mhurhangee/ep-ind-claims huggingface dataset:
Method of operating a cooking zone of a cooking appliance, comprising - determining an actual temperature value representative of an actual temperature of an item to be heated; - determining a power level set on a user control device; - calculating a rectified power level based on the actual temperature value, the power level and a preset setpoint temperature, wherein the rectified power level is configured to remove differences between the actual temperature value and setpoint temperature; and - indicating the rectified power level on a user interface, wherein - the rectified power level is automatically set by a controller of the cooking appliance, and wherein - the controller is configured to issue a user validation request, and to set the rectified power level only upon receiving a positive user validation signal. - determining an actual temperature value representative of an actual temperature of an item to be heated; - determining a power level set on a user control device; - calculating a rectified power level based on the actual temperature value, the power level and a preset setpoint temperature, wherein the rectified power level is configured to remove differences between the actual temperature value and setpoint temperature; and - indicating the rectified power level on a user interface, wherein - the rectified power level is automatically set by a controller of the cooking appliance, and wherein - the controller is configured to issue a user validation request, and to set the rectified power level only upon receiving a positive user validation signal.
A multilayered layered body comprising an evacuated thermal insulation body having a core material, which is enclosed by a gas-tight film, wherein the thermal insulation body has a first flat side and a second flat side, which is arranged opposite of the first side, wherein a lamination layer is laminated onto at least one flat side (14, 15), wherein a primer layer applied to the thermal insulation body is arranged between thermal insulation body and lamination layer, wherein the primer layer is based on a dispersion of acrylic copolymers with ground limestone, wherein the laminated-on lamination layer is an external component of a jacketed plasterboard, so that a jacketed plasterboard is laminated onto the thermal insulation body and a layered body comprising the evacuated thermal insulation body and the jacketed plasterboard is provided, wherein the lamination layer is permanently attached to the thermal insulation body by means of an adhesive layer. a lamination layer is laminated onto at least one flat side (14, 15), wherein a primer layer applied to the thermal insulation body is arranged between thermal insulation body and lamination layer, wherein the primer layer is based on a dispersion of acrylic copolymers with ground limestone, wherein the laminated-on lamination layer is an external component of a jacketed plasterboard, so that a jacketed plasterboard is laminated onto the thermal insulation body and a layered body comprising the evacuated thermal insulation body and the jacketed plasterboard is provided, wherein the lamination layer is permanently attached to the thermal insulation body by means of an adhesive layer.
A computer implemented method of guiding a user of an ultrasound imaging system during an ultrasound imaging process of a volume, wherein the ultrasound imaging system comprises a hand-held ultrasound probe and an ultrasound probe tracker adapted to obtain a location of the ultrasound probe, the method comprising: obtaining a user-defined start location for the ultrasound probe using the ultrasound probe tracker, by determining a location at which the user has positioned the ultrasound probe, to mark the start location, as the start location; obtaining a user-defined end location for the ultrasound probe using the ultrasound probe tracker, by determining a location at which the user has positioned the ultrasound probe, to mark the end location, as the end location, a volume between the start location and the end location thereby defining the volume to be imaged; determining guidance instructions for specifying a movement of the ultrasound probe from the user-defined start location to the user-defined end location, with respect to the volume to be imaged; and during a subsequent ultrasound imaging process of the volume, monitoring, using the ultrasound probe tracker, a movement of the ultrasound probe with respect to the volume to determine whether the user is adhering to the guidance instructions. obtaining a user-defined start location for the ultrasound probe using the ultrasound probe tracker, by determining a location at which the user has positioned the ultrasound probe, to mark the start location, as the start location; obtaining a user-defined end location for the ultrasound probe using the ultrasound probe tracker, by determining a location at which the user has positioned the ultrasound probe, to mark the end location, as the end location, a volume between the start location and the end location thereby defining the volume to be imaged; determining guidance instructions for specifying a movement of the ultrasound probe from the user-defined start location to the user-defined end location, with respect to the volume to be imaged; and during a subsequent ultrasound imaging process of the volume, monitoring, using the ultrasound probe tracker, a movement of the ultrasound probe with respect to the volume to determine whether the user is adhering to the guidance instructions.
