mhurhangee/patent-ind-claim-en huggingface dataset:
Control apparatus for a voltage source converter comprising a plurality of energy storage devices which can be selectively connected into an arm of the voltage source converter, the apparatus comprising: a model module configured to generate a modelled value (VS) of the voltage of at least one of the energy storage devices of the voltage source converter based on one or more model parameters and the operation of the voltage source converter, at least one model parameter being related to the capacitance of an energy storage device; at least one filter configured to apply filtering to the measured value of the voltage of an energy storage device, a model adaptation module configured to receive the modelled value and also a measured value (VCAP) of the voltage of said at least one energy storage devices, to determine an error between said modelled value and said measured value, and to generate a model control signal (Mcon) for adapting the model based on said error so that the modelled value substantially corresponds to the measured value, the model control signal being a control signal configured to adjust a parameter related to the capacitance of an energy storage device ; and control circuitry responsive to said model module and said model adaptation module, wherein said control circuitry is configured to receive the modelled value of the voltage of an energy storage device and control said selective connection of said energy storage devices based on the modelled value for said energy storage devices, the control circuitry being further configured to sample the modelled value of said first electrical parameter at a sample rate which is faster than the adaptation module samples the measured value. a model module configured to generate a modelled value (VS) of the voltage of at least one of the energy storage devices of the voltage source converter based on one or more model parameters and the operation of the voltage source converter, at least one model parameter being related to the capacitance of an energy storage device; at least one filter configured to apply filtering to the measured value of the voltage of an energy storage device, a model adaptation module configured to receive the modelled value and also a measured value (VCAP) of the voltage of said at least one energy storage devices, to determine an error between said modelled value and said measured value, and to generate a model control signal (Mcon) for adapting the model based on said error so that the modelled value substantially corresponds to the measured value, the model control signal being a control signal configured to adjust a parameter related to the capacitance of an energy storage device ; and control circuitry responsive to said model module and said model adaptation module,
Filter , comprising: - an input interface (S1) for receiving a command on the basis of a first protocol (P1), - an output interface (S2) for outputting a command, - a first interface module (K1), - a second interface module (K2), wherein - the first interface module (K1) is connected to the input interface (S1) and the second interface module (K2) for signalling purposes, - the second interface module (K2) is connected to the output interface (S2) and the first interface module (K1) for signalling purposes, - the first interface module (K1) is configured to forward the command received via the input interface (S1) to the second interface module (K2) with a break in protocol, - the second interface module (K2) is configured to only forward those parts of the command coming from the first interface module (K1), which are stored in the second interface module (K2), to the output interface (S2), - a piece of software of the second interface module (S2) cannot be modified via the input interface (S1), characterised in that a command transfer from the first interface module (K1) to the second interface module (K2) is parallel, wherein - the interface modules (K1, K2) each comprise n connections (A1..n) for the parallel command transfer, - at least one connection (Ai) of the second interface module (K2) is not connected to the connection (Ai) of the first interface module (K1) which is associated by default. - an input interface (S1) for receiving a command on the basis of a first protocol (P1), - an output interface (S2) for outputting a command, - a first interface module (K1), - a second interface module (K2), wherein - the first interface module (K1) is connected to the input interface (S1) and the second interface module (K2) for signalling purposes, - the second interface module (K2) is connected to the output interface (S2) and the first interface module (K1) for signalling purposes, - the first interface module (K1) is configured to forward the command received via the input interface (S1) to the second interface module (K2) with a break in protocol, - the second interface module (K2) is configured to only forward those parts of the command coming from the first interface module (K1), which are stored in the second interface module (K2), to the output interface (S2), - a piece of software of the second interface module (S2) cannot be modified via the input interface (S1), - the interface modules (K1, K2) each comprise n connections (A1..n) for the parallel command transfer, - at least one connection (Ai) of the second interface module (K2) is not connected to the connection (Ai) of the first interface module (K1) which is associated by default.
A split ring seal comprising: a first circumferential end and a second circumferential end ; an inner diameter surface and an outer diameter surface ; a first axial end face and a second axial end face ; a circumferentially distributed first plurality of open channels (74; 76) along the first axial end face ; and a circumferentially distributed second plurality of open channels (74; 76) along the second axial end face , wherein the first circumferential end and the second circumferential end form a joint , characterised in that : of the first plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area; and of the second plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area. a first circumferential end and a second circumferential end ; an inner diameter surface and an outer diameter surface ; a first axial end face and a second axial end face ; a circumferentially distributed first plurality of open channels (74; 76) along the first axial end face ; and a circumferentially distributed second plurality of open channels (74; 76) along the second axial end face , wherein the first circumferential end and the second circumferential end form a joint , characterised in that : of the first plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area; and of the second plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area. diametrically opposite the joint are the largest in cross-sectional area; and of the second plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area.
