mhurhangee/ep-ind-claims huggingface dataset:
Mixer system for producing aqueous refinish compositions, comprising • at least one component as pigment-free base varnish, comprising at least one physically curing polyurethane or a self-crosslinking polyurethane or an externally crosslinking polyurethane • at least one component as tinting base, comprising at least one physically drying polyurethane or a self-crosslinking polyurethane or an externally crosslinking polyurethane and at least one color-imparting and/or optical-effect-imparting pigment • at least one component as rheology module, comprising at least one inorganic and/or organic thickener, characterized in that at least one of the components,, or, comprises an aqueous dispersion comprising at least one polymer SCS, and at least one of the components,, or, comprises at least one aliphatic monoalcohol having 5 carbon atoms and/or at least one aliphatic monoalcohol having 6 carbon atoms, the aqueous dispersion being prepared by the successive radical emulsion polymerization of three mutually different monomer mixtures,, and of olefinically unsaturated monomers, where optionally at least one of the monomer mixtures,, or, comprises at least one polyurethane containing at least one olefinically unsaturated group, and where, before the optional polyurethane is admixed to at least one of the monomer mixtures, or, the monomer mixture comprises at least 50 wt% of monomers having a solubility in water of less than 0.5 g/l at 25°C, and a polymer (a) which is prepared from the mixture possesses a glass transition temperature of 10 to 65°C, the monomer mixture comprises at least one polyunsaturated monomer, and a polymer (b) which is prepared from the mixture possesses a glass transition temperature of -35 to 15°C, a polymer (c) which is prepared from the monomer mixture possesses a glass transition temperature of -50 to 15°C, and where i. first the monomer mixture is polymerized, ii. then the monomer mixture is polymerized in the presence of the polymer prepared under i., and iii. thereafter the monomer mixture is polymerized in the presence of the polymer prepared under ii. • at least one component as pigment-free base varnish, comprising at least one physically curing polyurethane or a self-crosslinking polyurethane or an externally crosslinking polyurethane • at least one component as tinting base, comprising at least one physically drying polyurethane or a self-crosslinking polyurethane or an externally crosslinking polyurethane and at least one color-imparting and/or optical-effect-imparting pigment • at least one component as rheology module, comprising at least one inorganic and/or organic thickener, i. first the monomer mixture is polymerized, ii. then the monomer mixture is polymerized in the presence of the polymer prepared under i., and iii. thereafter the monomer mixture is polymerized in the presence of the polymer prepared under ii.
A bearing for guiding a loudspeaker in translation along an axis X-X, the bearing comprising: - an X-X axis shaft; - an outer casing in which the shaft is received sliding by a translational guide along axis X-X; and - an annular seal interposed between the casing and the shaft, the seal having a smooth and continuous cylindrical internal surface of axis X-X in addition to the external surface of the shaft to cooperate with the external surface of the shaft to form an internal plain bearing, characterised in that the seal is mounted so as to rotate relative to the outer casing about the axis X-X and in that it comprises motor means for rotating the seal relative to the outer casing and the shaft about the axis X-X. - an X-X axis shaft; - an outer casing in which the shaft is received sliding by a translational guide along axis X-X; and - an annular seal interposed between the casing and the shaft, the seal having a smooth and continuous cylindrical internal surface of axis X-X in addition to the external surface of the shaft to cooperate with the external surface of the shaft to form an internal plain bearing,
A data sending method, comprising: determining, by a first device, a first time-frequency resource used to transmit first data, wherein the first time-frequency resource occupies at least two subbands in frequency domain, the at least two subbands comprise a first subband and a second subband, and the first data is data obtained after a first transport block is encoded; determining, by the first device from the first time-frequency resource, a second time-frequency resource that can be used by the first device by performing channel detection on the at least two subbands, wherein the second time-frequency resource occupies K of the at least two subbands in frequency domain, K≥1; and sending, by the first device, the first data by using the second time-frequency resource; wherein the first data comprises at least two pieces of subdata, and the at least two pieces of subdata comprise the first subdata and the second subdata; the first transport block comprises a code block, the first subdata comprises high-priority data obtained after the code block is encoded, and the second subdata comprises low-priority data obtained after the code block is encoded, wherein the high-priority data comprises data formed by continuous bit streams output first after the code block is encoded, and the low-priority data comprises data formed by continuous bit streams output subsequently after the code block is encoded, with the continuous bit streams output first after the code block is encoded located in front of the continuous bit streams output subsequently after the code block is encoded. determining, by a first device, a first time-frequency resource used to transmit first data, wherein the first time-frequency resource occupies at least two subbands in frequency domain, the at least two subbands comprise a first subband and a second subband, and the first data is data obtained after a first transport block is encoded; determining, by the first device from the first time-frequency resource, a second time-frequency resource that can be used by the first device by performing channel detection on the at least two subbands, wherein the second time-frequency resource occupies K of the at least two subbands in frequency domain, K≥1; and sending, by the first device, the first data by using the second time-frequency resource; wherein the first data comprises at least two pieces of subdata, and the at least two pieces of subdata comprise the first subdata and the second subdata; the first transport block comprises a code block, the first subdata comprises high-priority data obtained after the code block is encoded, and the second subdata comprises low-priority data obtained after the code block is encoded, wherein the high-priority data comprises data formed by continuous bit streams output first after the code block is encoded, and the low-priority data comprises data formed by continuous bit streams output subsequently after the code block is encoded, with the continuous bit streams output first after the code block is encoded located in front of the continuous bit streams output subsequently after the code block is encoded.
