mhurhangee/patent-ind-claim-en huggingface dataset:
A method for temporal shift calibration between reception channels (V 1 ,..., V N ) of a multichannel radioelectric reception system , the system including a set of radioelectric reception channels (V 1 ,..., V N ), each reception channel including a reception chain (6 1 ,.., 6 N ) delivering an electrical signal at the input of an analog-digital converter (8 1 ,..., 8 N ) having an associated sampling frequency, and an interfacing module (10 1 ,..., 10 N ) connected at the output of said analog-digital converter (8 1 ,..., 8 N ) and suitable for supplying sets of digitized signal samples at the input of a digital signal processing module (12 1 ,...,12 N ) including one or several programmable digital components, the method comprising, after the reception system is powered on: - injecting a same random signal, representing a noise obtained from a noise source , on all of the reception channels, - for at least one pair of reception channels including a first channel and a second channel, estimating a temporal shift between digitized signal samples supplied by said first and second channels, using a calculation of an intercorrelation function between a first set of samples obtained by the first reception channel and a second set of samples obtained by the second reception channel, - storing the estimated temporal shift in combination with said pair of channels. - injecting a same random signal, representing a noise obtained from a noise source , on all of the reception channels, - for at least one pair of reception channels including a first channel and a second channel, estimating a temporal shift between digitized signal samples supplied by said first and second channels, using a calculation of an intercorrelation function between a first set of samples obtained by the first reception channel and a second set of samples obtained by the second reception channel, - storing the estimated temporal shift in combination with said pair of channels.
A time-based power boost control system, comprising: a fluid source configured to supply fluid; a relief device configured to relieve pressure of the fluid supplied by the fluid source when a level of the pressure of the fluid exceeds a relief pressure level; and a control device configured to set a time period and control the relief device such that, when a boost mode is active, at least a first level of pressure and a second level of pressure, higher than the first level of pressure, are allowed to be selectively used as the relief pressure level, characterized in that a cumulative length of at least one boost-on time over the time period in which the second level of pressure is used as the relief pressure level is shorter than a maximum boost-on time limit. a fluid source configured to supply fluid; a relief device configured to relieve pressure of the fluid supplied by the fluid source when a level of the pressure of the fluid exceeds a relief pressure level; and a control device configured to set a time period and control the relief device such that, when a boost mode is active, at least a first level of pressure and a second level of pressure, higher than the first level of pressure, are allowed to be selectively used as the relief pressure level, characterized in that a cumulative length of at least one boost-on time over the time period in which the second level of pressure is used as the relief pressure level is shorter than a maximum boost-on time limit.
A foam polyurethane material, wherein the foam polyurethane material is a reaction-foaming-product of a composition containing: a monomer of a polyisocyanate (a), an isocyanate-terminated prepolymer (b) containing 0.3 mass% or more and less than 5 mass% of an isocyanate group, a polyol (c), and a catalyst, whereby the isocyanate-terminated prepolymer (b) is a reaction product of a polyisocyanate (b-1) and a polyol (b-2), the polyisocyanate (b-1) is at least one selected from the group consisting of aliphatic polyisocyanate, alicyclic polyisocyanate, and araliphatic polyisocyanate, and the foam polyurethane material has an impact resilience measured in accordance with JIS K6400-3 of 65% or more. a monomer of a polyisocyanate (a), an isocyanate-terminated prepolymer (b) containing 0.3 mass% or more and less than 5 mass% of an isocyanate group, a polyol (c), and a catalyst, whereby the isocyanate-terminated prepolymer (b) is a reaction product of a polyisocyanate (b-1) and a polyol (b-2), the polyisocyanate (b-1) is at least one selected from the group consisting of aliphatic polyisocyanate, alicyclic polyisocyanate, and araliphatic polyisocyanate, and the foam polyurethane material has an impact resilience measured in accordance with JIS K6400-3 of 65% or more.
Flow-rate regulator having a regulation body , by way of which a clear opening dimension of a regulation opening can be varied in a manner dependent on a pressure acting on the regulation body , wherein the flow-rate regulator has a bypass channel in relation to the regulation opening , characterized in that the cross section of the bypass channel varies along the course of the bypass channel , wherein the bypass channel is formed without any undercuts in the flow direction and has a clear opening cross section which decreases in size monotonically in the flow direction .
