mhurhangee/ep-ind-claims huggingface dataset:
Circuit for downlink/uplink operational mode switching in a time division duplex, TDD, wireless communication system, comprising at least a field-effect transistor (RF FET) operatively connected to a power amplifier on the downlink path of a RF front-end apparatus in the TDD wireless communication system, characterized in that the circuit comprises: - a first voltage generator (V gsOFF) connected to at least a large-value first resistor (R hold); - a second voltage generator (V Gate) connected to a second resistor (R Gate); - at least a large-value hold capacitor (C hold); - a sample-and-hold circuit configured to be switched between a reception (Rx) configuration, wherein said first voltage generator (V gsOFF) is connected to the gate of said field-effect transistor (RF FET) and said large-value hold capacitor (C hold) is connected to said first voltage generator (V gsOFF) through said first resistor (R hold), and a transmission (Tx) configuration, wherein the gate of said field-effect transistor (RF FET) is connected to said hold capacitor (C hold) and said hold capacitor (C hold) is connected to said second voltage generator (V Gate) through said second resistor (R Gate). - a first voltage generator (V gsOFF) connected to at least a large-value first resistor (R hold); - a second voltage generator (V Gate) connected to a second resistor (R Gate); - at least a large-value hold capacitor (C hold); - a sample-and-hold circuit configured to be switched between a reception (Rx) configuration, wherein said first voltage generator (V gsOFF) is connected to the gate of said field-effect transistor (RF FET) and said large-value hold capacitor (C hold) is connected to said first voltage generator (V gsOFF) through said first resistor (R hold), and a transmission (Tx) configuration, wherein the gate of said field-effect transistor (RF FET) is connected to said hold capacitor (C hold) and said hold capacitor (C hold) is connected to said second voltage generator (V Gate) through said second resistor (R Gate).
A method comprising: receiving a first signal indicating an aggregate yield measured by an aggregate yield sensor during a measurement interval; receiving a second signal indicating a plurality of geo-referenced regions (70, 72, 74) across which a harvester has traveled prior to the measurement interval; allocating, to each of at least two geo-referenced regions (70, 72, 74), an aggregate yield portion allocation based upon different travel times for crops to the aggregate yield sensor; and outputting the aggregate yield portion allocations, characterized in that the step of allocating comprises allocating, to each of the at least two geo-referenced regions (70, 72, 74), the aggregate yield portion allocation based upon pre-harvest weighting data value differences amongst the at least two geo-referenced regions (70, 72, 74). receiving a first signal indicating an aggregate yield measured by an aggregate yield sensor during a measurement interval; receiving a second signal indicating a plurality of geo-referenced regions (70, 72, 74) across which a harvester has traveled prior to the measurement interval; allocating, to each of at least two geo-referenced regions (70, 72, 74), an aggregate yield portion allocation based upon different travel times for crops to the aggregate yield sensor; and outputting the aggregate yield portion allocations, characterized in that the step of allocating comprises allocating, to each of the at least two geo-referenced regions (70, 72, 74), the aggregate yield portion allocation based upon pre-harvest weighting data value differences amongst the at least two geo-referenced regions (70, 72, 74).
Plant for producing hydrophobic biomass pellets, comprising: - a pelletization unit comprising an outlet through which biomass pellets are intended to be discharged at a given temperature; - a torrefaction furnace comprising an inlet connected to the outlet of the pelletization unit and an outlet through which the torrefied biomass pellets are intended to be discharged, the torrefaction furnace comprising: • a fluidtight and thermally insulated casing, • at least one conveying device for conveying the biomass pellets, which is housed inside the fluidtight casing and configured to ensure an identical residence time for all of the biomass pellets between the inlet and the outlet, • at least one heating system housed inside the fluidtight casing, the heating system being configured to maintain the inside of the casing at a substantially constant torrefaction temperature, • at its outlet, at least one gastightness device configured to discharge the torrefied biomass pellets while at the same time ensuring gastightness. - a pelletization unit comprising an outlet through which biomass pellets are intended to be discharged at a given temperature; - a torrefaction furnace comprising an inlet connected to the outlet of the pelletization unit and an outlet through which the torrefied biomass pellets are intended to be discharged, the torrefaction furnace comprising: • a fluidtight and thermally insulated casing, • at least one conveying device for conveying the biomass pellets, which is housed inside the fluidtight casing and configured to ensure an identical residence time for all of the biomass pellets between the inlet and the outlet, • at least one heating system housed inside the fluidtight casing, the heating system being configured to maintain the inside of the casing at a substantially constant torrefaction temperature, • at its outlet, at least one gastightness device configured to discharge the torrefied biomass pellets while at the same time ensuring gastightness. • a fluidtight and thermally insulated casing, • at least one conveying device for conveying the biomass pellets, which is housed inside the fluidtight casing and configured to ensure an identical residence time for all of the biomass pellets between the inlet and the outlet, • at least one heating system housed inside the fluidtight casing, the heating system being configured to maintain the inside of the casing at a substantially constant torrefaction temperature, • at its outlet, at least one gastightness device configured to discharge the torrefied biomass pellets while at the same time ensuring gastightness.
