mhurhangee/ep-ind-claims huggingface dataset:
Household steam treatment appliance, having a steam generator, wherein the steam generator has - a water tank for receiving water to be evaporated, - at least one heating element arranged on the floor outside of the water tank, by means of which water present in the water tank can be heated for steam generation, and - a heating element temperature sensor which is thermally coupled to the at least one heating element, wherein the household steam treatment appliance - has a data processing facility, which is coupled to the at least one heating element temperature sensor, - the data processing facility is designed to establish a degree of calcification of the water tank using a heating element temperature (HZT-1, HZT-2, T1, T2) measured by the at least one heating element temperature sensor and - the at least one heating element is covered on its side facing away from the water tank by a metallic cover and - the heating element temperature sensor is attached to the metallic cover, so that it is indirectly thermally coupled to the at least one heating element via the cover. wherein the steam generator has - a water tank for receiving water to be evaporated, - at least one heating element arranged on the floor outside of the water tank, by means of which water present in the water tank can be heated for steam generation, and - a heating element temperature sensor which is thermally coupled to the at least one heating element, - a water tank for receiving water to be evaporated, - at least one heating element arranged on the floor outside of the water tank, by means of which water present in the water tank can be heated for steam generation, and - a heating element temperature sensor which is thermally coupled to the at least one heating element, wherein the household steam treatment appliance - has a data processing facility, which is coupled to the at least one heating element temperature sensor, - the data processing facility is designed to establish a degree of calcification of the water tank using a heating element temperature (HZT-1, HZT-2, T1, T2) measured by the at least one heating element temperature sensor and - the at least one heating element is covered on its side facing away from the water tank by a metallic cover and - the heating element temperature sensor is attached to the metallic cover, so that it is indirectly thermally coupled to the at least one heating element via the cover. - has a data processing facility, which is coupled to the at least one heating element temperature sensor, - the data processing facility is designed to establish a degree of calcification of the water tank using a heating element temperature (HZT-1, HZT-2, T1, T2) measured by the at least one heating element temperature sensor and - the at least one heating element is covered on its side facing away from the water tank by a metallic cover and - the heating element temperature sensor is attached to the metallic cover, so that it is indirectly thermally coupled to the at least one heating element via the cover.
A mass spectrometer including a source for providing a beam of particles including ions, a mass analyser and an ion detector configured for receiving ions from the beam of particles for spectrometric analysis, and an ion optics system (34, 36, 38, 40, 42, 44, 46) comprising multiple electrodes configured to produce a focussed ion beam, said mass spectrometer being characterized in that: - said ion optics system is configured for establishing an electrostatic field in which the field strength varies axially and radially for reflecting ions from the particle beam to the mass analyser and detector, - the multiple electrodes comprised in the ion optics system are configured to establish said electrostatic field for reflecting, and also simultaneously focusing, the ions to produce the focused ion beam. - said ion optics system is configured for establishing an electrostatic field in which the field strength varies axially and radially for reflecting ions from the particle beam to the mass analyser and detector, - the multiple electrodes comprised in the ion optics system are configured to establish said electrostatic field for reflecting, and also simultaneously focusing, the ions to produce the focused ion beam.
A cap for a medication container comprising: at least one pressure sensor; an air supplying unit; and a controller configured to: receive a first air pressure measurement from inside the medication container, from the at least one pressure sensor; control the air supply unit to supply air at a predetermined pressure for a predetermined amount of time; receive a second air pressure measurement from inside the medication container, from the at least one pressure sensor; and perform an output operation using the first and second air pressure measurements. at least one pressure sensor; an air supplying unit; and a controller configured to: receive a first air pressure measurement from inside the medication container, from the at least one pressure sensor; control the air supply unit to supply air at a predetermined pressure for a predetermined amount of time; receive a second air pressure measurement from inside the medication container, from the at least one pressure sensor; and perform an output operation using the first and second air pressure measurements.