Pressure measuring cell , which has an elastic, ceramic process isolating diaphragm , wherein the process isolating diaphragm can be exposed to a first pressure on a first side, and to a second pressure on a second side facing away from the first side, wherein the process isolating diaphragm can be deflected depending on a difference between the first pressure and the second pressure, wherein the process isolating diaphragm separates in a pressure-tight manner a first volume - to which the first side of the process isolating diaphragm is facing - from a second volume - to which the second side of the process isolating diaphragm is facing - wherein the pressure measuring cell further comprises a converter which is designed to convert the pressure-dependent deflection of the process isolating diaphragm to an electrical or optical signal, characterized in that , in the state of equilibrium of the process isolating diaphragm , compressive stresses occur at least at the surface of the process isolating diaphragm , at least in a radial marginal zone in which maximum tensile stresses occur under the effect of pressure when the process isolating diaphragm is in the deflected state, wherein the pressure measuring cell is obtained using a method that comprises the provisioning of a fired blank of the process isolating diaphragm, wherein, following the firing, the process isolating diaphragm is adjusted to its target thickness and leveled, particularly by grinding and/or lapping, which causes the build-up of compressive stresses in layers of the process isolating diaphragm that are close to the surface, wherein the compressive stresses are reduced locally by local thermal treatment and maintained at least in the radial marginal zone in which maximum tensile stresses occur under the effect of pressure when the process isolating diaphragm is in the deflected state.
Container , in particular wide-necked container manufactured preferably from plastic, comprising: a threaded connecting piece with an opening , which is able to be closed with a screw cap manufactured preferably from plastic, wherein detent elements protruding radially to the outside are formed on the threaded connecting piece , which detent elements in a closed position of the screw cap grip behind detent elements protruding radially to the inside on a tamper indicating band connected via predetermined breaking points to the screw cap , wherein the detent elements are formed on the threaded connecting piece such as to be elastically resilient and/or are connected in an elastically resilient manner to the threaded connecting piece , in order to facilitate a guiding of the detent elements of the tamper indicating band past the detent elements of the threaded connecting piece when the screw cap is screwed on for the first time, characterised in that the detent elements on the threaded connecting piece can be moved at least partially in an elastically resilient manner radially to the inside behind the thread flanks of the threaded connecting piece . a threaded connecting piece with an opening , which is able to be closed with a screw cap manufactured preferably from plastic, wherein detent elements protruding radially to the outside are formed on the threaded connecting piece , which detent elements in a closed position of the screw cap grip behind detent elements protruding radially to the inside on a tamper indicating band connected via predetermined breaking points to the screw cap , wherein the detent elements are formed on the threaded connecting piece such as to be elastically resilient and/or are connected in an elastically resilient manner to the threaded connecting piece , in order to facilitate a guiding of the detent elements of the tamper indicating band past the detent elements of the threaded connecting piece when the screw cap is screwed on for the first time, characterised in that the detent elements on the threaded connecting piece can be moved at least partially in an elastically resilient manner radially to the inside behind the thread flanks of the threaded connecting piece .
A method for producing a liquid flavor composition with an improved spicy-cooked, fried to roasted sensory profile, comprising the following steps: (a) provision of an essential oil component and optionally a carrier; (b) heating the oil component to temperatures of about 80 to about 300 ° C for a period of about 0.1 to about 6 seconds; (c) cooling the resulting product while maintaining the flavor composition. (a) provision of an essential oil component and optionally a carrier; (b) heating the oil component to temperatures of about 80 to about 300 ° C for a period of about 0.1 to about 6 seconds; (c) cooling the resulting product while maintaining the flavor composition.
A seabed attachable subsea wire sawing system comprising: a first feeding tower with a first feeding tower first end with a seabed attachment portion for attachment to a seabed floor; a second feeding tower with a second feeding tower first end with a seabed attachment portion for attachment to the seabed floor; a first wire feeding trolley connected to and linearly displaceable a cutting distance along the first feeding tower ; a second wire feeding trolley connected to and linearly displaceable a cutting distance along the second feeding tower; at least two cutting wire pulleys on each wire feeding trolley whereof at least one cutting wire pulley on each wire feeding trolley is motorized; characterized by : the cutting wire forming a loop and traversing between the two cutting wire pulleys on the first wire feeding trolley and on the second wire feeding trolley ; an adjustable crossbeam located between the first feeding tower and the second feeding tower above the first wire feeding trolley and the second wire feeding trolley ; at least one crossbeam actuator assembly in connection with the adjustable crossbeam enabling adjustment of a distance between the first feeding tower and the second feeding tower at the location of the crossbeam . a first feeding tower with a first feeding tower first end with a seabed attachment portion for attachment to a seabed floor; a second feeding tower with a second feeding tower first end with a seabed attachment portion for attachment to the seabed floor; a first wire feeding trolley connected to and linearly displaceable a cutting distance along the first feeding tower ; a second wire feeding trolley connected to and linearly displaceable a cutting distance along the second feeding tower; at least two cutting wire pulleys on each wire feeding trolley whereof at least one cutting wire pulley on each wire feeding trolley is motorized; the cutting wire forming a loop and traversing between the two cutting wire pulleys on the first wire feeding trolley and on the second wire feeding trolley ; an adjustable crossbeam located between the first feeding tower and the second feeding tower above the first wire feeding trolley and the second wire feeding trolley ; at least one crossbeam actuator assembly in connection with the adjustable crossbeam enabling adjustment of a distance between the first feeding tower and the second feeding tower at the location of the crossbeam .