Device for measuring a flow of bulk material in accordance with the Coriolis measuring principle, which device contains an impeller which is driven at constant rotational speed by a motor and onto which the mass flow can be put and can be deflected radially, and the drive torque can be measured by a force measuring device, a drive shaft carrying the impeller being rotatably mounted in a bearing sleeve and surrounded coaxially by the latter and projecting into an impeller housing space, the bearing sleeve being rotatably mounted in a stationary drive housing part and being driven at a rotational speed which corresponds to the rotational speed of the drive shaft, the force measuring device being arranged between the drive shaft and the bearing sleeve, characterized in that the stationary drive housing part is formed axially cylindrically and is surrounded by an impeller housing that tapers conically toward the bottom, wherein the impeller housing contains inlet and outlet openings located axially one above the other in the straight flow direction, wherein the drive motor is arranged parallel to and laterally beside the drive housing part, outside the impeller housing, and has a flat design as a result. the force measuring device being arranged and the stationary drive housing part is formed axially cylindrically and is surrounded by an impeller housing that tapers conically toward the bottom, wherein the impeller housing contains inlet and outlet openings located axially one above the other in the straight flow direction, wherein the drive motor is arranged parallel to and laterally beside the drive housing part, outside the impeller housing, and has a flat design as a result.
Aqueous solution containing: whey, in particular whey selected from the group comprising: sweet whey and acid whey or combinations thereof, water glass, in particular selected from the group comprising sodium water glass and potassium water glass or combinations thereof, the water glass preferably being sodium water glass, particularly preferably sodium water glass 37/40 Bé, a solvent, in particular a solvent containing water, characterized by at least one modifying agent, wherein the modifying agent is selected from the group comprising: saponins, in particular saponins obtained from Sapindus mukorossi or Quillaja saponaria, or combinations thereof. sweet whey and acid whey or combinations thereof, water glass, in particular selected from the group comprising sodium water glass and potassium water glass or combinations thereof, the water glass preferably being sodium water glass, particularly preferably sodium water glass 37/40 Bé, a solvent, in particular a solvent containing water, characterized by at least one modifying agent, wherein the modifying agent is selected from the group comprising: saponins, in particular saponins obtained from Sapindus mukorossi or Quillaja saponaria, or combinations thereof.
A method for generating a vehicle control signal based on magnetic paint lanes, comprising: detecting a magnetic sensing signal generated from magnetic paint lanes to which an alternating magnetic pattern is applied, using a magnetic sensor attached to the vehicle; the method being characterised by the following steps: performing noise filtering on the magnetic sensing signal, thereby generating a magnetic sensing signal from which noise is removed; and controlling an operation of a vehicle based on the magnetic sensing signal from which noise is removed, wherein the magnetic paint lanes are generated so as to have a spatial period of a length greater than 0 cm and equal to or less than 25 cm by applying the alternating magnetic pattern, wherein the noise filtering comprises filtering out a low-frequency signal having a frequency lower than a target frequency, detected by taking into consideration the spatial period of the alternating magnetic pattern and a speed of the vehicle. performing noise filtering on the magnetic sensing signal, thereby generating a magnetic sensing signal from which noise is removed; and controlling an operation of a vehicle based on the magnetic sensing signal from which noise is removed, wherein the magnetic paint lanes are generated so as to have a spatial period of a length greater than 0 cm and equal to or less than 25 cm by applying the alternating magnetic pattern, wherein the noise filtering comprises filtering out a low-frequency signal having a frequency lower than a target frequency, detected by taking into consideration the spatial period of the alternating magnetic pattern and a speed of the vehicle.
