mhurhangee/patent-ind-claim-en huggingface dataset:
An installation (I) for the application of a coating product comprising a print head equipped with a plurality of nozzles and supplied by a source of coating product, each nozzle being controlled by a valve supplied by the source of coating product, characterized in that - the installation comprises a coating product accumulator installed on a circuit (C) for the circulation of the coating product, which passes through the print head ; - the accumulator comprises a deformable or movable wall delimiting, at least in part, a first chamber (C102) of variable volume supplied with coating product and a second chamber (C104) of variable volume supplied with gas, under a predetermined pressure (P104); - the predetermined pressure (P104) for supplying the second chamber (C104) of variable volume is equal to a nominal operating pressure of the print head ; - the first chamber (C102) of variable volume is supplied or purged with coating product due to a difference between an instantaneous coating product ejection rate (Q10) from the print head and a supply rate (Q32) to the print head from the coating product source ; - the system comprises means (120, 124; 121, 35) for detecting a difference between the instantaneous ejection rate (Q10) and the supply rate (Q32); and - the installation comprises a control unit configured to adjust an operating setpoint value (S130) of the coating product source as a function of the difference between the instantaneous ejection flow rate (Q10) and the supply flow rate (Q32), in a direction to reduce this difference between the flow rates. - the installation comprises a coating product accumulator installed on a circuit (C) for the circulation of the coating product, which passes through the print head ; - the accumulator comprises a deformable or movable wall delimiting, at least in part, a first chamber (C102) of variable volume supplied with coating product and a second chamber (C104) of variable volume supplied with gas, under a predetermined pressure (P104); - the predetermined pressure (P104) for supplying the second chamber (C104) of variable volume is equal to a nominal operating pressure of the print head ; - the first chamber (C102) of variable volume is supplied or purged with coating product due to a difference between an instantaneous coating product ejection rate (Q10) from the print head and a supply rate (Q32) to the print head from the coating product source ; - the system comprises means (120, 124; 121, 35) for detecting a difference between the instantaneous ejection rate (Q10) and the supply rate (Q32); and - the installation comprises a control unit configured to adjust an operating setpoint value (S130) of the coating product source as a function of the difference between the instantaneous ejection flow rate (Q10) and the supply flow rate (Q32), in a direction to reduce this difference between the flow rates.
A method for retrieving and applying dynamic policy rules in a network, comprising the steps of: - requesting, by one or more request client , one or more task, from a central unit which is connected with a Policy Server of a blockchain-based Policy Store Platform , by using a client application interface ; - transmitting, by the central unit , the one or more task to the Policy Server and by indicating attributes concerning the one or more task; - transmitting, by the Policy Server , the one or more task to a blockchain network of the blockchain-based Policy Store Platform ; - analyzing, by a predictor component of the blockchain network , the one or more task with the attributes and retrieving stored data of blockchain-based policies in correlation with network capabilities which satisfy the one or more requested task attribute; - forwarding, by the predictor component, as a result a list of blockchain policy rules that satisfy the one or more tasks to the Policy Server in case blockchain policy rules are found to be satisfying; - transmitting, by the Policy Server , the list of blockchain policy rules to one or more service client and the one or more requesting client using the client application interface and the central unit ; - applying, by the central unit , the transmitted rules and routing the one or more task to the one or more service client . - requesting, by one or more request client , one or more task, from a central unit which is connected with a Policy Server of a blockchain-based Policy Store Platform , by using a client application interface ; - transmitting, by the central unit , the one or more task to the Policy Server and by indicating attributes concerning the one or more task; - transmitting, by the Policy Server , the one or more task to a blockchain network of the blockchain-based Policy Store Platform ; - analyzing, by a predictor component of the blockchain network , the one or more task with the attributes and retrieving stored data of blockchain-based policies in correlation with network capabilities which satisfy the one or more requested task attribute; - forwarding, by the predictor component, as a result a list of blockchain policy rules that satisfy the one or more tasks to the Policy Server in case blockchain policy rules are found to be satisfying; - transmitting, by the Policy Server , the list of blockchain policy rules to one or more service client and the one or more requesting client using the client application interface and the central unit ; - applying, by the central unit , the transmitted rules and routing the one or more task to the one or more service client .