A composition for controlling aquatic weeds in a body of water, comprising a herbicidally effective amount of (a) a compound of formula (I) or a compound of formula (II), or an agriculturally acceptable salt or ester thereof, and (b) one or more of copper sulfate, mixed copper ethanolamine complex, diquat dibromide, endothal, or fluridone, or agriculturally acceptable salts or esters thereof, wherein the weight ratio of (a) to copper sulfate is within the range of from 1:250 to 1:1, or the weight ratio of (a) to mixed copper ethanolamine complex is within the range of from 1:2500 to 1:2, or the weight ratio of (a) to diquat dibromide is within the range of from 1:220 to 1:6, or the weight ratio of (a) to endothal or an agriculturally acceptable salt or ester thereof is within the range of from 1:2500 to 1:1, or the weight ratio of (a) to fluridone is within the range of from 1:100 to 40:1. wherein the weight ratio of (a) to copper sulfate is within the range of from 1:250 to 1:1, or the weight ratio of (a) to mixed copper ethanolamine complex is within the range of from 1:2500 to 1:2, or the weight ratio of (a) to diquat dibromide is within the range of from 1:220 to 1:6, or the weight ratio of (a) to endothal or an agriculturally acceptable salt or ester thereof is within the range of from 1:2500 to 1:1, or the weight ratio of (a) to fluridone is within the range of from 1:100 to 40:1.
A noble metal recovery method comprising a step of: bringing a yeast into contact with noble metal ions in a liquid containing the noble metal ions and accumulating the noble metal in a fungus body of the yeast, wherein the liquid containing the noble metal ions is a solution to which an electron donor is added, wherein the concentration of electron donor in the liquid to be contacted with yeast is the same degree as the noble metal ion concentration or more, and wherein the electron donor is selected from aliphatic carboxylic acids with a carbon number of 1 to 7, or salts thereof, aromatic carboxylic acids having a carboxyl group with a carbon number of 1 to 7, or salts thereof, alcohols or hydrogen gas. bringing a yeast into contact with noble metal ions in a liquid containing the noble metal ions and accumulating the noble metal in a fungus body of the yeast, wherein the liquid containing the noble metal ions is a solution to which an electron donor is added, wherein the concentration of electron donor in the liquid to be contacted with yeast is the same degree as the noble metal ion concentration or more, and wherein the electron donor is selected from aliphatic carboxylic acids with a carbon number of 1 to 7, or salts thereof, aromatic carboxylic acids having a carboxyl group with a carbon number of 1 to 7, or salts thereof, alcohols or hydrogen gas.
Heat exchanger , wherein the heat exchanger is designed as a plate heat exchanger, wherein the heat exchanger has partition walls , wherein the heat exchanger has first regions between the partition walls for a first medium and second regions between the partition walls for a second medium, wherein the first regions and the second regions are separated by a plurality of partition walls , wherein first regions and second regions are arranged alternately between two neighbouring partition walls , wherein connecting elements are arranged in the first region between the partition walls , wherein the connecting elements have an elongate cross-section, wherein the connecting elements are arranged in the longitudinal direction parallel to the direction of flow of the first medium, wherein the connecting elements have a cross-section parallel to the partition walls , wherein the cross-section parallel to the longitudinal direction and perpendicular to the partitions has a mirror symmetry, characterised in that the connecting element between two partitions has a cross-section which tapers towards the centre between the partitions , wherein the connecting element has a length which is at least 20% shorter in the centre.
An airfoil comprising: an airfoil wall defining a leading end , a trailing end , and pressure and suction sides that join the leading end and the trailing end , the airfoil wall including a wishbone-shaped fiber layer structure , the wishbone-shaped fiber layer structure including a pair of arms that merge into a single leg , the pair of arms being formed by first and second S-shaped fiber layers each of which is comprised of a network of fiber tows , the first and second S-shaped fiber layers merging to form the single leg , the single leg comprising fiber tows from each of the first and second S-shaped fiber layers (68a/68b) that are interwoven, the single leg forming at least a portion of the trailing end of the airfoil wall .
