mhurhangee/ep-ind-claims huggingface dataset:
A rocket throat insert comprising an annular body having a radially inner annular wall portion and a radially outer annular portion, the radially inner annular wall portion having a contoured radially inner surface defining a nozzle throat; and the radially outer annular portion including an annular buttressing structure supporting the radially inner annular wall portion and defining one or more insulation gaps arranged annularly around the radially inner wall portion for restricting the radial flow of heat through the annular body; the rocket throat insert being further characterized in that the radially outer portion further includes a radially outer wall portion, and the annular buttressing structure is disposed radially between the radially outer and inner wall portions; the annular buttressing structure includes an intermediate wall portion, a radially inner annular array of first supports extending radially between the radially inner and intermediate wall portions, and a radially outer annular array of second supports extending radially between the radially outer and intermediate wall portions; the supports are in the form of spokes radiating from a central axis of the annular body; and the spokes each have a length in the radial direction greater than a width. the radially inner annular wall portion having a contoured radially inner surface defining a nozzle throat; and the radially outer annular portion including an annular buttressing structure supporting the radially inner annular wall portion and defining one or more insulation gaps arranged annularly around the radially inner wall portion for restricting the radial flow of heat through the annular body; the radially outer portion further includes a radially outer wall portion, and the annular buttressing structure is disposed radially between the radially outer and inner wall portions; the annular buttressing structure includes an intermediate wall portion, a radially inner annular array of first supports extending radially between the radially inner and intermediate wall portions, and a radially outer annular array of second supports extending radially between the radially outer and intermediate wall portions; the supports are in the form of spokes radiating from a central axis of the annular body; and the spokes each have a length in the radial direction greater than a width. the annular buttressing structure includes an intermediate wall portion, a radially inner annular array of first supports extending radially between the radially inner and intermediate wall portions, and a radially outer annular array of second supports extending radially between the radially outer and intermediate wall portions; the supports are in the form of spokes radiating from a central axis of the annular body; and the spokes each have a length in the radial direction greater than a width.
A method for scheduling tasks using multiple processing units (121, 122) comprising first processing units and second processing units, the method comprising: assigning, when a workload of a task is above a threshold value, the task to one of the first processing units, and assigning, when the workload of the task is below or equal to the threshold value, the task to one of the second processing units; while processing the task that has been assigned to one of the second processing units, detecting a performance control event relevant to the task that has been assigned to one of the second processing units; in response to the performance control event, migrating the task to one of the first processing units regardless of the workload of the task; processing the migrated task based on one of the first processing units, and in response to a completion signal of the performance control event related to the task, re-migrating the task to one of the second processing units, and wherein the first processing units comprise higher performance processors than the second processing units. assigning, when a workload of a task is above a threshold value, the task to one of the first processing units, and assigning, when the workload of the task is below or equal to the threshold value, the task to one of the second processing units; while processing the task that has been assigned to one of the second processing units, detecting a performance control event relevant to the task that has been assigned to one of the second processing units; in response to the performance control event, migrating the task to one of the first processing units regardless of the workload of the task; processing the migrated task based on one of the first processing units, and in response to a completion signal of the performance control event related to the task, re-migrating the task to one of the second processing units, and wherein the first processing units comprise higher performance processors than the second processing units.
A bandpass filter arranged to receive a temporally modulated periodic input signal Vin(t), and to deliver an output signal Vout(t), comprising, in combination: - a phase comparator arranged to receive, on a first input, the temporally modulated periodic input signal Vin(t) as first signal, and to generate an output signal with a variable duty cycle; coupled to - an injection-locked oscillator arranged to receive as injection input, the output signal from the phase comparator, and to generate a signal Vr(t) that is phase-offset with respect to the output signal of the phase comparator; said phase-offset signal being applied to a second input of the phase comparator as second input signal; and said output signal of the phase comparator being the output signal Vout(t) of the bandpass filter and being representative of the phase difference between the two input signals Vin(t) and Vr(t). - a phase comparator arranged to receive, on a first input, the temporally modulated periodic input signal Vin(t) as first signal, and to generate an output signal with a variable duty cycle; coupled to - an injection-locked oscillator arranged to receive as injection input, the output signal from the phase comparator, and to generate a signal Vr(t) that is phase-offset with respect to the output signal of the phase comparator; said phase-offset signal being applied to a second input of the phase comparator as second input signal; and said output signal of the phase comparator being the output signal Vout(t) of the bandpass filter and being representative of the phase difference between the two input signals Vin(t) and Vr(t).
