mhurhangee/ep-ind-claims huggingface dataset:
A fuel injection valve arrangement for internal combustion engine, comprising a fuel injector body, a nozzle needle arranged longitudinally movably in a first end of the fuel injector body and surrounded at least partially by a needle chamber, the fuel injection valve arrangement further comprises a flow fuse valve unit having an inlet in flow communication with a high-pressure accumulator and an outlet in flow communication with the needle chamber, and the flow fuse valve unit is arranged to allow predetermined amount of fuel to flow in a direction from the inlet of the flow fuse valve unit to the outlet of the flow fuse valve unit, characterized in that at least one one-way valve element is integrated to a piston unit of the flow fuse valve unit and arranged to allow fuel to flow in a direction from the needle chamber to the high-pressure accumulator in response to a pressure difference between the outlet and the inlet of the flow fuse valve unit.
An addition-curable silicone composition comprising the following components to: 100 parts by mass of an organopolysiloxane having two or more alkenyl groups each bonded to a silicon atom and being liquid at 25 degrees C, an organohydrogenpolysiloxane having two or more hydrogen atoms each bonded to a silicon atom in an amount such that the number of the hydrogen atoms each bonded to a silicon atom in component is 1 to 10 per the alkenyl group bonded to a silicon atom in component, a platinum group metal catalyst in a catalytic amount, 10 to 100 parts by mass of talc fine powder having a median diameter of 0.1 to 50 μm, as determined according to a laser diffraction method, and 1,2,3-benzotriazole, or a derivative thereof, in an amount of 2 to 500 moles per mole of the platinum group metal atom of component. 100 parts by mass of an organopolysiloxane having two or more alkenyl groups each bonded to a silicon atom and being liquid at 25 degrees C, an organohydrogenpolysiloxane having two or more hydrogen atoms each bonded to a silicon atom in an amount such that the number of the hydrogen atoms each bonded to a silicon atom in component is 1 to 10 per the alkenyl group bonded to a silicon atom in component, a platinum group metal catalyst in a catalytic amount, 10 to 100 parts by mass of talc fine powder having a median diameter of 0.1 to 50 μm, as determined according to a laser diffraction method, and 1,2,3-benzotriazole, or a derivative thereof, in an amount of 2 to 500 moles per mole of the platinum group metal atom of component.
A magnetic securing component for attracting and holding wireless listening devices in place in a case, comprising: a set of magnets positioned laterally adjacent to one another and having a curved top surface defined by individual curved top surfaces of each magnet in the set of magnets, the set of magnets comprising: first and second magnets positioned laterally adjacent to one another, wherein the first and second magnets each have a polarity that is oriented parallel to a vertical dimension; and third and fourth magnets laterally positioned from the first and second magnets, wherein the third magnet is positioned adjacent to the first magnet and the fourth magnet is positioned adjacent to the second magnet, the third and fourth magnets each having a magnetic polarity that is oriented at an angle with respect to the vertical dimension. first and second magnets positioned laterally adjacent to one another, wherein the first and second magnets each have a polarity that is oriented parallel to a vertical dimension; and third and fourth magnets laterally positioned from the first and second magnets, wherein the third magnet is positioned adjacent to the first magnet and the fourth magnet is positioned adjacent to the second magnet, the third and fourth magnets each having a magnetic polarity that is oriented at an angle with respect to the vertical dimension.
A computer implemented method of secure communication between a virtual machine in a set of virtual machines in a virtualised computing environment and a shared software service over a network, the method comprising: establishing a network connection between the virtual machine and the software service; communicating data between the virtual machine and the software service, wherein the method further comprises establishing a tunnelling virtual private network, VPN, connection for communication of encrypted network traffic between the virtual machine and the software service, access to the VPN connection being restricted so as to securely separate communication between the virtual machine and the software service from communication occurring with other virtual machines (404, 406) in the set, and wherein data is communicated between the virtual machine and the software service via the VPN connection wherein the VPN connection is established based on VPN parameters retrieved securely from a node in the network, and the method being characterised in that the node in the network is a computer system arranged to define at least part of a hash table storing VPN connection information retrievable using a hashing function based on a parameter identifying the virtual machine and a parameter identifying the software service. establishing a network connection between the virtual machine and the software service; communicating data between the virtual machine and the software service, wherein the method further comprises establishing a tunnelling virtual private network, VPN, connection for communication of encrypted network traffic between the virtual machine and the software service, access to the VPN connection being restricted so as to securely separate communication between the virtual machine and the software service from communication occurring with other virtual machines (404, 406) in the set, and wherein data is communicated between the virtual machine and the software service via the VPN connection wherein the VPN connection is established based on VPN parameters retrieved securely from a node in the network, and the method being characterised in that
A method for wireless communications performed by an addressed station receiving downlink transmissions, the method comprising: receiving a downlink transmission containing a deterministic slot count for the addressed station; determining timing of a next transmit opportunity for transmitting a response frame based, at least in part, on the deterministic slot count received in the downlink transmission; receiving a guaranteed start time (1302, 1304), the guaranteed start time measured from an end time of the downlink transmission; and determining the next transmit opportunity for transmitting the response frame based on the guaranteed start time (1302, 1304), rather than the deterministic slot count, in response to determining that a leading transmission has not been received. receiving a downlink transmission containing a deterministic slot count for the addressed station; determining timing of a next transmit opportunity for transmitting a response frame based, at least in part, on the deterministic slot count received in the downlink transmission; receiving a guaranteed start time (1302, 1304), the guaranteed start time measured from an end time of the downlink transmission; and determining the next transmit opportunity for transmitting the response frame based on the guaranteed start time (1302, 1304), rather than the deterministic slot count, in response to determining that a leading transmission has not been received.
