mhurhangee/patent-ind-claim-en huggingface dataset:
A pressurized masking system (100; 1000) for cleaning a target surface of an article comprising passageways , the pressurized masking system comprising: a pressure masker (30; 1030) configured to fluidly connect to a first side of at least one passageway of the article and to pass a pressurized masking fluid (35; 1035) through the passageway from the first side to a second side , wherein the second side comprises the target surface ; and a part cleaner configured to project a cleaning material towards the target surface, wherein the pressurized masking fluid (35; 1035) prevents the cleaning material from permanently altering a cross sectional area of the at least one passageway , characterized in that the fluid connection comprises a multi-outlet manifold connection that connects to the first side of the article and comprises an internal passage, wherein the internal passage receives the pressurized masking fluid and fluidly distributes it to one or more passageways. a pressure masker (30; 1030) configured to fluidly connect to a first side of at least one passageway of the article and to pass a pressurized masking fluid (35; 1035) through the passageway from the first side to a second side , wherein the second side comprises the target surface ; and a part cleaner configured to project a cleaning material towards the target surface, wherein the pressurized masking fluid (35; 1035) prevents the cleaning material from permanently altering a cross sectional area of the at least one passageway , characterized in that the fluid connection comprises a multi-outlet manifold connection that connects to the first side of the article and comprises an internal passage, wherein the internal passage receives the pressurized masking fluid and fluidly distributes it to one or more passageways.
A laser system comprising: a laser holder for transmitting a laser beam therethrough emitted from a laser source; a lens disposed downstream of the laser holder for focusing the laser beam ; a laser head adjacent to the laser holder , the laser head holding the lens ; wherein the laser head includes: a thermal-mechanical adjustment device ; and an opening formed at one end of the laser head opposite an end through which the laser beam is emitted from the laser head; the thermal-mechanical adjustment device includes a pivot bar disposed within the opening ; the opening includes opposed open ends and a pivot point in between the opposed open ends, wherein a first cross-sectional area of the opening at a first one of the opposed open ends is greater than a second cross-sectional area of the opening at the pivot point and wherein a third cross-sectional area of the opening at a second one of the opposed open ends is greater than the second cross-sectional area of the opening at the pivot point and the pivot bar is configured to pivot about the pivot point and to rotate about its axis (B), so as to vary the alignment of the laser beam at the end of the laser head through which the laser beam is emitted. a laser holder for transmitting a laser beam therethrough emitted from a laser source; a lens disposed downstream of the laser holder for focusing the laser beam ; a laser head adjacent to the laser holder , the laser head holding the lens ; wherein the laser head includes: a thermal-mechanical adjustment device ; and an opening formed at one end of the laser head opposite an end through which the laser beam is emitted from the laser head; a thermal-mechanical adjustment device ; and an opening formed at one end of the laser head opposite an end through which the laser beam is emitted from the laser head; the thermal-mechanical adjustment device includes a pivot bar disposed within the opening ; the opening includes opposed open ends and a pivot point in between the opposed open ends, wherein a first cross-sectional area of the opening at a first one of the opposed open ends is greater than a second cross-sectional area of the opening at the pivot point and wherein a third cross-sectional area of the opening at a second one of the opposed open ends is greater than the second cross-sectional area of the opening at the pivot point and the pivot bar is configured to pivot about the pivot point and to rotate about its axis (B), so as to vary the alignment of the laser beam at the end of the laser head through which the laser beam is emitted.
A method comprising: transmitting, by a network node within a wireless network to a reference node , a first precoded tracking signal based on estimated precoding weights that are estimated to provide a predetermined signal at the reference node; receiving, by the network node from the reference node , a message including information related to whether or not the predetermined signal was received at the reference node based, at least in part, on the first precoded tracking signal transmitted by the network node; and if the predetermined signal was not received at the reference node, then adjusting one or more transmission parameters of the network node that are estimated to more accurately provide the predetermined signal at the reference node, and transmitting, by the network node, a second precoded tracking signal based on adjusted transmission parameters; wherein the predetermined signal is a signal provided at the reference node based on a cooperative joint transmission of precoded signals from a plurality of network nodes, including the transmission of the first precoded signal from the network node and a transmission of another precoded signal from at least one other network node; and wherein the receiving, by the network node from the reference node , a message including information related to whether or not the predetermined signal was received at the reference node comprises receiving, by the network node, a difference between corresponding signal parameters of strongest multipath components of the plurality of network nodes. transmitting, by a network node within a wireless network to a reference node , a first precoded tracking signal based on estimated precoding weights that are estimated to provide a predetermined signal at the reference node; receiving, by the network node from the reference node , a message including information related to whether or not the predetermined signal was received at the reference node based, at least in part, on the first precoded tracking signal transmitted by the network node; and if the predetermined signal was not received at the reference node, then adjusting one or more transmission parameters of the network node that are estimated to more accurately provide the predetermined signal at the reference node, and transmitting, by the network node, a second precoded tracking signal based on adjusted transmission parameters; wherein the predetermined signal is a signal provided at the reference node based on a cooperative joint transmission of precoded signals from a plurality of network nodes, including the transmission of the first precoded signal from the network node and a transmission of another precoded signal from at least one other network node; and wherein the receiving, by the network node from the reference node , a message including information related to whether or not the predetermined signal was received at the reference node comprises receiving, by the network node, a difference between corresponding signal parameters of strongest multipath components of the plurality of network nodes.
