mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device for receiving a radio frequency signal, the device comprising: - an upstream amplifier configured to amplify a received radio frequency signal, - a driving module configured to drive a gain (G) of the upstream amplifier , and - a mixer connected at the output of the upstream amplifier , the mixer being configured to mix the signal from the upstream amplifier with a reference signal, characterized in that the driving module is further configured to perform an intermodulation detection, by controlling the generating by the upstream amplifier of an increase in gain (ΔG) and by comparing a first power (P1) with a second power (P2), the first and second powers (P1, P2) being respective powers of a signal at the output of the mixer , the first power (P1) being measured in the absence of an increase in gain and the second power (P2) being measured in the presence of an increase in gain (ΔG), the driving module being configured to repeatedly control the generating of the increase in gain (ΔG), the time difference between a new increase in gain and the last increase in gain (ΔG n ) being raised in the event of detection of an intermodulation following the last increase in gain (ΔG n ). - an upstream amplifier configured to amplify a received radio frequency signal, - a driving module configured to drive a gain (G) of the upstream amplifier , and - a mixer connected at the output of the upstream amplifier , the mixer being configured to mix the signal from the upstream amplifier with a reference signal, characterized in that the driving module is further configured to perform an intermodulation detection, by controlling the generating by the upstream amplifier of an increase in gain (ΔG) and by comparing a first power (P1) with a second power (P2), the first and second powers (P1, P2) being respective powers of a signal at the output of the mixer , the first power (P1) being measured in the absence of an increase in gain and the second power (P2) being measured in the presence of an increase in gain (ΔG), the driving module being configured to repeatedly control the generating of the increase in gain (ΔG), the time difference between a new increase in gain and the last increase in gain (ΔG n ) being raised in the event of detection of an intermodulation following the last increase in gain (ΔG n ).
A rotary vacuum filter for separation of bisphenol A-phenol adduct crystals from a crystallization liquor, the rotary vacuum filter comprising: a filter drum with a perforated sector on a lateral surface of the filter drum ; a filter cloth attached to the filter drum and covering said perforated sector ; a first attaching piece for attaching said filter cloth to the filter drum , wherein said first attaching piece comprises an insert positioned in a groove adjacent to said perforated sector , wherein at least a portion of said filter cloth is fixed in said groove by said insert abutting said portion of said filter cloth opposite an interior surface of said groove ; a second attaching piece comprising a connector introduced into a portion of said insert ; and a vacuum pump in fluid communication with an interior surface of the perforated sector , characterised in that , said filter cloth is a non-polymeric filter cloth and said groove has an inside width (W2) that is greater than a surface width (W1). a filter drum with a perforated sector on a lateral surface of the filter drum ; a filter cloth attached to the filter drum and covering said perforated sector ; a first attaching piece for attaching said filter cloth to the filter drum , wherein said first attaching piece comprises an insert positioned in a groove adjacent to said perforated sector , wherein at least a portion of said filter cloth is fixed in said groove by said insert abutting said portion of said filter cloth opposite an interior surface of said groove ; a second attaching piece comprising a connector introduced into a portion of said insert ; and a vacuum pump in fluid communication with an interior surface of the perforated sector , characterised in that , said filter cloth is a non-polymeric filter cloth and said groove has an inside width (W2) that is greater than a surface width (W1).
A tensioning system for an article of footwear , comprising: a reel member comprising: a shaft including a central axis running from a first end to a second end; and at least one flange , including a first face opposite a second face , extending radially outward from the shaft ; wherein the at least one flange includes an aperture extending through the flange from the first face to the second face aligned with the central axis; wherein: the reel member is configured to rotate about the central axis; the shaft runs parallel to the central axis and through a center of the at least one flange from the first face to the second face ; the tensioning system further comprises a lace including a first end , a second end , and a middle portion, wherein a first segment of the middle portion extends through the aperture ; and rotating the reel member winds a second segment of the middle portion of the lace onto the shaft adjacent the first face and a third segment of the middle portion of the lace onto the shaft adjacent the second face inducing tension on the lace . a reel member comprising: a shaft including a central axis running from a first end to a second end; and at least one flange , including a first face opposite a second face , extending radially outward from the shaft ; wherein the at least one flange includes an aperture extending through the flange from the first face to the second face aligned with the central axis; a shaft including a central axis running from a first end to a second end; and at least one flange , including a first face opposite a second face , extending radially outward from the shaft ; wherein the at least one flange includes an aperture extending through the flange from the first face to the second face aligned with the central axis; wherein: the reel member is configured to rotate about the central axis; the shaft runs parallel to the central axis and through a center of the at least one flange from the first face to the second face ; the tensioning system further comprises a lace including a first end , a second end , and a middle portion, wherein a first segment of the middle portion extends through the aperture ; and rotating the reel member winds a second segment of the middle portion of the lace onto the shaft adjacent the first face and a third segment of the middle portion of the lace onto the shaft adjacent the second face inducing tension on the lace . the reel member is configured to rotate about the central axis; the shaft runs parallel to the central axis and through a center of the at least one flange from the first face to the second face ; the tensioning system further comprises a lace including a first end , a second end , and a middle portion, wherein a first segment of the middle portion extends through the aperture ; and rotating the reel member winds a second segment of the middle portion of the lace onto the shaft adjacent the first face and a third segment of the middle portion of the lace onto the shaft adjacent the second face inducing tension on the lace .
