mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: using communication circuitry to drive, on a first occasion, a transition of an electrical parameter (I, V) from a first value (I 1, V 1) to a second value (I 2, V 2) on an electrical interface; determining feedback information from the transition of the electrical parameter (I, V) on the electrical interface on the first occasion; using the feedback information to determine how to change the power output of the communication circuitry in order to achieve, on a second occasion subsequent to the first occasion, a transition of the electrical parameter from the first value to the second value on the electrical interface within a threshold time period (Δt f); and controlling the power output of the communication circuitry to achieve, on the second occasion, the transition of the electrical parameter from the first value to the second value on the electrical interface within the threshold time period. using communication circuitry to drive, on a first occasion, a transition of an electrical parameter (I, V) from a first value (I 1, V 1) to a second value (I 2, V 2) on an electrical interface; determining feedback information from the transition of the electrical parameter (I, V) on the electrical interface on the first occasion; using the feedback information to determine how to change the power output of the communication circuitry in order to achieve, on a second occasion subsequent to the first occasion, a transition of the electrical parameter from the first value to the second value on the electrical interface within a threshold time period (Δt f); and controlling the power output of the communication circuitry to achieve, on the second occasion, the transition of the electrical parameter from the first value to the second value on the electrical interface within the threshold time period.
Centrifuge comprising a rotatable rotor and an assembly which is stationary during operation, wherein the rotatable rotor is rotatably mounted in or on the stationary assembly by means of one or more bearing devices, wherein the rotatable rotor comprises a rotatable drum and a drive element for rotating the drum, wherein a disc pack is arranged in the drum, which has a stack of separating discs and wherein the drum comprises an inlet and at least two different outlets (105, 106), as well as one or more electrical loads arranged on or in the rotor, characterized in that at least one battery for supplying the at least one load or the plurality of loads with electrical power is further arranged on or in the rotor, wherein at least one actuator is provided as the at least one load.
A sensor apparatus comprising a sensor and a swallowable pill, wherein the sensor comprises a plurality of electrodes, wherein the plurality of electrodes has a miniature size and a low power consumption, the electrodes are electronically connected together to form a capacitor, the electrodes being provided with an exterior pH-sensitive polymer coating acting as a dielectric, wherein the exterior of the coating interacts with a target condition within a body cavity by degrading, thereby producing a change in capacitance between the electrodes, the change being transduced into an electrical signal by the electrodes, wherein the pill comprises an electronic circuitry being in electrical contact with the electrodes for detecting the target condition based on said change in capacitance, wherein the pill contains a battery, electronics, and a reservoir containing a composition and a pump configured to dispense at a location of the target condition the composition into the body cavity.
A method for making an isoprenoid compound comprising: (a) obtaining a plurality of host cells that are capable of making the isoprenoid compound, wherein each host cell comprises a plurality of heterologous nucleic acid sequences encoding all of the MEV pathway enzymes or all of the DXP pathway enzymes; (b) culturing the host cells in a medium comprising a carbon source under oxygen limited conditions, wherein the dissolved oxygen concentration in the medium is less than 20%; and (c) recovering the isoprenoid compound produced by the host cells from the medium. (a) obtaining a plurality of host cells that are capable of making the isoprenoid compound, wherein each host cell comprises a plurality of heterologous nucleic acid sequences encoding all of the MEV pathway enzymes or all of the DXP pathway enzymes; (b) culturing the host cells in a medium comprising a carbon source under oxygen limited conditions, wherein the dissolved oxygen concentration in the medium is less than 20%; and (c) recovering the isoprenoid compound produced by the host cells from the medium.
