mhurhangee/patent-ind-claim-en huggingface dataset:
A signal processing method for a satellite payload , comprising: receiving a plurality of first input radiofrequency, RF, signals on each of a respective plurality of first channels; outputting a plurality of first output RF signals on each of the plurality of first channels; for each first channel: modulating a single optical tone of a respective first wavelength using the received first input RF signal, to produce a modulated optical signal of the respective first wavelength; photonically processing the modulated optical signal to produce a processed signal ; combining the processed signal with a local oscillator signal to produce a combined optical signal , wherein the local oscillator signal is a single optical tone of the respective second wavelength; and using an opto-electrical converter to convert the combined optical signal into the RF domain to produce a first output RF signal, the method further comprising: receiving at least one control signal from a ground station, and tuning the respective first and second wavelengths in accordance with the at least one control signal. receiving a plurality of first input radiofrequency, RF, signals on each of a respective plurality of first channels; outputting a plurality of first output RF signals on each of the plurality of first channels; for each first channel: modulating a single optical tone of a respective first wavelength using the received first input RF signal, to produce a modulated optical signal of the respective first wavelength; photonically processing the modulated optical signal to produce a processed signal ; combining the processed signal with a local oscillator signal to produce a combined optical signal , wherein the local oscillator signal is a single optical tone of the respective second wavelength; and using an opto-electrical converter to convert the combined optical signal into the RF domain to produce a first output RF signal, the method further comprising: receiving at least one control signal from a ground station, and tuning the respective first and second wavelengths in accordance with the at least one control signal. modulating a single optical tone of a respective first wavelength using the received first input RF signal, to produce a modulated optical signal of the respective first wavelength; photonically processing the modulated optical signal to produce a processed signal ; combining the processed signal with a local oscillator signal to produce a combined optical signal , wherein the local oscillator signal is a single optical tone of the respective second wavelength; and using an opto-electrical converter to convert the combined optical signal into the RF domain to produce a first output RF signal, the method further comprising: receiving at least one control signal from a ground station, and tuning the respective first and second wavelengths in accordance with the at least one control signal. receiving at least one control signal from a ground station, and tuning the respective first and second wavelengths in accordance with the at least one control signal.
A method implemented at a relay device in a communication network, comprising: determining whether a terminal device served by the relay device is to be handed over, the terminal device being served by a network slice supported by the relay device, the network slice corresponding to a configuration of a set of network functions in the communication network; in response to determining that the terminal device is to be handed over, sending a request for local information to at least one candidate relay device, the local information of each candidate relay device comprising at least slice configuration information of the candidate relay device or at least information associated with a backhaul link from the candidate relay device to a network device and slice configuration information of the candidate relay device; and in response to receiving the local information from the at least one candidate relay device, determining , based on the local information and on the network slice serving the terminal device supported by the relay node, a candidate relay device for handover of the terminal device from the at least one candidate relay device. determining whether a terminal device served by the relay device is to be handed over, the terminal device being served by a network slice supported by the relay device, the network slice corresponding to a configuration of a set of network functions in the communication network; in response to determining that the terminal device is to be handed over, sending a request for local information to at least one candidate relay device, the local information of each candidate relay device comprising at least slice configuration information of the candidate relay device or at least information associated with a backhaul link from the candidate relay device to a network device and slice configuration information of the candidate relay device; and in response to receiving the local information from the at least one candidate relay device, determining , based on the local information and on the network slice serving the terminal device supported by the relay node, a candidate relay device for handover of the terminal device from the at least one candidate relay device.