A sizing composition capable of crosslinking to form an organic binder of insulating products based on mineral wool characterized in that it comprises - at least one non-reducing saccharide selected from trehalose and sucrose, - at least one hydrogenated saccharide selected from erythritol, arabitol, xylitol, sorbitol, mannitol, iditol, maltitol, isomaltitol, lactitol, cellobitol, palatinitol, maltotritol and the hydrogenation products of starch hydrolysates and representing from 40 % to 80 % of the total weight of non-reducing saccharide(s) and hydrogenated saccharide(s), and - a polycarboxylic organic acid which is citric acid, and - at least 1 % and up to 20 % by weight of a catalyst selected from sodium hypophosphite, sodium phosphite and mixtures of these compounds, of the total weight of the non-reducing saccharide(s), of the hydrogenated saccharide(s) and of polycarboxylic organic acid, the non-reducing saccharide(s) and the hydrogenated saccharide(s) represent from 10 % to 90 % of the weight of the mixture consisting of the non-reducing saccharide(s), the hydrogenated saccharide(s) and the polycarboxylic organic acid. - at least one non-reducing saccharide selected from trehalose and sucrose, - at least one hydrogenated saccharide selected from erythritol, arabitol, xylitol, sorbitol, mannitol, iditol, maltitol, isomaltitol, lactitol, cellobitol, palatinitol, maltotritol and the hydrogenation products of starch hydrolysates and representing from 40 % to 80 % of the total weight of non-reducing saccharide(s) and hydrogenated saccharide(s), and - a polycarboxylic organic acid which is citric acid, and - at least 1 % and up to 20 % by weight of a catalyst selected from sodium hypophosphite, sodium phosphite and mixtures of these compounds, of the total weight of the non-reducing saccharide(s), of the hydrogenated saccharide(s) and of polycarboxylic organic acid,
An electropneumatic parking brake module , comprising: a supply port configured to connect a compressed air supply , at least one spring brake actuator port configured to connect at least one spring brake cylinder , a trailer control port configured to connect a trailer control valve (TCV), wherein a trailer control pressure (pA) is configured to be controlled at the trailer control port, an inlet-outlet valve unit configured to control a spring brake pressure (pF) at the at least one spring brake actuator port , and an electropneumatic pilot control unit configured to control at least one control pressure (p1) at the inlet-outlet valve unit and configured to perform a trailer control position function, wherein the pilot control unit has a 3/3-way valve that has a first switching position, a second switching position, and a third switching position (T1, T2, T3), wherein in the second switching position (T2), the trailer control position function is configured to be carried out, characterized in that - in the first switching position (T1), the control pressure (p1) is configured to be controlled at the inlet-outlet valve unit via the 3/3-way valve , and - in the third switching position (T3), the inlet-outlet valve unit and the trailer control port are connected to a vent . a supply port configured to connect a compressed air supply , at least one spring brake actuator port configured to connect at least one spring brake cylinder , a trailer control port configured to connect a trailer control valve (TCV), wherein a trailer control pressure (pA) is configured to be controlled at the trailer control port, an inlet-outlet valve unit configured to control a spring brake pressure (pF) at the at least one spring brake actuator port , and an electropneumatic pilot control unit configured to control at least one control pressure (p1) at the inlet-outlet valve unit and configured to perform a trailer control position function, wherein the pilot control unit has a 3/3-way valve that has a first switching position, a second switching position, and a third switching position (T1, T2, T3), wherein in the second switching position (T2), the trailer control position function is configured to be carried out, characterized in that - in the first switching position (T1), the control pressure (p1) is configured to be controlled at the inlet-outlet valve unit via the 3/3-way valve , and - in the third switching position (T3), the inlet-outlet valve unit and the trailer control port are connected to a vent . - in the first switching position (T1), the control pressure (p1) is configured to be controlled at the inlet-outlet valve unit via the 3/3-way valve , and - in the third switching position (T3), the inlet-outlet valve unit and the trailer control port are connected to a vent .
