mhurhangee/ep-ind-claims huggingface dataset:
A wire tension control device, comprising: a bobbin configured to provide a wire; and a magnetic moment generator (120, 420), comprising a stator, a rotor relatively rotatable with respect to the stator, and a transmission shaft, wherein the rotor is connected to the bobbin, and the magnetic moment generator (120, 420) is configured to generate a tension on the wire when the bobbin drives the rotor to rotate; a course adjustment element connected to the stator and configured to adjust the position of the stator along an extension direction of the transmission shaft; and a base having an outer screw; and wherein the position of the stator is adjustable, and wherein the course adjustment element has an inner screw, and the inner screw and the outer screw are relatively ratable to be engaged with each other; characterised in that the wire tension control device further comprises an anti-loose element located between the base and the course adjustment element, wherein said anti-loose element is a spring. a bobbin configured to provide a wire; and a magnetic moment generator (120, 420), comprising a stator, a rotor relatively rotatable with respect to the stator, and a transmission shaft, wherein the rotor is connected to the bobbin, and the magnetic moment generator (120, 420) is configured to generate a tension on the wire when the bobbin drives the rotor to rotate; a course adjustment element connected to the stator and configured to adjust the position of the stator along an extension direction of the transmission shaft; and a base having an outer screw; and wherein the position of the stator is adjustable, and wherein the course adjustment element has an inner screw, and the inner screw and the outer screw are relatively ratable to be engaged with each other; characterised in that the wire tension control device further comprises an anti-loose element located between the base and the course adjustment element, wherein said anti-loose element is a spring.
A container for sunscreen agent in which the sunscreen agent has a predetermined sun-protection factor, comprising a sealing device by which the container can be closed to make its orifice completely sealed, the container being provided with at least one sun sensor arranged to indicate the current UV intensity by changing its hue depending on the UV intensity of the radiation striking the sensor, said sun sensor being arranged as an integral part of the container, said sun sensor comprising photochromic ink which changes its hue when in contact with UV radiation, said container further comprising a colour-reference range for comparative reading of the hue of the sensor to enable the determination of UV intensity, characterized in that said container further comprises a sun matrix comprising a skin-type indicator (51, 52, 53, 54) where four different skin types can be observed and a time indicator for determining the period of time during which a person, depending on his or her specific skin type, and whether or not the person is accustomed to sun, can expose his or her skin to solar radiation at said determined UV intensity without sunburn arising, provided said person has applied the sunscreen agent from the container to the skin, and said sun sensor and colour-reference range are positioned such that they are completely covered by the sealing device when the sealing device is sealed, the sensor being in the form of an elongate strip extending parallel to said colour-reference range, wherein the sensor being positioned at the top portion of the bottle such that it, when the container stands upright on a horizontal flat surface, is oriented substantially in an upward direction.
A method comprising: positioning one or more cables proximate the wind turbine; positioning (102, 104, 106) a modular robotic component proximate an area of interest on a surface of a wind turbine, the modular robotic component comprising a plurality of modules (60, 62, 64, 66, 68, 70, 72, 74, 76, 78) that perform a plurality of tasks; modulating the one or more cables to assist with positioning of the modular robotic component as it ascends the one or more cables to a position proximate the area of interest and descends the one or more cables; inspecting the area of interest with the modular robotic component for an indication requiring at least one of repair or upgrade; and operating the modular robotic component to perform the plurality of tasks sequentially as the modular robotic component moves along the surface of the wind turbine. positioning one or more cables proximate the wind turbine; positioning (102, 104, 106) a modular robotic component proximate an area of interest on a surface of a wind turbine, the modular robotic component comprising a plurality of modules (60, 62, 64, 66, 68, 70, 72, 74, 76, 78) that perform a plurality of tasks; modulating the one or more cables to assist with positioning of the modular robotic component as it ascends the one or more cables to a position proximate the area of interest and descends the one or more cables; inspecting the area of interest with the modular robotic component for an indication requiring at least one of repair or upgrade; and operating the modular robotic component to perform the plurality of tasks sequentially as the modular robotic component moves along the surface of the wind turbine.