A process of making acrylic acid comprising: a) providing a mixed feed gas comprising propylene to a first shell-and-tube reaction stage, wherein the first shell-and-tube reaction stage comprises a mixed metal oxide catalyst; b) oxidizing the propylene in the first shell-and-tube reaction stage to produce a process gas comprising acrolein; c) cooling the process gas to a temperature not greater than 280°C in an interstage heat exchanger; d) passing the cooled process gas through an open interstage region; e) passing the process gas to a second shell-and-tube reaction stage, wherein the second shell-and-tube reaction stage comprises a mixed metal oxide catalyst; f) oxidizing the acrolein in the second shell-and-tube reaction stage to produce a product gas comprising acrylic acid; and g) transferring the product gas between a reactor outlet and downstream collection and purification equipment using large diameter exit piping having an outlet diameter ratio, Ko, of 0.08 or more, the outlet diameter ratio Ko being the ratio of the exit piping diameter to the diameter of an outlet reactor head (Ko = DP/DR). a) providing a mixed feed gas comprising propylene to a first shell-and-tube reaction stage, wherein the first shell-and-tube reaction stage comprises a mixed metal oxide catalyst; b) oxidizing the propylene in the first shell-and-tube reaction stage to produce a process gas comprising acrolein; c) cooling the process gas to a temperature not greater than 280°C in an interstage heat exchanger; d) passing the cooled process gas through an open interstage region; e) passing the process gas to a second shell-and-tube reaction stage, wherein the second shell-and-tube reaction stage comprises a mixed metal oxide catalyst; f) oxidizing the acrolein in the second shell-and-tube reaction stage to produce a product gas comprising acrylic acid; and g) transferring the product gas between a reactor outlet and downstream collection and purification equipment using large diameter exit piping having an outlet diameter ratio, Ko, of 0.08 or more, the outlet diameter ratio Ko being the ratio of the exit piping diameter to the diameter of an outlet reactor head (Ko = DP/DR).
A power transmission device for a hybrid vehicle, comprising: first clutch means that is disposed in a drivetrain extending from an engine installed in the vehicle to a driving wheel and that is capable of transmitting or cutting off driving power of the engine to the driving wheel; second clutch means that is disposed in a drivetrain extending from a motor installed in the vehicle to the driving wheel and that is capable of transmitting or cutting off driving power of the motor to the driving wheel; and an oil pump that is connected to the motor and that is capable of supplying oil to a predetermined moving component disposed in the vehicle by using the driving power of the motor, wherein the power transmission device is capable of appropriately operating the first clutch means and the second clutch means in accordance with driving conditions of the vehicle, wherein the power transmission device includes a transmission that is disposed in a drivetrain between the engine and the motor and the driving wheel and that is capable of adjusting rotation speed of the motor, and the power transmission device is capable of supplying oil by causing the motor to rotate the oil pump at an appropriate rotation speed, and characterised in that when the vehicle is driven by the driving power of the engine and when the motor rotates the oil pump while the second clutch means cuts off the driving power of the motor, the power transmission device rotates the oil pump at a rotation speed lower than that of a case where the second clutch means is engaged. first clutch means that is disposed in a drivetrain extending from an engine installed in the vehicle to a driving wheel and that is capable of transmitting or cutting off driving power of the engine to the driving wheel; second clutch means that is disposed in a drivetrain extending from a motor installed in the vehicle to the driving wheel and that is capable of transmitting or cutting off driving power of the motor to the driving wheel; and an oil pump that is connected to the motor and that is capable of supplying oil to a predetermined moving component disposed in the vehicle by using the driving power of the motor, wherein the power transmission device is capable of appropriately operating the first clutch means and the second clutch means in accordance with driving conditions of the vehicle, wherein the power transmission device includes a transmission that is disposed in a drivetrain between the engine and the motor and the driving wheel and that is capable of adjusting rotation speed of the motor, and the power transmission device is capable of supplying oil by causing the motor to rotate the oil pump at an appropriate rotation speed, and characterised in that when the vehicle is driven by the driving power of the engine and when the motor rotates the oil pump while the second clutch means cuts off the driving power of the motor, the power transmission device rotates the oil pump at a rotation speed lower than that of a case where the second clutch means is engaged.