A composition for an encapsulant, comprising: 1) a first copolymer comprising a first unit represented by the following Chemical Formula 1, a second unit represented by the following Chemical Formula 2, and a third unit represented by the following Chemical Formula 3; 2) a second copolymer comprising the second unit represented by the following Chemical Formula 2 and the third unit represented by the following Chemical Formula 3; 3) one or more photoinitiators; and 4) a compound capable of dissolving the photoinitiators, wherein the compound capable of dissolving the photoinitiators is represented by the following Chemical Formula 4 or 5: in Chemical Formulae 1 to 3, R1 is a direct bond, or an alkylene group, R2 to R7 are the same as or different from each other, and are optionally each independently selected from the group consisting of hydrogen, an alkyl group, an alkenyl group, an aryl group, a glycidyl group, an isocyanate group, a hydroxy group, a carboxyl group, a vinyl group, an acrylate group, a methacrylate group, an epoxide group, a cyclic ether group, a sulfide group, an acetal group, a lactone group, an amide group, an alkylaryl group, an alkylglycidyl group, an alkylisocyanate group, an alkylhydroxy group, an alkylcarboxyl group, an alkylvinyl group, an alkylacrylate group, an alkylmethacrylate group, an alkyl cyclic ether group, an alkylsulfide group, an alkylacetal group, an alkyl lactone group, and an alkyl amide group, and a, b, c, and d are each independently 1 to 200. 1) a first copolymer comprising a first unit represented by the following Chemical Formula 1, a second unit represented by the following Chemical Formula 2, and a third unit represented by the following Chemical Formula 3; 2) a second copolymer comprising the second unit represented by the following Chemical Formula 2 and the third unit represented by the following Chemical Formula 3; 3) one or more photoinitiators; and 4) a compound capable of dissolving the photoinitiators, R1 is a direct bond, or an alkylene group, R2 to R7 are the same as or different from each other, and are optionally each independently selected from the group consisting of hydrogen, an alkyl group, an alkenyl group, an aryl group, a glycidyl group, an isocyanate group, a hydroxy group, a carboxyl group, a vinyl group, an acrylate group, a methacrylate group, an epoxide group, a cyclic ether group, a sulfide group, an acetal group, a lactone group, an amide group, an alkylaryl group, an alkylglycidyl group, an alkylisocyanate group, an alkylhydroxy group, an alkylcarboxyl group, an alkylvinyl group, an alkylacrylate group, an alkylmethacrylate group, an alkyl cyclic ether group, an alkylsulfide group, an alkylacetal group, an alkyl lactone group, and an alkyl amide group, and a, b, c, and d are each independently 1 to 200.
