mhurhangee/ep-ind-claims huggingface dataset:
LAS glass ceramic having an average coefficient of thermal expansion CTE in the range from 0 to 50°C of not more than 0 ± 0.1 × 10 -6 /K and thermal hysteresis at least within the temperature range from 10°C to 35°C of < 0.1 ppm, and comprising the following components (in mol% based on oxide): SiO 2 60 - 70 Li 2 O 7 - 9.4 MgO+ZnO 0 - < 0.6 Fluorine 0 - 0.3 at least one component selected from the group consisting of P 2 O 5, R 2 O, where R 2 O may be Na 2 O and/or K 2 O and/or Cs 2 O and/or Rb 2 O, and RO, where RO may be CaO and/or BaO and/or SrO, nucleating agent in a content of 1.5 to 6 mol%, where nucleating agent is at least one component selected from the group consisting of TiO 2, ZrO 2, Ta 2 O 5, Nb 2 O 5, SnO 2, MoO 3, WO 3. at least one component selected from the group consisting of P 2 O 5, R 2 O, where R 2 O may be Na 2 O and/or K 2 O and/or Cs 2 O and/or Rb 2 O, and RO, where RO may be CaO and/or BaO and/or SrO, nucleating agent in a content of 1.5 to 6 mol%, where nucleating agent is at least one component selected from the group consisting of TiO 2, ZrO 2, Ta 2 O 5, Nb 2 O 5, SnO 2, MoO 3, WO 3.
An apparatus for characterizing a satellite clock in a satellite, the satellite having the satellite clock and a transmitting device, the transmitting device being adapted to transmit a transmission signal having a transmitting frequency that is a function of a state of the satellite clock, the apparatus comprising the following features: a receiver clock having a higher accuracy than the satellite clock; a receiving device (24, 22) which is adapted to receive the transmission signal and to determine a received signal therefrom and to determine a received signal frequency and a received signal phase from the received signal using the receiver clock; an evaluation device which is adapted to determine a frequency offset and a frequency drift and an Allan deviation of the transmission frequency from the received signal frequency and the received signal phase, and to determine the stability of the rate of the satellite clock or the validity of a time indication of the satellite clock from the determined frequency offset and the frequency drift and the Allan deviation, thereby characterizing the satellite clock, characterized in that the evaluation device is further adapted to correct errors occurring in the received signal frequency or the received signal phase as a result of relativistic effects on the basis of precalculated orbit data of the satellite. a receiver clock having a higher accuracy than the satellite clock; a receiving device (24, 22) which is adapted to receive the transmission signal and to determine a received signal therefrom and to determine a received signal frequency and a received signal phase from the received signal using the receiver clock; an evaluation device which is adapted to determine a frequency offset and a frequency drift and an Allan deviation of the transmission frequency from the received signal frequency and the received signal phase, and to determine the stability of the rate of the satellite clock or the validity of a time indication of the satellite clock from the determined frequency offset and the frequency drift and the Allan deviation, thereby characterizing the satellite clock, characterized in that the evaluation device is further adapted to correct errors occurring in the received signal frequency or the received signal phase as a result of relativistic effects on the basis of precalculated orbit data of the satellite.
A system for controlling a watercraft comprising: a data communication module that performs wireless communication with an external computer; a device system connected to the data communication module, the device system including at least one electric device installed in the watercraft; an electric power supply including a battery, the electric power supply electrifying the data communication module and the device system; and a controller configured to control electrifying the data communication module and the device system by the electric power supply, characterised in that the controller is switchable between a first mode and a second mode, the controller electrifies the data communication module by the electric power supply in the first mode during both activation and deactivation of the device system, and the controller electrifies the data communication module by the electric power supply in the second mode during the activation of the device system, the controller stopping electrifying the data communication module by the electric power supply in the second mode during the deactivation of the device system. a data communication module that performs wireless communication with an external computer; a device system connected to the data communication module, the device system including at least one electric device installed in the watercraft; an electric power supply including a battery, the electric power supply electrifying the data communication module and the device system; and a controller configured to control electrifying the data communication module and the device system by the electric power supply, characterised in that the controller is switchable between a first mode and a second mode, the controller electrifies the data communication module by the electric power supply in the first mode during both activation and deactivation of the device system, and the controller electrifies the data communication module by the electric power supply in the second mode during the activation of the device system, the controller stopping electrifying the data communication module by the electric power supply in the second mode during the deactivation of the device system.