A cladding part for a motor vehicle, comprising: - a cladding base member with an outside (A) that is visible when used for the intended purpose, - a support structure , which is arranged on the back of the cladding base member opposite to the outside (A), - at least one light-emitting lighting unit , which is concealed by the cladding base member when used for the intended purpose, wherein the cladding base member has a light exit region which consists partially or completely of a material that is translucent for the light emitted by the lighting unit , wherein the cladding part is a spoiler, wherein a light-guiding element is provided, which is coupled to the lighting unit in such a way that the light emitted by the lighting unit is guided from a light input region up to a light output region at least in part to the light exit region of the cladding base member and is visible on the outside (A) of the cladding base member through the light exit region , characterised in that the light exit region is partly covered on the inside opposite to the outside (A) thereof with a non-transparent covering element adjacent to the light output region , so that the emitted light can only exit from the light exit region through a gap next to the covering element , wherein the covering element is formed as part of the support structure and in one piece therewith. - a cladding base member with an outside (A) that is visible when used for the intended purpose, - a support structure , which is arranged on the back of the cladding base member opposite to the outside (A), - at least one light-emitting lighting unit , which is concealed by the cladding base member when used for the intended purpose,
A system for monitoring civil engineering works and infrastructures particularly in urban areas, which comprises: - an aircraft , - parking areas associated with said aircraft and configured for the landing and the take off of said aircraft , - a remote processing device , and - a telematic communication network , said aircraft being connected to said remote processing device by way of said telematic communication network , wherein said aircraft comprises: acquisition means configured to acquire images, and transceiver means configured to transmit data toward said remote processing device via said telematic communication network , characterized in that it comprises: - a plurality of measurement markers configured to be arranged on reference structures in the immediate vicinity of structures to be monitored, and - a plurality of control markers configured to be installed on the structures to be monitored, and in that said acquisition means comprised in said aircraft are configured to acquire respective images from said plurality of measurement markers and from said plurality of control markers ; said aircraft further comprising interpretation means configured to interpret said images from said plurality of measurement markers and from said plurality of control markers into measurement and control data; said transceiver means being configured to transmit said measurement and control data toward said remote processing device ; said remote processing device being configured to process said measurement and control data that arrive from said aircraft and analyse any displacement of the control markers with respect to the measurement markers in order to detect any displacements of the structures to be monitored. - an aircraft , - parking areas associated with said aircraft and configured for the landing and the take off of said aircraft , - a remote processing device , and - a telematic communication network , - a plurality of measurement markers configured to be arranged on reference structures in the immediate vicinity of structures to be monitored, and - a plurality of control markers configured to be installed on the structures to be monitored,
Composition comprising: a) at least one copolymer comprising at least one 2-acrylamido-2-methylpropane sulfonic acid (AMPS ® ) monomer and at least one monomer bearing a hydrophobic group, b) at least one acyl glutamic acid or a salt thereof, and c) at least one emulsifying system comprising at least one alkyl polyglucoside; and wherein the monomer bearing a hydrophobic group is chosen from the acrylates of formula (II): in which Y denotes an oxygen atom, the group R 1 represents a methyl, the group R 2 represents an alkyl radical comprising from 12 to 18 carbon atoms, and x represents an integer between 3 and 25. a) at least one copolymer comprising at least one 2-acrylamido-2-methylpropane sulfonic acid (AMPS ® ) monomer and at least one monomer bearing a hydrophobic group, b) at least one acyl glutamic acid or a salt thereof, and c) at least one emulsifying system comprising at least one alkyl polyglucoside; and wherein the monomer bearing a hydrophobic group is chosen from the acrylates of formula (II): in which Y denotes an oxygen atom, the group R 1 represents a methyl, the group R 2 represents an alkyl radical comprising from 12 to 18 carbon atoms, and x represents an integer between 3 and 25.
A metal connector for connecting to a metal profile , wherein the metal connector has a body comprising at least one wall for connecting to the metal profile and a chamber located inside the body , the chamber having at least one hole located in a wall of the chamber , wherein the hole lies in the plane of the wall , whereby in the chamber there is a previously-hardened elastic sealing material , which protrudes from the chamber through the hole , out of the body , thereby forming a sealing part , characterized in that - the metal connector comprises at least one duct provided with an inlet for introducing said elastic sealing material into the chamber ; and in that - the chamber and the hole have the shape allowing the sealing part to be pressed into the chamber through the hole . - the metal connector comprises at least one duct provided with an inlet for introducing said elastic sealing material into the chamber ; and in that - the chamber and the hole have the shape allowing the sealing part to be pressed into the chamber through the hole .