A direct-current circuit breaker including a circuit breaker adapted to interrupt a direct current flowing through a direct-current line , the direct-current circuit breaker comprising: a resonant circuit including a capacitor , a reactor , and a switch connected in series to each other; a lightning arrester ; and an operation processor adapted to control an opening operation and a closing operation by each of the circuit breaker and the switch , characterized in that the lightning arrester includes a plurality of columns each including a stack of a plurality of nonlinear resistive elements , the lightning arrester being connected in parallel to the capacitor , wherein the direct-current circuit breaker further comprises: a monitor adapted to monitor presence or absence of an anomaly in each of the plurality of columns ; and a lock processor adapted to: lock operations of the circuit breaker and the switch controlled by the operation processor in a case where there is an anomaly in at least one or some columns out of the plurality of columns ; and unlock the operations of the circuit breaker and the switch after the anomaly is resolved. a resonant circuit including a capacitor , a reactor , and a switch connected in series to each other; a lightning arrester ; and an operation processor adapted to control an opening operation and a closing operation by each of the circuit breaker and the switch , characterized in that the lightning arrester includes a plurality of columns each including a stack of a plurality of nonlinear resistive elements , the lightning arrester being connected in parallel to the capacitor , wherein the direct-current circuit breaker further comprises: a monitor adapted to monitor presence or absence of an anomaly in each of the plurality of columns ; and a lock processor adapted to: lock operations of the circuit breaker and the switch controlled by the operation processor in a case where there is an anomaly in at least one or some columns out of the plurality of columns ; and unlock the operations of the circuit breaker and the switch after the anomaly is resolved. a monitor adapted to monitor presence or absence of an anomaly in each of the plurality of columns ; and a lock processor adapted to: lock operations of the circuit breaker and the switch controlled by the operation processor in a case where there is an anomaly in at least one or some columns out of the plurality of columns ; and unlock the operations of the circuit breaker and the switch after the anomaly is resolved. lock operations of the circuit breaker and the switch controlled by the operation processor in a case where there is an anomaly in at least one or some columns out of the plurality of columns ; and unlock the operations of the circuit breaker and the switch after the anomaly is resolved.
A system for reducing smog in an urban area , comprising: an urban area having an urban surface , the urban surface being a horizontal surface located at a ground level of the urban area ; a smog atmospheric layer located above the urban surface and vertically adjacent to the urban surface and extending above the urban surface with a vertical thickness; a mixing atmospheric layer located above the smog atmospheric layer , the system comprising a plurality of turbines , comprising an air pump or similar device, located on the urban surface ; at least one air conduit , wherein the air pump or similar device is in communication with the at least one air conduit to direct air from a portion of the smog atmospheric layer proximate to the ground into the plurality of turbines and through the at least one air conduit and into the mixing atmospheric layer , characterized in that the at least one air conduit extends above the smog atmospheric layer and into the mixing atmospheric layer such that a top opening of the at least one air conduit expels air into the smog atmospheric layer , wherein the at least one air conduit is freestanding and formed from a substantially flexible material having a tube-like shape, wherein the at least one air conduit has a naturally deflated state and when a positive air pressure is applied with said air pump or similar device , the at least one conduit converts to an expanded state, and wherein continuous or semi-continuous positive air pressure from the air pump or similar device maintains the expanded state . an urban area having an urban surface , the urban surface being a horizontal surface located at a ground level of the urban area ; a smog atmospheric layer located above the urban surface and vertically adjacent to the urban surface and extending above the urban surface with a vertical thickness; a mixing atmospheric layer located above the smog atmospheric layer , the system comprising a plurality of turbines , comprising an air pump or similar device, located on the urban surface ; at least one air conduit , wherein the air pump or similar device is in communication with the at least one air conduit to direct air from a portion of the smog atmospheric layer proximate to the ground into the plurality of turbines and through the at least one air conduit and into the mixing atmospheric layer , characterized in that the at least one air conduit extends above the smog atmospheric layer and into the mixing atmospheric layer such that a top opening of the at least one air conduit expels air into the smog atmospheric layer , wherein the at least one air conduit is freestanding and formed from a substantially flexible material having a tube-like shape, wherein the at least one air conduit has a naturally deflated state and when a positive air pressure is applied with said air pump or similar device , the at least one conduit converts to an expanded state, and wherein continuous or semi-continuous positive air pressure from the air pump or similar device maintains the expanded state .
Method for operating an actuator , especially an autonomous actuator, for manoeuvring a movable element for closing, protecting from the sun, occulting or screening, the actuator and/or the movable element comprising a photovoltaic panel intended to recharge an accumulator of electrical energy for powering a motor of the actuator, characterized in that said operating method comprises, as a result of an order to move the movable element sent by a user, a phase of determining at least one first position of the actuator and/or of the movable element, in which position(s) the exposure of the photovoltaic panel to light radiation allows the accumulator of electrical energy to be charged, and the method being such that, following an order to move the actuator and/or the movable element to a desired position, the actuator implements the following steps: - checking the state of charge of the accumulator of electrical energy, - depending on the state of charge, - moving the actuator and/or the movable element to the desired position, or - moving the actuator and/or the movable element to the first position, the first position being a position avoiding configurations in which a small amount of solar radiation reaches the photovoltaic panel. - checking the state of charge of the accumulator of electrical energy, - depending on the state of charge, - moving the actuator and/or the movable element to the desired position, or - moving the actuator and/or the movable element to the first position, the first position being a position avoiding configurations in which a small amount of solar radiation reaches the photovoltaic panel. - moving the actuator and/or the movable element to the desired position, or - moving the actuator and/or the movable element to the first position, the first position being a position avoiding configurations in which a small amount of solar radiation reaches the photovoltaic panel.
