mhurhangee/patent-ind-claim-en huggingface dataset:
A flow balancing system comprising a valve actuator , a differential pressure balancing valve , a setting actuator , and a control valve , where the valve actuator is connected to the differential pressure balancing valve where the balancing valve is capable of being set to an adjustable setpoint of a differential pressure where the setting actuator is mounted in connection to the valve actuator and is adapted to adjust said setpoint, characterized in that , the flow balancing system is further comprising a controller , the setting actuator is in data exchange connection to the controller also being in communication to said control valve and where said controller is adapted to change said setpoint when an operation of said control valve gets below a critical value.
Heat exchanger , notably for a motor vehicle, for an exchange of heat between at least a first fluid and a second fluid, the said exchanger being able to act as a condenser and comprising a heat-exchange core with a plurality of heat-exchange tubes (5; 51, 53) comprising circulation canals : - through which the first fluid is intended to pass, and - which are intended to be in fluidic communication with a fluid reservoir able to separate the gas phase and the liquid phase of the condensed first fluid, such that: - the heat-exchange tubes (5; 51, 53) comprise: • circulation canals for condensing the first fluid, defining a condensation zone of the heat-exchange core , and • circulation canals for supercooling the condensed first fluid, defining a supercooling zone of the heat-exchange core , characterized in that - the heat exchanger comprises a stack of frames among which at least certain frames , referred to as receiving frames that receive the heat-exchange tubes (5; 51, 53), are able to receive the heat-exchange tubes (5; 51, 53) and are respectively configured in such a way as to separate the condensing zone and the supercooling zone of the heat-exchange core , and in that - at least one fluidic coupling frame is configured to place the reservoir in fluidic communication: • on the one hand, with the circulation canals for condensing, and • on the other hand, and distinctly, with the circulation canals for supercooling. - through which the first fluid is intended to pass, and - which are intended to be in fluidic communication with a fluid reservoir able to separate the gas phase and the liquid phase of the condensed first fluid, - the heat-exchange tubes (5; 51, 53) comprise: • circulation canals for condensing the first fluid, defining a condensation zone of the heat-exchange core , and • circulation canals for supercooling the condensed first fluid, defining a supercooling zone of the heat-exchange core , characterized in that • circulation canals for condensing the first fluid, defining a condensation zone of the heat-exchange core , and • circulation canals for supercooling the condensed first fluid, defining a supercooling zone of the heat-exchange core , characterized in that - the heat exchanger comprises a stack of frames among which at least certain frames , referred to as receiving frames that receive the heat-exchange tubes (5; 51, 53), are able to receive the heat-exchange tubes (5; 51, 53) and are respectively configured in such a way as to separate the condensing zone and the supercooling zone of the heat-exchange core , and in that - at least one fluidic coupling frame is configured to place the reservoir in fluidic communication: • on the one hand, with the circulation canals for condensing, and • on the other hand, and distinctly, with the circulation canals for supercooling. • on the one hand, with the circulation canals for condensing, and • on the other hand, and distinctly, with the circulation canals for supercooling.
A method of recovering a robotic vehicle, comprising: determining whether the robotic vehicle is stolen; and in response to determining the robotic vehicle is stolen: determining an opportunity for the robotic vehicle to perform a recovery action, wherein the recovery action is an escape attempt; and performing the recovery action at the determined opportunity, characterised in that determining an opportunity for the robotic vehicle to perform a recovery action comprises: determining an amount of separation between the robotic vehicle and an unauthorized operator of the robotic vehicle; and determining the opportunity to perform the recovery action based on the amount of separation between the robotic vehicle and the unauthorized operator. determining whether the robotic vehicle is stolen; and in response to determining the robotic vehicle is stolen: determining an opportunity for the robotic vehicle to perform a recovery action, wherein the recovery action is an escape attempt; and performing the recovery action at the determined opportunity, characterised in that determining an opportunity for the robotic vehicle to perform a recovery action comprises: determining an amount of separation between the robotic vehicle and an unauthorized operator of the robotic vehicle; and determining the opportunity to perform the recovery action based on the amount of separation between the robotic vehicle and the unauthorized operator.