A mobile platform-mounted mobile communicator configured for communicating with a constellation of satellites comprising: a first antenna optimized for operation using a first frequency band in a first geographic region , wherein the first antenna is further optimized for communication with satellites under conditions found in the first geographic region , wherein the first geographic region is closer to either the North Pole or South Pole than the Equator; a second antenna optimized for operation using either the first frequency band or a second frequency band in a second geographic region , wherein the second antenna is further optimized for communication with satellites under conditions found in the second geographic region , wherein the second geographic region is closer to the Equator; a controller configured to determine to terminate communication with the constellation of satellites via the first antenna on the first frequency band and begin communication with the constellation of satellites via the second antenna on either the first frequency band or the second frequency band based on a geographic indicator indicative of a position of the mobile platform-mounted mobile communicator relative to the earth, wherein the mobile platform-mounted mobile communicator passes from the first geographic region into the second geographic region ; and a radome enclosure for the platform-mounted mobile communicator configured to enclose the first antenna , the second antenna or both the first and second antennas. a first antenna optimized for operation using a first frequency band in a first geographic region , wherein the first antenna is further optimized for communication with satellites under conditions found in the first geographic region , wherein the first geographic region is closer to either the North Pole or South Pole than the Equator; a second antenna optimized for operation using either the first frequency band or a second frequency band in a second geographic region , wherein the second antenna is further optimized for communication with satellites under conditions found in the second geographic region , wherein the second geographic region is closer to the Equator; a controller configured to determine to terminate communication with the constellation of satellites via the first antenna on the first frequency band and begin communication with the constellation of satellites via the second antenna on either the first frequency band or the second frequency band based on a geographic indicator indicative of a position of the mobile platform-mounted mobile communicator relative to the earth, wherein the mobile platform-mounted mobile communicator passes from the first geographic region into the second geographic region ; and a radome enclosure for the platform-mounted mobile communicator configured to enclose the first antenna , the second antenna or both the first and second antennas.
A method for generating a load of a wireless power receiver (PRU) for detecting the PRU in a wireless charging system, the method comprising: receiving a wireless power signal from a wireless power transmitter (PTU); rectifying the received wireless power signal into a direct current (DC) signal; and generating a load for detecting the PRU by controlling a current flowing across a resistor connected in parallel with a load charged with power of the DC signal, characterised in that the current flowing across the resistor is controlled by a controller driven by the DC signal, and the controller performs ON/OFF control on the current flowing across the resistor in a predetermined pattern. receiving a wireless power signal from a wireless power transmitter (PTU); rectifying the received wireless power signal into a direct current (DC) signal; and generating a load for detecting the PRU by controlling a current flowing across a resistor connected in parallel with a load charged with power of the DC signal, characterised in that the current flowing across the resistor is controlled by a controller driven by the DC signal, and the controller performs ON/OFF control on the current flowing across the resistor in a predetermined pattern.
A ceramic substrate comprising: - a front side (100-1), which comprises: i) a power semiconductor (102-1,.., 102-n); and ii) a first metallic layer comprising at least one first metallic plane contact (104-1,..,104-n), which is configured to connect the power semiconductor (102-1,.., 102-n) to a first terminal (105-1,..,105-n) on an edge (100-3) of the ceramic substrate ; - a back side (100-2), which comprises: i) a capacitor which is attached to ii) a second metallic layer comprising at least one second metallic plane contact (108-1,..,108-n), which is configured to connect the capacitor to a second terminal (107-1,..,107-n) on the edge (100-3) of the ceramic substrate ; characterized by - a metallic frame , which electrically connects the at least one first metallic layer to the at least one second metallic layer ; and wherein the second metallic layer is configured to form a back side current path on the back side (100-2) of the ceramic substrate , the back side current path corresponding to a switched current path on the front side (100-1) as provided by the first metallic layer . - a front side (100-1), which comprises: i) a power semiconductor (102-1,.., 102-n); and ii) a first metallic layer comprising at least one first metallic plane contact (104-1,..,104-n), which is configured to connect the power semiconductor (102-1,.., 102-n) to a first terminal (105-1,..,105-n) on an edge (100-3) of the ceramic substrate ; i) a power semiconductor (102-1,.., 102-n); and ii) a first metallic layer comprising at least one first metallic plane contact (104-1,..,104-n), which is configured to connect the power semiconductor (102-1,.., 102-n) to a first terminal (105-1,..,105-n) on an edge (100-3) of the ceramic substrate ; - a back side (100-2), which comprises: i) a capacitor which is attached to ii) a second metallic layer comprising at least one second metallic plane contact (108-1,..,108-n), which is configured to connect the capacitor to a second terminal (107-1,..,107-n) on the edge (100-3) of the ceramic substrate ; characterized by i) a capacitor which is attached to ii) a second metallic layer comprising at least one second metallic plane contact (108-1,..,108-n), which is configured to connect the capacitor to a second terminal (107-1,..,107-n) on the edge (100-3) of the ceramic substrate ; characterized by - a metallic frame , which electrically connects the at least one first metallic layer to the at least one second metallic layer ; and wherein the second metallic layer is configured to form a back side current path on the back side (100-2) of the ceramic substrate , the back side current path corresponding to a switched current path on the front side (100-1) as provided by the first metallic layer .