A packaged semiconductor die comprising: a preformed lead frame having a central recessed portion, and a plurality of conductive leads each having a top portion and a bottom portion, with said plurality of leads spaced apart and insulated from the central recessed portion, said central recessed portion having a top side and a bottom side with the bottom side co-planar with the bottom portion of the plurality of leads; an integrated circuit die having a top surface and a bottom surface opposite thereto, with said top surface having a plurality of bonding pads for electrical connection to said die, said die positioned in said central recessed portion with said bottom surface of said die in electrical contact with said top side of said recessed portion; a conductive layer deposited on said top surface of said die and said top portion of said leads and patterned to electrically connect certain of said bonding pads of said die to certain of said conductive leads; and an insulator covering the conductive layer. a preformed lead frame having a central recessed portion, and a plurality of conductive leads each having a top portion and a bottom portion, with said plurality of leads spaced apart and insulated from the central recessed portion, said central recessed portion having a top side and a bottom side with the bottom side co-planar with the bottom portion of the plurality of leads; an integrated circuit die having a top surface and a bottom surface opposite thereto, with said top surface having a plurality of bonding pads for electrical connection to said die, said die positioned in said central recessed portion with said bottom surface of said die in electrical contact with said top side of said recessed portion; a conductive layer deposited on said top surface of said die and said top portion of said leads and patterned to electrically connect certain of said bonding pads of said die to certain of said conductive leads; and an insulator covering the conductive layer.
An agent for lightening keratin fibers, in particular human hair, characterized in that it contains, based on its weight, a) 0.05 to 10 wt.% valine; b) 0.01 to 10 wt.% cationic and/or amphoteric polymer(s). a) 0.05 to 10 wt.% valine; b) 0.01 to 10 wt.% cationic and/or amphoteric polymer(s).
A deadman test circuit for testing a functionality of a shearing blowout preventer, the deadman test circuit comprising: a solenoid valve configured to be electrically controlled and to receive a fluid under a first pressure; a sub plate mounted valve configured to be hydraulically controlled by the solenoid valve and to receive the fluid under a second pressure; and a selector valve fluidly connecting an output of the sub plate mounted valve to a shearing ram blowout preventer and to a device, wherein the selector valve is configured to be operated by an operator. a solenoid valve configured to be electrically controlled and to receive a fluid under a first pressure; a sub plate mounted valve configured to be hydraulically controlled by the solenoid valve and to receive the fluid under a second pressure; and a selector valve fluidly connecting an output of the sub plate mounted valve to a shearing ram blowout preventer and to a device, wherein the selector valve is configured to be operated by an operator.
An electricity generation device comprising: a storage tank for storing a cryogenic fluid, wherein the cryogenic fluid is liquid nitrogen or liquid air; a fluid pump for compressing cryogenic fluid taken from the storage tank to a high pressure, an evaporator for evaporating the high pressure cryogenic fluid, to provide a high pressure gas, a superheater for heating the high pressure gas to a high temperature using a source of heat from a co-located process, and an expansion turbine for expanding and extracting work from the superheated high pressure gas and for driving a generator to produce electricity from the rotational energy produced by the expansion turbine, wherein the evaporator is for evaporating the high pressure cryogenic fluid using the low pressure exhaust from the expansion turbine; wherein a final exhaust emitted from the evaporator is either: i. arranged to provide cold energy for use in a co-located process; or ii. exhausted to atmosphere. a storage tank for storing a cryogenic fluid, wherein the cryogenic fluid is liquid nitrogen or liquid air; a fluid pump for compressing cryogenic fluid taken from the storage tank to a high pressure, an evaporator for evaporating the high pressure cryogenic fluid, to provide a high pressure gas, a superheater for heating the high pressure gas to a high temperature using a source of heat from a co-located process, and an expansion turbine for expanding and extracting work from the superheated high pressure gas and for driving a generator to produce electricity from the rotational energy produced by the expansion turbine, wherein the evaporator is for evaporating the high pressure cryogenic fluid using the low pressure exhaust from the expansion turbine; wherein a final exhaust emitted from the evaporator is either: i. arranged to provide cold energy for use in a co-located process; or ii. exhausted to atmosphere. i. arranged to provide cold energy for use in a co-located process; or ii. exhausted to atmosphere.
A composition comprising a semisolid epoxy resin containing a curative dispersed therein, said curative having a particle size such that at least 90 % of the particles have a size below 25 μm at ambient temperature of 21°C as determined in accordance with ASTM D1214, wherein the composition further comprises a diluent comprising a particulate filler selected from micro balloons, glass, carbon, metal and/or combinations thereof.
