mhurhangee/patent-ind-claim-en huggingface dataset:
Induction cooktop , comprising - a plurality of induction coils (13a-d), - a cooktop surface above the induction coils, - a planar support for the induction coils under the induction coils, wherein further functional units like power electronics , control or ventilation means for the induction cooktop and the induction coils are provided under the support, - an electrical connection with connection means (31a-d) for the induction coils to power electronics and/or control, wherein the electrical connection is designed for disconnection in a nondestructive manner, wherein the electrical connection and the connection means (31a-d), respectively, are disposed on the level of the induction coils (13a-d), and are disposed above the support , respectively, wherein both the power connection means (39-44) as power connection for power electronics for the induction coils (13a-d) and signal connection means (48-51) as signal connection to a control as electrical connection are provided respectively on the level of the induction coils (13a-d), characterized in that - a component carrier is provided underneath the support and in parallel to the latter, - a holder for the power connection means (39-44) and/or the signal connection means (48-51) is fastened on the component carrier , - the holder for the power connection means (39-44) and/or the signal connection means (48-51) has two lateral holder feet and a cross member extending between said feet, wherein the connection means (31a-d) are fastened to the cross member . - a plurality of induction coils (13a-d), - a cooktop surface above the induction coils, - a planar support for the induction coils under the induction coils, wherein further functional units like power electronics , control or ventilation means for the induction cooktop and the induction coils are provided under the support, - an electrical connection with connection means (31a-d) for the induction coils to power electronics and/or control, wherein the electrical connection is designed for disconnection in a nondestructive manner, wherein the electrical connection and the connection means (31a-d), respectively, are disposed on the level of the induction coils (13a-d), and are disposed above the support , respectively, wherein both the power connection means (39-44) as power connection for power electronics for the induction coils (13a-d) and signal connection means (48-51) as signal connection to a control as electrical connection are provided respectively on the level of the induction coils (13a-d), characterized in that - a component carrier is provided underneath the support and in parallel to the latter, - a holder for the power connection means (39-44) and/or the signal connection means (48-51) is fastened on the component carrier , - the holder for the power connection means (39-44) and/or the signal connection means (48-51) has two lateral holder feet and a cross member extending between said feet, wherein the connection means (31a-d) are fastened to the cross member .
A circulating fluidized bed boiler , comprising - a furnace , - a cyclone for separating bed material from gases, - a loopseal , and - a loopseal heat exchanger arranged in the loopseal , the loopseal heat exchanger comprising - walls limiting an interior of the loopseal heat exchanger , - a first particle outlet for letting out particulate material from the loopseal heat exchanger , - an inlet for receiving bed material from the furnace via the cyclone , - heat exchanger tubes arranged in the interior of the loopseal heat exchanger , and - a first ash removal channel configured to let out ash from the loopseal heat exchanger , wherein - the first ash removal channel is arranged at a lower level than the first particle outlet and the walls limit - a first compartment comprising the inlet for receiving bed material and - a second compartment comprising the heat exchanger tubes , wherein - a first wall of the walls separates the first compartment from the second compartment and limits a first channel for conveying bed material from the first compartment to the second compartment , - the first ash removal channel is configured to let out ash from the first compartment or the second compartment , and the circulating fluidized bed boiler comprises - an ash cooler configured to receive ash from the first ash removal channel such that the ash is not conveyed via the furnace from the loopseal heat exchanger to the ash cooler . - a furnace , - a cyclone for separating bed material from gases, - a loopseal , and - a loopseal heat exchanger arranged in the loopseal , the loopseal heat exchanger comprising - walls limiting an interior of the loopseal heat exchanger , - a first particle outlet for letting out particulate material from the loopseal heat exchanger , - an inlet for receiving bed material from the furnace via the cyclone , - heat exchanger tubes arranged in the interior of the loopseal heat exchanger , and - a first ash removal channel configured to let out ash from the loopseal heat exchanger , wherein - the first ash removal channel is arranged at a lower level than the first particle outlet and the walls limit - a first compartment comprising the inlet for receiving bed material and - a second compartment comprising the heat exchanger tubes , wherein - a first wall of the walls separates the first compartment from the second compartment and limits a first channel for conveying bed material from the first compartment to the second compartment , - the first ash removal channel is configured to let out ash from the first compartment or the second compartment , and the circulating fluidized bed boiler comprises - an ash cooler configured to receive ash from the first ash removal channel such that the ash is not conveyed via the furnace from the loopseal heat exchanger to the ash cooler .
