mhurhangee/ep-ind-claims huggingface dataset:
A patch-like infusion device, comprising: a first reservoir having a rigid portion and a flexible film forming a first chamber, the first reservoir containing a first substance at a first pressure; at least one patient needle; a selective fluid conduit (330, 332, 220, 350) adapted to selectively establish fluid communication between said first reservoir and said at least on patient needle; a cartridge assembly housing a second chamber and having at least one movable stopper, said second chamber containing a second substance at a second pressure, wherein said first and second pressures form a differential pressure; a selective fluid path between said first reservoir and said second chamber, wherein when selective fluid communication conduit between said first reservoir and said second chamber is enabled said first substance and said second substance are intermingled to form a medicament and whereby said intermingling is caused by said differential pressure; said at least one movable stopper being adapted to move to inject the medicament into said first reservoir; characterized by the flexible film forming the first chamber being non-distensible a spring having a plurality of spring fingers and being adapted to apply pressure to said flexible, non-distensible film to cause fluid to flow from said first reservoir to said patient needle; and, a pin adapted to engage said spring fingers and selectively disengage therefrom to cause said spring to begin applying a third pressure to said medicament in said first reservoir. a first reservoir having a rigid portion and a flexible film forming a first chamber, the first reservoir containing a first substance at a first pressure; at least one patient needle; a selective fluid conduit (330, 332, 220, 350) adapted to selectively establish fluid communication between said first reservoir and said at least on patient needle; a cartridge assembly housing a second chamber and having at least one movable stopper, said second chamber containing a second substance at a second pressure, wherein said first and second pressures form a differential pressure; a selective fluid path between said first reservoir and said second chamber, wherein when selective fluid communication conduit between said first reservoir and said second chamber is enabled said first substance and said second substance are intermingled to form a medicament and whereby said intermingling is caused by said differential pressure; said at least one movable stopper being adapted to move to inject the medicament into said first reservoir; characterized by the flexible film forming the first chamber being non-distensible a spring having a plurality of spring fingers and being adapted to apply pressure to said flexible, non-distensible film to cause fluid to flow from said first reservoir to said patient needle; and, a pin adapted to engage said spring fingers and selectively disengage therefrom to cause said spring to begin applying a third pressure to said medicament in said first reservoir.
Method for controlling a rail vehicle, comprising the following steps: recording a voice message of a user of the rail vehicle, comprising a control parameter for controlling the rail vehicle, extracting the control parameter from the recorded voice message, displaying the extracted control parameter, controlling the rail vehicle on the basis of the extracted control parameter only upon detection of a release command from the user permitting the extracted control parameter to be used for controlling the rail vehicle, characterized in that a first memory area and a second memory area are provided, in that the first memory area and the second memory area are logically and/or physically separate from each other, in that the applicable control parameter is stored in the first memory area before the rail vehicle is controlled, in that the applicable control parameter stored in the first memory area is copied from the first memory area to the second memory area after the applicable release command has been detected, so that the rail vehicle is controlled on the basis of the applicable control parameter copied to the second memory area. recording a voice message of a user of the rail vehicle, comprising a control parameter for controlling the rail vehicle, extracting the control parameter from the recorded voice message, displaying the extracted control parameter, controlling the rail vehicle on the basis of the extracted control parameter only upon detection of a release command from the user permitting the extracted control parameter to be used for controlling the rail vehicle, characterized in that a first memory area and a second memory area are provided, in that the first memory area and the second memory area are logically and/or physically separate from each other, in that the applicable control parameter is stored in the first memory area before the rail vehicle is controlled, in that the applicable control parameter stored in the first memory area is copied from the first memory area to the second memory area after the applicable release command has been detected, so that the rail vehicle is controlled on the basis of the applicable control parameter copied to the second memory area.