A superconductor structure comprising: a substrate on which at least one buffer layer is deposited, said substrate having a length and a width, wherein the substrate has a dimension ratio of length to width of not less than 10 2; a superconducting layer on said at least one buffer layer, wherein said superconducting layer comprises a superconductor material that forms at least two substantially parallel superconductor filaments that continuously extend along the length of said substrate, and wherein a non-superconducting region is formed between the at least two substantially parallel superconductor filaments, and wherein at least one insulating strip is disposed on the non-superconducting region; wherein the at least one insulating strip has a first and a second surface opposite each other, said first surface overlying said non-superconducting region and said second surface being substantially free of said superconducting layer; wherein the at least one insulating strip continuously extends along the length of said substrate and is comprised of insulating material with a resistivity greater than 1 mΩcm; and a first stabilizing layer overlying the superconducting layer, wherein the insulating strip is not coated with the first stabilizing layer, and wherein the at least two superconductor filaments are not coupled. a substrate on which at least one buffer layer is deposited, said substrate having a length and a width, wherein the substrate has a dimension ratio of length to width of not less than 10 2; a superconducting layer on said at least one buffer layer, wherein said superconducting layer comprises a superconductor material that forms at least two substantially parallel superconductor filaments that continuously extend along the length of said substrate, and wherein a non-superconducting region is formed between the at least two substantially parallel superconductor filaments, and wherein at least one insulating strip is disposed on the non-superconducting region; wherein the at least one insulating strip has a first and a second surface opposite each other, said first surface overlying said non-superconducting region and said second surface being substantially free of said superconducting layer; wherein the at least one insulating strip continuously extends along the length of said substrate and is comprised of insulating material with a resistivity greater than 1 mΩcm; and a first stabilizing layer overlying the superconducting layer, wherein the insulating strip is not coated with the first stabilizing layer, and wherein the at least two superconductor filaments are not coupled.
Sealed electrical switch (100; 200) comprising: - a switching mechanism (110; 210) provided with a base (111; 211) containing electrical and/or electronic elements, - a flexible sealing membrane (130; 230) stretched over a rigid frame (160; 260) and placed at the front of the switching mechanism (110; 210) so as to insulate the electrical and/or electronic elements of the switching mechanism (110; 210) from the outside, and - a trim plate (120; 220) provided with a trim plate frame on which said rigid frame (160; 260) is mounted, from the front, characterised in that the base (111; 211) of the switching mechanism (110; 210) is mounted by the front on the trim plate frame. - a switching mechanism (110; 210) provided with a base (111; 211) containing electrical and/or electronic elements, - a flexible sealing membrane (130; 230) stretched over a rigid frame (160; 260) and placed at the front of the switching mechanism (110; 210) so as to insulate the electrical and/or electronic elements of the switching mechanism (110; 210) from the outside, and - a trim plate (120; 220) provided with a trim plate frame on which said rigid frame (160; 260) is mounted, from the front,
A liquid feeding type screw compressor comprising as components: a compressor main body equipped with a screw rotor; a motor driving the compressor main body; and a gas-liquid separator separating a liquid from a compressed air discharged from the compressor main body, wherein the motor is arranged above the compressor main body, and a compressor main body casing constituting an inner cylindrical space forming a compression operation chamber together with the screw rotor and constituting a contour of the compressor main body and a casing constituting a contour of another component consist of an integrally molded single member, characterized in that the gas-liquid separator is arranged below the compressor main body, and a synthetic center of gravity of the compressor main body and the motor and a center of gravity of the gas-liquid separator are positioned on the same vertical axis. a compressor main body equipped with a screw rotor; a motor driving the compressor main body; and a gas-liquid separator separating a liquid from a compressed air discharged from the compressor main body, wherein the motor is arranged above the compressor main body, and a compressor main body casing constituting an inner cylindrical space forming a compression operation chamber together with the screw rotor and constituting a contour of the compressor main body and a casing constituting a contour of another component consist of an integrally molded single member, characterized in that the gas-liquid separator is arranged below the compressor main body, and a synthetic center of gravity of the compressor main body and the motor and a center of gravity of the gas-liquid separator are positioned on the same vertical axis.
An incremental measurement encoder comprising a scale and a readhead, the scale comprising a periodic series of features forming an incremental track and at least one reference mark, the readhead comprising a structured light source and a reference mark photodetector array, in which the at least one reference mark comprises at least one imaging element configured to form a spatially inverted representation of the structured light source so as to form an image of the structured light source on the reference mark photodetector array, wherein the structured light source comprises an array of unevenly spaced light sources. the scale comprising a periodic series of features forming an incremental track and at least one reference mark, the readhead comprising a structured light source and a reference mark photodetector array, in which the at least one reference mark comprises at least one imaging element configured to form a spatially inverted representation of the structured light source so as to form an image of the structured light source on the reference mark photodetector array, wherein the structured light source comprises an array of unevenly spaced light sources.