mhurhangee/patent-ind-claim-en huggingface dataset:
A planar array antenna comprising: at least two adjacent first radiation arrays arranged along a first direction, wherein each first radiation array comprises at least one first radiation unit and at least one radiation unit pair , the first radiation unit and the radiation unit pair are disposed on an axis of the first radiation array , the radiation unit pair comprises at least two second radiation units , and the at least two second radiation units are symmetric with respect to the axis of the first radiation array ; wherein the first radiation units and the radiation unit pairs in two adjacent first radiation arrays are arranged in a staggered manner; and wherein each first radiation array comprises a first end and a second end relative to each other, the first ends of the first radiation arrays are at a same side, the radiation unit pair in one of the two adjacent first radiation arrays is disposed at the first end of the one first radiation array , and the radiation unit pair in the other of the two adjacent first radiation arrays is disposed at the second end of the other first radiation array . at least two adjacent first radiation arrays arranged along a first direction, wherein each first radiation array comprises at least one first radiation unit and at least one radiation unit pair , the first radiation unit and the radiation unit pair are disposed on an axis of the first radiation array , the radiation unit pair comprises at least two second radiation units , and the at least two second radiation units are symmetric with respect to the axis of the first radiation array ; wherein the first radiation units and the radiation unit pairs in two adjacent first radiation arrays are arranged in a staggered manner; and wherein each first radiation array comprises a first end and a second end relative to each other, the first ends of the first radiation arrays are at a same side, the radiation unit pair in one of the two adjacent first radiation arrays is disposed at the first end of the one first radiation array , and the radiation unit pair in the other of the two adjacent first radiation arrays is disposed at the second end of the other first radiation array .
A relay unit comprising: a switching circuit including at least one normally open contact (a1, a2) and at least one normally closed contact (b1, b2); and a controller for controlling the switching circuit ; the switching circuit being in a state of de-energizing a load when the normally open contact (a1, a2) is open and the normally closed contact (b1, b2) is closed, and being in a state of energizing a load when the normally open contact is closed (a1, a2) and the normally closed contact (b1, b2) is open; and while the load is de-energized, the controller sends a test signal (MS1) to the normally closed contact and detects the state of a returning test signal (MS1) sent; characterised in that when a detection result does not satisfy a predetermined criterion, the controller resends a test signal (MS1) and re-detects the state of the returning test signal (MS1) resent, and assesses the state of the returning test signal (MS1) resent as normal when the re-detection result satisfies the predetermined criterion. a switching circuit including at least one normally open contact (a1, a2) and at least one normally closed contact (b1, b2); and a controller for controlling the switching circuit ; the switching circuit being in a state of de-energizing a load when the normally open contact (a1, a2) is open and the normally closed contact (b1, b2) is closed, and being in a state of energizing a load when the normally open contact is closed (a1, a2) and the normally closed contact (b1, b2) is open; and while the load is de-energized, the controller sends a test signal (MS1) to the normally closed contact and detects the state of a returning test signal (MS1) sent; characterised in that when a detection result does not satisfy a predetermined criterion, the controller resends a test signal (MS1) and re-detects the state of the returning test signal (MS1) resent, and assesses the state of the returning test signal (MS1) resent as normal when the re-detection result satisfies the predetermined criterion.