An applicator for combing the eyelashes and/or the eyebrows and/or for applying a composition thereto, the applicator comprising a molded applicator member, comprising: • a core having a longitudinal axis, the core presents a cross-section that is square, rectangular, pentagonal, hexagonal or octagonal over at least a fraction of its length; and • teeth that extend outwards from the core, the majority of the teeth having a length lying in the range 0.5 mm to 1.8 mm, the applicator member having a greatest transverse dimension, measured perpendicularly to the longitudinal axis of the core, that is strictly less than 6 mm, on at least 70% of the length of the applicator member, said teeth being disposed in rows extending along the longitudinal axis of the core, a row of teeth being connected to each of the longitudinal faces of said core of square, rectangular, pentagonal, hexagonal or octagonal cross-section over at least a fraction of its length, the teeth of each row being disposed in a staggered configuration and two consecutive teeth of each row being offset at least in part, alternately on opposite sides of a geometrical separation surface; the applicator being characterized in that each row of teeth comprises a first set of teeth extending along a direction Z 1 perpendicular of the face and a second set of teeth extending along a direction Z 2, forming an angle α with the direction Z 1 when viewed in a direction parallel to the longitudinal axis of the core, wherein α lies in the range 5° to 80°. • a core having a longitudinal axis, the core presents a cross-section that is square, rectangular, pentagonal, hexagonal or octagonal over at least a fraction of its length; and • teeth that extend outwards from the core, the majority of the teeth having a length lying in the range 0.5 mm to 1.8 mm,
An application aware resource allocator (414b,414c) for a packet switched network comprising a media access control, MAC, layer, wherein the resource allocator (414b,414c) allocates bandwidth resource to internet protocol, IP, flows associated with software applications of users based on IP quality of service, QoS, requirements of the respective software applications, and wherein the resource allocator (414b,414c) allocates bandwidth resource by communicating the QoS requirement associated with each IP flow to the MAC layer so that the IP flows associated with each software application are switched to their appropriate destinations in order of priority.
Descaling device for the chemical descaling of a metal strip, comprising at least one first spraying device (12, 12a, 12c) and at least one further spraying device (12, 12b, 12d) for spraying a pickling agent onto the same top side or bottom side (16, 18) of the metal strip, - wherein the first spraying device (12, 12a, 12c) and the further spraying device (12, 12b, 12d) each comprise a first outer spraying unit for spraying the pickling agent onto a first edge region of the top side/bottom side (16, 18) of the metal strip and a second outer spraying unit for spraying the pickling agent onto a second edge region of the top side/bottom side (16, 18) of the metal strip situated opposite the first edge region, - wherein the first spraying device (12, 12a, 12c) comprises a middle spraying unit for spraying the pickling agent onto a middle region of the top side/bottom side (16, 18) of the metal strip situated between the edge regions (52, 56) and - wherein each of the spraying units (50, 54, 58) of the first spraying device (12, 12a, 12c) comprises its own pickling agent distribution chamber, characterized in that - at least one of the spraying units (50, 54, 58) of the first spraying device (12, 12a, 12c) comprises multiple rows of full jet nozzles, - at least one of the two outer spraying units (50, 54) of the further spraying device (12, 12b, 12d) comprises one or more slit nozzles and in that - each of the two outer spraying units (50, 54) of the further spraying device (12, 12b, 12d) comprises its own pickling agent distribution chamber. - wherein the first spraying device (12, 12a, 12c) and the further spraying device (12, 12b, 12d) each comprise a first outer spraying unit for spraying the pickling agent onto a first edge region of the top side/bottom side (16, 18) of the metal strip and a second outer spraying unit for spraying the pickling agent onto a second edge region of the top side/bottom side (16, 18) of the metal strip situated opposite the first edge region, - wherein the first spraying device (12, 12a, 12c) comprises a middle spraying unit for spraying the pickling agent onto a middle region of the top side/bottom side (16, 18) of the metal strip situated between the edge regions (52, 56) and - wherein each of the spraying units (50, 54, 58) of the first spraying device (12, 12a, 12c) comprises its own pickling agent distribution chamber, characterized in that - at least one of the spraying units (50, 54, 58) of the first spraying device (12, 12a, 12c) comprises multiple rows of full jet nozzles, - at least one of the two outer spraying units (50, 54) of the further spraying device (12, 12b, 12d) comprises one or more slit nozzles and in that - each of the two outer spraying units (50, 54) of the further spraying device (12, 12b, 12d) comprises its own pickling agent distribution chamber.
A controller for lighting control installed in a vehicle that is equipped with a camera that captures the surroundings of the vehicle, a monitor that displays images captured by the camera, an irradiation unit capable of irradiating an irradiation pattern on a road surface within a range that can be captured by the camera, and an object sensor, in which the controller is adapted to perform operation control of the irradiation unit, wherein the controller is adapted to perform operation control of the irradiation unit so that it prevents the irradiation unit from performing irradiation of said irradiation pattern during each intermittently occurring capturing period of the camera, and causes the irradiation unit to irradiate said irradiation pattern during a non-capturing period between the capturing periods, and wherein, when the presence of an object is detected by the object sensor, the controller is adapted to cause the light irradiation unit to perform light irradiation within a capturing period at a rate of once every multiple time of capturing period.