A method for solidifying liquid steel slag to produce solid steel slag, which liquid steel slag comprises at least the elements calcium, silicon and oxygen and has a basicity, defined as the ratio between its calcium content, expressed as wt.% CaO, and its silicon content, expressed as wt.% SiO 2, which is higher than 1.2, which method comprises the steps of: - pouring at least four successive layers of said liquid steel slag in a reservoir, which successive layers comprise a lowermost layer, an uppermost layer and at least two intermediate layers; - allowing the liquid steel slag to solidify in the reservoir; and - cooling the solidified steel slag in the reservoir by applying water onto the solidified steel slag, characterised in that - said reservoir has a bottom delimited by side walls, which bottom has a surface area of S m 2; - said successive layers of liquid steel slag are poured on top of one another in said reservoir, with at least said intermediate layers having a volume of at least S x 0.03 m 3 and; - said water cooling step is started after having poured said uppermost layer of liquid steel slag in the reservoir; and - the temperature of each of said intermediate layers, determined as a volume weighted average over the respective intermediate layer, is kept at least until the start of said water cooling step, and this for at least one hour, preferably for at least two hours, between 1300°C and a minimum temperature which is equal to or higher than a first temperature, which first temperature is the temperature as from which β-dicalcium silicate is formed in the steel slag when the liquid steel slag is cooled down at a cooling rate of 10°C/min to room temperature. - pouring at least four successive layers of said liquid steel slag in a reservoir, which successive layers comprise a lowermost layer, an uppermost layer and at least two intermediate layers; - allowing the liquid steel slag to solidify in the reservoir; and - cooling the solidified steel slag in the reservoir by applying water onto the solidified steel slag, - said reservoir has a bottom delimited by side walls, which bottom has a surface area of S m 2; - said successive layers of liquid steel slag are poured on top of one another in said reservoir, with at least said intermediate layers having a volume of at least S x 0.03 m 3 and; - said water cooling step is started after having poured said uppermost layer of liquid steel slag in the reservoir; and - the temperature of each of said intermediate layers, determined as a volume weighted average over the respective intermediate layer, is kept at least until the start of said water cooling step, and this for at least one hour, preferably for at least two hours, between 1300°C and a minimum temperature which is equal to or higher than a first temperature, which first temperature is the temperature as from which β-dicalcium silicate is formed in the steel slag when the liquid steel slag is cooled down at a cooling rate of 10°C/min to room temperature.
Liquid composition, in particular for cleaning textiles, containing (a) at least one surfactant, and (b) at least one α-amylase which is at least 89% and increasingly preferably at least 90%, 90.5%, 91%, 91.5%, 92%, 92.5%, 93%, 93.5%, 94%, 94.5%, 95%, 95.5%, 96%, 96.5%, 97%, 97.5%, 98%, 98.5%, 99%, 99.5% and up to 100% identical to the sequence specified in SEQ ID NO.1 over its total length and has deletions at one or more of positions 180, 181, 182, 183 and 184 in the count according to SEQ ID NO. 1, with the proviso that the composition has a water activity a w of more than 0.3 to a maximum of 0.9 at 25°C and 1013 mbar, characterized in that the water content is less than 30% by weight. (a) at least one surfactant, and (b) at least one α-amylase which is at least 89% and increasingly preferably at least 90%, 90.5%, 91%, 91.5%, 92%, 92.5%, 93%, 93.5%, 94%, 94.5%, 95%, 95.5%, 96%, 96.5%, 97%, 97.5%, 98%, 98.5%, 99%, 99.5% and up to 100% identical to the sequence specified in SEQ ID NO.1 over its total length and has deletions at one or more of positions 180, 181, 182, 183 and 184 in the count according to SEQ ID NO. 1, with the proviso that the composition has a water activity a w of more than 0.3 to a maximum of 0.9 at 25°C and 1013 mbar, characterized in that the water content is less than 30% by weight.
A dental chair foot switch for changing a state of a dental chair; the dental chair comprising: a base that is installed on an installation surface; a leg unit that is coupled to the base and that is laid down toward or raised up from the installation surface; and a chair unit that is coupled to the leg unit and that is lowered with the leg unit being laid down and is lifted with the leg unit being raised up, characterized in that the dental chair foot switch is formed on part of the base around the laid-down leg unit, the dental chair foot switch is disposed at a rear end of the base on a side where the leg unit is laid down, and the dental foot switch includes: a main body that is elongate in a widthwise direction of the chair unit; and multiple operating controllers (30a, 30b, 30c) that are disposed side by side in a lengthwise direction of the main body, wherein at least one of the operating controllers (30a, 30b, 30c) is a joystick type controller. a base that is installed on an installation surface; a leg unit that is coupled to the base and that is laid down toward or raised up from the installation surface; and a chair unit that is coupled to the leg unit and that is lowered with the leg unit being laid down and is lifted with the leg unit being raised up, characterized in that the dental chair foot switch is formed on part of the base around the laid-down leg unit, the dental chair foot switch is disposed at a rear end of the base on a side where the leg unit is laid down, and the dental foot switch includes: a main body that is elongate in a widthwise direction of the chair unit; and multiple operating controllers (30a, 30b, 30c) that are disposed side by side in a lengthwise direction of the main body, wherein at least one of the operating controllers (30a, 30b, 30c) is a joystick type controller. a main body that is elongate in a widthwise direction of the chair unit; and multiple operating controllers (30a, 30b, 30c) that are disposed side by side in a lengthwise direction of the main body, wherein at least one of the operating controllers (30a, 30b, 30c) is a joystick type controller.