Process to produce electricity from raw material containing carbon (C), said process comprising at least one iteration of the following steps constituting a treatment cycle: - a gasification step in a first so-called gasification reactor of dry carbon-containing raw material (C) with a gaseous gasification flow (FGG) comprising CO 2 at high temperature, said gasification step comprising supplying a first gaseous flow (PFG) essentially comprising molecules of carbon monoxide (CO); - an oxidation step in a second so-called oxidation reactor by oxygen holders in oxide state (MeO) of said molecules of carbon monoxide (CO) as present in said first gaseous flow (PFG), said oxidation step comprising supplying a second gaseous flow (DFG) at high temperature containing CO 2 and oxygen holders in reduced state (Me); - an activation step in a so-called third activation reactor of said oxygen holders in reduced state (Me) with a so-called gaseous flow of activation (FA), comprising elements of oxygen (O), said activation step comprising supplying oxygen holders in oxide state (MeO) and an oxygen-poor gaseous flow of activation at high temperature (FAA); the process being characterized by : - a step of transferring a part of the thermal power as generated during gasification to the gaseous oxygen-poor flow of activation (FAA); and - a conversion step comprising conversion in electricity of at least a part of the thermal power of said gaseous oxygen-poor flow of activation at high temperature (FAA). - a gasification step in a first so-called gasification reactor of dry carbon-containing raw material (C) with a gaseous gasification flow (FGG) comprising CO 2 at high temperature, said gasification step comprising supplying a first gaseous flow (PFG) essentially comprising molecules of carbon monoxide (CO); - an oxidation step in a second so-called oxidation reactor by oxygen holders in oxide state (MeO) of said molecules of carbon monoxide (CO) as present in said first gaseous flow (PFG), said oxidation step comprising supplying a second gaseous flow (DFG) at high temperature containing CO 2 and oxygen holders in reduced state (Me); - an activation step in a so-called third activation reactor of said oxygen holders in reduced state (Me) with a so-called gaseous flow of activation (FA), comprising elements of oxygen (O), said activation step comprising supplying oxygen holders in oxide state (MeO) and an oxygen-poor gaseous flow of activation at high temperature (FAA); the process being characterized by : - a step of transferring a part of the thermal power as generated during gasification to the gaseous oxygen-poor flow of activation (FAA); and - a conversion step comprising conversion in electricity of at least a part of the thermal power of said gaseous oxygen-poor flow of activation at high temperature (FAA). - a step of transferring a part of the thermal power as generated during gasification to the gaseous oxygen-poor flow of activation (FAA); and - a conversion step comprising conversion in electricity of at least a part of the thermal power of said gaseous oxygen-poor flow of activation at high temperature (FAA).
Shaped abrasive particles comprising alpha alumina, comprising a first face and a second face connected to each other by a sidewall , the first face and the second face being separated by a thickness t ranging between 25 micrometers to 500 micrometers, and having a cross-sectional shape along a longitudinal axis of the shaped abrasive particles , the cross-sectional shape comprising a polygonal cross-sectional plane, wherein the shaped abrasive particles comprise an Average Roundness Factor of between about 15% to 0%, wherein the Average Roundness Factor is determined by averaging the Roundness Factors of 10 individual shaped abrasive particles , wherein the Roundness Factor expressed as a percentage is calculated by dividing the Missing Area by the Actual Area and multiplying by 100, that is Roundness Factor % = Missing Area / Actual Area ∗ 100 , wherein the Actual Area represents the cross-sectional plane of a transverse cut located as close as possible to the midpoint of the longitudinal axis of the shaped abrasive particle , wherein each face of sidewalls , first face and second face of the cross-sectional plane is bounded by a line drawn tangent to the two highest points located anywhere along that face, thereby enclosing a Maximum Area having a polygonal shape, and wherein the Missing Area represents the amount of area present due to rounded corners and uneven edges of the shaped abrasive particle , wherein the Actual Area of the cross-sectional plane is subtracted from the Maximum Area bounded by the polygon to determine the Missing Area , wherein Actual Area , Maximum Area and Missing Area are determined by the Roundness Factor Determination.
A subsea smart electrical control unit comprising: a plurality of mechanical interfaces comprising at least one fixed mounting interface and at least one relocatable mounting interface, the plurality of mechanical interfaces being configured to connect a plurality of end point units ; a modular housing comprising a smart controller configured to connect to and operate the plurality of end point units via the plurality of mechanical interfaces ; one or more external sensors configured to provide external information to the smart controller for establishing a feedback loop on the plurality of end point units ; a power supply and control unit including a computer configured to communicate with a host offshore platform, and a power conditioning unit to be used by the smart controller and any other components within the modular housing to condition power and communication; and a smart battery either integrated and located within the modular housing unit or located independently in the electric power and control module . a plurality of mechanical interfaces comprising at least one fixed mounting interface and at least one relocatable mounting interface, the plurality of mechanical interfaces being configured to connect a plurality of end point units ; a modular housing comprising a smart controller configured to connect to and operate the plurality of end point units via the plurality of mechanical interfaces ; one or more external sensors configured to provide external information to the smart controller for establishing a feedback loop on the plurality of end point units ; a power supply and control unit including a computer configured to communicate with a host offshore platform, and a power conditioning unit to be used by the smart controller and any other components within the modular housing to condition power and communication; and a smart battery either integrated and located within the modular housing unit or located independently in the electric power and control module .
Device for sterilising drinking water of a water tapping point, in particular a sanitary water fitting , having a reactor housing , a water inlet and a water outlet, which are connected to one another via a flow channel , wherein a reactor piston is arranged in the flow channel , in which at least one UVC LED is positioned and wherein means for swirling a water flow passing through are arranged in the flow channel , characterised in that the at least one UVC LED is connected to a control unit, via which the radiation intensity thereof can be controlled, wherein a flow sensor is arranged in the reactor housing , which is connected to the control unit, wherein the control unit is set up in such a manner that control of the radiation intensity of the at least one UVC LED in a ratio to the flow velocity reported by the flow sensor is made possible.