Apparatus for removing weeds and harmful plants from soil, comprising a fuel tank containing solid fuel, such as pellets or biomass having a shape which is similar to the pellet, an auger, which picks up the solid fuel from said tank and delivers said solid fuel through at least one motor (2, 3), wherein one or more box-like structures are fixed or hinged laterally with a duct inside each box-like structure, characterized in that said solid fuel is delivered inside a combustion chamber where the solid fuel is manually ignited or is ignited by means of one or more resistors, said one or more box-like structures are fixed or hinged downstream of said combustion chamber and said duct has an opening which is provided in a lower part of said structure, so that said opening is facing towards the soil and so that a flame passes through said opening, said flame coming from said combustion chamber and being conveyed downward from said duct so as to touch on the soil.
A heat exchanger washing device to clean a heat exchanger comprising: a case (31a, 31b) configured to be located above the heat exchanger; a wash water storage chamber to store wash water in the case (31a, 31b), characterised by a wash water injection chamber provided in the case (31a, 31b) to jet the wash water stored in the wash water storage chamber to the heat exchanger; and a bypass path unit extending from the case (31 a, 31 b) to guide the wash water jetted from the wash water injection chamber to a side surface of the heat exchanger after bypassing an upper surface of the heat exchanger. a case (31a, 31b) configured to be located above the heat exchanger; a wash water storage chamber to store wash water in the case (31a, 31b), characterised by a wash water injection chamber provided in the case (31a, 31b) to jet the wash water stored in the wash water storage chamber to the heat exchanger; and a bypass path unit extending from the case (31 a, 31 b) to guide the wash water jetted from the wash water injection chamber to a side surface of the heat exchanger after bypassing an upper surface of the heat exchanger.
Controllable phase control element for electromagnetic waves for a feed structure of an antenna, comprising a drive unit, a holder which has a connecting element which can be rotated about an axis, and the holder is mounted in a cylindrical waveguide of the controllable phase control element, and at least two meander-line polarizers, wherein the meander-line polarizers are mounted on the holder and each meander-line polarizer is designed for converting a circularly polarized signal into a linearly polarized signal, and the drive unit is connected to the holder by means of the rotatable connecting element in such a way that the meander-line polarizers can be rotated, wherein the holder is fixedly connected to the waveguide, and the waveguide is connected in a rotatable manner and to the drive unit, which is situated outside the waveguide, in such a way that the drive unit rotates the waveguide and the inner holder.
A communication control apparatus comprising: an information acquisition unit adapted to acquire information about channels, among frequency channels assigned to a primary system, available to a secondary system of a plurality of secondary systems from a server, and to acquire information about the secondary systems from secondary usage nodes, each operating a secondary system of the secondary systems; a generation unit adapted to generate a list of channels, among the channels available, recommended for a secondary usage node of the secondary usage nodes; and a notification unit adapted to notify the secondary usage node of the list generated by the generation unit to allow the secondary usage node to select a channel for secondary usage, wherein the generation unit is adapted to decide the channels recommended to each of the secondary usage nodes in a way that interference between the plurality of secondary systems operated by each of the secondary usage nodes does not exceed a permissible level. an information acquisition unit adapted to acquire information about channels, among frequency channels assigned to a primary system, available to a secondary system of a plurality of secondary systems from a server, and to acquire information about the secondary systems from secondary usage nodes, each operating a secondary system of the secondary systems; a generation unit adapted to generate a list of channels, among the channels available, recommended for a secondary usage node of the secondary usage nodes; and a notification unit adapted to notify the secondary usage node of the list generated by the generation unit to allow the secondary usage node to select a channel for secondary usage, wherein the generation unit is adapted to decide the channels recommended to each of the secondary usage nodes in a way that interference between the plurality of secondary systems operated by each of the secondary usage nodes does not exceed a permissible level.