Method for removing or stripping a ceramic coating from a substrate, especially from a metallic coating onto the substrate, using a waterjet without any additions which means pure, comprising the steps of: - providing a water source for supplying pure water to nozzle, the water source is able to supply water with a supply pressure in the range between 600 bar and 1500 bar, - providing a nozzle for ejecting a jet of pure water onto the surface of a coated substrate, the nozzle is connected to the water source, - providing a substrate coated at least with a ceramic coating, - positioning the nozzle and the substrate to one other such that a machining angle (α) can be determined between the waterjet and the surface of the coated substrate at the location of impingement of the water jet onto the local coating surface, wherein the machining angle (α) is in the range between 30° and 70°, especially is 40° ± 5°, - ejecting a pure waterjet by the nozzle impinging the ceramic coating for removing essentially or completely the ceramic coating from the substrate or from the metallic coating and - moving relatively the location of the waterjet impingement and the substrate with a velocity or feed rate between 1500mm/min and 2500mm/min, especially of 2000mm/min. - providing a water source for supplying pure water to nozzle, the water source is able to supply water with a supply pressure in the range between 600 bar and 1500 bar, - providing a nozzle for ejecting a jet of pure water onto the surface of a coated substrate, the nozzle is connected to the water source, - providing a substrate coated at least with a ceramic coating, - positioning the nozzle and the substrate to one other such that a machining angle (α) can be determined between the waterjet and the surface of the coated substrate at the location of impingement of the water jet onto the local coating surface, wherein the machining angle (α) is in the range between 30° and 70°, especially is 40° ± 5°, - ejecting a pure waterjet by the nozzle impinging the ceramic coating for removing essentially or completely the ceramic coating from the substrate or from the metallic coating and - moving relatively the location of the waterjet impingement and the substrate with a velocity or feed rate between 1500mm/min and 2500mm/min, especially of 2000mm/min.
A process for producing a metal oxide particle comprising a core part (1; 11) and a surface layer (2; 12) differing in the composition, the process comprising: providing a sol containing at least a population of first colloid particles and a population of second colloid particles differing in the isoelectric point with each other, adjusting the pH of said sol to be closer to the isoelectric point of said population of first colloid particles than to the isoelectric point of said population of second colloid particles, thereby aggregating said population of first colloid particles, adjusting the pH of said sol to be closer to the isoelectric point of said population of second colloid particles than to the isoelectric point of said population of first colloid particles, thereby aggregating said population of second colloid particles onto said population of first colloid particles aggregated, and drying and firing the obtained aggregate. providing a sol containing at least a population of first colloid particles and a population of second colloid particles differing in the isoelectric point with each other, adjusting the pH of said sol to be closer to the isoelectric point of said population of first colloid particles than to the isoelectric point of said population of second colloid particles, thereby aggregating said population of first colloid particles, adjusting the pH of said sol to be closer to the isoelectric point of said population of second colloid particles than to the isoelectric point of said population of first colloid particles, thereby aggregating said population of second colloid particles onto said population of first colloid particles aggregated, and drying and firing the obtained aggregate.
An input support method for supporting input of a variable name for specifying the variable name as an operand of a command in programming of a programmable controller wherein a computer supports selecting the variable name from a variable table in which at least one variable name scheduled to be used in a user program is registered in advance with an attribute thereof, the method comprising: a first step of obtaining a state wherein one character of a character string configuring the variable name to become the operand of the command is inputtable; a second step of extracting, when the one character is inputted, from the variable table all variable names that forward match with a character string comprising a character string confirmed up to now and the one character; a third step of completing specifying the operand of the command by confirming the variable name as the operand, in a case where the number of the extracted variable names is one (106, NO), characterized by a fourth step of confirming a forward matching portion including a continuous character string that is determined to match among all extracted variable names as the confirmed character string before returning to the first step, in a case where the number of the extracted variable names is more than one (106, YES). a first step of obtaining a state wherein one character of a character string configuring the variable name to become the operand of the command is inputtable; a second step of extracting, when the one character is inputted, from the variable table all variable names that forward match with a character string comprising a character string confirmed up to now and the one character; a third step of completing specifying the operand of the command by confirming the variable name as the operand, in a case where the number of the extracted variable names is one (106, NO), characterized by a fourth step of confirming a forward matching portion including a continuous character string that is determined to match among all extracted variable names as the confirmed character string before returning to the first step, in a case where the number of the extracted variable names is more than one (106, YES).