An air filter medium comprising a first porous PTFE membrane and a second porous PTFE membrane, wherein the air filter medium has a first main surface and a second main surface, the first porous PTFE membrane and the second porous PTFE membrane are arranged so that an air flow moving from the first main surface to the second main surface passes through the first porous PTFE membrane and subsequently through the second porous PTFE membrane, a thickness of the first porous PTFE membrane is in the range of 4 to 40 μm, and a specific surface area of the first porous PTFE membrane is 0.5 m 2 /g or less.
Fluid line for conducting a fluid, comprising: an outer layer , which comprises an ethylene-propylene-diene rubber (EPDM); a reinforcement support , which is arranged within the outer layer ; an intermediate layer , which comprises a resin-crosslinked ethylene-propylene-diene rubber (EPDM) and/or a resin-crosslinked ethylene-vinyl-acetate copolymer (EVM), and which is arranged within the reinforcement support , and a barrier layer , which is arranged within the intermediate layer and which delimits a line interior of the fluid line for conducting the fluid, wherein the barrier layer is adapted to reduce a diffusion of the fluid through the barrier layer , wherein the reinforcement support is arranged between the outer layer and the intermediate layer . an outer layer , which comprises an ethylene-propylene-diene rubber (EPDM); a reinforcement support , which is arranged within the outer layer ; an intermediate layer , which comprises a resin-crosslinked ethylene-propylene-diene rubber (EPDM) and/or a resin-crosslinked ethylene-vinyl-acetate copolymer (EVM), and which is arranged within the reinforcement support , and a barrier layer , which is arranged within the intermediate layer and which delimits a line interior of the fluid line for conducting the fluid, wherein the barrier layer is adapted to reduce a diffusion of the fluid through the barrier layer , wherein the reinforcement support is arranged between the outer layer and the intermediate layer .
Attachment device for attaching a cross member of a maneuvering drive system to a vehicle , in particular to the chassis of a vehicle , comprising - a basic element that defines a reception space for a section of a cross member , wherein the reception space extends in the longitudinal direction of the basic element and is open at its opposite ends, - a lever element , which extends above the basic element and is pivotably attached thereto by means of a pivot bearing assembly defining a pivot axis (X), and - at least one clamping device by means of which a free front end portion of the lever element can be pivoted around the pivot axis (X) towards the basic element in order to clamp a component of a vehicle , in particular the chassis of the vehicle , between the free front end portion of the lever element on the one hand and the basic element and/or a cross member that extends through the reception space of the basic element on the other hand, characterized in that the lever element is mounted to the basic element in a height adjustable manner. - a basic element that defines a reception space for a section of a cross member , wherein the reception space extends in the longitudinal direction of the basic element and is open at its opposite ends, - a lever element , which extends above the basic element and is pivotably attached thereto by means of a pivot bearing assembly defining a pivot axis (X), and - at least one clamping device by means of which a free front end portion of the lever element can be pivoted around the pivot axis (X) towards the basic element in order to clamp a component of a vehicle , in particular the chassis of the vehicle , between the free front end portion of the lever element on the one hand and the basic element and/or a cross member that extends through the reception space of the basic element on the other hand, characterized in that the lever element is mounted to the basic element in a height adjustable manner.
High-speed high-voltage switch, comprising: - at least one insulated gate power transistor matrix containing at least one row of power transistors connected in parallel or at least one column of power transistors connected in series, - for each row of power transistors , a first control device being connected to the row of power transistors , the first control device being adapted to control the power transistors of the corresponding row, - for each first control device , at least one pulse transformer comprising a primary control circuit adapted to emit a command, a first secondary circuit and a second secondary circuit , and at least one command reinforcement module adapted to reinforce the command emitted by the primary circuit via the second secondary circuit , the first control device or devices including a control storage module adapted to store the command emitted from the primary circuit via the second secondary circuit , each of the power transistors having a drain terminal and a source terminal, the reinforcement module being adapted to drive the power transistors using a voltage present between the drain terminal and the source terminal of each of the power transistors , the first secondary circuit being adapted to supply power for operating an amplifying stage of the first control device , the amplifying stage , present between the storage module and the power transistors , being adapted to amplify the command stored by the storage module to drive the power transistors . - at least one insulated gate power transistor matrix containing at least one row of power transistors connected in parallel or at least one column of power transistors connected in series, - for each row of power transistors , a first control device being connected to the row of power transistors , the first control device being adapted to control the power transistors of the corresponding row, - for each first control device , at least one pulse transformer comprising a primary control circuit adapted to emit a command, a first secondary circuit and a second secondary circuit , and at least one command reinforcement module adapted to reinforce the command emitted by the primary circuit via the second secondary circuit ,
