA, T LEDB, T LEDC) each able to operate in a linear zone functioning state and in a saturation functioning state, each configured for driving said branch driving current of the respective lighting branch by means of a driving voltage (V ref) applied to each of the bases of the lighting transistors and - control means for controlling said lighting transistors; characterised in that said control means are configured for detecting the saturation functioning state, or a commutation from the linear zone functioning state to the saturation functioning state, by any one of the lighting transistors and, in response to such detection, for reducing the driving voltage of all the lighting transistors so as to force said lighting transistors to operate in the linear zone functioning state. - a positive power supply terminal connectable to the positive pole of a direct voltage power supply generator (V bat) and a negative terminal connectable to the negative pole of said generator; - a plurality of lighting branches (A, B, C) connected in parallel between said power supply terminals, each of said plurality of lighting branches comprising one or more lighting sources (D1,D2; D3,D4; D5,D6) connected in series to each other and being supplied by a respective branch driving current, - a plurality of lighting transistors (T LEDA, T LEDB, T LEDC) each able to operate in a linear zone functioning state and in a saturation functioning state, each configured for driving said branch driving current of the respective lighting branch by means of a driving voltage (V ref) applied to each of the bases of the lighting transistors and - control means for controlling said lighting transistors; characterised in that said control means are configured for detecting the saturation functioning state, or a commutation from the linear zone functioning state to the saturation functioning state, by any one of the lighting transistors and, in response to such detection, for reducing the driving voltage of all the lighting transistors so as to force said lighting transistors to operate in the linear zone functioning state.
In an HPF part wherein a hot dip aluminum plating layer is formed on the surface of a base steel sheet, an HPF part having excellent bending properties, the base steel sheet comprises C: 0.18% to 0.25%, Si: 0.1% to 0.5%, Mn: 0.9% to 1.5%, P: 0.03% or less, S: 0.01% or less, Al: 0.01% to 0.05%, Cr: 0.05% to 0.5%, Ti: 0.01% to 0.05%, B: 0.001% to 0.005%, N: 0.009% or less, a balance of Fe and other impurities by wt%, the base steel sheet further optionally comprising Mo + W: 0.001% to 0.5%; at least one of Nb, Zr and V: within a range of 0.001% to 0.4% as the sum; Cu + Ni: within a range of 0.005% to 2.0%; and at least one of Sb, Sn and Bi: 0.03% or less; a ferrite phase is continuously or discontinuously formed on the surface of the base steel sheet to a thickness of 50 μm or thinner, and a percentage of a ferrite phase in the surface is 5% or less, and the balance phase of martensite; and carbide particles having a size of 1 μm or smaller are dispersively distributed in the surface of the base steel sheet so as to occupy 90% or greater in overall carbide particle distribution.
A mantle (1, 1b) for a gyratory or cone crusher, the crusher comprising a frame provided with a bowl as a first crushing shell, and a crusher head provided with the mantle (1, 1b) as a second crushing shell, wherein the mantle (1, 1b) and bowl define a crushing gap between them, wherein the mantle (1, 1b) comprises a central axis, a first end and a second end along the central axis, and an outer peripheral surface defined by a generatrix rotating around the central axis, the outer peripheral surface constituting a crushing surface of the mantle (1, 1b), and an outer diameter of the mantle (1, 1b) being larger at the second end than at the first end of the mantle (1, 1b), wherein one or more cavities for receiving wear resistant inserts are formed in the crushing surface, and/or one or more wear resistant inserts are bonded to or into the crushing surface, characterized in that one or more grooves are formed in the crushing surface at the second end of the mantle (1,1b). the crusher comprising a frame provided with a bowl as a first crushing shell, and a crusher head provided with the mantle (1, 1b) as a second crushing shell, wherein the mantle (1, 1b) and bowl define a crushing gap between them, wherein the mantle (1, 1b) comprises a central axis, a first end and a second end along the central axis, and an outer peripheral surface defined by a generatrix rotating around the central axis, the outer peripheral surface constituting a crushing surface of the mantle (1, 1b), and an outer diameter of the mantle (1, 1b) being larger at the second end than at the first end of the mantle (1, 1b), wherein one or more cavities for receiving wear resistant inserts are formed in the crushing surface, and/or one or more wear resistant inserts are bonded to or into the crushing surface, characterized in that one or more grooves are formed in the crushing surface at the second end of the mantle (1,1b).
Electric machine, in particular for driving a motor vehicle, having a hollow shaft and having at least one rotor which is arranged on the hollow shaft and having at least one fixed stator which is arranged around the rotor, wherein at least one means for delivering a cooling fluid, in particular air, through the hollow shaft is provided in order to cool the rotor, characterized in that the means is formed or fastened on an inner side of the hollow shaft and is designed as blades, a thread or a worm.