A take-off unit for taking-off fiber tufts from fiber bales, comprising a take-off roller having an axis and teeth, a suction hood arranged above the take-off roller and a grid that is arranged below the take-off roller and through which the teeth of the take-off roller extend, the take-off unit being mounted on one side on a take-off tower, wherein the suction hood is formed from a first part that is put over the take-off roller and in which the lateral boundary surfaces (14, 15), which oppose one another transverse to the axis of the take-off roller, approach one another with increasing distance from the axis at a first inclination angle (α) on that side of the suction hood that faces towards the take-off tower and at a second inclination angle (β) on that side of the suction hood that faces away from the take-off tower, and from a second part that is provided in the direction of the axis with a curved boundary surface, the second part being arranged between the first part and a transport channel arranged in the take-off tower, characterized in that the lateral boundary surface of the first part of the suction hood is provided with leak air openings on the side facing away from the take-off tower.
A method of detecting trajectory information for a supersonic projectile, comprising: collecting acoustic detection signals from an array of detection microphones; determining from at least one of the acoustic detection signals the existence of an acoustic signal characteristic of a supersonic projectile passing on a trajectory nearby; processing a shockwave portion of each acoustic detection signal, to determine first and second shockwave-based estimates of the trajectory of the supersonic projectile, characterised by processing a wake portion of each acoustic detection signal, the wake portion being after the shockwave portion, to determine a wake-based estimate of the trajectory of the supersonic projectile; and resolving the first and second shockwave-based estimates using the wake-based estimate to determine a disambiguated estimate of the trajectory of the supersonic projectile. collecting acoustic detection signals from an array of detection microphones; determining from at least one of the acoustic detection signals the existence of an acoustic signal characteristic of a supersonic projectile passing on a trajectory nearby; processing a shockwave portion of each acoustic detection signal, to determine first and second shockwave-based estimates of the trajectory of the supersonic projectile, characterised by processing a wake portion of each acoustic detection signal, the wake portion being after the shockwave portion, to determine a wake-based estimate of the trajectory of the supersonic projectile; and resolving the first and second shockwave-based estimates using the wake-based estimate to determine a disambiguated estimate of the trajectory of the supersonic projectile.
A hearing device comprising a BTE unit adapted to convert and process sound to an electrical signal, and a tubular element adapted to communicate said electrical signal to an earpiece, wherein said earpiece comprises a canal element adapted to provide a tight fit of said earpiece in an ear canal, wherein the canal element comprises a proximal surface, which faces towards said BTE unit, and a distal surface, which faces towards the tympanic membrane when the earpiece is placed in the ear canal, said canal element further having a bore adapted to receive a speaker element of said hearing device, wherein said speaker element is adapted to be inserted into said bore of said canal element from the proximal surface of the canal element, and said speaker element comprises a circumferential ridge section, and said earpiece further comprising a snapping element as an independent part, which snapping element is adapted to be inserted into said bore of said canal element from a distal surface of the canal element, wherein said circumferential ridge section of said speaker element is adapted to snap into engagement with the snapping element of said earpiece thereby maintaining the speaker element in the canal element, in an axially fixed position within the bore of the canal element, characterized in that the speaker element further comprises an O-ring adapted for providing a tight fit between the speaker element and the canal element.
