mhurhangee/ep-ind-claims huggingface dataset:
An oil-based makeup cosmetic preparation comprising the following components (a), (b), (c) and (d) each in the following amount relative to the entire mass of the cosmetic preparation: (a) a partially cross-linked polyether-modified silicone, a partially cross-linked polyglycerin-modified silicone, or a combination thereof, in an amount of from 1 to 7.5 % by mass; (b) a low viscosity silicone oil with a viscosity of from 1 to 100 mm 2 /s at 25 °C in an amount of from 3 to 75 % by mass; (c) a cross-linked silicone powder in an amount of from 0.1 to 18 % by mass; and (d) an amorphous anhydrous silicic acid with an average particle size of from 0.001 to 0.1 μm in an amount of from 0.1 to 5 % by mass. (a) a partially cross-linked polyether-modified silicone, a partially cross-linked polyglycerin-modified silicone, or a combination thereof, in an amount of from 1 to 7.5 % by mass; (b) a low viscosity silicone oil with a viscosity of from 1 to 100 mm 2 /s at 25 °C in an amount of from 3 to 75 % by mass; (c) a cross-linked silicone powder in an amount of from 0.1 to 18 % by mass; and (d) an amorphous anhydrous silicic acid with an average particle size of from 0.001 to 0.1 μm in an amount of from 0.1 to 5 % by mass.
A commercial vehicle comprising: a plurality of wireless nodes (21, 22, 23) fixed to points on the surface of the vehicle and configured to cooperate to form a vehicle network having a mesh topology, wherein: lines of sights between adjacent ones of the wireless nodes are sensibly unobstructed and/or sensibly parallel to the surface of the vehicle; each wireless node is configured to function as at least one of a wireless sensor gateway for collecting data from sensors, an ad hoc network access point for serving mobile stations (60, 61, 62) in the vicinity of the vehicle, and an infrastructure node maintaining data links within the vehicle network; wireless nodes with different roles in the vehicle network have antennas with different radiation patterns; and the vehicle network is configured for routing data when the coverage offered to said mobile stations in the vehicle's vicinity dynamically changes as a result of vehicle maneuvering, wherein the data is routed using antennas that provide the best path; and a backhaul port configured to provide Internet connectivity to the vehicle network. a plurality of wireless nodes (21, 22, 23) fixed to points on the surface of the vehicle and configured to cooperate to form a vehicle network having a mesh topology, wherein: lines of sights between adjacent ones of the wireless nodes are sensibly unobstructed and/or sensibly parallel to the surface of the vehicle; each wireless node is configured to function as at least one of a wireless sensor gateway for collecting data from sensors, an ad hoc network access point for serving mobile stations (60, 61, 62) in the vicinity of the vehicle, and an infrastructure node maintaining data links within the vehicle network; wireless nodes with different roles in the vehicle network have antennas with different radiation patterns; and the vehicle network is configured for routing data when the coverage offered to said mobile stations in the vehicle's vicinity dynamically changes as a result of vehicle maneuvering, wherein the data is routed using antennas that provide the best path; and lines of sights between adjacent ones of the wireless nodes are sensibly unobstructed and/or sensibly parallel to the surface of the vehicle; each wireless node is configured to function as at least one of a wireless sensor gateway for collecting data from sensors, an ad hoc network access point for serving mobile stations (60, 61, 62) in the vicinity of the vehicle, and an infrastructure node maintaining data links within the vehicle network; wireless nodes with different roles in the vehicle network have antennas with different radiation patterns; and the vehicle network is configured for routing data when the coverage offered to said mobile stations in the vehicle's vicinity dynamically changes as a result of vehicle maneuvering, wherein the data is routed using antennas that provide the best path; and a backhaul port configured to provide Internet connectivity to the vehicle network.