A treatment method for petroleum refinery process effluents originating from sour water strippers, comprising the following steps in sequence: - mechanical filtration of effluent originating from sour water strippers, - cooling the effluent with demineralized water in a heat exchanger, - adsorption of the organic substances present in the effluent and potentially harmful for the technologies applied in the subsequent steps, characterised by also comprising a step of total demineralization of the effluent comprising in sequence a decationization with at least one ion exchange resin, a subsequent decarbonation step which takes place by degassing over gas-permeable membranes, and a deanionization with at least two ion exchange resins, of which one is weak and one is strong, wherein the cooling step is such that in the decarbonation step the temperature of the effluent does not exceed 45°C. - mechanical filtration of effluent originating from sour water strippers, - cooling the effluent with demineralized water in a heat exchanger, - adsorption of the organic substances present in the effluent and potentially harmful for the technologies applied in the subsequent steps,
A gas turbine engine comprising: a compressor section having a low pressure compressor and a high pressure compressor, and said high pressure compressor having a downstream most location; and a cooling air system including a tap from a location upstream of said downstream most location, said tap passing air to a boost compressor and a heat exchanger (116, 122), said boost compressor passing the air to a location to be cooled, and said boost compressor being driven by a shaft which drives said lower pressure compressor, characterised in that: said heat exchanger includes a first heat exchanger positioned between said tap and said boost compressor; and said boost compressor is located in a tail cone of said engine. a compressor section having a low pressure compressor and a high pressure compressor, and said high pressure compressor having a downstream most location; and a cooling air system including a tap from a location upstream of said downstream most location, said tap passing air to a boost compressor and a heat exchanger (116, 122), said boost compressor passing the air to a location to be cooled, and said boost compressor being driven by a shaft which drives said lower pressure compressor, said heat exchanger includes a first heat exchanger positioned between said tap and said boost compressor; and said boost compressor is located in a tail cone of said engine.
A woven fabric for airbag made of synthetic fibers, wherein at least one selvage portion of the woven fabric has weaving yarn YA and weaving yarn YB arranged in a warp yarn direction each having a different crimp ratio, wherein at least one of the weaving yarn YA and the weaving yarn YB is made of the same synthetic fiber as weaving yarn YC arranged in the warp yarn direction constituting a ground portion of the woven fabric, wherein the weaving yarn YA and the weaving yarn YB are repeatedly arranged, characterized in that the crimp ratio CA of the weaving yarn YA and the crimp ratio CB of the weaving yarn YB satisfy a relation of CA≧CB×1.2, wherein the crimp ratio CB is smaller than the crimp ratio CA, and in that a crimp ratio CC of the weaving yarn YC satisfies a relation of CA>CC>CB, wherein the crimp ratio is measured based on JIS L 1096: 2010 8.7 (B Method). wherein at least one selvage portion of the woven fabric has weaving yarn YA and weaving yarn YB arranged in a warp yarn direction each having a different crimp ratio, wherein at least one of the weaving yarn YA and the weaving yarn YB is made of the same synthetic fiber as weaving yarn YC arranged in the warp yarn direction constituting a ground portion of the woven fabric, wherein the weaving yarn YA and the weaving yarn YB are repeatedly arranged, characterized in that the crimp ratio CA of the weaving yarn YA and the crimp ratio CB of the weaving yarn YB satisfy a relation of CA≧CB×1.2, wherein the crimp ratio CB is smaller than the crimp ratio CA, and in that a crimp ratio CC of the weaving yarn YC satisfies a relation of CA>CC>CB, wherein the crimp ratio is measured based on JIS L 1096: 2010 8.7 (B Method).
Assembly of memory card reader, comprising at least one body of memory card reader and a support, said support comprising at least one connector of memory card to be protected and at least one three-dimensional element (34, 35, 36) with a height at least equal to the height of the connector of memory card to be protected, said three-dimensional element (34, 35, 36) being disposed laterally relative to said at least one connector of memory card to be protected, forming a physical protection after assembly of said support with the body of the memory card reader, characterised in that said three-dimensional element (34, 35, 36) is mainly made of a brazing material.