Household appliance, in particular refrigeration appliance, having an electronic control apparatus which is embodied to control at least one function of the household appliance and which comprises an electronic printed circuit board and an input apparatus which is connected to the printed circuit board and has at least one input means and which is embodied to feed an assigned control signal to the printed circuit board on the basis of a manual actuation of the input means, wherein the input apparatus has a flexible support, on which the at least one input means is arranged, wherein the input apparatus has a support device, to which the flexible support is fastened in clamped manner by means of at least one fastening means acting in a form and/or force-fit manner and connected to the support device, wherein tensile forces act on the flexible support and extend the flexible support in at least one direction within a plane of the flexible support, wherein the support device has two rigid fastening means, which are embodied to hold a first end portion of the flexible support and the support device further has two resilient fastening means, which are embodied to hold a second end portion of the flexible support facing the first end portion, wherein the rigid fastening means are formed by two rigid pins moulded to the support device and projecting upward, and a circular, an oval or an elongated hole in the flexible support is assigned to each rigid pin of the support device, and two resilient fastening means on the support device are moulded to a front end of the support device facing the rigid fastening means and the resilient fastening means are formed by two upwardly projecting elastic pins moulded to the support device and a circular, an oval or elongated hole in the flexible support is assigned to each elastic pin of the support device and wherein each rigid and elastic pin penetrates one of the holes in a form-fit manner in each case such that on account of the resilient and/or elastic embodiment of the resilient fastening means, in particular of the elastic pins, a tensile force acting in the plane of the flexible support is applied to the clamped flexible support so that the flexible support extends in a very planar manner aligned with the top face of the support device.
A method comprising: (a) providing erythrocytes in a blood anti-coagulant solution; (b) dialyzing the erythrocyte-containing solution in (a) against a hypotonic dialysis buffer having an osmolality ranging from 50-70 mOsm/kg to cause pores in the erythrocyte to open; (c) combining the dialyzed solution in (b) with at least one fluorescent dye which is indocyanine green dye and a substance that inhibits destructive formation of ice crystals; and (d) combining the dye and substance containing solution in (c) with a resealing solution having an osmolality of at least 1000 mOsm/kg, thereby causing the erythrocyte pores to close and entrap the at least one fluorescent dye and the substance within the erythrocytes; further comprising the step of (d-1) freeze-drying the erythrocytes containing the entrapped fluorescent dye and the substance. (a) providing erythrocytes in a blood anti-coagulant solution; (b) dialyzing the erythrocyte-containing solution in (a) against a hypotonic dialysis buffer having an osmolality ranging from 50-70 mOsm/kg to cause pores in the erythrocyte to open; (c) combining the dialyzed solution in (b) with at least one fluorescent dye which is indocyanine green dye and a substance that inhibits destructive formation of ice crystals; and (d) combining the dye and substance containing solution in (c) with a resealing solution having an osmolality of at least 1000 mOsm/kg
Tyre for motorcycles, having a tread band comprising a central annular portion symmetrically located astride an equatorial plane (X-X); and two shoulder annular portions located on axially opposite sides relative to the central annular portion; the tread band comprises a plurality of grooves and sipes adapted to define a tread pattern; the tyre being characterized in that: the central annular portion having an axial extension not greater than 65% of the axial development of the tread band; the central annular portion comprises at least two first substantially longitudinal grooves (18, 19), opposed to each other relative to the equatorial plane X-X of the tyre; - the first substantially longitudinal grooves (18, 19) extend mainly in the central annular portion; - the void-to-rubber ratio defined by the sipes of the said central annular portion being smaller than the void-to-rubber ratio defined by the sipes of each shoulder annular portion. the central annular portion having an axial extension not greater than 65% of the axial development of the tread band; the central annular portion comprises at least two first substantially longitudinal grooves (18, 19), opposed to each other relative to the equatorial plane X-X of the tyre; - the first substantially longitudinal grooves (18, 19) extend mainly in the central annular portion; - the void-to-rubber ratio defined by the sipes of the said central annular portion being smaller than the void-to-rubber ratio defined by the sipes of each shoulder annular portion. - the first substantially longitudinal grooves (18, 19) extend mainly in the central annular portion; - the void-to-rubber ratio defined by the sipes of the said central annular portion being smaller than the void-to-rubber ratio defined by the sipes of each shoulder annular portion.
A support structure for a nacelle of a wind turbine, wherein the support structure comprises a main foundation (305, 805) and a rear frame comprising only two rear end beams (301, 303, 500) that are connected to the main foundation (305, 805) at one end and extend from the main foundation (305, 805), wherein the main foundation (305, 805) and each of the only two rear end beams (301, 303, 500) are connected in a connection area (309, 313, 801) by a single connection arrangement (307, 311, 511, 800, 900, 1000), wherein, the connection arrangement (307, 311, 511, 800, 900, 1000) comprises at least one curved section with a curved pattern of connection elements, such that a load on the connection area (309, 313, 801) is distributed within the connection arrangement (307, 311, 511, 800, 900, 1000).