A spin transfer torque magnetic storage element comprising: a magnetization fixed layer having a fixed magnetization, wherein a magnetization direction of the magnetization fixed layer is in a direction perpendicular to a film surface of the magnetization fixed layer; a magnetization free layer including first and second ferromagnetic layers (24a, 24c) laminated together with a coupling layer formed in between; a non-magnetic intermediate layer formed between the magnetization fixed layer and the magnetization free layer, characterized in that the easy magnetization axis of the first ferromagnetic layer is perpendicular to the film surface while the easy magnetization axis of the second ferromagnetic layer is parallel to the film surface, wherein, due to the magnetic coupling of the first and second ferromagnetic layers (24a, 24c), magnetization directions of the first and second ferromagnetic layers (24a, 24c) are not in a direction parallel to the film surface and are not in a direction perpendicular to the film surface. a magnetization fixed layer having a fixed magnetization, wherein a magnetization direction of the magnetization fixed layer is in a direction perpendicular to a film surface of the magnetization fixed layer; a magnetization free layer including first and second ferromagnetic layers (24a, 24c) laminated together with a coupling layer formed in between; a non-magnetic intermediate layer formed between the magnetization fixed layer and the magnetization free layer, characterized in that the easy magnetization axis of the first ferromagnetic layer is perpendicular to the film surface while the easy magnetization axis of the second ferromagnetic layer is parallel to the film surface, wherein, due to the magnetic coupling of the first and second ferromagnetic layers (24a, 24c), magnetization directions of the first and second ferromagnetic layers (24a, 24c) are not in a direction parallel to the film surface and are not in a direction perpendicular to the film surface.
An ink formulation, comprising: a first immiscible liquid, wherein the first immiscible liquid is selected from glycerol; water, optionally containing dissolved salts; ethylene glycol; propylene glycol; diethylene glycol; pentaerythritol; trimethylol propane; trimethylol ethane; a second immiscible liquid, wherein the second immiscible liquid is selected from propylene carbonate, dipropyl carbonate; tributyl phosphate; ethylhexyl acetate; isobornyl acetate; isoparaffins; aliphatic hydrocarbons; diethyl malonate, dimethyl malonate, and dipropylene glycol methyl ether acetate, wherein a mixture of the first and the second immiscible liquids is a phase-separated mixture; glass frit particles; and a third liquid facilitating formation of a mixture of the first and the second immiscible liquids into a single phase mixture, wherein the third liquid is selected from ((2,2-dimethyl-1,3-dioxolan-4-yl)methanol), dipropylene glycol methyl ether; propylene glycol methyl ether; propylene glycol butyl ether; diacetone alcohol; ethyl lactate; cyclohexanol; 2-methoxymethylethoxypropanol; and n-butanol, wherein the third liquid is suitable for letting a phase-separation of the first and second immiscible liquids occur during ink drying of the single phase mixture. a first immiscible liquid, wherein the first immiscible liquid is selected from glycerol; water, optionally containing dissolved salts; ethylene glycol; propylene glycol; diethylene glycol; pentaerythritol; trimethylol propane; trimethylol ethane; a second immiscible liquid, wherein the second immiscible liquid is selected from propylene carbonate, dipropyl carbonate; tributyl phosphate; ethylhexyl acetate; isobornyl acetate; isoparaffins; aliphatic hydrocarbons; diethyl malonate, dimethyl malonate, and dipropylene glycol methyl ether acetate, wherein a mixture of the first and the second immiscible liquids is a phase-separated mixture; glass frit particles; and a third liquid facilitating formation of a mixture of the first and the second immiscible liquids into a single phase mixture, wherein the third liquid is selected from ((2,2-dimethyl-1,3-dioxolan-4-yl)methanol), dipropylene glycol methyl ether; propylene glycol methyl ether; propylene glycol butyl ether; diacetone alcohol; ethyl lactate; cyclohexanol; 2-methoxymethylethoxypropanol; and n-butanol, wherein the third liquid is suitable for letting a phase-separation of the first and second immiscible liquids occur during ink drying of the single phase mixture.
An apparatus (10, 200, 300, 400, 500, 600) for melting and refining molten glass that includes: a melting chamber; a refining chamber downstream of said melting chamber; a throat between said melting chamber and said refining chamber; and a porous body (30, 31, 32, 33, 34, 35, 36, 40, 140, 214, 322, 410, 516, 620, 622, 624) disposed at least partially within at least one of said melting chamber, said refining chamber, and said throat, and being at least partially submerged within the molten glass, said porous body including: an inlet (42, 216); an outlet (44, 218) in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; a plurality of pores (46, 46', 146) through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls (48, 150) having wall surfaces (50, 148) that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass; and a vacuum pump and evacuation system to expose a surface of said porous body to a sub-atmospheric pressure environment. a melting chamber; a refining chamber downstream of said melting chamber; a throat between said melting chamber and said refining chamber; and a porous body (30, 31, 32, 33, 34, 35, 36, 40, 140, 214, 322, 410, 516, 620, 622, 624) disposed at least partially within at least one of said melting chamber, said refining chamber, and said throat, and being at least partially submerged within the molten glass, said porous body including: an inlet (42, 216); an outlet (44, 218) in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; a plurality of pores (46, 46', 146) through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls (48, 150) having wall surfaces (50, 148) that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass; and a vacuum pump and evacuation system to expose a surface of said porous body to a sub-atmospheric pressure environment. an inlet (42, 216); an outlet (44, 218) in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; a plurality of pores (46, 46', 146) through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls (48, 150) having wall surfaces (50, 148) that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass; and a vacuum pump and evacuation system to expose a surface of said porous body to a sub-atmospheric pressure environment.