A method of producing a refractory metal powder comprising: providing a metal powder containing magnesium tantalate or magnesium niobate; and heating the powder in an inert atmosphere in the presence of a reducing agent to a temperature sufficient to remove magnesium tantalate or magnesium niobate from the powder (reducing step) and heating the powder under vacuum to a temperature sufficient to remove magnesium tantalate or magnesium niobate from the powder (heating under vacuum step), the reduction step and heating under vacuum step can be performed in any order. providing a metal powder containing magnesium tantalate or magnesium niobate; and heating the powder in an inert atmosphere in the presence of a reducing agent to a temperature sufficient to remove magnesium tantalate or magnesium niobate from the powder (reducing step) and heating the powder under vacuum to a temperature sufficient to remove magnesium tantalate or magnesium niobate from the powder (heating under vacuum step), the reduction step and heating under vacuum step can be performed in any order.
Device for determining the concentration of at least one analyte present in a sample by means of infrared absorption and/or transmission measurement, comprising a measurement chamber having an inner cavity for accommodating the sample, the inner cavity being delimited by at least one chamber wall (2, 3) which is penetrable for infrared radiation, the at least one chamber wall (2, 3) having on its surface adjoining the inner cavity a homogeneous coating (11, 12) penetrable for infrared radiation, characterized in that the coating (11, 12) comprises a copolymer containing functional groups and groups having an inert effect, specifically fluorinated hydrocarbon groups or polyether groups.
A method of starting a burner device, wherein a mixture of combustion air and a fuel is burnt in the burner device, wherein a burning process of the burner device is started by a glow element, and wherein the method comprises at least the following steps: a temperature of the combustion air is measured, and a set value of the heating energy of the glow element is specified as a function of the measured temperature. wherein a mixture of combustion air and a fuel is burnt in the burner device, wherein a burning process of the burner device is started by a glow element, and wherein the method comprises at least the following steps: a temperature of the combustion air is measured, and a set value of the heating energy of the glow element is specified as a function of the measured temperature. a temperature of the combustion air is measured, and a set value of the heating energy of the glow element is specified as a function of the measured temperature.
A switch assembly comprising a switch and a drive system for the switch, the drive system including - a motor for driving the switch; - a control device with a power section for supplying power to the motor and a control unit for initiating a switching operation of the switch by control of the power section; and - a protection circuit, configured - in the event of a malfunction of the control unit to detect a first error signal via a state contact of the control unit; and - in the event of a malfunction of the power section to detect a second error signal via a state contact of the power section; - to initiate a safety measure depending on the first and the second error signal; - wherein the control device is configured to activate the protection circuit prior to the switching operation being initiated and to deactivate it following successful execution of the switching operation. - a motor for driving the switch; - a control device with a power section for supplying power to the motor and a control unit for initiating a switching operation of the switch by control of the power section; and - a protection circuit, configured - in the event of a malfunction of the control unit to detect a first error signal via a state contact of the control unit; and - in the event of a malfunction of the power section to detect a second error signal via a state contact of the power section; - to initiate a safety measure depending on the first and the second error signal; - in the event of a malfunction of the control unit to detect a first error signal via a state contact of the control unit; and - in the event of a malfunction of the power section to detect a second error signal via a state contact of the power section; - to initiate a safety measure depending on the first and the second error signal; - wherein the control device is configured to activate the protection circuit prior to the switching operation being initiated and to deactivate it following successful execution of the switching operation.
A cell tissue gel, comprising collagen and hyaluronan at a weight ratio of 1:1-50:1 and a pharmaceutically acceptable excipient, wherein the pharmaceutically acceptable excipient is lecithin and glycerol.
Weighted insert in the form of a flat board for a trolley for use in an aircraft, comprising a groove (2a, 2b) on each longitudinal side that is suitable for being received in the transport space in the trolley via the rails of the lateral wall elements.
System having a dispenser with a cartridge holder and a cartridge, wherein the cartridge holder has at least one guide and/or rotation-prevention means (25, 27) for a cartridge receptacle, wherein the cartridge and the cartridge receptacle, which is connected to the cartridge, together form a cartridge system which is insertable into the cartridge holder of the dispenser, wherein the cartridge is provided on or in the cartridge receptacle and has a wall region, one end of which is adjoined by a connecting region closed off by a membrane and at the opposite end of which a bottom region is provided, wherein the wall region and the bottom region define a cavity which accommodates a beverage substrate and/or foodstuff substrate, wherein the cartridge receptacle has a piercing means for perforating the membrane, characterized in that the cartridge and the cartridge receptacle are provided so as to be, before the membrane is pierced, longitudinally displaceable with respect to one another, wherein, as a result of this longitudinal displacement, the piercing means can then be brought into engagement with the membrane and pierce the latter.