A pharmaceutical composition adapted for oral administration comprising: i) a carrier consisting essentially of microcrystalline cellulose particles at 80-81%w/w of the composition wherein said particles are 350-500μm in diameter; ii) a drug layer consisting essentially of an effective amount of hydrocortisone at 0.64-0.66% w/w of the composition and hydroxypropylmethylcellulose at 0.64-0.66% w/w of the composition contacting the carrier; iii) a sealing layer consisting essentially of hydroxypropylmethylcellulose at 14-16% w/w of the composition and magnesium stearate at 1.0-2.0% w/w of the composition contacting said drug layer; and iv) a taste masking layer consisting essentially of hydroxypropylmethylcellulose at 0.14-0.16% w/w of the composition, ethylcellulose at 0.58-0.62% w/w of the composition and magnesium stearate at 0.20-0.25% w/w of the composition contacting said sealing layer. i) a carrier consisting essentially of microcrystalline cellulose particles at 80-81%w/w of the composition wherein said particles are 350-500μm in diameter; ii) a drug layer consisting essentially of an effective amount of hydrocortisone at 0.64-0.66% w/w of the composition and hydroxypropylmethylcellulose at 0.64-0.66% w/w of the composition contacting the carrier; iii) a sealing layer consisting essentially of hydroxypropylmethylcellulose at 14-16% w/w of the composition and magnesium stearate at 1.0-2.0% w/w of the composition contacting said drug layer; and iv) a taste masking layer consisting essentially of hydroxypropylmethylcellulose at 0.14-0.16% w/w of the composition, ethylcellulose at 0.58-0.62% w/w of the composition and magnesium stearate at 0.20-0.25% w/w of the composition contacting said sealing layer.
Method for predicting the orbit of a satellite used by a satellite signal receiver, in particular a Global Navigation Satellite System receiver, for achieving a position fix by the satellite signal receiver by: acquiring satellite signals and navigation data, and calculating a position solution, including predicting the state or orbit ( r (t)) of one or more satellite that will be used by the satellite receiver, said prediction including using a model ( r̈ SRP ( t)) of the solar radiation pressure operating on said one or more satellite, the method comprising the following operations: expressing the model of the solar radiation pressure ( r̈ SRP ( t)) operating on the satellite in the form of Fourier series ( ë '( t) = [ ë' x s ë' y s ë' z s]) having a frequency function of an angle defined by the solar position with respect to the satellite body fixed frame, in particular a satellite-Earth-Sun anale ( α), and having respective Fourier coefficients, calculating at least position approximation errors ( a pas ( t i,j)) by comparing true satellite positions r sph ( t i,j) at given time points ( t i,j) against predicted satellite positions ( r pred ( t i,j)) at the same given time points ( t i,j), estimating said Fourier coefficients ( CF *) as a function of at least said position approximation errors ( a pas ( t i,j)), using said estimated Fourier coefficients ( CF *) in the model of the solar radiation pressure operating on the satellites as Fourier series used to predict the state or orbit of the satellite. expressing the model of the solar radiation pressure ( r̈ SRP ( t)) operating on the satellite in the form of Fourier series ( ë '( t) = [ ë' x s ë' y s ë' z s]) having a frequency function of an angle defined by the solar position with respect to the satellite body fixed frame, in particular a satellite-Earth-Sun anale ( α), and having respective Fourier coefficients, calculating at least position approximation errors ( a pas ( t i,j)) by comparing true satellite positions r sph ( t i,j) at given time points ( t i,j) against predicted satellite positions ( r pred ( t i,j)) at the same given time points ( t i,j), estimating said Fourier coefficients ( CF *) as a function of at least said position approximation errors ( a pas ( t i,j)), using said estimated Fourier coefficients ( CF *) in the model of the solar radiation pressure operating on the satellites as Fourier series used to predict the state or orbit of the satellite.