A battery device (100a, 100b) comprising: a plurality of power converters (111, 112), a power storage unit connected between the power converters (111, 112), and a plurality of power input/output ports (141, 142) connecting the power storage unit to each of the power converters (111, 112), wherein the power converters (111, 112) and the power storage unit are configured to convert power from a first power standard to a second power standard by transferring the power through the power storage unit, wherein a first one of the power converters is adapted to be connected to a first power cell configured according to the first power standard, and a second one of the power converters is adapted to be connected to a second power cell configured according to the second power standard; the battery device (100a, 100b) characterised by further comprising a communication control unit connected to each of the power converters (111, 112), wherein the communication control unit is configured to relay communication between the first power cell and the second power cell, and to convert between any differences in communication protocol between the first power cell and the second power cell. a plurality of power converters (111, 112), a power storage unit connected between the power converters (111, 112), and a plurality of power input/output ports (141, 142) connecting the power storage unit to each of the power converters (111, 112), wherein the power converters (111, 112) and the power storage unit are configured to convert power from a first power standard to a second power standard by transferring the power through the power storage unit, wherein a first one of the power converters is adapted to be connected to a first power cell configured according to the first power standard, and a second one of the power converters is adapted to be connected to a second power cell configured according to the second power standard; the battery device (100a, 100b) characterised by further comprising a communication control unit connected to each of the power converters (111, 112), wherein the communication control unit is configured to relay communication between the first power cell and the second power cell, and to convert between any differences in communication protocol between the first power cell and the second power cell.
A device of a convertible vehicle with an element (12, 13) which is movable during a hood movement, is connected to a further element by means of an articulation means (14, 15) and is pivotable relative to the further element about a pivot axis, wherein a spring means is provided which applies force to the movable element (12, 13) relative to the further element for pivoting about the pivot axis, wherein the spring means is arranged with its axis offset with respect to the pivot axis of the movable element (12, 13), characterised in that the articulation means (14, 15) is designed as a 6-joint linkage or as an overconstrained 4-joint parallelogram and comprises a first lever and a second lever which are each connected to one another in an articulated manner via a first coupling element and a second coupling element, wherein the movable element (12, 13) is mounted relative to the further element in a first point of articulation of the first lever forming the pivot axis, and the spring means is arranged in the region of a second point of articulation of the second lever, and a transmission of a rotational movement of the second lever about the second point of articulation caused by the spring means to a rotational movement of the first lever about the first point of articulation is effected by the articulation means (14, 15).
An automated method for uniform thin-layer cell sample slide preparation without human intervention, the method being characterised in comprising the steps of: measuring a cell sample to derive a cell sample measurement, wherein measuring the cell sample comprises measuring a size of a cell pellet of the cell sample; determining an estimation of total cellularity of the cell sample based upon the cell sample measurement, wherein the estimation of total cellularity of the cell sample varies depending on the measured size of a cell pellet of the cell sample within a centrifuge tube; dispensing a differential volume of diluent to the cell sample based upon the estimation of total cellularity of the cell sample to form a cell suspension, wherein an amount of the differential volume of diluent varies depending on the estimation of total cellularity of the cell sample; and dispensing the cell suspension on a sample slide suitable to form a thin-layer sample slide preparation. measuring a cell sample to derive a cell sample measurement, wherein measuring the cell sample comprises measuring a size of a cell pellet of the cell sample; determining an estimation of total cellularity of the cell sample based upon the cell sample measurement, wherein the estimation of total cellularity of the cell sample varies depending on the measured size of a cell pellet of the cell sample within a centrifuge tube; dispensing a differential volume of diluent to the cell sample based upon the estimation of total cellularity of the cell sample to form a cell suspension, wherein an amount of the differential volume of diluent varies depending on the estimation of total cellularity of the cell sample; and dispensing the cell suspension on a sample slide suitable to form a thin-layer sample slide preparation.