A fastener strip, comprising a plurality of fastener assemblies, each fastener assembly comprising an elongate fastener, and a support collar mounted on the fastener, the support collar including an end face at one or both opposite ends thereof which encircles part of the elongate fastener, the support collar shaped such that it has profiles on two opposite sides of the fastener that are asymmetric with respect to each other, the profiles each including at least one recess, wherein each support collar is joined to one or two neighbouring support collars in the strip, neighbouring support collars are joined to each other by means of breakable webs, and the asymmetric profiles are on opposite sides of the strip, characterised in that the asymmetry comprises an asymmetry in the number of the recesses, the asymmetry being a longitudinal asymmetry along at least part of the length of each elongate fastener, on the two opposite sides of the fastener.
An integrated circuit package comprising: an encapsulation; and a lead frame (300, 400, 500), a portion of the lead frame disposed within the encapsulation, the lead frame comprising: a first conductor formed in the lead frame including a first conductive receive loop (110, 210, 310, 410, 510) and a third conductive cancellation loop (112, 212, 312, 412, 512) disposed substantially within the encapsulation; and a second conductor formed in the lead frame galvanically isolated from the first conductor, wherein the second conductor includes a second conductive transmit loop (108, 208, 308, 408, 508) disposed substantially within the encapsulation proximate to the first conductive receive loop to provide a communication link between the first and second conductors, wherein the third conductive cancellation loop is wound in an opposite direction relative to the first receive conductive loop in the encapsulation. an encapsulation; and a lead frame (300, 400, 500), a portion of the lead frame disposed within the encapsulation, the lead frame comprising: a first conductor formed in the lead frame including a first conductive receive loop (110, 210, 310, 410, 510) and a third conductive cancellation loop (112, 212, 312, 412, 512) disposed substantially within the encapsulation; and a second conductor formed in the lead frame galvanically isolated from the first conductor, wherein the second conductor includes a second conductive transmit loop (108, 208, 308, 408, 508) disposed substantially within the encapsulation proximate to the first conductive receive loop to provide a communication link between the first and second conductors, a first conductor formed in the lead frame including a first conductive receive loop (110, 210, 310, 410, 510) and a third conductive cancellation loop (112, 212, 312, 412, 512) disposed substantially within the encapsulation; and a second conductor formed in the lead frame galvanically isolated from the first conductor, wherein the second conductor includes a second conductive transmit loop (108, 208, 308, 408, 508) disposed substantially within the encapsulation proximate to the first conductive receive loop to provide a communication link between the first and second conductors, wherein the third conductive cancellation loop is wound in an opposite direction relative to the first receive conductive loop in the encapsulation.
An aircraft engine comprising an inertial particle separator communicating with an engine inlet of the aircraft engine, the IPS comprising: an inlet duct defining an intake communicating with an environment of the aircraft engine; an intermediate duct extending from the inlet duct to the engine inlet; a bypass duct in fluid communication with and extending downstream from the inlet duct, the bypass duct defining an outlet communicating with the environment of the aircraft engine, a splitter defined at an intersection of a wall of the bypass duct and a wall of the intermediate duct; a splitter vane within the intermediate duct and having a leading edge located upstream of the splitter relative to a flow circulating through the IPS, the splitter vane and the wall of the intermediate duct defining a channel therebetween; and characterised by a porous plate extending across the channel and defining openings sized so as to aggregate ice and be blocked by ice under icing conditions, such that in icing conditions the channel becomes ice-blocked, and in non-icing conditions, the channel is open. an inlet duct defining an intake communicating with an environment of the aircraft engine; an intermediate duct extending from the inlet duct to the engine inlet; a bypass duct in fluid communication with and extending downstream from the inlet duct, the bypass duct defining an outlet communicating with the environment of the aircraft engine, a splitter defined at an intersection of a wall of the bypass duct and a wall of the intermediate duct; a splitter vane within the intermediate duct and having a leading edge located upstream of the splitter relative to a flow circulating through the IPS, the splitter vane and the wall of the intermediate duct defining a channel therebetween; and characterised by a porous plate extending across the channel and defining openings sized so as to aggregate ice and be blocked by ice under icing conditions, such that in icing conditions the channel becomes ice-blocked, and in non-icing conditions, the channel is open.