An inkjet print head for generating a droplet of ink, the inkjet print head comprising: • an ink supply substrate having an ink supply channel in fluid communication with an ink supply connector channel for receiving ink from an ink reservoir and in fluid communication with an ink return connector channel for supplying ink to the ink reservoir; • a droplet forming unit arranged on the ink supply substrate, the droplet forming unit having an ink inlet surface and comprising a number of droplet ejection units, each droplet ejection unit comprising an ink flow path extending between an ink inlet port and an orifice, a piezoelectric actuator being arranged in operative communication with the ink flow path for generating a pressure wave in the ink in the ink flow path, and • a filter arranged between the ink supply substrate and droplet forming unit, the filter having a first filter surface at an upstream side and a second filter surface at a downstream side, the second filter surface being opposite to the first filter surface and filter holes extending from the first filter surface to the second filter surface; wherein the first filter surface forms a wall of the ink supply channel, characterized in that the ink inlet port for receiving ink from the ink supply substrate of each droplet ejection unit is arranged in the ink inlet surface; and a manifold chamber is formed over the ink inlet surface of the droplet forming unit. • an ink supply substrate having an ink supply channel in fluid communication with an ink supply connector channel for receiving ink from an ink reservoir and in fluid communication with an ink return connector channel for supplying ink to the ink reservoir; • a droplet forming unit arranged on the ink supply substrate, the droplet forming unit having an ink inlet surface and comprising a number of droplet ejection units, each droplet ejection unit comprising an ink flow path extending between an ink inlet port and an orifice, a piezoelectric actuator being arranged in operative communication with the ink flow path for generating a pressure wave in the ink in the ink flow path, and • a filter arranged between the ink supply substrate and droplet forming unit, the filter having a first filter surface at an upstream side and a second filter surface at a downstream side, the second filter surface being opposite to the first filter surface and filter holes extending from the first filter surface to the second filter surface;
A multilayered structure comprising: a) a water-impermeable substrate having a surface energy greater than 0,045 N/m (45 dyn/cm); b) a first layer on at least one surface of the substrate comprising a water-based tie-layer composition; c) a second layer formed over the first layer, wherein the second layer is a water-based ink-receptive composition comprising: i) a multivalent metal salt; and ii) a hydrophilic binder polymer selected from a gelatin, starch, hydroxycellulose, polyvinyl alcohol, polyvinyl pyrrolidone, poly(ethylene imine), polyvinyl amine, and derivatives of these materials; d) a third layer including at least one water-based ink composition deposited in a single pass by an inkjet printing process, wherein the water-based ink composition comprises an anionically stabilized, water-dispersible pigment; and e) additional layers deposited over the one or more ink layers and exposed second layer, the additional layers selected from one or more of the following compositions: i) an opaque white layer; ii) a protective layer; and iii) an adhesive layer, further comprising a continuous protective plastic or paper layer adhered thereto. a) a water-impermeable substrate having a surface energy greater than 0,045 N/m (45 dyn/cm); b) a first layer on at least one surface of the substrate comprising a water-based tie-layer composition; c) a second layer formed over the first layer, wherein the second layer is a water-based ink-receptive composition comprising: i) a multivalent metal salt; and ii) a hydrophilic binder polymer selected from a gelatin, starch, hydroxycellulose, polyvinyl alcohol, polyvinyl pyrrolidone, poly(ethylene imine), polyvinyl amine, and derivatives of these materials; i) a multivalent metal salt; and ii) a hydrophilic binder polymer selected from a gelatin, starch, hydroxycellulose, polyvinyl alcohol, polyvinyl pyrrolidone, poly(ethylene imine), polyvinyl amine, and derivatives of these materials; d) a third layer including at least one water-based ink composition deposited in a single pass by an inkjet printing process, wherein the water-based ink composition comprises an anionically stabilized, water-dispersible pigment; and e) additional layers deposited over the one or more ink layers and exposed second layer, the additional layers selected from one or more of the following compositions: i) an opaque white layer; ii) a protective layer; and iii) an adhesive layer, further comprising a continuous protective plastic or paper layer adhered thereto. i) an opaque white layer; ii) a protective layer; and iii) an adhesive layer, further comprising a continuous protective plastic or paper layer adhered thereto.
A decorative element for use connected with an instrument panel of a motor vehicle, the decorative element having a three-dimensional form, the decorative element comprising a first face and a second face, the first face being visible to a user of the instrument panel and the second face being provided at the opposite side with respect to the first face, the three-dimensional shape of the decorative element being obtained during a process of thermoforming the decorative element, characterised in that -- the decorative element comprises a plurality of printed elements on the second face, -- the second face together with the printed elements result in an effective surface on the second face such that the effective surface comprises, at the locations of the printed elements, portions that are raised relative to the locations at which the printed elements are absent - the printed elements form part of a layer of screen elements printed on the second face to balance the local transparency of the decorative element by controlling the transfer of heat during heating by contact of the decorative element. -- the decorative element comprises a plurality of printed elements on the second face, -- the second face together with the printed elements result in an effective surface on the second face such that the effective surface comprises, at the locations of the printed elements, portions that are raised relative to the locations at which the printed elements are absent - the printed elements form part of a layer of screen elements printed on the second face to balance the local transparency of the decorative element by controlling the transfer of heat during heating by contact of the decorative element. - the printed elements form part of a layer of screen elements printed on the second face to balance the local transparency of the decorative element by controlling the transfer of heat during heating by contact of the decorative element.