A method for producing a polymeric layer assembly, the polymeric layer assembly comprising a plurality of polymeric layers, and at least one polymeric layer including a laser-sensitive component, comprising the following steps: A) on at least one of the polymeric layers is applied, by means of ink jet printing, first personalized information as a colored ink jet printing layer, B) the polymeric layer with the colored ink jet printing layer, the polymeric layer being a polycarbonate layer, is then joined together with the further polymeric layers, the polymeric layer with the colored ink jet printing layer being arranged between two further polymeric layers, C) by means of laser engraving, second personalized information is introduced into the polymeric layer assembly obtained in step B), wherein the ink of the colored ink jet printing layer is a preparation containing: A) 0.1 to 20 wt.% of a binding agent with a polycarbonate derivative, B) 30 to 99.9 wt.% of a solvent or mixture of solvents, C) 0 to 10 wt.%, referred to dry mass, of a coloring agent or a mixture of coloring agents, D) 0 to 10 wt.% of a functional material or a mixture of functional materials, E) 0 to 30 wt.% of additives and/or auxiliary substances, or a mixture of such substances, the sum of the components A) to E) always being 100 %, wherein the polycarbonate derivative contains functional carbonate structure units of Formula, wherein R 1 and R 2 are independently hydrogen, halogen, C 1 -C 8 alkyl, C 5 -C 6 cycloalkyl, C 6 -C 10 aryl, and C 7 -C 12 aralkyl; m is an integer from 4 to 7; R 3 and R 4 are individually selectable for every X, independently hydrogen or C 1 -C 6 alkyl; X is carbon, and n an integer greater than 20, with the proviso that at least at one X atom R 3 and R 4 are simultaneously alkyl. A) on at least one of the polymeric layers is applied, by means of ink jet printing, first personalized information as a colored ink jet printing layer, B) the polymeric layer with the colored ink jet printing layer, the polymeric layer being a polycarbonate layer, is then joined together with the further polymeric layers, the polymeric layer with the colored ink jet printing layer being arranged between two further polymeric layers, C) by means of laser engraving, second personalized information is introduced into the polymeric layer assembly obtained in step B), wherein the ink of the colored ink jet printing layer is a preparation containing: A) 0.1 to 20 wt.% of a binding agent with a polycarbonate derivative, B) 30 to 99.9 wt.% of a solvent or mixture of solvents, C) 0 to 10 wt.%, referred to dry mass, of a coloring agent or a mixture of coloring agents, D) 0 to 10 wt.% of a functional material or a mixture of functional materials, E) 0 to 30 wt.% of additives and/or auxiliary substances, or a mixture of such substances, the sum of the components A) to E) always being 100 %, wherein the polycarbonate derivative contains functional carbonate structure units of Formula,
A method to control an ultrasonic flowmeter, wherein the ultrasonic flowmeter comprises: - a pipe segment to receive a flow therethrough; - a first pair of transducers (T1u, T1d) defining a first ultrasonic path in the pipe segment to be subjected to the flow; - a second pair of transducers (T2u, T2d) defining a second ultrasonic path in the pipe segment to be subjected to the flow, wherein the second ultrasonic path is different from the first ultrasonic path, and wherein the method comprises the following steps: a) driving a transducer of the first pair of transducers to transmit a first code; b) receiving a first ultrasonic signal at the other transducer of the first pair of transducers, c) simultaneously driving a transducer of the second pair of transducers to transmit a second code, wherein the first code and the second code are non-correlated to each other, d) receiving a second ultrasonic signal at the other transducer of the second pair of transducers; e) correlating the transmitted first code with the first ultrasonic signal; and f) correlating the transmitted second code with the second ultrasonic signal. - a pipe segment to receive a flow therethrough; - a first pair of transducers (T1u, T1d) defining a first ultrasonic path in the pipe segment to be subjected to the flow; - a second pair of transducers (T2u, T2d) defining a second ultrasonic path in the pipe segment to be subjected to the flow, wherein the second ultrasonic path is different from the first ultrasonic path, a) driving a transducer of the first pair of transducers to transmit a first code; b) receiving a first ultrasonic signal at the other transducer of the first pair of transducers, c) simultaneously driving a transducer of the second pair of transducers to transmit a second code, wherein the first code and the second code are non-correlated to each other, d) receiving a second ultrasonic signal at the other transducer of the second pair of transducers; e) correlating the transmitted first code with the first ultrasonic signal; and f) correlating the transmitted second code with the second ultrasonic signal.