A method performed by a vector reduction circuit, the method comprising, for each of a plurality of cells of the vector reduction circuit: receiving (i) a respective input vector element of an input vector, (ii) a temporary reduction element that is either an output of a vector reduction operation performed by a preceding cell of the plurality of cells or a placeholder signal, and (iii) a respective control vector element within a control vector that has a corresponding control vector element for each of the plurality of cells; computing a result using the respective input vector element and the temporary reduction element; providing the result to a next cell of the plurality of cells of the vector reduction circuit if the respective control vector element indicates that the respective input vector element is not a last input vector element in the input vector, the result being a new temporary reduction element for the next cell; and providing the result to an output circuit if the respective control vector element indicates that the respective input vector element is the last input vector element in the input vector. receiving (i) a respective input vector element of an input vector, (ii) a temporary reduction element that is either an output of a vector reduction operation performed by a preceding cell of the plurality of cells or a placeholder signal, and (iii) a respective control vector element within a control vector that has a corresponding control vector element for each of the plurality of cells; computing a result using the respective input vector element and the temporary reduction element; providing the result to a next cell of the plurality of cells of the vector reduction circuit if the respective control vector element indicates that the respective input vector element is not a last input vector element in the input vector, the result being a new temporary reduction element for the next cell; and providing the result to an output circuit if the respective control vector element indicates that the respective input vector element is the last input vector element in the input vector.
Aqueous zeta negative single digit carboxylated nanodiamond dispersion comprising zeta negative single digit carboxylated nanodiamond particles, wherein i) zeta potential of the zeta negative single digit carboxylated nanodiamond dispersion is over -50 mV measured at pH higher than 7 and over - 60 mV measured at pH higher than 8.5 ii) zeta negative single digit carboxylated nanodiamond particle concentration in the dispersion is over 2 wt-%, iii) D90 average primary particle size distribution of the zeta negative single digit carboxylated nanodiamond particles is from 2 nm to 12 nm, wherein zeta potential value is measured of samples diluted to 0.1 wt-% and particle size distribution is measured of samples diluted to 0.5 wt-% using Malvern Zetasizer NanoZS. i) zeta potential of the zeta negative single digit carboxylated nanodiamond dispersion is over -50 mV measured at pH higher than 7 and over - 60 mV measured at pH higher than 8.5 ii) zeta negative single digit carboxylated nanodiamond particle concentration in the dispersion is over 2 wt-%, iii) D90 average primary particle size distribution of the zeta negative single digit carboxylated nanodiamond particles is from 2 nm to 12 nm,
A method for wireless communication, comprising: determining first and second component carriers, CCs, wherein one of the first and second CCs is configured for frequency division duplex, FDD, and the other one of the first and second CCs is configured for time division duplex, TDD, configured for a user equipment UE , the first and second CCs being associated with first and second downlink control information, DCI, control messages, respectively, having different definitions, wherein the second DCI control message includes a control information field not included in the first DCI control message; sending first control information for the first CC based on a definition of the second DCI control message for the second CC, wherein the first DCI control message is associated with a first set of control information fields and the second DCI control message is associated with a second set of control information fields, and wherein the first control information for the first CC is sent based on the second set of control information fields for the second DCI control message; wherein one of the first and second DCI control messages for the FDD CC is sent via a physical downlink control channel, PDCCH, on the TDD CC or wherein the other one of the first and second DCI control messages for the TDD CC is sent via the PDCCH on the FDD CC. determining first and second component carriers, CCs, wherein one of the first and second CCs is configured for frequency division duplex, FDD, and the other one of the first and second CCs is configured for time division duplex, TDD, configured for a user equipment UE , the first and second CCs being associated with first and second downlink control information, DCI, control messages, respectively, having different definitions, wherein the second DCI control message includes a control information field not included in the first DCI control message; sending first control information for the first CC based on a definition of the second DCI control message for the second CC, wherein the first DCI control message is associated with a first set of control information fields and the second DCI control message is associated with a second set of control information fields, and wherein the first control information for the first CC is sent based on the second set of control information fields for the second DCI control message; wherein one of the first and second DCI control messages for the FDD CC is sent via a physical downlink control channel, PDCCH, on the TDD CC or wherein the other one of the first and second DCI control messages for the TDD CC is sent via the PDCCH on the FDD CC.