A method of wireless communication using whitespace channels, comprising: exchanging, at a base station , data communications with a user equipment on a first whitespace channel; determining, at the base station, whether the first whitespace channel will be lost; and switching, at the base station, the data communications to a second whitespace channel if the determining step indicates that the first whitespace channel will be lost, the first and second whitespace channels being channels that are licensed to a primary user and utilized by a wireless communication service provider operating the base station as a secondary user; wherein the switching to a second whitespace channel includes, determining if a new whitespace channel is available, if a new whitespace channel is available, assigning the new whitespace channel to be the second whitespace channel, if a new whitespace channel is not available, switching to a non-whitespace channel and searching for an available new whitespace channel, the non-whitespace channel being a channel that is one of exclusively licensed to the wireless communication service provider and unlicensed to all users. exchanging, at a base station , data communications with a user equipment on a first whitespace channel; determining, at the base station, whether the first whitespace channel will be lost; and switching, at the base station, the data communications to a second whitespace channel if the determining step indicates that the first whitespace channel will be lost, the first and second whitespace channels being channels that are licensed to a primary user and utilized by a wireless communication service provider operating the base station as a secondary user; wherein the switching to a second whitespace channel includes, determining if a new whitespace channel is available, if a new whitespace channel is available, assigning the new whitespace channel to be the second whitespace channel, if a new whitespace channel is not available, switching to a non-whitespace channel and searching for an available new whitespace channel, the non-whitespace channel being a channel that is one of exclusively licensed to the wireless communication service provider and unlicensed to all users.
A method for operating a vehicle washing system , in which a vehicle is scanned in the longitudinal direction by means of a sensor device , wherein measurement data are captured, based on an analysis of the measurement data, position data for the positions (B, C) of wheels of the vehicle are determined, characterized in that the determined position data of the positions (B, C) of the wheels of the vehicle are subjected to a confidence check, and a confidence measure is determined, if the determined confidence measure is greater than or equal to a confidence threshold value, a treatment of the wheels of the vehicle is carried out in a first mode at the positions (B, C) allocated to the position data, and if the determined confidence measure is smaller than the confidence threshold value, a treatment of the wheels of the vehicle is not carried out or is carried out in a second mode at the positions (B, C) allocated to the position data.
Detection circuit comprising: - a photodiode having a first terminal receiving a photodetector potential (SubPV) and a second terminal, - a readout module configured to apply a reference voltage (VREF) on its input terminal and to convert an observed scene into an analysable representative signal, detection circuit characterized in that it comprises : - a transistor arranged to connect the second terminal of the photodiode to the input terminal of the readout module , the photodiode being reverse biased in a predefined range between its first terminal and its second terminal by means of the photodetector potential (SubPV) and the reference voltage (V REF ) when the transistor is passing, the photodiode delivering a current representative of an observed scene, - a voltage source applying an operating potential (V POL ) to a control electrode of the transistor , the operating potential (V POL ) being defined with respect to the reference voltage (V REF ) in such a way that when the readout module applies a threshold voltage to its input terminal deviating from the reference voltage (V REF ) and no longer ensuring the reverse biasing of the photodiode in the predefined range and tending towards forward biasing of the photodiode , the transistor is turned off, the transistor being turned on in the other cases. - a photodiode having a first terminal receiving a photodetector potential (SubPV) and a second terminal, - a readout module configured to apply a reference voltage (VREF) on its input terminal and to convert an observed scene into an analysable representative signal, - a transistor arranged to connect the second terminal of the photodiode to the input terminal of the readout module , the photodiode being reverse biased in a predefined range between its first terminal and its second terminal by means of the photodetector potential (SubPV) and the reference voltage (V REF ) when the transistor is passing, the photodiode delivering a current representative of an observed scene, - a voltage source applying an operating potential (V POL ) to a control electrode of the transistor , the operating potential (V POL ) being defined with respect to the reference voltage (V REF ) in such a way that when the readout module applies a threshold voltage to its input terminal deviating from the reference voltage (V REF ) and no longer ensuring the reverse biasing of the photodiode in the predefined range and tending towards forward biasing of the photodiode , the transistor is turned off, the transistor being turned on in the other cases.