A shift register unit, comprising: an input module adapted to provide an input signal to a first node in response to a first clock signal inputted at a first clock signal input terminal; a pull-up module adapted to provide a positive voltage of a power supply to a second node in response to the input signal; a pull-down module adapted to provide a negative voltage of the power supply to the second node in response to a third clock signal inputted at a third clock signal input terminal; a reset module adapted to provide the positive voltage of the power supply to the first node in response to a signal at the second node; a first output module connected between the positive voltage of the power supply and the output node (Output) of the shift register unit, adapted to provide the positive voltage of the power supply to an output node (Output) of the shift register unit in response to the signal at the second node, a second capacitor being provided between the positive voltage of the power supply and the second node; a second output module adapted to provide a second clock signal inputted at a second clock signal terminal to a third node in response to a signal at the first node, a first capacitor being provided between the third node and the first node; characterised by a signal amplification module connected between the third node and the output node (Output) of the shift register unit and adapted to amplify signal at the third node for outputting to the output node (Output) of the shift register unit. an input module adapted to provide an input signal to a first node in response to a first clock signal inputted at a first clock signal input terminal; a pull-up module adapted to provide a positive voltage of a power supply to a second node in response to the input signal; a pull-down module adapted to provide a negative voltage of the power supply to the second node in response to a third clock signal inputted at a third clock signal input terminal; a reset module adapted to provide the positive voltage of the power supply to the first node in response to a signal at the second node; a first output module connected between the positive voltage of the power supply and the output node (Output) of the shift register unit, adapted to provide the positive voltage of the power supply to an output node (Output) of the shift register unit in response to the signal at the second node, a second capacitor being provided between the positive voltage of the power supply and the second node; a second output module adapted to provide a second clock signal inputted at a second clock signal terminal to a third node in response to a signal at the first node, a first capacitor being provided between the third node and the first node; characterised by a signal amplification module connected between the third node and the output node (Output) of the shift register unit and adapted to amplify signal at the third node for outputting to the output node (Output) of the shift register unit.
A method for aggregating data, comprising: operating a low-power alert sensor in an awake state in an environment to detect changes in the environment while keeping sensors in a sensor array in the environment in a power-conservation state; sending an alert from the low-power alert sensor to awaken a data aggregator module in response to the low-power alert sensor detecting a change in the environment; the data aggregator module or the low-power alert sensor awakening at least some of the sensors in the sensor array from the power-conservation state; obtaining sensor data about the environment from the powered-up sensors in the sensor array; aggregating the sensor data into aggregated data; the method further comprising: the low-power alert sensor alerting the data aggregator module that a new sensor is joining the sensor array; the data aggregator module querying the new sensor for registration information about the new sensor; responsive to querying the new sensor, receiving the registration information from the new sensor at the data aggregator module, the registration information including inherent capabilities of the new sensor; and updating the data aggregator module to reflect an addition of the inherent capabilities of the new sensor. operating a low-power alert sensor in an awake state in an environment to detect changes in the environment while keeping sensors in a sensor array in the environment in a power-conservation state; sending an alert from the low-power alert sensor to awaken a data aggregator module in response to the low-power alert sensor detecting a change in the environment; the data aggregator module or the low-power alert sensor awakening at least some of the sensors in the sensor array from the power-conservation state; obtaining sensor data about the environment from the powered-up sensors in the sensor array; aggregating the sensor data into aggregated data; the method further comprising: the low-power alert sensor alerting the data aggregator module that a new sensor is joining the sensor array; the data aggregator module querying the new sensor for registration information about the new sensor; responsive to querying the new sensor, receiving the registration information from the new sensor at the data aggregator module, the registration information including inherent capabilities of the new sensor; and updating the data aggregator module to reflect an addition of the inherent capabilities of the new sensor. the low-power alert sensor alerting the data aggregator module that a new sensor is joining the sensor array; the data aggregator module querying the new sensor for registration information about the new sensor; responsive to querying the new sensor, receiving the registration information from the new sensor at the data aggregator module, the registration information including inherent capabilities of the new sensor; and updating the data aggregator module to reflect an addition of the inherent capabilities of the new sensor.
Method for preheating annealing material in a hood-type annealing installation, comprising two annealing bases (1, 2) which accommodate the annealing material (3, 4) under a protective hood (7, 8) in a protective gas atmosphere, wherein the annealing material to be subjected to a heat treatment in a protective hood is preheated with the aid of a gaseous heat carrier which flows around the two protective hoods (7, 8) from the outside and is guided in the cycle between the two protective hoods (7, 8) and absorbs heat from an annealing material which is heat-treated in a protective hood and emits the heat to the annealing material, which is to be preheated, in the other protective hood, characterised in that the protective gas is circulated within the protective hoods (7, 8), while the heat carrier flow guided in the cycle flows around the two protective hoods (7, 8) from the outside.