Thermally stabilised resonant electro-optic modulator, comprising a resonant electro-optic modulator unit, the resonant electro-optic modulator unit comprising a first ring-shaped wave guide and a second longitudinal wave guide adjacent to the first wave guide, a voltage unit for applying a first and a second voltage over the first ring-shaped wave guide, the first and the second wave guides (3, 4) being arranged such that light with a wavelength transmitted through the second wave guide is differently attenuated by resonance in the first wave guide by application of either the first or the second voltage allowing a higher throughput of light with that wavelength through the second wave guide along the first wave guide at the first voltage than at the second voltage, a light sensor for determining the intensity of the light transmitted through the second wave guide after having passed along the first wave guide, a thermal stabilisation unit for adjusting the temperature of the first wave guide and a temperature control unit for controlling the thermal stabilisation unit in response to a signal representing the intensity measured by the light sensor, characterised in that the electro-optic modulator further comprises means (10,11,12,13) for separately determining a first signal representing a first intensity measured by the light sensor at the application of the first voltage and a second signal representing a second intensity measured by the light sensor at the application of the second voltage; wherein the temperature control unit is arranged to receive said first and second signals and is arranged to control the thermal stabilisation unit in response to the separate changes in function of time of the first and the second measured intensities respectively.
An operation method of a watch type terminal including a plurality of vibration elements, the operation method comprising: acquiring event information; and operating one or more vibration elements among the plurality of vibration elements in a vibration alarm pattern corresponding to the acquired event information, wherein the plurality of vibration elements are provided in a main body and a band of the watch type terminal, characterized in that the acquired event information includes time-related event information; and operating one or more vibration elements among the plurality of vibration elements comprises: operating a first vibration element among the plurality of vibration elements located at a position corresponding to an event time, based on the acquired time-related event information; and operating two vibration elements (610, 620) among the plurality of vibration elements, when there is no vibration element that corresponds to a time corresponding to the acquired time-related event information. acquiring event information; and operating one or more vibration elements among the plurality of vibration elements in a vibration alarm pattern corresponding to the acquired event information, wherein the plurality of vibration elements are provided in a main body and a band of the watch type terminal, characterized in that the acquired event information includes time-related event information; and operating one or more vibration elements among the plurality of vibration elements comprises: operating a first vibration element among the plurality of vibration elements located at a position corresponding to an event time, based on the acquired time-related event information; and operating two vibration elements (610, 620) among the plurality of vibration elements, when there is no vibration element that corresponds to a time corresponding to the acquired time-related event information. operating a first vibration element among the plurality of vibration elements located at a position corresponding to an event time, based on the acquired time-related event information; and operating two vibration elements (610, 620) among the plurality of vibration elements, when there is no vibration element that corresponds to a time corresponding to the acquired time-related event information.
A drug delivery device with an element configured for biasing a cartridge, preferably a removable cartridge, in a cartridge housing against its inner surface, wherein the cartridge housing has a longitudinal axis and wherein at least one portion of said element is configured to be self retained by an internal surface of said drug delivery device where said element comprises a first connection side loop and a second connection side loop flexibly coupled to said first connection side loop, said first and said second connection side loops (42, 44) are disposed at opposite ends of the element and are flexible in a direction radial to the longitudinal axis of the cartridge housing and are characterised in that they allow engaging an inner surface of said drug delivery device for self retention within said drug delivery device.
A method for manufacturing crystals of silicon carbide from gaseous phase by heating a monocrystalline seed in a form of a wafer up to the temperature of crystallization in a graphite growth chamber filled with an inert gas or with a gas ensuring doping of the crystal, on the bottom of which chamber a feedstock is placed, wherein said monocrystalline seed in a form of a wafer, mounted in a ring of a high purity graphite such that only its edge abuts directly with the ring, the seed is placed in the upper part of the growth chamber filled with an inert gas or with a gas ensuring doping of the crystal, with the feedstock deposited on its bottom, after which the seed is heated up to the crystallization temperature at the condition of a high pressure of the gas filling the chamber and a higher temperature in the lower part of the chamber is maintained while preserving the temperature difference between the feedstock and the seed in the range from 50°C to 300°C and preferably parabolic character of the axial temperature profile, characterized in that a cerium-containing compound is added to the environment of the growth process, said cerium-containing compound being placed outside the growth chamber, in the vicinity of the seed.
A tablet comprising up to 5 mg crystalline apixaban particles having a D 90 less than 89 μm as measured by laser light scattering, and a pharmaceutically acceptable diluent or carrier, wherein the formulation exhibits dissolution properties such that an amount of the drug equivalent to at least 77% dissolves within 30 minutes, wherein the dissolution test is performed in an aqueous media buffered to a pH range 1 to 7.4 and controlled at 37° C.