A method for communicating in a wireless network, comprising: receiving, by a wireless device, an indication of a binding between a service data flow and a data radio bearer with an access point; determining, based on the received indication, whether the data radio bearer for binding to the service data flow corresponds to an existing data radio bearer that supports one or more quality-of-service, QoS, parameters of the service data flow, or corresponds to a new data radio bearer to be established with the access point to support the one or more QoS parameters of the service data flow; based on the determination: modifying, by the wireless device and based on the determination, the existing data radio bearer with the access point or establishing, by the wireless device and based on the determination, the new data radio bearer with the access point; and transmitting, by the wireless device in an uplink communication to the access point and based on the binding, a packet using the data radio bearer based at least in part on classifying the packet as related to the service data flow. receiving, by a wireless device, an indication of a binding between a service data flow and a data radio bearer with an access point; determining, based on the received indication, whether the data radio bearer for binding to the service data flow corresponds to an existing data radio bearer that supports one or more quality-of-service, QoS, parameters of the service data flow, or corresponds to a new data radio bearer to be established with the access point to support the one or more QoS parameters of the service data flow; based on the determination: modifying, by the wireless device and based on the determination, the existing data radio bearer with the access point or establishing, by the wireless device and based on the determination, the new data radio bearer with the access point; and transmitting, by the wireless device in an uplink communication to the access point and based on the binding, a packet using the data radio bearer based at least in part on classifying the packet as related to the service data flow.
An appliance (10, 100, 200) comprising: an outer wrapper defining a top wall, a bottom wall, a rear wall, and first and second side walls (20, 22); an inner liner; a trim breaker sealing the outer wrapper to the inner liner to define an insulation space; a single vacuum port disposed on each of the top wall, the bottom wall, and the first and second side walls (20, 22); a plurality of vacuum ports disposed on the rear wall; an insulative material disposed between the outer wrapper and the inner liner; characterized in further comprising a filter media disposed proximate each of the vacuum ports such that air can be drawn from the insulation space past the filter media and through each of the plurality of vacuum ports. an outer wrapper defining a top wall, a bottom wall, a rear wall, and first and second side walls (20, 22); an inner liner; a trim breaker sealing the outer wrapper to the inner liner to define an insulation space; a single vacuum port disposed on each of the top wall, the bottom wall, and the first and second side walls (20, 22); a plurality of vacuum ports disposed on the rear wall; an insulative material disposed between the outer wrapper and the inner liner; characterized in further comprising a filter media disposed proximate each of the vacuum ports such that air can be drawn from the insulation space past the filter media and through each of the plurality of vacuum ports.
A turnaround monitoring system that is configured to monitor a turnaround of an aircraft at an airport, the turnaround monitoring system comprising: a turnaround analysis control unit that receives turnaround data regarding the aircraft at the airport and determines a turnaround status of the aircraft based on the turnaround data; a turnaround database that stores historical turnaround data; a turnaround prediction control unit that predicts a time of completion of the turnaround based on a comparison of the turnaround data and the historical turnaround data; one or more cameras (112, 112a-112e, 112b-112e); and one or more sensors, wherein the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors output the turnaround data regarding the aircraft, wherein the turnaround analysis control unit is in communication with the one or more cameras (112, 112a-112e, 112b-112e) and the one more sensors, wherein the turnaround analysis control unit receives the turnaround data from the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors, wherein the one or more cameras (112, 112a-112e, 112b-112e) are configured to capture images related to the presence of luggage carts or vehicles, and wherein the turnaround data includes information indicative of luggage, wherein the turnaround status comprises information regarding luggage removed from and boarded onto the aircraft, wherein the turnaround analysis control unit is configured to detect images of luggage vehicles proximate to luggage areas of the aircraft and determine luggage removal and boarding through image analysis. a turnaround analysis control unit that receives turnaround data regarding the aircraft at the airport and determines a turnaround status of the aircraft based on the turnaround data; a turnaround database that stores historical turnaround data; a turnaround prediction control unit that predicts a time of completion of the turnaround based on a comparison of the turnaround data and the historical turnaround data; one or more cameras (112, 112a-112e, 112b-112e); and one or more sensors, wherein the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors output the turnaround data regarding the aircraft, wherein the turnaround analysis control unit is in communication with the one or more cameras (112, 112a-112e, 112b-112e) and the one more sensors, wherein the turnaround analysis control unit receives the turnaround data from the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors, wherein the one or more cameras (112, 112a-112e, 112b-112e) are configured to capture images related to the presence of luggage carts or vehicles, and wherein the turnaround data includes information indicative of luggage, wherein the turnaround status comprises information regarding luggage removed from and boarded onto the aircraft, wherein the turnaround analysis control unit is configured to detect images of luggage vehicles proximate to luggage areas of the aircraft and determine luggage removal and boarding through image analysis.