A control system for controlling operation of an infusion pump system , the infusion pump system comprising a first reservoir configured to hold a first fluid , a second reservoir configured to hold a second fluid , a junction in fluid communication with the first reservoir and the second reservoir, a common line in fluid communication with the junction and having a terminal fluid delivery end , and an infusion pump operable to drive fluid through the common line toward the terminal fluid delivery end, the control system comprising one or more hardware processors configured to: control a valve configured to switch infusion of the first fluid along a first flow path to infusion of the second fluid along a second flow path , receive instructions for delivery of the first fluid at a first rate followed by the second fluid at a second rate; infuse the first fluid at the first rate along the first flow path; determine a common line flush volume value for the common line from a drug library, whereby the common line flush volume value is associated with a therapeutic agent; infuse the second fluid at the first rate along the second flow path; monitor a volume of the second fluid infused at the first rate; determine when the monitored volume of the second fluid meets or exceeds the common line flush volume value; and change infusion of the second fluid to the second rate along the second flow path when the monitored volume of the second fluid meets or exceeds the common line flush volume value. control a valve configured to switch infusion of the first fluid along a first flow path to infusion of the second fluid along a second flow path , receive instructions for delivery of the first fluid at a first rate followed by the second fluid at a second rate; infuse the first fluid at the first rate along the first flow path; determine a common line flush volume value for the common line from a drug library, whereby the common line flush volume value is associated with a therapeutic agent; infuse the second fluid at the first rate along the second flow path; monitor a volume of the second fluid infused at the first rate; determine when the monitored volume of the second fluid meets or exceeds the common line flush volume value; and change infusion of the second fluid to the second rate along the second flow path when the monitored volume of the second fluid meets or exceeds the common line flush volume value.
A communication node apparatus associated with a light fixture , the communication node apparatus being a component of mesh network including a plurality of interconnected nodes, the communication node apparatus comprising: a sensor to detect an electronic device in proximity to the communication node apparatus; a processor to determine authorization of the electronic device to access a processing infrastructure based on at least one of a rental agreement, a subscription, or a metered charge; and a communication interface to facilitate access to the infrastructure when the processor determines the electronic device is authorized, wherein the processor is to monitor and limit access to the infrastructure by the electronic device if a rental period or subscription limit has been reached. a sensor to detect an electronic device in proximity to the communication node apparatus; a processor to determine authorization of the electronic device to access a processing infrastructure based on at least one of a rental agreement, a subscription, or a metered charge; and a communication interface to facilitate access to the infrastructure when the processor determines the electronic device is authorized, wherein the processor is to monitor and limit access to the infrastructure by the electronic device if a rental period or subscription limit has been reached.
A composition comprising an emulsion, a propellant and a purge gas, the emulsion comprising an oil phase, an aqueous phase, and an active agent in an amount from 0.002% to 0.25% by weight of the emulsion, wherein, the oil phase comprises: ceteth-20, from 1% to 5% by weight of the emulsion; cetostearyl alcohol, from 3% to 9% by weight of the emulsion; at least one member selected from the group consisting of mineral oil, petrolatum, dimethicone, safflower oil, oleic acid, stearic acid and oleyl alcohol, in an amount from 14% to 42% by weight of the emulsion; and a first antioxidant or first preservative, in an amount from 0.01% to 0.05% by weight of the emulsion; the aqueous phase comprises: water, in an amount from 35% to 75% by weight of the emulsion; at least one member selected from the group consisting of glycerol and urea, in an amount from 3% to 9% by weight of the emulsion; and at least one member selected from the group consisting of methyl paraben, propylparaben, citric acid and sodium citrate, in an amount from 0.5% to 1.5% by weight of the emulsion, and wherein the emulsion has a viscosity of 100 to 350 Pa.s (100,000 to 350,000 cp). the oil phase comprises: ceteth-20, from 1% to 5% by weight of the emulsion; cetostearyl alcohol, from 3% to 9% by weight of the emulsion; at least one member selected from the group consisting of mineral oil, petrolatum, dimethicone, safflower oil, oleic acid, stearic acid and oleyl alcohol, in an amount from 14% to 42% by weight of the emulsion; and a first antioxidant or first preservative, in an amount from 0.01% to 0.05% by weight of the emulsion; ceteth-20, from 1% to 5% by weight of the emulsion; cetostearyl alcohol, from 3% to 9% by weight of the emulsion; at least one member selected from the group consisting of mineral oil, petrolatum, dimethicone, safflower oil, oleic acid, stearic acid and oleyl alcohol, in an amount from 14% to 42% by weight of the emulsion; and a first antioxidant or first preservative, in an amount from 0.01% to 0.05% by weight of the emulsion; the aqueous phase comprises: water, in an amount from 35% to 75% by weight of the emulsion; at least one member selected from the group consisting of glycerol and urea, in an amount from 3% to 9% by weight of the emulsion; and at least one member selected from the group consisting of methyl paraben, propylparaben, citric acid and sodium citrate, in an amount from 0.5% to 1.5% by weight of the emulsion, and wherein the emulsion has a viscosity of 100 to 350 Pa.s (100,000 to 350,000 cp). water, in an amount from 35% to 75% by weight of the emulsion; at least one member selected from the group consisting of glycerol and urea, in an amount from 3% to 9% by weight of the emulsion; and at least one member selected from the group consisting of methyl paraben, propylparaben, citric acid and sodium citrate, in an amount from 0.5% to 1.5% by weight of the emulsion, and wherein the emulsion has a viscosity of 100 to 350 Pa.s (100,000 to 350,000 cp).