Method for automatically monitoring a glue valve during its operation, preferably during the process of producing and/or packaging cigarettes or other smokable items, in particular in order to detect soiling of the outlet nozzle of the glue valve, in which an electrical capacitor field which is oriented in particular transversely or substantially transversely to the direction of movement of the portion of glue is created below the outlet nozzle of the glue valve with the aid of a capacitor (15, 24), in particular a stationary capacitor, with the result that portions of glue emerging from the glue valve must pass through the capacitor field, and in which metrology is used to monitor whether a disturbance in the capacitor field that changes the capacitance of the capacitor (15, 24) occurs, wherein it is determined, during the metrological monitoring, whether the function of the glue valve, in particular its discharge of glue, is disturbed, wherein at least one parameter characterizing the respective portion of glue or the respective discharge of the portion of glue, in particular the length of the portion of glue, the speed of the portion of glue, the direction of movement of the portion of glue or the quality of the portion of glue, is determined during the metrological monitoring, characterized in that an inhomogeneous capacitor field generated by an annular capacitor is created below the glue valve outlet nozzle, with the result that portions of glue emerging from the glue valve must pass through this capacitor field, or in that at least two inhomogeneous capacitor fields which follow one another in the direction of movement of the portions of glue emerging from the glue valve outlet nozzle and are generated by pairs of capacitor plates are created in each case below the glue valve outlet nozzle, with the result that portions of glue emerging from the glue valve must pass through these two capacitor fields, wherein the two capacitor fields are at an angle to one another, in particular at an angle of 90°.
A wireless power transmitter configured to transfer power to a wireless power receiver in a wireless manner, the transmitter comprising: a first coil configured to convert a current into a magnetic flux, a second coil configured to be adjacent to the first coil on a plane, a third coil configured to have a different shape from the first and second coils and have at least part thereof which overlaps the first and second coils, respectively, and a controller configured to determine a coil to be activated among the first, second and third coils, wherein the first and second coils are wound into a quadrilateral shape and comply with a first communication standard, and wherein the third coil is wound into a circular shape and complies with both the first communication standard and a second communication standard which resonant frequency is higher than that of the first communication standard. a first coil configured to convert a current into a magnetic flux, a second coil configured to be adjacent to the first coil on a plane, a third coil configured to have a different shape from the first and second coils and have at least part thereof which overlaps the first and second coils, respectively, and a controller configured to determine a coil to be activated among the first, second and third coils, wherein the first and second coils are wound into a quadrilateral shape and comply with a first communication standard, and wherein the third coil is wound into a circular shape and complies with both the first communication standard and a second communication standard which resonant frequency is higher than that of the first communication standard.
A method for assessing polymeric additive content A in a polymeric particle mixture, the method comprising: determining a concentration B of a metal cation in a polymeric particle mixture comprising parent polymeric particles and polymeric additive particles, wherein the metal cation is selected from alkali earth metals and alkali metals, other than sodium (Na), and the metal cation is capable of forming a water-soluble base; wherein the polymeric particle mixture is a toner polymeric particle mixture and the parent polymeric particles are toner parent polymeric particles; wherein the water-soluble base is selected from LiOH, KOH, CsOH, Sr 2, and Ba 2; determining a concentration C of the metal cation in the parent polymeric particles; determining a concentration D of the metal cation in the polymeric additive particles; and calculating a polymeric additive content, A using formula A = (B - C) / D; wherein determining the concentrations B, C, and D of the metal cation is carried out using ICP or XRF. determining a concentration B of a metal cation in a polymeric particle mixture comprising parent polymeric particles and polymeric additive particles, wherein the metal cation is selected from alkali earth metals and alkali metals, other than sodium (Na), and the metal cation is capable of forming a water-soluble base; wherein the polymeric particle mixture is a toner polymeric particle mixture and the parent polymeric particles are toner parent polymeric particles; wherein the water-soluble base is selected from LiOH, KOH, CsOH, Sr 2, and Ba 2; determining a concentration C of the metal cation in the parent polymeric particles; determining a concentration D of the metal cation in the polymeric additive particles; and calculating a polymeric additive content, A using formula A = (B - C) / D; wherein determining the concentrations B, C, and D of the metal cation is carried out using ICP or XRF.