A spinner lure fishing apparatus comprising; a proximal rigid attachment head having one or more apertures for the attachment of fishing line; a rigid wire projecting from the attachment head along an elongated axis of said rigid wire and provided with a distal loop; and a blade mounted on the wire at a rotational connection and configured to rotate about the axis of the wire, wherein the rigid wire is securely connected to the attachment head, wherein the one or more apertures of the attachment head are spaced apart from the axis of the wire, characterised in that one or more connected elements are connected to the distal loop of the rigid wire, the connected elements selected from the group consisting of: (i) a fishing hook (71, 75, 79, 95) carrying a weight element (72, 78, 80); (ii) a bait mounting wire carrying a weight element; and (iii) a wire brace carrying a weight element; and in that the centre of mass of the spinner lure fishing apparatus is located distal to the rotational connection of the blade on the wire and/or the attachment head has a mass that is less than a combined mass of all of the other parts of the spinner lure fishing apparatus. (i) a fishing hook (71, 75, 79, 95) carrying a weight element (72, 78, 80); (ii) a bait mounting wire carrying a weight element; and (iii) a wire brace carrying a weight element; and
Mobile cleaning system for parts to be cleaned, having: a first container which has a first cleaning device, a second container having a supply unit which is continuously connected to the first cleaning device via lines, and a mobile carrier on which the first container and the second container are provided, wherein at least the first container can be deposited laterally next to the mobile carrier and parallel to the longitudinal axis thereof and also independently of the second container in such a manner that it comes into contact with the ground. a first container which has a first cleaning device, a second container having a supply unit which is continuously connected to the first cleaning device via lines, and a mobile carrier on which the first container and the second container are provided,
A NO x trap, comprising a substrate and: (a) a first layer comprising a first platinum group metal, a first NO x storage component, and a first support; (b) a second layer comprising a second platinum group metal, a second NO x storage component, and a second support; and (c) a third layer comprising rhodium and a third support, wherein the first layer has a platinum group metal loading that is from 1 to 40 percent of the platinum group metal loading in the second layer, the first NO x storage component and the second NO x storage component are the same, and the first support and the second support are the same, and wherein the first layer is disposed on the substrate, the second layer is disposed on the first layer, and the third layer is disposed on the second layer. (a) a first layer comprising a first platinum group metal, a first NO x storage component, and a first support; (b) a second layer comprising a second platinum group metal, a second NO x storage component, and a second support; and (c) a third layer comprising rhodium and a third support,
Method for joining two components (1, 2), in which - a first component and a second component are provided, which are each formed from a thermoplastic material, the first component has a first tear-off fabric on a first surface of the first component, - the first tear-off fabric is removed from the first component, - after the removal of the first tear-off fabric, the first surface of the first component is brought into contact with a second surface of the second component, and - the first component and the second component are welded together at the first and second surfaces (12, 13) by ultrasonic welding. - a first component and a second component are provided, which are each formed from a thermoplastic material, the first component has a first tear-off fabric on a first surface of the first component, - the first tear-off fabric is removed from the first component, - after the removal of the first tear-off fabric, the first surface of the first component is brought into contact with a second surface of the second component, and - the first component and the second component are welded together at the first and second surfaces (12, 13) by ultrasonic welding.
Device for providing electrical energy for electrically operable vehicles comprising at least one plug element (4, 5), the at least one plug element (4, 5) being conductively connected to a fixed supply line and connectable via a mating plug element to an energy store of the vehicle, comprising at least one switching device for individually switching on and off the at least one plug element (4, 5), and comprising a control device, which cooperates in terms of data with the at least one plug element and with the switching device, the control device having a central control unit and a number of decentralised control units (12, 13) which corresponds to the number of plug elements (4, 5), a decentralised control unit (12, 13) being assigned to each plug element (4, 5), and the central control unit being data-connected to all decentralised control units (12, 13), characterised in that the central control unit is data-connected to a number of measurement units (20, 21) which corresponds to the number of plug elements (4, 5) for individually measuring a charging current (I ist) supplied to each plug element (4, 5) and in that the measurement units (20, 21) cooperate with the central control unit in such a way that the charging current (I ist) is directly or indirectly monitored and measures to increase the safety of the system are initiated in the event of a fault.
A wiring board (10, 10A, 10B) comprising a laminate, in which one or more resin insulating layers (21, 22, 23) and one or more conductor layers are stacked, wherein the conductor layer of an outermost layer of the laminate comprises: a plurality of connection terminal portions, which are disposed in a mounting area of a semiconductor chip and surfaces of which are exposed for flip-chip mounting the semiconductor chip; and a wiring conductor that is arranged at a predetermined position between the plurality of connection terminal portions, and wherein the resin insulating layer of the outermost layer of the laminate comprises: a dam portion covering the wiring conductor; and a reinforcement portion, which is formed between the wiring conductor and a connection terminal portion adjacent to the wiring conductor and to be lower than a height of the dam portion, the reinforcement portion being integrally formed with the dam portion and being connected with a side surface of the dam portion, the wiring board being characterized in that, in sectional view, a curvature of a corner portion of a superior margin region of the dam portion is larger than a curvature of a corner portion of a connection region between the dam portion and the reinforcement portion. a plurality of connection terminal portions, which are disposed in a mounting area of a semiconductor chip and surfaces of which are exposed for flip-chip mounting the semiconductor chip; and a wiring conductor that is arranged at a predetermined position between the plurality of connection terminal portions, and wherein the resin insulating layer of the outermost layer of the laminate comprises: a dam portion covering the wiring conductor; and a reinforcement portion, which is formed between the wiring conductor and a connection terminal portion adjacent to the wiring conductor and to be lower than a height of the dam portion, the reinforcement portion being integrally formed with the dam portion and being connected with a side surface of the dam portion, the wiring board being characterized in that, in sectional view, a curvature of a corner portion of a superior margin region of the dam portion is larger than a curvature of a corner portion of a connection region between the dam portion and the reinforcement portion. a dam portion covering the wiring conductor; and a reinforcement portion, which is formed between the wiring conductor and a connection terminal portion adjacent to the wiring conductor and to be lower than a height of the dam portion, the reinforcement portion being integrally formed with the dam portion and being connected with a side surface of the dam portion, the wiring board being characterized in that, in sectional view, a curvature of a corner portion of a superior margin region of the dam portion is larger than a curvature of a corner portion of a connection region between the dam portion and the reinforcement portion.