An antenna and receiver system, the antenna and receiver system comprising: a first antenna array comprising a first plurality of antennas (120-a, 120-b, 120-c) facing a first direction, the first plurality of antennas (120-a, 120-b, 120-c) comprising: at least one main first antenna (120-a); and one or more summation first antennas (120-b, 120-c); at least one first radio-frequency receive path connected to the main first antenna (120-a) only; a second antenna array comprising a second plurality of antennas (140-a, 140-b, 140-c) facing a second direction that is substantially opposite the first direction, the second antenna array being positioned substantially opposite the first antenna array, and the second plurality of antennas (140-a, 140-b, 140-c) comprising: at least one main second antenna (140-a); and one or more summation second antennas (140-b, 140-c); at least one second RF receive path connected to the main second antenna (140-a) only; and one or more common RF receive paths, each common RF receive path of the common RF receive paths being connected to a distinct pair of substantially oppositely-positioned antennas comprising a given summation first antenna of the summation first antennas (120-b, 120-c) and a given summation second antenna of the summation second antennas (140-b, 140-c), so that a first signal received by the given summation first antenna and a second signal received by the given summation second antenna are combined into a respective common signal. a first antenna array comprising a first plurality of antennas (120-a, 120-b, 120-c) facing a first direction, the first plurality of antennas (120-a, 120-b, 120-c) comprising: at least one main first antenna (120-a); and one or more summation first antennas (120-b, 120-c); at least one main first antenna (120-a); and one or more summation first antennas (120-b, 120-c); at least one first radio-frequency receive path connected to the main first antenna (120-a) only; a second antenna array comprising a second plurality of antennas (140-a, 140-b, 140-c) facing a second direction that is substantially opposite the first direction, the second antenna array being positioned substantially opposite the first antenna array, and the second plurality of antennas (140-a, 140-b, 140-c) comprising: at least one main second antenna (140-a); and one or more summation second antennas (140-b, 140-c); at least one main second antenna (140-a); and one or more summation second antennas (140-b, 140-c); at least one second RF receive path connected to the main second antenna (140-a) only; and one or more common RF receive paths, each common RF receive path of the common RF receive paths being connected to a distinct pair of substantially oppositely-positioned antennas comprising a given summation first antenna of the summation first antennas (120-b, 120-c) and a given summation second antenna of the summation second antennas (140-b, 140-c), so that a first signal received by the given summation first antenna and a second signal received by the given summation second antenna are combined into a respective common signal.
An electrochemical process for producing nanoparticles of mixed copper hydroxide-chloride compounds responding to the chemical formula M x Cu 4-x y Cl z wherein M is one or more metal cations from the group comprising a divalent earth alkali metal cation, a divalent transition metal cation or a trivalent transition metal cation, and wherein 0 ≤ x ≤ 1, 5.5 ≤ y ≤ 6.5 and 1.5 ≤ z ≤ 3, the method comprising the steps of supplying to a cathode compartment of an electrochemical cell, wherein the cathode compartment comprises a catholyte and is equipped with a cathode comprising a gas diffusion electrode with a porous electrochemically active material, a liquid water based mixture containing dissolved therein Cl - ions, at least one precursor salt containing the one or more metal cations M, and at least one Cu 2+ precursor salt, wherein the ratio of the concentration of Cu 2+ to M is smaller than 10:1, adjusting the pH of the reaction mixture to a value between 2.0 and 6.0, supplying an O 2 containing oxidant gas to the gas diffusion electrode, subjecting the cathode to an electrochemical potential which is below the thermodynamic limit of O 2 reduction at the pH of the reaction mixture, applying a potential to the gas diffusion electrode to cause reduction of the O 2 contained in the oxidant gas to one or more of the corresponding peroxide, OH-, ionic and/or radical reactive O containing species, and isolating nanoparticles of M x Cu 4-x y Cl z. supplying to a cathode compartment of an electrochemical cell, wherein the cathode compartment comprises a catholyte and is equipped with a cathode comprising a gas diffusion electrode with a porous electrochemically active material, a liquid water based mixture containing dissolved therein Cl - ions, at least one precursor salt containing the one or more metal cations M, and at least one Cu 2+ precursor salt, wherein the ratio of the concentration of Cu 2+ to M is smaller than 10:1, adjusting the pH of the reaction mixture to a value between 2.0 and 6.0, supplying an O 2 containing oxidant gas to the gas diffusion electrode, subjecting the cathode to an electrochemical potential which is below the thermodynamic limit of O 2 reduction at the pH of the reaction mixture, applying a potential to the gas diffusion electrode to cause reduction of the O 2 contained in the oxidant gas to one or more of the corresponding peroxide, OH-, ionic and/or radical reactive O containing species, and isolating nanoparticles of M x Cu 4-x y Cl z.
A resin composition for laser direct structuring, comprises, relative to 100 parts by weight of a resin component comprising 30 to 100% by weight of a polycarbonate resin and 70% by weight or less of a styrene-based resin, 10 to 100 parts by weight of a glass fiber having an average fiber length of 200 μm or less and 2 to 20 parts by weight of a laser direct structuring additive, wherein the laser direct structuring additive is a metal oxide comprising, as a metal component, 90% by weight or more of tin and 2 to 7% by weight of antimony, and further comprising 0.0005% or more by weight of lead and/or copper, or a metal oxide particle comprising titanium oxide coated with a composition comprising tin as a main component and antimony, wherein the glass fiber is a milled fiber milled to powder having a length of 10 to 500 μm.