A method of reacting a gas reactant and liquid reactant comprising: (i) introducing the gas reactant and liquid reactant into a hybrid vertical bubble plug flow reactor, having a bottom inlet and a top outlet connected by a tubular member, separately at the bottom inlet, wherein the gas reactant and liquid reactant are mixed and introduced at a rate resulting in a molar ratio of gas reactant/liquid reactant that is in excess of a stoichiometric amount and the gas reactant forms bubbles within the liquid reactant, optionally: wherein the liquid reactant is a gas at ambient conditions and the reactor is maintained at a pressure and temperature for the liquid reactant to be maintained as a liquid, wherein the bubbles traverse the reactor at a speed, and wherein the liquid reactant traverse the reactor at a speed and the speed of the bubbles is the same or greater than the speed of the liquid reactant, (ii) allowing the gas and liquid reactants to react and form a reaction product as they flow upwards through the hybrid vertical bubble plug flow reactor in the presence of a catalyst, and (iii) removing the reaction product at the top outlet. (i) introducing the gas reactant and liquid reactant into a hybrid vertical bubble plug flow reactor, having a bottom inlet and a top outlet connected by a tubular member, separately at the bottom inlet, wherein the gas reactant and liquid reactant are mixed and introduced at a rate resulting in a molar ratio of gas reactant/liquid reactant that is in excess of a stoichiometric amount and the gas reactant forms bubbles within the liquid reactant, optionally: wherein the liquid reactant is a gas at ambient conditions and the reactor is maintained at a pressure and temperature for the liquid reactant to be maintained as a liquid, wherein the bubbles traverse the reactor at a speed, and wherein the liquid reactant traverse the reactor at a speed and the speed of the bubbles is the same or greater than the speed of the liquid reactant, (ii) allowing the gas and liquid reactants to react and form a reaction product as they flow upwards through the hybrid vertical bubble plug flow reactor in the presence of a catalyst, and (iii) removing the reaction product at the top outlet.
A method for reducing noise in a component (C) of a picture, characterized in that the method comprises: - obtaining a low-pass filtered component (Cf) by low-pass filtering said component (C) of the picture; - for a current pixel (i) in said component of the picture: - for at least one current neighboring pixel (j) of the current pixel (i), computing a distance (D1), relative to the current neighboring pixel (j), between the value (Cf(i)) of the current pixel in the low-pass filtered component and the value (Cf(j)) of the current neighboring pixel (j) in the low-pass filtered component; - when the distances relative to said at least one neighboring pixels of the current pixel are lower than a first threshold (TH1) , modifying the value (C(i)) of the current pixel in said component of the picture according to a linear combination of the value (C(i)) of the current pixel in said component of the picture and the value (Cf(i)) of the current pixel in the low-pass filtered component, - otherwise the value of the current pixel in said at least one component of the picture remains unchanged. - obtaining a low-pass filtered component (Cf) by low-pass filtering said component (C) of the picture; - for a current pixel (i) in said component of the picture: - for at least one current neighboring pixel (j) of the current pixel (i), computing a distance (D1), relative to the current neighboring pixel (j), between the value (Cf(i)) of the current pixel in the low-pass filtered component and the value (Cf(j)) of the current neighboring pixel (j) in the low-pass filtered component; - when the distances relative to said at least one neighboring pixels of the current pixel are lower than a first threshold (TH1) , modifying the value (C(i)) of the current pixel in said component of the picture according to a linear combination of the value (C(i)) of the current pixel in said component of the picture and the value (Cf(i)) of the current pixel in the low-pass filtered component, - otherwise the value of the current pixel in said at least one component of the picture remains unchanged. - for at least one current neighboring pixel (j) of the current pixel (i), computing a distance (D1), relative to the current neighboring pixel (j), between the value (Cf(i)) of the current pixel in the low-pass filtered component and the value (Cf(j)) of the current neighboring pixel (j) in the low-pass filtered component; - when the distances relative to said at least one neighboring pixels of the current pixel are lower than a first threshold (TH1) , modifying the value (C(i)) of the current pixel in said component of the picture according to a linear combination of the value (C(i)) of the current pixel in said component of the picture and the value (Cf(i)) of the current pixel in the low-pass filtered component, - otherwise the value of the current pixel in said at least one component of the picture remains unchanged.