A radio-frequency generator, comprising: a power amplifier module comprising at least one power amplifier (42; 42a); at least one pickup module connected to an output of the at least one power amplifier to generate at least one pickup signal; at least one output (RF OUT1) configured to be connected to the respective output of the at least one amplifier and configured to output at least one radio-frequency output signal; and a controller comprising: - a measurement module configured to receive the at least one pickup signal and to generate at least one measurement signal based on the at least one pickup signal; and - a radio-frequency signal generation module configured to generate two or more carrier signals of different frequency, and to provide at least one drive signal based on the two or more carrier signals as input to the power amplifier module; - a regulation module configured to receive the at least one measurement signal, and to regulate the power of the at least one radio-frequency output signal based on the at least one measurement signal, characterized in that the number of carrier signals generated in the radio-frequency signal generation module corresponds to the number of pickup modules. a power amplifier module comprising at least one power amplifier (42; 42a); at least one pickup module connected to an output of the at least one power amplifier to generate at least one pickup signal; at least one output (RF OUT1) configured to be connected to the respective output of the at least one amplifier and configured to output at least one radio-frequency output signal; and a controller comprising: - a measurement module configured to receive the at least one pickup signal and to generate at least one measurement signal based on the at least one pickup signal; and - a radio-frequency signal generation module configured to generate two or more carrier signals of different frequency, and to provide at least one drive signal based on the two or more carrier signals as input to the power amplifier module; - a regulation module configured to receive the at least one measurement signal, and to regulate the power of the at least one radio-frequency output signal based on the at least one measurement signal, - a measurement module configured to receive the at least one pickup signal and to generate at least one measurement signal based on the at least one pickup signal; and - a radio-frequency signal generation module configured to generate two or more carrier signals of different frequency, and to provide at least one drive signal based on the two or more carrier signals as input to the power amplifier module; - a regulation module configured to receive the at least one measurement signal, and to regulate the power of the at least one radio-frequency output signal based on the at least one measurement signal, characterized in that the number of carrier signals generated in the radio-frequency signal generation module corresponds to the number of pickup modules.
A wearable device (8, 60, 70, 86) structured to exert a contact pressure between the wearable device and a skin surface of a wearer, comprising: a first member (18, 72, 96) structured to have a first pressure applied thereto; a contact member (14, 74) structured to exert the contact pressure against the skin surface in response to the first pressure; and a support member (20, 62, 78) positioned between the first member and the contact member, the support member including at least one support member flange and a plurality of compression members (40, 52, 54, 64, 84) extending from the at least one support member flange, wherein the support member is a unitary member formed separately from the first member and the contact member, characterised in that each of the compression members is structured to suddenly bend toward the exterior of support member (20, 62, 78) when the support member is compressed in a direction that is parallel to the longitudinal axis of each of the compression members (40, 52, 54, 64, 84) and the compression member is subjected to a compression force reaching a certain threshold level. a first member (18, 72, 96) structured to have a first pressure applied thereto; a contact member (14, 74) structured to exert the contact pressure against the skin surface in response to the first pressure; and a support member (20, 62, 78) positioned between the first member and the contact member, the support member including at least one support member flange and a plurality of compression members (40, 52, 54, 64, 84) extending from the at least one support member flange, wherein the support member is a unitary member formed separately from the first member and the contact member, characterised in that each of the compression members is structured to suddenly bend toward the exterior of support member (20, 62, 78) when the support member is compressed in a direction that is parallel to the longitudinal axis of each of the compression members (40, 52, 54, 64, 84) and the compression member is subjected to a compression force reaching a certain threshold level.