A tower of a wind turbine , having a tower central axis , a tower wall and a vibratory apparatus for influencing a vibration of the tower , wherein the vibratory apparatus - has a vibratory body which is suspended in the tower so as to be spaced apart from the tower wall , and - at least one coupling element, which is fastened between the vibratory body and the tower wall and which serves for influencing a relative movement between the vibratory body and the tower wall , wherein - the vibratory body is formed so as to be hollow along a vertical body central axis , characterized in that - the vibratory body is suspended by means of pendulum rods on a fastening portion, wherein - three, four or more pendulum rods are provided such that the vibratory body is restricted to translational or tilt-free movements. - has a vibratory body which is suspended in the tower so as to be spaced apart from the tower wall , and - at least one coupling element, which is fastened between the vibratory body and the tower wall and which serves for influencing a relative movement between the vibratory body and the tower wall , wherein - the vibratory body is formed so as to be hollow along a vertical body central axis , characterized in that - the vibratory body is suspended by means of pendulum rods on a fastening portion, wherein - three, four or more pendulum rods are provided such that the vibratory body is restricted to translational or tilt-free movements.
A multifocal display device , comprising: - a display element configured to generate an image with one or more colors, - a focus tunable lens , and - a controller , configured to, during a time period in a frame period: tune a focus of the focus tunable lens to a focal plane and control the display element according to a bit sequence provided for a pixel over the time period to generate the image, the bit sequence including for each color a subsequence of bits of different significance, wherein neither the first bit nor the last bit of the subsequence is the most significant bit of the subsequence. - a display element configured to generate an image with one or more colors, - a focus tunable lens , and - a controller , configured to, during a time period in a frame period: tune a focus of the focus tunable lens to a focal plane and control the display element according to a bit sequence provided for a pixel over the time period to generate the image,
Light/voltage converter circuit for converting high-frequency intensity fluctuations of light (L) into an AC voltage measurement signal, comprising a photodiode (D) for detecting the light (L), a transformer (T) comprising a primary winding (T1) and a secondary winding(T2), wherein the primary winding (T1) of the transformer (T) is connected in series with the photodiode (D) and wherein the AC voltage measurement signal is present on the secondary winding (T2), a voltage source (U), connected in parallel with the series circuit formed by the primary winding (T1) of the transformer (T) and the photodiode (D), for operating the photodiode in a reverse direction, and a DC current-blocking and AC current-conducting electrical network (N1) connected in parallel with the series circuit formed by the primary winding (T1) of the transformer (T) and the photodiode (D). a photodiode (D) for detecting the light (L), a transformer (T) comprising a primary winding (T1) and a secondary winding(T2), wherein the primary winding (T1) of the transformer (T) is connected in series with the photodiode (D) and wherein the AC voltage measurement signal is present on the secondary winding (T2), a voltage source (U), connected in parallel with the series circuit formed by the primary winding (T1) of the transformer (T) and the photodiode (D), for operating the photodiode in a reverse direction, and a DC current-blocking and AC current-conducting electrical network (N1) connected in parallel with the series circuit formed by the primary winding (T1) of the transformer (T) and the photodiode (D).
An articulated tracked vehicle , comprising a front vehicle unit having a front track assembly pair , a rear vehicle unit having a rear track assembly pair , a front vertical steering link configured for pivotal attachment to a rigid load-carrying frame connecting the front vehicle unit and the rear vehicle unit , and control means arranged to steer the front vehicle unit and the rear vehicle unit relative to each other by steering the front vehicle unit relative to the load-carrying frame about the front vertical steering link , characterised in that the control means comprises an electronic control unit arranged to individually control the operation of the respective track assembly of said front and rear track assembly pair to effectuate pivoting of said front and rear vehicle units relative to each other.
Device for depositing in particular crystalline layers on in particular crystalline substrates, comprising a process chamber that is arranged in a reactor housing and has a substrate holder for receiving one or more substrates , which substrate holder is opposite a gas inlet member of which the front panel, which faces the substrate holder and forms a gas outlet surface , has a large number of substantially uniformly distributed outlet openings for the outlet of a process gas from a chamber that is delimited by the front panel and a rear wall , a large number of sensors being provided which are each associated with an outlet opening , are arranged in alignment with the axis of the associated outlet opening and use the outlet openings as optical paths to determine the surface temperature of the substrate holder or of a substrate resting on the substrate holder , characterised in that the sensors are located to the rear of the front panel in the rear wall or to the rear of a window opening in the rear wall that is closed by a window pane .