A method for on-line, real time, measurement and control of foaming of process fluid in a fluid process comprising: providing a side-stream of the process fluid to a foam cell vessel while maintaining a constant level of the process fluid in the foam cell vessel using an overflow and in which foam can be synthetically generated; generating foam and accumulating foam in the foam cell vessel; emitting a signal from a non-contact optical distance measurement sensor, wherein the emitted signal is reflected off of the surface of the accumulated foam and back to the measurement sensor; transferring the signal to a microprocessor that calculates the height of the accumulated foam based on the constant level of the process fluid in the vessel; and controlling the amount of a defoamer delivered to the process fluid stream, wherein the foam is generated by the side-stream of the process fluid cascading into the foam cell vessel, thereby entraining air and creating a level of foam on the surface of the process fluid. providing a side-stream of the process fluid to a foam cell vessel while maintaining a constant level of the process fluid in the foam cell vessel using an overflow and in which foam can be synthetically generated; generating foam and accumulating foam in the foam cell vessel; emitting a signal from a non-contact optical distance measurement sensor, wherein the emitted signal is reflected off of the surface of the accumulated foam and back to the measurement sensor; transferring the signal to a microprocessor that calculates the height of the accumulated foam based on the constant level of the process fluid in the vessel; and controlling the amount of a defoamer delivered to the process fluid stream,
A resin composition for a nano concave-convex structure, the resin composition comprising a polymerization reactive monomer component which, when a total amount of all monomers within the polymerization reactive monomer component is deemed to be 100 parts by mass, comprises 50 to 95 parts by mass of a tetrafunctional (meth)acrylate monomer having 4 radical polymerizable functional groups per molecule, 5 to 35 parts by mass of a difunctional (meth)acrylate monomer having 2 radical polymerizable functional groups and a polyalkylene glycol structure per molecule, in which a total number of repeating units of the alkylene glycol structure that exist in a single molecule is from 4 to 25, and not more than 15 parts by mass of a monofunctional (meth)acrylate monomer which is copolymerizable with the tetrafunctional (meth)acrylate monomer and the difunctional (meth)acrylate monomer, and has one radical polymerizable functional group per molecule, and further comprising, per 100 parts by mass of the polymerization reactive monomer component, 0.01 to 10 parts by mass of an active energy ray polymerization initiator, 0.01 to 3 parts by mass of a release agent, and 0.01 to 3 parts by mass of a lubricant.
An article comprising: a transparent layer, wherein the transparent layer has a light transmission of greater than or equal to 3%; and a second layer comprising a composition, wherein the composition comprises an optional infrared transmissive additive, an infrared reflective additive, and a thermoplastic polymer, wherein the thermoplastic polymer comprises a polycarbonate, a polyalkylene terephthalate, an acrylonitrile-butadiene-styrene copolymer, a polysiloxane, a polyacrylate, or a combination comprising one or more of the foregoing, and wherein the composition has a light transmission of less than 30%; wherein the transparent layer has a first transparent layer surface and wherein the second layer is located on at least a portion of the first transparent layer surface and at least a portion of the first transparent layer surface is free of the second layer; wherein the article is a window or a headlamp; wherein the second layer has a thickness of 0.1 to 5 mm, or 1 to 3 mm thick; and wherein the light transmission is determined using 3.2 mm thick samples using ASTM D1003-00, Procedure B using CIE standard illuminant C, with unidirectional viewing. a transparent layer, wherein the transparent layer has a light transmission of greater than or equal to 3%; and a second layer comprising a composition, wherein the composition comprises an optional infrared transmissive additive, an infrared reflective additive, and a thermoplastic polymer, wherein the thermoplastic polymer comprises a polycarbonate, a polyalkylene terephthalate, an acrylonitrile-butadiene-styrene copolymer, a polysiloxane, a polyacrylate, or a combination comprising one or more of the foregoing, and wherein the composition has a light transmission of less than 30%; wherein the transparent layer has a first transparent layer surface and wherein the second layer is located on at least a portion of the first transparent layer surface and at least a portion of the first transparent layer surface is free of the second layer; wherein the article is a window or a headlamp; wherein the second layer has a thickness of 0.1 to 5 mm, or 1 to 3 mm thick; and wherein the light transmission is determined using 3.2 mm thick samples using ASTM D1003-00, Procedure B using CIE standard illuminant C, with unidirectional viewing.