A method for creating a virtual reception channel in a radar system comprising an antenna having two physical reception channels (1 r , 2 r ) spaced apart by a distance d in a direction x, two emission channels (1 e , 2 e ) spaced apart by a same distance d in the same direction x and processing means , the method comprising: a. dynamically selecting two different waveforms containing random noise taking the form of a random succession or code of phase values, said waveforms being orthogonal to each other; b. generating a radar pulse of identical central wavelength in each emission channel, each of the emission channels emitting one of said two different waveforms; c. acquiring, with the reception channels, echoes due to pulses emitted by the emission channels and reflected by at least one target ; d. compressing the pulses by matched filtering of the echoes acquired by each physical reception channel, by performing their correlation with each of the waveforms generated in the emission channels; and e. repeating steps a) to c) while randomly changing one of the values of each of the phase codes associated with the generated waveforms until the level of the sidelobes of all the compressed pulses has stabilised. a. dynamically selecting two different waveforms containing random noise taking the form of a random succession or code of phase values, said waveforms being orthogonal to each other; b. generating a radar pulse of identical central wavelength in each emission channel, each of the emission channels emitting one of said two different waveforms; c. acquiring, with the reception channels, echoes due to pulses emitted by the emission channels and reflected by at least one target ; d. compressing the pulses by matched filtering of the echoes acquired by each physical reception channel, by performing their correlation with each of the waveforms generated in the emission channels; and e. repeating steps a) to c) while randomly changing one of the values of each of the phase codes associated with the generated waveforms until the level of the sidelobes of all the compressed pulses has stabilised.
A process for the production of an aromatic primary amine, the process comprising reacting an aromatic dialdehyde with hydrogen and ammonia or an ammonia-liberating compound, in the presence of a hydrogenation catalyst and an amine, wherein the amine is : - a primary amine selected from the group consisting of methylamine, ethylamine, propylamine, butylamine, pentylamine, hexylamine, benzylamine and cyclohexylamine, or - a secondary amine selected from the group consisting of dimethylamine, diethylamine, diethanolamine, dicyclohexylamine, diallylamine, piperidine, pyrolidine, morpholine, N -methylbenzylamine, and dibenzylamine, or - a tertiary amine selected from the group consisting of trimethylamine, triethylamine, triethanolamine, diisopropylethylamine, tricyclohexylamine, triallylamine, benzyldimethylamine, N -methylmorpholine, and N- methyldibenzylamine, wherein the molar ratio of the amine to the aromatic dialdehyde is no less than 1:4 at the start of the reaction. - a primary amine selected from the group consisting of methylamine, ethylamine, propylamine, butylamine, pentylamine, hexylamine, benzylamine and cyclohexylamine, or - a secondary amine selected from the group consisting of dimethylamine, diethylamine, diethanolamine, dicyclohexylamine, diallylamine, piperidine, pyrolidine, morpholine, N -methylbenzylamine, and dibenzylamine, or - a tertiary amine selected from the group consisting of trimethylamine, triethylamine, triethanolamine, diisopropylethylamine, tricyclohexylamine, triallylamine, benzyldimethylamine, N -methylmorpholine, and N- methyldibenzylamine,
A device for delivering a cosmetic active agent to a dermal or mucosal surface comprising: a) a first portion configured to define a delivery surface for presentation to a dermal or mucosal surface to deliver the cosmetic active agent ; and b) a second portion configured as a body to be held by a user further comprising a means for driving the passage of the cosmetic active agent into the dermal or mucosal surface characterised in that : the first portion and the second portion are adapted to be releasably interconnected and the means for driving the passage of the cosmetic active agent into the dermal or mucosal surface is housed wholly in the second portion and comprises an electromagnetophoresis dermaportation device located immediately adjacent the point of interconnection to the first portion. a) a first portion configured to define a delivery surface for presentation to a dermal or mucosal surface to deliver the cosmetic active agent ; and b) a second portion configured as a body to be held by a user further comprising a means for driving the passage of the cosmetic active agent into the dermal or mucosal surface
A bleaching powder, containing a) at least one oxidizing agent selected from sodium percarbonates and inorganic salts of a peroxysulfuric acid, and mixtures thereof, b) also at least one dicarboxylic acid having 2 to 10 carbon atoms, selected from succinic acid and/or at least one salt of this acid and mixtures of these compounds, c) also arginine and lysine or at least one of the salts of these amino acids, d) and 0 to 8 wt.% water, based on the weight of the bleaching powder. a) at least one oxidizing agent selected from sodium percarbonates and inorganic salts of a peroxysulfuric acid, and mixtures thereof, b) also at least one dicarboxylic acid having 2 to 10 carbon atoms, selected from succinic acid and/or at least one salt of this acid and mixtures of these compounds, c) also arginine and lysine or at least one of the salts of these amino acids, d) and 0 to 8 wt.% water, based on the weight of the bleaching powder.