A transverse magnetic mode dielectric resonator, comprising a housing with a top opening, wherein a cover is disposed on the opening side of the housing , a cavity body is enclosed by the cover and the housing , an inner wall of the cavity body is electrically conductive, a resonant dielectric rod is disposed in the cavity body , a cavity is disposed inside the resonant dielectric rod , a tuning part (5; 51, 52) is disposed on the cover , one end of the tuning part (5; 51, 52) stretches into the cavity and can move up and down relative to the cavity , two ends of the resonant dielectric rod are respectively soldered with the cover and a baseplate of the housing , a part that is of the cover and that is soldered with the resonant dielectric rod is made of elastic material, and a part that is of the baseplate and that is soldered with the resonant dielectric rod is made of elastic material; wherein the cover is made of insulating elastic material, a surface that is of the cover and that faces the inside of the cavity body is covered with a conductive layer , a conductive hole is opened on the cover , and the tuning part (5; 51, 52) passes through the conductive hole and stretches into the cavity of the resonant dielectric rod ; wherein the cover is a printed circuit board, the conductive layer covering the cover is a metal layer , and the conductive hole is a plated through hole opened on the printed circuit board; and wherein a pad is disposed on an upper surface of the printed circuit board and encloses the plated through hole , a nut is soldered on the pad , the tuning part (5; 51, 52) is a screw rod , the screw rod is in threaded fitting with the nut , one end of the plated through hole is connected to the conductive layer , and the other end is connected to the pad . wherein the cover is made of insulating elastic material, a surface that is of the cover and that faces the inside of the cavity body is covered with a conductive layer , a conductive hole is opened on the cover , and the tuning part (5; 51, 52) passes through the conductive hole and stretches into the cavity of the resonant dielectric rod ; wherein the cover is a printed circuit board, the conductive layer covering the cover is a metal layer , and the conductive hole is a plated through hole opened on the printed circuit board; and wherein a pad is disposed on an upper surface of the printed circuit board and encloses the plated through hole , a nut is soldered on the pad , the tuning part (5; 51, 52) is a screw rod , the screw rod is in threaded fitting with the nut , one end of the plated through hole is connected to the conductive layer , and the other end is connected to the pad .
A tank for use in winemaking, which comprises a supporting frame for a tank body made of metallic material and comprising a bottom wall , a top wall and a side wall which extends in a vertical direction about a vertical axis , wherein said tank defines at least one passage portion which extends in a vertical direction about said vertical axis , said at least one passage portion being configured for accommodating, at least partially, a respective structural element of a building, said side wall comprising an adjacent arrangement region which comprises a closed surface defining said passage portion and arranged so as to be facing toward said structural element , and an outer surface facing away from said adjacent arrangement region , at said outer surface there being at least one access hatch , at said top wall there being at least one upper closure hatch and at least one evacuation stack .
A computer-implemented method comprising: inputting a silhouette image to a convolutional neural network to produce a content feature layer ; inputting a style image to the convolutional neural network to produce pattern feature layers ; inputting a reference image into the convolutional neural network to determine reference feature layers, and for each of a plurality of iterations, minimizing a combination loss of the convolutional neural network to obtain an output image comprising an abstraction of the style image within confines of the silhouette image, the combination loss comprising: a content loss between the content feature layer and corresponding one of the reference feature layers; and a style loss between the pattern feature layers and a corresponding set of the reference feature layers; and utilizing the output image in a graphic design product; characterized in that the content feature layer is taken from the highest-level layer of the convolutional neural network; and the pattern feature layers are taken only from lower layers that are below the highest-level layer of the convolutional neural network. inputting a silhouette image to a convolutional neural network to produce a content feature layer ; inputting a style image to the convolutional neural network to produce pattern feature layers ; inputting a reference image into the convolutional neural network to determine reference feature layers, and for each of a plurality of iterations, minimizing a combination loss of the convolutional neural network to obtain an output image comprising an abstraction of the style image within confines of the silhouette image, the combination loss comprising: a content loss between the content feature layer and corresponding one of the reference feature layers; and a style loss between the pattern feature layers and a corresponding set of the reference feature layers; and a content loss between the content feature layer and corresponding one of the reference feature layers; and a style loss between the pattern feature layers and a corresponding set of the reference feature layers; and utilizing the output image in a graphic design product; characterized in that the content feature layer is taken from the highest-level layer of the convolutional neural network; and the pattern feature layers are taken only from lower layers that are below the highest-level layer of the convolutional neural network.