Composition (C 21 ) comprising, for 100 % of the mass thereof: from 5 % to 100 % by mass of a mixture (M 1 ) consisting of, for 100 % of the mass thereof: - from 25 % to 78 % by mass of a composition (C 1 ) represented by the formula (I): R 1 -O-(G 1 ) p -H (I) in which R 1 represents the heptyl radical or the 2-ethyl hexyl radical, G 1 represents the remainder of a reducing sugar and p represents a decimal number greater than or equal to 1.05 and less than or equal to 5, said composition (C 1 ) consisting of a mixture of compounds represented by the formulae (I 1 ), (I 2 ), (I 3 ), (I 4 ) and (I 5 ): R 1 -O-(G 1 ) 1 -H (I 1 ), R 1 -O-(G 1 ) 2 -H (I 2 ), R 1 -O-(G 1 ) 3 -H (I 3 ), R 1 -O-(G 1 ) 4 -H (I 4 ), R 1 -O-(G 1 ) 5 -H (I 5 ), in the respective molar proportions a 1 , a 2 , a 3 , a 4 and a 5 , such that the sum: a 1 + a 2 + a 3 + a 4 + a s is equal to 1 and the sum a 1 + 2a 2 + 3a 3 + 4a 4 + 5a 5 is equal to p; - from 20 % to 50 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the decyl radical, - from 1% to 15 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the dodecyl radical, and - from 1% to 10 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the tetradecyl radical. - from 0 % to 95 % by mass of water. - from 25 % to 78 % by mass of a composition (C 1 ) represented by the formula (I): R 1 -O-(G 1 ) p -H (I) in which R 1 represents the heptyl radical or the 2-ethyl hexyl radical, G 1 represents the remainder of a reducing sugar and p represents a decimal number greater than or equal to 1.05 and less than or equal to 5, said composition (C 1 ) consisting of a mixture of compounds represented by the formulae (I 1 ), (I 2 ), (I 3 ), (I 4 ) and (I 5 ): R 1 -O-(G 1 ) 1 -H (I 1 ), R 1 -O-(G 1 ) 2 -H (I 2 ), R 1 -O-(G 1 ) 3 -H (I 3 ), R 1 -O-(G 1 ) 4 -H (I 4 ), R 1 -O-(G 1 ) 5 -H (I 5 ), in the respective molar proportions a 1 , a 2 , a 3 , a 4 and a 5 , such that the sum: a 1 + a 2 + a 3 + a 4 + a s is equal to 1 and the sum a 1 + 2a 2 + 3a 3 + 4a 4 + 5a 5 is equal to p; - from 20 % to 50 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the decyl radical, - from 1% to 15 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the dodecyl radical, and - from 1% to 10 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the tetradecyl radical. - from 20 % to 50 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the decyl radical, - from 1% to 15 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the dodecyl radical, and - from 1% to 10 % by mass of a composition (C 1 ) represented by the formula (I) wherein R 1 represents the tetradecyl radical. - from 0 % to 95 % by mass of water.
A plant for heat treating heat-sensitive fluid foodstuffs, such as whey protein concentrate, baby food, baby food liquid concentrates, nutritious drinks or cheese milk, said plant comprising: an infusion chamber , in which the fluid foodstuff is subjected to a heat treatment by a feeding of steam , a fluid foodstuff inlet connected to a plurality of openings at the top of said infusion chamber for creating a plurality of essentially downwardly directed separate fluid foodstuff jets, said infusion chamber having a bottom section configured to collect the fluid foodstuff from said jets, said bottom section having an outlet opening at the bottom of said infusion chamber for allowing said collected fluid foodstuff to exit said infusion chamber, said outlet opening being connected to the inlet of a pump , and a cooling jacket surrounding said bottom section for cooling the wall of said bottom section, a digital optical camera configured for taking images and mounted on said infusion chamber with an angle of view covering in use at least a portion of said bottom section. an infusion chamber , in which the fluid foodstuff is subjected to a heat treatment by a feeding of steam , a fluid foodstuff inlet connected to a plurality of openings at the top of said infusion chamber for creating a plurality of essentially downwardly directed separate fluid foodstuff jets, said infusion chamber having a bottom section configured to collect the fluid foodstuff from said jets, said bottom section having an outlet opening at the bottom of said infusion chamber for allowing said collected fluid foodstuff to exit said infusion chamber, said outlet opening being connected to the inlet of a pump , and a cooling jacket surrounding said bottom section for cooling the wall of said bottom section, a digital optical camera configured for taking images and mounted on said infusion chamber with an angle of view covering in use at least a portion of said bottom section.
A method for authenticating a device to a mobile network, - once powered on, the device activates a first temporary subscription identifier, the first temporary subscription identifier being firstly active; - the device sends to a first server the first temporary subscription identifier and first data ; - the first server sends to the device a first result message including an authentication failure based upon the first data; characterized in that the method further comprises the following steps: - then the device determines a second temporary subscription identifier and at least one secret associated with at least the second temporary subscription identifier, the second temporary subscription identifier being associated with the first temporary subscription identifier; - the device switches from the first to the second temporary subscription identifier, the second temporary subscription identifier being secondly active; - the device generates second data by using the at least one secret; - the device sends to the first server the second temporary subscription identifier and the second data ; - the first server determines , based on at least the second temporary subscription identifier, the at least one secret; and - the first server sends to the device a second result message including an authentication success based upon the associated first and second temporary subscription identifiers and the second data. - once powered on, the device activates a first temporary subscription identifier, the first temporary subscription identifier being firstly active; - the device sends to a first server the first temporary subscription identifier and first data ; - the first server sends to the device a first result message including an authentication failure based upon the first data; - then the device determines a second temporary subscription identifier and at least one secret associated with at least the second temporary subscription identifier, the second temporary subscription identifier being associated with the first temporary subscription identifier; - the device switches from the first to the second temporary subscription identifier, the second temporary subscription identifier being secondly active; - the device generates second data by using the at least one secret; - the device sends to the first server the second temporary subscription identifier and the second data ; - the first server determines , based on at least the second temporary subscription identifier, the at least one secret; and - the first server sends to the device a second result message including an authentication success based upon the associated first and second temporary subscription identifiers and the second data.