A method of device-to-device, D2D, operation of a user equipment, UE, in a wireless communication system, the method comprising: receiving (S210) system information informing a resource pool capable of performing the D2D operation from a network; transmitting (S220) sidelink UE information to the network; and receiving (S230) gap information informing a sidelink gap based on the sidelink UE information, wherein the sidelink UE information comprises information whether the UE is interested in receiving a D2D signal, a resource allocation request for a transmission of the D2D signal and a sidelink gap request, and wherein, during the sidelink gap, the UE does not need to monitor a downlink signal transmitted from the network and the UE monitors the D2D signal. receiving (S210) system information informing a resource pool capable of performing the D2D operation from a network; transmitting (S220) sidelink UE information to the network; and receiving (S230) gap information informing a sidelink gap based on the sidelink UE information, wherein the sidelink UE information comprises information whether the UE is interested in receiving a D2D signal, a resource allocation request for a transmission of the D2D signal and a sidelink gap request, and wherein, during the sidelink gap, the UE does not need to monitor a downlink signal transmitted from the network and the UE monitors the D2D signal.
A configuration method implemented by a configuration device comprising: - acquisition (A2) of a set of instruction codes comprising: ∘ production instruction codes (CP) for configuring a reference electronic device ; and ∘ functional instruction codes (CF) for configuring a functional electronic device ; wherein the production instruction codes (CP) and the functional instruction codes (CF) are at least partly separate from one another; - first loading (A4) during which the production instruction codes are loaded into a first memory area (Z11) of the reference electronic device, without loading any functional instruction code not also part of the production instruction codes, such as to cause the execution by the reference electronic device of the production instruction codes to generate user data (DT) in a second memory area (Z12) of the reference electronic device; - extraction (A10) of the user data (DT) from the second memory area (Z12) of the reference electronic device; - second loading (A12) during which the functional instruction codes (CF) are loaded into a first memory area (Z21) of the functional electronic device, without loading any production instruction codes not also part of the functional instruction codes; and - third loading (A16) during which the user data, extracted from the second memory area of the reference electronic device, are loaded into a second memory area of the functional electronic device. - acquisition (A2) of a set of instruction codes comprising: ∘ production instruction codes (CP) for configuring a reference electronic device ; and ∘ functional instruction codes (CF) for configuring a functional electronic device ; wherein the production instruction codes (CP) and the functional instruction codes (CF) are at least partly separate from one another; ∘ production instruction codes (CP) for configuring a reference electronic device ; and ∘ functional instruction codes (CF) for configuring a functional electronic device ; - first loading (A4) during which the production instruction codes are loaded into a first memory area (Z11) of the reference electronic device, without loading any functional instruction code not also part of the production instruction codes, such as to cause the execution by the reference electronic device of the production instruction codes to generate user data (DT) in a second memory area (Z12) of the reference electronic device; - extraction (A10) of the user data (DT) from the second memory area (Z12) of the reference electronic device; - second loading (A12) during which the functional instruction codes (CF) are loaded into a first memory area (Z21) of the functional electronic device, without loading any production instruction codes not also part of the functional instruction codes; and - third loading (A16) during which the user data, extracted from the second memory area of the reference electronic device, are loaded into a second memory area of the functional electronic device.
Device for non-destructive testing of a mechanical part made of a polycrystalline material, including - an ultrasonic probe including a two-dimensional array of transducers capable of emitting and receiving signals at different excitation angles, and - a processing module adapted to test the transducers in emission and in reception, process the signals received by the transducers so as to express the signals received by the transducers in two planes of plane-waves constructed from emission and reception wave vectors of the probe, and to deduce therefrom information representative of the three-dimensional orientation of the fiber structure of the mechanical part. - an ultrasonic probe including a two-dimensional array of transducers capable of emitting and receiving signals at different excitation angles, and - a processing module adapted to test the transducers in emission and in reception, process the signals received by the transducers so as to express the signals received by the transducers in two planes of plane-waves constructed from emission and reception wave vectors of the probe, and to deduce therefrom information representative of the three-dimensional orientation of the fiber structure of the mechanical part.