A method for supporting multiple bands coexistence, wherein the method comprises: receiving (S1300) radio frequency signals of at least two frequency bands; down frequency mixing (S 1302) the radio frequency signals of different frequency bands to different intermediate frequency ranges to obtain intermediate frequency signals within the different intermediate frequency ranges corresponding to the different frequency bands; merging (S 1304) the intermediate frequency signals within the different intermediate frequency ranges corresponding to the different frequency bands in frequency domain; and performing (S1306) conversion from analog to digital for the merged intermediate frequency signals, characterized in that local oscillators corresponding to each of the different frequency bands are used for the down frequency mixing (S 1302) of the radio frequency signals, and a multi-channel analog-digital converter is used for the conversion from analog to digital, wherein prior to the down frequency mixing (S1302), the method further comprises adjusting a frequency of one of the local oscillators corresponding to each of the different frequency bands according to a position of a blocking signal at an air interface. receiving (S1300) radio frequency signals of at least two frequency bands; down frequency mixing (S 1302) the radio frequency signals of different frequency bands to different intermediate frequency ranges to obtain intermediate frequency signals within the different intermediate frequency ranges corresponding to the different frequency bands; merging (S 1304) the intermediate frequency signals within the different intermediate frequency ranges corresponding to the different frequency bands in frequency domain; and performing (S1306) conversion from analog to digital for the merged intermediate frequency signals, characterized in that local oscillators corresponding to each of the different frequency bands are used for the down frequency mixing (S 1302) of the radio frequency signals, and a multi-channel analog-digital converter is used for the conversion from analog to digital, wherein prior to the down frequency mixing (S1302), the method further comprises adjusting a frequency of one of the local oscillators corresponding to each of the different frequency bands according to a position of a blocking signal at an air interface.
An interferon coding sequence selected from the group consisting of SEQ ID NOs: 1, 3, and 4 for use in a method for vaccination as an adjuvant in combination with a DNA vaccine plasmid in salmon.
Tool for creating a self-stiffened panel , said tool comprising: - a support having a shaft with an axis (X), - a set of punches arranged next to one another parallel to the axis (X), a channel parallel to the axis (X) being delimited between two adjacent punches , - for each punch , two securing systems (106a-b), where each securing system (106a-b) comprises first securing means and second securing means , and - for each punch , two main securing means , each being provided at one end of the punch and adopting either a locking position in which the punch locked on the support or an unlocking position in which the punch is not locked on the support , the tool being characterizes in that the first securing means comprise a slider that is able to move in translation on the support parallel to the axis (X) and at least one hook secured to the slider , in that the second securing means comprise at least one nose integral with the punch , and in that the toll comprises actuating means that are intended to move the slider alternately from a securing position in which each nose is located between the support and a hook , to a release position in which the hooks are offset with respect to the noses parallel to the axis (X). - a support having a shaft with an axis (X), - a set of punches arranged next to one another parallel to the axis (X), a channel parallel to the axis (X) being delimited between two adjacent punches , - for each punch , two securing systems (106a-b), where each securing system (106a-b) comprises first securing means and second securing means , and - for each punch , two main securing means , each being provided at one end of the punch and adopting either a locking position in which the punch locked on the support or an unlocking position in which the punch is not locked on the support ,
A method performed by data processing apparatus, the method comprising: determining a measure of spatial distribution of accesses to a data storage system based on multiple distinct groups of accesses to the data storage system, the measure of the spatial distribution of accesses further comprising combining the determined spatial distribution with a previously determined spatial distribution into a spatial locality metric of the storage system, wherein the spatial locality metric includes a weighted sum of the determined spatial distribution and the previously determined spatial distribution; and adjusting a caching policy used for the data storage system based on the determined measure of spatial distribution. determining a measure of spatial distribution of accesses to a data storage system based on multiple distinct groups of accesses to the data storage system, the measure of the spatial distribution of accesses further comprising combining the determined spatial distribution with a previously determined spatial distribution into a spatial locality metric of the storage system, wherein the spatial locality metric includes a weighted sum of the determined spatial distribution and the previously determined spatial distribution; and adjusting a caching policy used for the data storage system based on the determined measure of spatial distribution.