A base frame assembly for a passenger seat and a surrounding monument mounted to the base frame assembly comprising: - a passenger seat , - a main frame comprising a seat support structure comprising one seat fitting for said passenger seat and the seat support structure is configured to approximate a width of the passenger seat , - said main frame further comprising a lateral support structure , wherein the lateral support structure comprises two seat fittings for said passenger seat , said lateral support structure being configured to have a length (L) that approximates a combined width of the passenger seat and the surrounding monument , the direction of the length (L) being oriented generally perpendicular to a central axis of seat tracks , characterized in that said base frame assembly further comprises: - a secondary frame pivotally coupled to the main frame , wherein the secondary frame comprises one seat fitting for said passenger seat , the pivot coupling being oriented generally perpendicular to the central axis of the seat tracks and generally parallel to a plane crossing the seat tracks , when the base frame assembly is coupled to the seat tracks . - a passenger seat , - a main frame comprising a seat support structure comprising one seat fitting for said passenger seat and the seat support structure is configured to approximate a width of the passenger seat , - said main frame further comprising a lateral support structure , wherein the lateral support structure comprises two seat fittings for said passenger seat , - a secondary frame pivotally coupled to the main frame , wherein the secondary frame comprises one seat fitting for said passenger seat , the pivot coupling being oriented generally perpendicular to the central axis of the seat tracks and generally parallel to a plane crossing the seat tracks , when the base frame assembly is coupled to the seat tracks .
Supply device for delivering film to a bundling machine and comprising, on one hand, at least one unwinding stand for receiving a reel of said film that is to be delivered, and, on the other hand, a connection means for attaching the following film to the film that is currently being supplied, the supply device comprising a support on which the at least one unwinding stand is mounted, said support being able to move with respect to the connection means so as to bring thereto the film that is being delivered, the at least one unwinding stand comprising a mandrel onto which a reel of film can be threaded, characterized in that the at least one unwinding stand also comprises a first roller for guiding the film from said reel when it is delivered by the supply device , and a retention means for retaining the free part of the film when it is standing by.
A method for manufacturing a wood composite board , comprising: supplying a biomass composition containing a pulverized palm tree material and a multivalent carboxylic acid to a surface of a wood board to have a thickness within a range of 1 mm to 5 mm both inclusive after thermocompression molding; then performing thermocompression molding on the biomass composition supplied to the surface of the wood board, thereby forming a surface layer of the biomass composition on the surface of the wood board supplying a biomass composition containing a pulverized palm tree material and a multivalent carboxylic acid to a surface of a wood board to have a thickness within a range of 1 mm to 5 mm both inclusive after thermocompression molding; then performing thermocompression molding on the biomass composition supplied to the surface of the wood board, thereby forming a surface layer of the biomass composition on the surface of the wood board
A milk protein hydrolysate prepared by a process comprising hydrolysing a milk-based proteinaceous material with a microbial alkaline serine protease in combination with bromelain, a protease from Aspergillus and a protease from Bacillus.
A method for generating a cryptographic key from at least one prime number, comprising the following steps performed at runtime by a cryptographic device comprising at least one hardware processor , a Physically Unclonable function and a memory storing at least one challenge (Ci) and at least one associated increment number (Spi), said associated increment number being a number of incrementation steps to be performed in a predefined cryptographic prime numbers generation algorithm to generate said at least one prime number from a seed obtained from said challenge using said Physically Unclonable function : - obtaining (RS1) from said memory a challenge and at least one associated increment number, - generating (RS2) a seed by applying said Physically Unclonable function to said obtained challenge, - generating (RS3) said at least one prime number from said generated seed by performing said cryptographic prime numbers generation algorithm and by performing therein as many incrementation steps as said obtained at least one increment number, - generating (RS4) said cryptographic key from said generated prime number. - obtaining (RS1) from said memory a challenge and at least one associated increment number, - generating (RS2) a seed by applying said Physically Unclonable function to said obtained challenge, - generating (RS3) said at least one prime number from said generated seed by performing said cryptographic prime numbers generation algorithm and by performing therein as many incrementation steps as said obtained at least one increment number, - generating (RS4) said cryptographic key from said generated prime number.