An inverter for a photovoltaic apparatus including one or more photovoltaic panels, said inverter comprising a DC/AC conversion stage and a DC electric bus having a plurality of electric lines (L 1, L 2, L N) electrically connecting said photovoltaic panels with said DC/AC conversion stage and forming corresponding DC input channels for said inverter, each electric line comprising line conductors (C 1, C 2) having opposite voltage polarities and comprising upstream portions (C 1U, C 2U) electrically connected with said photovoltaic panels and downstream portions (C 1D, C 2D) electrically connected with said DC/AC conversion stage, characterized in that it comprises a choke filter comprising a single magnetic circuit and a plurality of choke windings (W 1, W 2, W N) enchained with said magnetic circuit, wherein said choke windings (W 1, W 2, W N) are electrically connected in series with corresponding line conductors (C 1, C 2) of said electric lines (L 1, L 2, L N), which have a same voltage polarity that may be a negative voltage polarity or a positive voltage polarity, wherein said choke windings have first terminals (W 11, W 21, W N1) electrically coupled with upstream portions (C 1U, C 2U) of said corresponding line conductors (C 1, C 2) and second terminals (W 12, W 22, W N2) electrically coupled with a corresponding common electric node (A, B) electrically coupled with downstream portions (C 1D, C 2D) of said corresponding line conductors (C 1, C 2), said choke windings (W 1, W 2, W N) being arranged so that AC electric currents flowing along said choke windings generate magnetic fluxes having mutually concordant directions, wherein the line conductors (C 2, C 1), which have opposite voltage polarities compared to the line conductors (C 1, C 2) electrically connected to said choke windings (W 1, W 2, W N), have upstream portions (C 2U, C 1U) and downstream portions C 2D, C 1D) electrically connected in series. wherein said choke windings (W 1, W 2, W N) are electrically connected in series with corresponding line conductors (C 1, C 2) of said electric lines (L 1, L 2, L N), which have a same voltage polarity that may be a negative voltage polarity or a positive voltage polarity, wherein said choke windings have first terminals (W 11, W 21, W N1) electrically coupled with upstream portions (C 1U, C 2U) of said corresponding line conductors (C 1, C 2) and second terminals (W 12, W 22, W N2) electrically coupled with a corresponding common electric node (A, B) electrically coupled with downstream portions (C 1D, C 2D) of said corresponding line conductors (C 1, C 2), said choke windings (W 1, W 2, W N) being arranged so that AC electric currents flowing along said choke windings generate magnetic fluxes having mutually concordant directions, wherein the line conductors (C 2, C 1), which have opposite voltage polarities compared to the line conductors (C 1, C 2) electrically connected to said choke windings (W 1, W 2, W N), have upstream portions (C 2U, C 1U) and downstream portions C 2D, C 1D) electrically connected in series.
Function management system for vehicles, which has at least one function which, when the vehicle is travelling can carry out operations which are determined using a control unit as a function of settings on at least one operator control element which is assigned to the function, wherein the control unit has means for executing a learning mode which can be executed when a vehicle is travelling, wherein the at least one function executes an operation sequence in reaction to an activation sequence which is performed manually at the at least one operator control element, wherein the control unit stores both information relating to the operation sequence and information relating to the distance interval which the vehicle has covered between the individual operations, wherein the control unit has means for executing an execution mode or reproduction mode during whose execution the control unit automatically executes the stored operation sequence, wherein the individual operations of the operation sequence are executed at distance intervals which, irrespective of the velocity of the vehicle, correspond essentially to the distance intervals which have occurred during the execution of the learning mode, characterized in that a clutch switch which interacts with a clutch pedal of the vehicle is provided, wherein the control unit which is connected to the clutch switch temporarily interrupts the storage of sequence information and/or the automatic execution of the stored sequences if the clutch switch is activated.
An inorganic ion conductor comprising: a trivalent metallic element; a pentavalent metallic element; phosphorus; and oxygen; wherein the inorganic ion conductor is represented by: A III 0.5-x B V 0.5 P 2 O 7 or A III 0.5 B V 0.5-y P 2 O 7, and wherein x is 0.05 to 0.45 and y is 0.05 to 0.45, and wherein A and B denote the trivalent metallic element and the pentavalent metallic element, respectively. a trivalent metallic element; a pentavalent metallic element; phosphorus; and oxygen; wherein the inorganic ion conductor is represented by: A III 0.5-x B V 0.5 P 2 O 7 or A III 0.5 B V 0.5-y P 2 O 7, and wherein x is 0.05 to 0.45 and y is 0.05 to 0.45, and wherein A and B denote the trivalent metallic element and the pentavalent metallic element, respectively.