Pneumatic solenoid valve, comprising an electromagnetic actuator and an air chamber on which multiple air connectors are provided which are interconnectable, with the interposition of the air chamber , by means of multiple switching positions of the magnetic actuator, wherein - the electromagnetic actuator can assume three different switching positions by means of unipolar electrical energization of the actuator with three different electrical current intensities, wherein, in a first switching position, a first sealing element closes a first air connector and a second sealing element opens up a second air connector , wherein, in a second switching position, the first sealing element closes the first air connector and the second sealing element closes the second air connector , and wherein, in a third switching position, the first sealing element opens up the first air connector and the second sealing element closes the second air connector ; for the closing and opening of the first and second air connectors , the first and second sealing elements are movable by the electromagnetic actuator by means of an actuation mechanism (11, 12, 24, 25, 28, 28'; 29, 30), wherein the actuation mechanism (11, 12, 24, 25, 28, 28'; 29, 30) is designed such that, upon the change between the first and second switching positions and upon the change between the second and third switching positions, in each case only one out of the first and second sealing elements is moved, characterized in that the actuation mechanism (11, 12, 24, 25, 28, 28'; 29, 30) comprises a first rocker , to which the first sealing element is attached, and a second rocker , to which the second sealing element is attached, wherein the first rocker is tiltable for the purposes of opening and closing the first air connector , and the second rocker is tiltable for the purposes of opening and closing the second air connector , wherein the actuation mechanism (11, 12, 24, 25, 28, 28'; 29, 30) is designed such that, during the tilting of one out of the first and second rockers , the other out of the first and second rockers is not tilted. - the electromagnetic actuator can assume three different switching positions by means of unipolar electrical energization of the actuator with three different electrical current intensities, wherein, in a first switching position, a first sealing element closes a first air connector and a second sealing element opens up a second air connector , wherein, in a second switching position, the first sealing element closes the first air connector and the second sealing element closes the second air connector , and wherein, in a third switching position, the first sealing element opens up the first air connector and the second sealing element closes the second air connector ;
System for measuring the average saturation and/or the saturation profile of at least one fluid within a porous medium, said measurement system having at least one cell containing said porous medium, means for injecting said fluid into said cell , and X-ray radiography means comprising a source and a detector , characterized in that the diameter of said cell is substantially between 2 mm and 5 cm, in that the length of said cell is between 5 and 50 mm, and in that said X-ray radiography means are able to take a plurality of X-rays during the injection of said fluid at regular intervals, substantially between 0.1 and 5 seconds, so as to regularly monitor the flows in the cell in real time, and in that said measurement system has means for collecting and analysing said X-rays obtained by said detector that make it possible to store and analyse the measurements obtained by the X-rays, said collection and analysis means comprising a computer system for linking the greyscale level of each X-ray image to the saturation of the fluid in the porous medium by comparing the X-rays during injection with at least one reference X-ray, said reference X-ray corresponding to an image of said porous medium saturated with said fluid to be injected into said porous medium.