A method of tuning a controller , the controller configured to control at least part of a process, the method comprising: during each of a plurality of iterations: updating a policy of the controller; controlling the at least part of the process using the controller with the updated policy ; associating the updated policy with a performance level of the controller in controlling the at least part of the process; and wherein for each iteration, the updated policy is determined using the associations generated during one or more previous iterations between the policies and the corresponding performance levels of the controller in controlling the at least part of the process, the method characterized in that the updated policy is optimized to have a highest likelihood of producing a positive change in the performance level of the controller in controlling the at least part of the process rather than optimized to have a highest likelihood of producing a largest positive magnitude of change in the performance level of the controller in controlling the at least part of the process relative to the previous iteration. during each of a plurality of iterations: updating a policy of the controller; controlling the at least part of the process using the controller with the updated policy ; associating the updated policy with a performance level of the controller in controlling the at least part of the process; and updating a policy of the controller; controlling the at least part of the process using the controller with the updated policy ; associating the updated policy with a performance level of the controller in controlling the at least part of the process; and wherein for each iteration, the updated policy is determined using the associations generated during one or more previous iterations between the policies and the corresponding performance levels of the controller in controlling the at least part of the process, the method characterized in that the updated policy is optimized to have a highest likelihood of producing a positive change in the performance level of the controller in controlling the at least part of the process rather than optimized to have a highest likelihood of producing a largest positive magnitude of change in the performance level of the controller in controlling the at least part of the process relative to the previous iteration.
A method of forming a wallboard material, comprising: forming a mixture including: from about 25 wt% to about 60 wt% of microparticles based on wet formulation, from about 20 wt% to about 36 wt% dry sodium silicate, disposing the mixture between a first facing membrane and a second facing membrane; and heat curing the mixture in a single step sufficient to form a wallboard material having the first facing membrane and the second facing membrane attached to a core matrix, said heat curing being completed in a time less than about 1.5 hours without causing damage to the wallboard material; and characterised in that the mixture further includes from about 2 wt% to about 6 wt% of a dry vinyl acetate; and wherein the first facing membrane is a metallic facing membrane. forming a mixture including: from about 25 wt% to about 60 wt% of microparticles based on wet formulation, from about 20 wt% to about 36 wt% dry sodium silicate, from about 25 wt% to about 60 wt% of microparticles based on wet formulation, from about 20 wt% to about 36 wt% dry sodium silicate, disposing the mixture between a first facing membrane and a second facing membrane; and heat curing the mixture in a single step sufficient to form a wallboard material having the first facing membrane and the second facing membrane attached to a core matrix, said heat curing being completed in a time less than about 1.5 hours without causing damage to the wallboard material; and characterised in that the mixture further includes from about 2 wt% to about 6 wt% of a dry vinyl acetate; and wherein the first facing membrane is a metallic facing membrane. characterised in that the mixture further includes from about 2 wt% to about 6 wt% of a dry vinyl acetate; and wherein the first facing membrane is a metallic facing membrane.
A horology movement of the electromechanical type comprising an analogue time display device with a pipe carrying an indicator , this horology movement being provided with at least one electromechanical motor , so as to be able to drive at least said indicator , with a generator comprising a rotor and with an oscillating weight coaxial to the time display device, this horology movement comprising a first wheel provided with an arbor coaxial to said pipe, this pipe being attached to a second wheel that meshes with the electromechanical motor, said arbor being rotationally guided by the pipe or by a fixed cylindrical tube around which said pipe is rotationally mounted; characterised in that the first wheel meshes with the rotor of the generator; and in that the first wheel is permanently attached to the oscillating weight, on the side opposite the analogue time display, so that this oscillating weight can rotate the rotor of the generator via the first wheel.
A method performed by a wireless device for multibeam precoder based channel state information, CSI, feedback reporting, wherein a CSI report comprises a first part, CSI Part 1, and a second part, CSI Part 2, the method comprising: generating the CSI report, wherein the CSI Part 1 comprises one or more, per layer, indications of a number of non-zero coefficients, and a payload size of the one or more indications of the number of non-zero coefficients is dependent on a rank restriction of the wireless device; and transmitting the CSI report to a network node, wherein one or more of a payload of the CSI Part 2 and a payload size of the CSI Part 2 is based on the total number of non-zero coefficients indicated in the CSI Part 1 generating the CSI report, wherein the CSI Part 1 comprises one or more, per layer, indications of a number of non-zero coefficients, and a payload size of the one or more indications of the number of non-zero coefficients is dependent on a rank restriction of the wireless device; and transmitting the CSI report to a network node, wherein one or more of a payload of the CSI Part 2 and a payload size of the CSI Part 2 is based on the total number of non-zero coefficients indicated in the CSI Part 1