A monitoring arrangement for a liquid ejection system that comprises an ejection apparatus having a pipe configured to extend into a tank and to receive a liquid, wherein a rotary head is arranged on the pipe and is fitted with a fluid nozzle for ejecting the liquid in a pattern on an interior surface of the tank, the monitoring arrangement comprising a sensor unit configured to be mounted to the tank such that the sensor unit generates a signal (Ss) indicative of liquid coming into contact with the interior surface of the tank, and a processing unit configured to receive from the sensor unit the signal (Ss) indicative of liquid coming into contact with the interior surface of the tank, the monitoring arrangement wherein the processing unit is configured to - retrieve from a memory unit a reference property (T ref, t ref, A ref, f ref) that is indicative of liquid coming into contact with the interior surface, - register, during a measuring period (ΔT2) when the fluid nozzle ejects liquid towards the interior surface of the tank, at least one current property (T 2, t 2, A 2, f 2) of the signal (Ss) generated by the sensor unit, - compare the current property (T 2, t 2, A 2, f 2) with the reference property (T ref, t ref, A ref, f ref), and - initiate, if the current property (T 2, t 2, A 2, f 2) deviates from the reference property (T ref, t ref, A ref, f ref) beyond a predetermined level, a message indicative of the deviation, characterised in that the processing unit is further configured to - register, during a further measuring period when the fluid nozzle ejects liquid towards the interior surface, at least one current property of the signal (Ss), and - store the current property of the signal (Ss) as the reference property in the memory unit. - retrieve from a memory unit a reference property (T ref, t ref, A ref, f ref) that is indicative of liquid coming into contact with the interior surface, - register, during a measuring period (ΔT2) when the fluid nozzle ejects liquid towards the interior surface of the tank, at least one current property (T 2, t 2, A 2, f 2) of the signal (Ss) generated by the sensor unit, - compare the current property (T 2, t 2, A 2, f 2) with the reference property (T ref, t ref, A ref, f ref), and - initiate, if the current property (T 2, t 2, A 2, f 2) deviates from the reference property (T ref, t ref, A ref, f ref) beyond a predetermined level, a message indicative of the deviation, characterised in that the processing unit is further configured to - register, during a further measuring period when the fluid nozzle ejects liquid towards the interior surface, at least one current property of the signal (Ss), and - store the current property of the signal (Ss) as the reference property in the memory unit.
An air-conditioning apparatus which is a ceiling embedded type indoor unit installed on a ceiling of a room, the room being provided with a reflector, the air-conditioning apparatus comprising: - a humidity sensor configured to measure humidity in the room; - a casing; - a heat exchanger; and - a fan, wherein the reflector is a part of the floor surface or the wall of the room or a metal plate, a resin plate, or a wooden plate, installed on the floor surface or the wall surface of the room, the humidity sensor is arranged on the bottom surface of the casing between a suction port and an air outlet of the air-conditioning apparatus, and the humidity sensor comprises: - a sound wave element configured to transmit a sound wave and receive the sound wave reflected by the reflector; - a reception circuit configured to obtain an arrival time (t) of the reflected wave received by the sound wave element; - a humidity analysis circuit configured to calculate humidity by using the arrival time (t), a distance from the sound wave element to the reflector, and a temperature of a space from the sound wave element to the reflector; and - an information input unit configured to input the distance and the temperature. - a humidity sensor configured to measure humidity in the room; - a casing; - a heat exchanger; and - a fan, wherein the reflector is a part of the floor surface or the wall of the room or a metal plate, a resin plate, or a wooden plate, installed on the floor surface or the wall surface of the room, the humidity sensor is arranged on the bottom surface of the casing between a suction port and an air outlet of the air-conditioning apparatus, and the humidity sensor comprises: - a sound wave element configured to transmit a sound wave and receive the sound wave reflected by the reflector; - a reception circuit configured to obtain an arrival time (t) of the reflected wave received by the sound wave element; - a humidity analysis circuit configured to calculate humidity by using the arrival time (t), a distance from the sound wave element to the reflector, and a temperature of a space from the sound wave element to the reflector; and - an information input unit configured to input the distance and the temperature. - a sound wave element configured to transmit a sound wave and receive the sound wave reflected by the reflector; - a reception circuit configured to obtain an arrival time (t) of the reflected wave received by the sound wave element; - a humidity analysis circuit configured to calculate humidity by using the arrival time (t), a distance from the sound wave element to the reflector, and a temperature of a space from the sound wave element to the reflector; and - an information input unit configured to input the distance and the temperature.