A method, comprising: for an application having a software portion for implementation in a data processing engine, DPE, array of a device and a hardware portion for implementation in programmable logic of the device, performing, using a processor executing a hardware compiler configured for implementing the hardware portion, an implementation flow on the hardware portion based on an initial interface block solution that maps connections, in and out of the DPE array , of logical resources used by the software portion to hardware of an interface block coupling the DPE array to the programmable logic ; in response to not meeting a design metric for the hardware portion of the application during the implementation flow, providing, using the processor executing the hardware compiler , an interface block constraint which remaps the logical resources to physical resources of the interface block , to a DPE compiler , wherein the DPE compiler is capable of generating the initial interface block solution; in response to receiving the interface block constraint, generating, using the processor executing the DPE compiler , an updated interface block solution that follows the interface block constraint and remaps the connections; using the updated interface block solution for performing the implementation flow; and providing the updated interface block solution from the DPE compiler to the hardware compiler . for an application having a software portion for implementation in a data processing engine, DPE, array of a device and a hardware portion for implementation in programmable logic of the device, performing, using a processor executing a hardware compiler configured for implementing the hardware portion, an implementation flow on the hardware portion based on an initial interface block solution that maps connections, in and out of the DPE array , of logical resources used by the software portion to hardware of an interface block coupling the DPE array to the programmable logic ; in response to not meeting a design metric for the hardware portion of the application during the implementation flow, providing, using the processor executing the hardware compiler , an interface block constraint which remaps the logical resources to physical resources of the interface block , to a DPE compiler , wherein the DPE compiler is capable of generating the initial interface block solution; in response to receiving the interface block constraint, generating, using the processor executing the DPE compiler , an updated interface block solution that follows the interface block constraint and remaps the connections; using the updated interface block solution for performing the implementation flow; and providing the updated interface block solution from the DPE compiler to the hardware compiler .
A railway wagon brake control system, comprising a train pipe and a plurality of disc brakes which are used for braking the wheels of a railway wagon, the system further comprises an ECP control host and a distribution valve communicated with the train pipe ; the distribution valve is communicated with a plurality of relay valves, each relay valve corresponds to each bogie of the rail wagon, and each disc brake of the same bogie is communicated with the relay valve corresponding to the bogie; the system also comprises a control air cylinder and an auxiliary reservoir which are communicated with the distribution valve ; each bogie is provided with at least one weighing valve , and each weighing valve is respectively communicated with the auxiliary reservoir and the relay valve; characterized in that the system further comprises an ECP pre-control chamber , the ECP pre-control chamber is communicated with the train pipe, and the ECP control host controls the air pressure change in the ECP pre-control chamber so as to enable pressure air in the train pipe to be exhausted; the system further comprises a speed synchronization control host , wherein the speed synchronization control host is connected to a plurality of speed sensors , and each speed sensor measures the speed of each wheel of the railway wagon. the system also comprises a control air cylinder and an auxiliary reservoir which are communicated with the distribution valve ; each bogie is provided with at least one weighing valve , and each weighing valve is respectively communicated with the auxiliary reservoir and the relay valve; characterized in that the system further comprises an ECP pre-control chamber , the ECP pre-control chamber is communicated with the train pipe, and the ECP control host controls the air pressure change in the ECP pre-control chamber so as to enable pressure air in the train pipe to be exhausted; the system further comprises a speed synchronization control host , wherein the speed synchronization control host is connected to a plurality of speed sensors , and each speed sensor measures the speed of each wheel of the railway wagon.
A process for preparing gamma-butyrolactone, a gamma-butyrolactone derivative, furanone, dialkyl succinate, a by-product, or a mixture thereof, comprising: reacting a solution of a homoserine-based compound with NO x (step 1); and recovering gamma-butyrolactone, a gamma-butyrolactone derivative, furanone, dialkyl succinate, a by-product, or a mixture thereof from the products obtained in step 1 (step 2), wherein, in step 1, x is any of 1, 1.5, 2, and 3, wherein NO x , in a form of gas directly, reacts with the homoserine-based compound in step 1, wherein the homoserine-based compound is homoserine, homoserine lactone, O-acetylhomoserine, O-succinyl homoserine, homoserine lactone hydrochloride, homoserine lactone hydrobromide, or a mixture thereof, wherein the gamma-butyrolactone derivative is halo-gamma-butyrolactone, hydroxy-gamma-butyrolactone, methoxy-gamma-butyrolactone, acetoxy-gamma-butyrolactone, or a mixture thereof, and wherein the by-product is succinic acid, succinic anhydride, acetic acid, acetic anhydride, 2,4-dihydroxybutanoic acid, 4-hydroxy-2-butenoic acid methyl ester, 4-hydroxy-2-methoxybutanoic acid, 4-hydroxy-2-chlorobutanoic acid, or a mixture thereof. reacting a solution of a homoserine-based compound with NO x (step 1); and recovering gamma-butyrolactone, a gamma-butyrolactone derivative, furanone, dialkyl succinate, a by-product, or a mixture thereof from the products obtained in step 1 (step 2), wherein, in step 1, x is any of 1, 1.5, 2, and 3, wherein NO x , in a form of gas directly, reacts with the homoserine-based compound in step 1, wherein the homoserine-based compound is homoserine, homoserine lactone, O-acetylhomoserine, O-succinyl homoserine, homoserine lactone hydrochloride, homoserine lactone hydrobromide, or a mixture thereof, wherein the gamma-butyrolactone derivative is halo-gamma-butyrolactone, hydroxy-gamma-butyrolactone, methoxy-gamma-butyrolactone, acetoxy-gamma-butyrolactone, or a mixture thereof, and wherein the by-product is succinic acid, succinic anhydride, acetic acid, acetic anhydride, 2,4-dihydroxybutanoic acid, 4-hydroxy-2-butenoic acid methyl ester, 4-hydroxy-2-methoxybutanoic acid, 4-hydroxy-2-chlorobutanoic acid, or a mixture thereof.