Method for applying application material to an agricultural area, comprising the steps of: - determining application settings for an agricultural application device for adjusting a material application during an application process on an agricultural area; and - automatically adjusting the material application during the application process on the agricultural area by setting the determined application settings on the agricultural application device using the agricultural application device; characterized in that determining application settings for the agricultural application device is carried out using a calculation apparatus and comprises the following steps: - receiving track information on a previous application process on the agricultural area; - detecting a track system to be taken into account on the agricultural area; - identifying headland tracks within the track system to be taken into account on the agricultural area and/or - identifying field-internal tracks within the track system to be taken into account on the agricultural area, the outward swinging of the agricultural application device that occurs upon entry into and/or exit from a headland track is taken into account when determining the application settings for the agricultural application device. - determining application settings for an agricultural application device for adjusting a material application during an application process on an agricultural area; and - automatically adjusting the material application during the application process on the agricultural area by setting the determined application settings on the agricultural application device using the agricultural application device; characterized in that determining application settings for the agricultural application device is carried out using a calculation apparatus and comprises the following steps: - receiving track information on a previous application process on the agricultural area; - detecting a track system to be taken into account on the agricultural area; - identifying headland tracks within the track system to be taken into account on the agricultural area and/or - identifying field-internal tracks within the track system to be taken into account on the agricultural area, - receiving track information on a previous application process on the agricultural area; - detecting a track system to be taken into account on the agricultural area; - identifying headland tracks within the track system to be taken into account on the agricultural area and/or - identifying field-internal tracks within the track system to be taken into account on the agricultural area, the outward swinging of the agricultural application device that occurs upon entry into and/or exit from a headland track is taken into account when determining the application settings for the agricultural application device.
A pump device (3; 6; 7; 8), comprising: a casing (10; 70; 80) including a suction port, a discharge port, and a pump chamber that can communicate with the suction port and the discharge port; a movable member that is movable within the casing (10; 70; 80) and alternately performs suction of a gas into the pump chamber and discharge of the gas from the pump chamber; a first valve that is attached between the suction port and the pump chamber and permits the gas to flow from the suction port to the pump chamber; a second valve that is attached between the pump chamber and the discharge port and permits the gas to flow from the pump chamber to the discharge port in a case where the gas of the pump chamber has a first pressure or higher; characterised in that a third valve that is attached to the discharge port and limits a flow of the gas toward the discharge port from the suction port in a case where the gas between the suction port and the discharge port has a second pressure or lower, the second pressure being higher than the first pressure. a casing (10; 70; 80) including a suction port, a discharge port, and a pump chamber that can communicate with the suction port and the discharge port; a movable member that is movable within the casing (10; 70; 80) and alternately performs suction of a gas into the pump chamber and discharge of the gas from the pump chamber; a first valve that is attached between the suction port and the pump chamber and permits the gas to flow from the suction port to the pump chamber; a second valve that is attached between the pump chamber and the discharge port and permits the gas to flow from the pump chamber to the discharge port in a case where the gas of the pump chamber has a first pressure or higher; characterised in that a third valve that is attached to the discharge port and limits a flow of the gas toward the discharge port from the suction port in a case where the gas between the suction port and the discharge port has a second pressure or lower, the second pressure being higher than the first pressure.
A device for the detachable fastening of a drying agent cartridge to a housing of a compressed-air treatment installation of a vehicle, in particular of a utility vehicle, having: a crimped formation (6; 26b; 57, 58) on the cartridge base of the drying agent cartridge, which crimped formation has an abutment surface; and an insertion opening (101; 102; 103) on the housing of the compressed-air treatment installation, into which insertion opening the crimped formation (6; 26b; 57, 58) can be inserted at least in sections and, in the inserted state, is secured in an axial direction by way of a form fit; characterized in that the crimped formation, which can be inserted at least in sections into the insertion opening, has a relative-rotation prevention means (30, 31). a crimped formation (6; 26b; 57, 58) on the cartridge base of the drying agent cartridge, which crimped formation has an abutment surface; and an insertion opening (101; 102; 103) on the housing of the compressed-air treatment installation, into which insertion opening the crimped formation (6; 26b; 57, 58) can be inserted at least in sections and, in the inserted state, is secured in an axial direction by way of a form fit; characterized in that the crimped formation, which can be inserted at least in sections into the insertion opening, has a relative-rotation prevention means (30, 31).