Method for stabilizing a motor vehicle, in particular a two-wheeled motor vehicle, wherein the current pitch angle (θ) of the motor vehicle is determined and is limited to a limiting pitch angle (θ d) by an intervention into an assembly by means of which the longitudinal acceleration (a x) can be influenced, wherein the limiting pitch angle (θ d) is determined as a function of state variables or operating variables of the motor vehicle during ongoing operation and depends on a lateral dynamic state variable, characterized in that the rolling angle (φ), the lateral acceleration (a y) and/or the yaw rate ( ψ̇) are taken into account as a lateral dynamic state variable, and the limiting pitch angle (θ d) is reduced as the lateral dynamic state variable increases.
A yarn producing apparatus (1;1A;1B) for producing carbon nanotube yarn from carbon nanotube fibers while allowing the carbon nanotube fibers to run, the yarn producing apparatus (1;1A;1B) comprising a yarn producing unit configured to aggregate the running carbon nanotube fibers, wherein the yarn producing unit includes a nozzle body configured to allow the carbon nanotube fibers to pass through, a first nozzle provided in the nozzle body to generate a first swirl flow, with compressed air, in a direction orthogonal to a direction of the carbon nanotube fibers running, and a second nozzle provided in the nozzle body to generate a second swirl flow, with compressed air, in a direction orthogonal to the direction of the carbon nanotube fibers running and opposite to the direction of the first swirl flow, and the first nozzle and the second nozzle are provided at positions different in the direction of the carbon nanotube fibers running in the nozzle body, characterized by a cross-linking agent solution and a cross-linking agent solution supply mechanism configured to supply said cross-linking agent solution to at least one of the first nozzle and the second nozzle. a nozzle body configured to allow the carbon nanotube fibers to pass through, a first nozzle provided in the nozzle body to generate a first swirl flow, with compressed air, in a direction orthogonal to a direction of the carbon nanotube fibers running, and a second nozzle provided in the nozzle body to generate a second swirl flow, with compressed air, in a direction orthogonal to the direction of the carbon nanotube fibers running and opposite to the direction of the first swirl flow, and
A liquid crystal display device comprising a light emitting device package comprising: a package body; a light emitting device mounted on the package body; at least one pair of leads electrically connected with the light emitting device; and a lens (30, 32) located above the light emitting device of the package body and having a recess indented from an upper surface thereof and a curved upper surface defined around the recess to have at least one radius of curvature, characterised in that: a shortest distance from the light emitting device to a lowest portion of the recess is greater than D1/7 and smaller than D1/2.4, wherein D1 is a diameter of the lens; and the radius of curvature of the curved upper surface in a vicinity of the recess of the lens fulfils a condition of 0.8 mm < R < 1.8 mm. a package body; a light emitting device mounted on the package body; at least one pair of leads electrically connected with the light emitting device; and a lens (30, 32) located above the light emitting device of the package body and having a recess indented from an upper surface thereof and a curved upper surface defined around the recess to have at least one radius of curvature, characterised in that: a shortest distance from the light emitting device to a lowest portion of the recess is greater than D1/7 and smaller than D1/2.4, wherein D1 is a diameter of the lens; and the radius of curvature of the curved upper surface in a vicinity of the recess of the lens fulfils a condition of 0.8 mm < R < 1.8 mm. a shortest distance from the light emitting device to a lowest portion of the recess is greater than D1/7 and smaller than D1/2.4, wherein D1 is a diameter of the lens; and the radius of curvature of the curved upper surface in a vicinity of the recess of the lens fulfils a condition of 0.8 mm < R < 1.8 mm.
An integrated vibrations and contact force converter, comprising: - a first element separated from a second element by an elastic spacer; - at least one acceleration sensor rigidly connected to the first element and configured to measure amplitude of acceleration of vibrations of the converter; - at least one contact force sensitive element (151, 152, 183) rigidly connected either to the first element or to the second element and configured to measure a force exerted on the second element; characterized in that: - the first element and the second element are connected by a connector configured to maintain the second element movable with respect to the first element and to provide a non-zero calibrated pressing force from the first element to the second element at the absence of forces external to the converter. - a first element separated from a second element by an elastic spacer; - at least one acceleration sensor rigidly connected to the first element and configured to measure amplitude of acceleration of vibrations of the converter; - at least one contact force sensitive element (151, 152, 183) rigidly connected either to the first element or to the second element and configured to measure a force exerted on the second element; - the first element and the second element are connected by a connector configured to maintain the second element movable with respect to the first element and to provide a non-zero calibrated pressing force from the first element to the second element at the absence of forces external to the converter.