Concentrate, characterized in that it comprises the components A) one or more polysiloxanes, B) one or more ester oils or mineral oils, C) one or more nonionic surfactants D) one or more nonaqueous solvents, E) optionally water F) optionally one or more acids and in that the content of components E) and F) in total based on the overall weight of the concentrates is between 0 and 5% by weight. characterized in that it comprises the components A) one or more polysiloxanes, B) one or more ester oils or mineral oils, C) one or more nonionic surfactants D) one or more nonaqueous solvents, E) optionally water F) optionally one or more acids A) one or more polysiloxanes, B) one or more ester oils or mineral oils, C) one or more nonionic surfactants D) one or more nonaqueous solvents, E) optionally water F) optionally one or more acids and in that the content of components E) and F) in total based on the overall weight of the concentrates is between 0 and 5% by weight.
An audio control system configured for a show attended by an audience, the control system comprising: a controller configured to produce an audio signal that, when received by a speaker , causes the speaker to produce sound and direct the produced sound to an audience seating area ; and a processor coupled to the controller , the processor configured to execute computing instructions to perform data processing activities, the data processing activities comprising, over a duration of a performance of the show: automatically determining an occupancy of the audience seating area by: with the processor , accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area ; and based on the determined occupancy, automatically adjusting a spectral content of the audio signal to at least partially compensate for spectral effects caused by the occupancy in the audience seating area . a controller configured to produce an audio signal that, when received by a speaker , causes the speaker to produce sound and direct the produced sound to an audience seating area ; and a processor coupled to the controller , the processor configured to execute computing instructions to perform data processing activities, the data processing activities comprising, over a duration of a performance of the show: automatically determining an occupancy of the audience seating area by: with the processor , accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area ; and based on the determined occupancy, automatically adjusting a spectral content of the audio signal to at least partially compensate for spectral effects caused by the occupancy in the audience seating area . automatically determining an occupancy of the audience seating area by: with the processor , accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area ; and with the processor , accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area ; and based on the determined occupancy, automatically adjusting a spectral content of the audio signal to at least partially compensate for spectral effects caused by the occupancy in the audience seating area .
Method for monitoring a sensor clock signal (STS) in a sensor unit , which is generated and output with a predetermined period duration (T_STS) for data transfer between the sensor unit and a control unit , wherein a reference clock signal (RTS) with a predetermined reference period duration (T_ref) is received, wherein the sensor clock signal (STS) is compared with the reference clock signal (RTS), wherein a deviation (Delta _t) of the current period duration (T_STS) of the sensor clock signal (STS) from a target period duration (T_STS_soll) is determined based on the comparison, and wherein a counting pulse (ZI) or a reset pulse (RI) is output based on the determined deviation (Delta_t), characterized in that the counting pulse (ZI) increments an error counter and the reset pulse (RI) decrements or resets the error counter , wherein the error counter is incremented if the deviation (Delta_t) is within an acceptance window (AF) and outside a predetermined optimal value window (WOpt), wherein the error counter is decremented or reset if the deviation (Delta _t) is within the acceptance window (AF) and within the predetermined optimal value window (WOpt), and wherein an error signal (FS) is output when an error counter value (FZS) reaches or exceeds a predetermined limit value (GW).
A method of operating a distributed unit, DU, node of a radio access network, wherein the DU node is coupled to a central unit, CU, node over an F1 interface, and wherein the DU node performs a setup procedure with the CU node over the F1 interface for an RRC connection with respect to a wireless device, UE, the method comprising: transmitting a setup request message to the CU node, wherein the setup request message includes an indication of a latest Radio Resource Control, RRC, version supported by the DU node; and receiving a setup response message from the CU node, characterised in that this message includes an indication of an RRC version supported by the CU node and by the UE, and establishing an RRC connection with the UE using the RRC version indicated in the setup response message. transmitting a setup request message to the CU node, wherein the setup request message includes an indication of a latest Radio Resource Control, RRC, version supported by the DU node; and receiving a setup response message from the CU node, characterised in that this message includes an indication of an RRC version supported by the CU node and by the UE, and establishing an RRC connection with the UE using the RRC version indicated in the setup response message.