A detection system comprising: a central manifold comprising a detection chamber ; a pipe network comprising at least one pipe fluidly coupled to the central manifold; a plurality of inlets formed over a length of the at least one pipe; an aspirating mechanism operable to draw a fluid flow at each of the plurality of inlets through the pipe network to the central manifold; and a plurality of independently operable flow control devices associated with the plurality of inlets, characterized in that at least one of the plurality of flow control devices comprises: a base ; an actuator connected to the base ; and a sealing element extending from the base and formed from a solid state flexible polymer coupled to electrodes, wherein the solid state flexible polymer is deformable in response to application of a voltage to the electrodes, wherein the at least one flow control device of the plurality of flow control devices is mounted relative to an inlet such that, when the at least one flow control device of the plurality of flow control devices is in an open configuration, a flow is provided to the pipe network via a clearance between an outer periphery of the sealing element and the inlet , and wherein the sealing element is configured to expand in response to application by the actuator of a voltage to the electrodes such that the outer periphery of the sealing element directly contacts the inlet to seal the inlet . a central manifold comprising a detection chamber ; a pipe network comprising at least one pipe fluidly coupled to the central manifold; a plurality of inlets formed over a length of the at least one pipe; an aspirating mechanism operable to draw a fluid flow at each of the plurality of inlets through the pipe network to the central manifold; and a plurality of independently operable flow control devices associated with the plurality of inlets, characterized in that at least one of the plurality of flow control devices comprises: a base ; an actuator connected to the base ; and a sealing element extending from the base and formed from a solid state flexible polymer coupled to electrodes, wherein the solid state flexible polymer is deformable in response to application of a voltage to the electrodes, a base ; an actuator connected to the base ; and a sealing element extending from the base and formed from a solid state flexible polymer coupled to electrodes, wherein the solid state flexible polymer is deformable in response to application of a voltage to the electrodes, wherein the at least one flow control device of the plurality of flow control devices is mounted relative to an inlet such that, when the at least one flow control device of the plurality of flow control devices is in an open configuration, a flow is provided to the pipe network via a clearance between an outer periphery of the sealing element and the inlet , and wherein the sealing element is configured to expand in response to application by the actuator of a voltage to the electrodes such that the outer periphery of the sealing element directly contacts the inlet to seal the inlet .
A lawn mower comprising: a motor having an output axis ; a cutter blade that includes a blade body that is rotatable about a blade rotation axis (a1) and a flap that has a changeable flap angle (θ) and is attached to the blade body , and that is driven and rotated driven by the motor , characterized in that the lawn mower further comprises a flap drive mechanism configured to drive the flap , wherein the flap drive mechanism comprises: a flap drive source that generates power for driving the flap ; and an intermediate power transmission unit provided on a power transmission path between the flap drive source and the flap and provided coaxially with the blade rotation axis (a1), the output axis of the motor is provided coaxially with the blade rotation axis (a1) and the intermediate power transmission unit . a motor having an output axis ; a cutter blade that includes a blade body that is rotatable about a blade rotation axis (a1) and a flap that has a changeable flap angle (θ) and is attached to the blade body , and a blade body that is rotatable about a blade rotation axis (a1) and a flap that has a changeable flap angle (θ) and is attached to the blade body , and that is driven and rotated driven by the motor , characterized in that the lawn mower further comprises a flap drive mechanism configured to drive the flap , wherein the flap drive mechanism comprises: a flap drive source that generates power for driving the flap ; and an intermediate power transmission unit provided on a power transmission path between the flap drive source and the flap and provided coaxially with the blade rotation axis (a1), a flap drive source that generates power for driving the flap ; and an intermediate power transmission unit provided on a power transmission path between the flap drive source and the flap and provided coaxially with the blade rotation axis (a1), the output axis of the motor is provided coaxially with the blade rotation axis (a1) and the intermediate power transmission unit .