A motor module system comprising: a plurality of identical modules , a robot configured by connecting said plurality of motor modules directly or via connecting members , and a setting terminal , wherein each motor module includes a motor main body having a rotating output portion , a wireless communication function , a control unit , and a battery , in the same housing with the motor main body , the wireless communication function , and the control unit , wherein the setting terminal has a wireless communication function and a setting function for assigning functions to the control unit of each of the plurality of motor modules using the wireless communication function in order to operate said robot , and wherein the control unit controls the driving of the motor main body based on the function set by the setting function of the setting terminal , characterised in that the motor module includes a response function for providing notice that a function assigned by the setting terminal has been set, wherein the response function causes the motor body to rotate in accordance with the notification from the setting terminal . a plurality of identical modules , a robot configured by connecting said plurality of motor modules directly or via connecting members , and a setting terminal , wherein each motor module includes a motor main body having a rotating output portion , a wireless communication function , a control unit , and a battery , in the same housing with the motor main body , the wireless communication function , and the control unit , wherein the setting terminal has a wireless communication function and a setting function for assigning functions to the control unit of each of the plurality of motor modules using the wireless communication function in order to operate said robot , and wherein the control unit controls the driving of the motor main body based on the function set by the setting function of the setting terminal , characterised in that the motor module includes a response function for providing notice that a function assigned by the setting terminal has been set, wherein the response function causes the motor body to rotate in accordance with the notification from the setting terminal .
Wall intended to ensure a separation between two spaces of a building, the wall comprising at least one layer of a construction material against which is pressed at least one support sheet , the wall comprising at least one dynamic absorber which comprises at least one cavity , a mass and a bearing element for the mass , in which the at least one cavity is formed in the layer of construction material and in which the bearing element for the mass is at least partly formed by the support sheet , characterized in that a layer of air is formed between the mass and the bottom of the cavity .
A method of forming a resistive memory device , comprising: forming an alternating stack of insulating layers and electrically conductive layers that extend along a first horizontal direction over a substrate ; forming laterally recessed regions by laterally recessing sidewalls of the electrically conductive layers relative to sidewalls of the insulating layers ; forming a conformal barrier material layer in the lateral recessed regions and on the sidewalls of the insulating layers , wherein lateral cavities are present in unfilled volumes of the laterally recessed regions; depositing an amorphous precursor memory material layer in the lateral cavities and over the conformal barrier material layer ; selectively crystallizing portions of the amorphous precursor memory material layer in the lateral cavities into crystalline memory material portions while not crystallizing vertical portions of the amorphous precursor memory material layer on the sidewalls of the insulating layers employing an anneal process; removing remaining amorphous portions of the amorphous precursor memory material layer selective to the crystalline memory material portions ; and forming a vertical conductive line on the crystalline memory material portions . forming an alternating stack of insulating layers and electrically conductive layers that extend along a first horizontal direction over a substrate ; forming laterally recessed regions by laterally recessing sidewalls of the electrically conductive layers relative to sidewalls of the insulating layers ; forming a conformal barrier material layer in the lateral recessed regions and on the sidewalls of the insulating layers , wherein lateral cavities are present in unfilled volumes of the laterally recessed regions; depositing an amorphous precursor memory material layer in the lateral cavities and over the conformal barrier material layer ; selectively crystallizing portions of the amorphous precursor memory material layer in the lateral cavities into crystalline memory material portions while not crystallizing vertical portions of the amorphous precursor memory material layer on the sidewalls of the insulating layers employing an anneal process; removing remaining amorphous portions of the amorphous precursor memory material layer selective to the crystalline memory material portions ; and forming a vertical conductive line on the crystalline memory material portions .