A multilayer coated fuel rod cladding in a nuclear water reactor, comprising: a zirconium alloy elongated tube wall having a cavity formed therein, an interior surface and an exterior surface , structured to hold nuclear fuel in the cavity ; a first coating composition comprising an elemental metal and absent of elemental chromium deposited on the exterior surface of the elongated tube wall to form an intermediate metallic layer ; and a second coating composition comprising chromium deposited on the intermediate metallic layer to form a chromium layer . a zirconium alloy elongated tube wall having a cavity formed therein, an interior surface and an exterior surface , structured to hold nuclear fuel in the cavity ; a first coating composition comprising an elemental metal and absent of elemental chromium deposited on the exterior surface of the elongated tube wall to form an intermediate metallic layer ; and a second coating composition comprising chromium deposited on the intermediate metallic layer to form a chromium layer .
Method for producing poultry, in particular chicken, the method comprising; a) incubating a batch of eggs in an incubating device during a first incubating period of between about 7 to about 11 days, and then, b) maintaining an egg in a predetermined sampling position during a settling time for allowing allantoic fluid to surface, c) providing a sensor system for determining one or more egg parameters, the egg parameters comprising egg dimension, a length along a longitudinal axis of the egg, an egg colour, an image of the egg, a heat image of the egg, a weight of the egg, a perimeter measurement of the egg, a liveability detection of the egg, an activity detection of the egg, d) determining a location of entry based on one or more egg parameters obtained by the sensor system, the egg parameters being an egg dimension, a length along a longitudinal axis of the egg, an egg colour, an image of the egg, a heat image of the egg, a weight of the egg, a perimeter measurement of the egg, incubation time, age of parent stock, and e) taking an allantoic fluid sample from the egg at the determined location of entry, f) determining the gender of the poultry embryo in the egg based on the presence of a gender specific compound in the allantoic fluid sample, g) repeat step b to f for each egg of the batch of eggs, h) based on the gender of a chicken embryo, dividing the batch of eggs into at least a male batch portion and a female batch portion, i) incubating at least one of the female batch portion and male batch portion in the incubating device during a second incubating period. a) incubating a batch of eggs in an incubating device during a first incubating period of between about 7 to about 11 days, and then, b) maintaining an egg in a predetermined sampling position during a settling time for allowing allantoic fluid to surface, c) providing a sensor system for determining one or more egg parameters, the egg parameters comprising egg dimension, a length along a longitudinal axis of the egg, an egg colour, an image of the egg, a heat image of the egg, a weight of the egg, a perimeter measurement of the egg, a liveability detection of the egg, an activity detection of the egg, d) determining a location of entry based on one or more egg parameters obtained by the sensor system, the egg parameters being an egg dimension, a length along a longitudinal axis of the egg, an egg colour, an image of the egg, a heat image of the egg, a weight of the egg, a perimeter measurement of the egg, incubation time, age of parent stock, and e) taking an allantoic fluid sample from the egg at the determined location of entry, f) determining the gender of the poultry embryo in the egg based on the presence of a gender specific compound in the allantoic fluid sample, g) repeat step b to f for each egg of the batch of eggs, h) based on the gender of a chicken embryo, dividing the batch of eggs into at least a male batch portion and a female batch portion, i) incubating at least one of the female batch portion and male batch portion in the incubating device during a second incubating period.