A transparent display comprising: a transparent substrate; at least one light source, in optical communication with the transparent substrate, to illuminate the transparent substrate with at least one monochromatic beam at a first wavelength in visible spectrum; and characterized in that the transparent display further comprises: at least one nanoparticle, disposed on the transparent substrate, to scatter the at least one monochromatic beam in the visible spectrum and to transmit ambient light at other wavelengths in the visible spectrum. a transparent substrate; at least one light source, in optical communication with the transparent substrate, to illuminate the transparent substrate with at least one monochromatic beam at a first wavelength in visible spectrum; and characterized in that the transparent display further comprises: at least one nanoparticle, disposed on the transparent substrate, to scatter the at least one monochromatic beam in the visible spectrum and to transmit ambient light at other wavelengths in the visible spectrum. at least one nanoparticle, disposed on the transparent substrate, to scatter the at least one monochromatic beam in the visible spectrum and to transmit ambient light at other wavelengths in the visible spectrum.
A spacecraft comprising: a body, a radiator panel, and a heat dissipating unit thermally coupled with the radiator panel; wherein the spacecraft is configured to operate in an orbital plane, such that the spacecraft has a yaw axis within the orbital plane and directed from a spacecraft coordinate system origin toward nadir, a pitch axis orthogonal to the orbital plane and passing through the spacecraft coordinate system origin, and a roll axis orthogonal to the pitch axis and the yaw axis and passing through the spacecraft coordinate system origin; and the radiator panel includes a surface area external to an east or west facing external surface of the body, a first portion of the surface area facing a first direction that is parallel to the roll axis, and a second portion of the surface area facing a second direction that has a component parallel to the yaw axis. a body, a radiator panel, and a heat dissipating unit thermally coupled with the radiator panel; wherein the spacecraft is configured to operate in an orbital plane, such that the spacecraft has a yaw axis within the orbital plane and directed from a spacecraft coordinate system origin toward nadir, a pitch axis orthogonal to the orbital plane and passing through the spacecraft coordinate system origin, and a roll axis orthogonal to the pitch axis and the yaw axis and passing through the spacecraft coordinate system origin; and the radiator panel includes a surface area external to an east or west facing external surface of the body, a first portion of the surface area facing a first direction that is parallel to the roll axis, and a second portion of the surface area facing a second direction that has a component parallel to the yaw axis.
A payload activation device characterized in that it comprises a camera having a fixed focal length, arranged to capture an image of an object on a platform for carrying a payload having the payload activation device, wherein when the payload is in a first position relative to the platform the image of the object is in a first focussed state and when the payload is in a second position relative to the platform the image of the object is in a second focussed state; and a processor configured to determine whether the image of the object is in the first focussed state or the second focussed state and to cause actuation of an activation mechanism within the payload when the image of object is in the second focussed state to activate the payload. a camera having a fixed focal length, arranged to capture an image of an object on a platform for carrying a payload having the payload activation device, wherein when the payload is in a first position relative to the platform the image of the object is in a first focussed state and when the payload is in a second position relative to the platform the image of the object is in a second focussed state; and a processor configured to determine whether the image of the object is in the first focussed state or the second focussed state and to cause actuation of an activation mechanism within the payload when the image of object is in the second focussed state to activate the payload.
Driver's cab of a commercial vehicle, comprising a storage container which is designed to be positioned in a movable manner outside the driver's cab and within an interior of the driver's cab and to be automatically transported from the outside of the driver's cab into the interior of the driver's cab by means of a lifting system, wherein the storage container can be mechanically rigidly connected to a first axis of rotation in order to perform a pivoting movement, said axis of rotation being able to be fixed directly to a floor surface of the driver's cab and being pivotable about a vertical axis, wherein the first axis of rotation can be connected to a third axis of rotation, wherein the storage container can be connected to a second axis of rotation which is arranged so as to be pivotable about the third axis of rotation, wherein the first, the second and the third axes of rotation are each arranged perpendicularly to the floor surface, and wherein upper end portions (9c1, 9b1) of the second and the third axis of rotation are arranged so as to be at the same height and are interconnected by means of a connecting element.
A spline coupling comprising: a male spline member having a plurality of male spline teeth; a female spline member having a plurality of female spline teeth complementary to and engaged with the plurality of male spline teeth; and a drainage hole (26, 26b) in a top land surface of the one or more of the plurality of female spline teeth and passing through the one or more of the plurality of female spline teeth, characterized in that: one or more of the plurality of female spline teeth has a tooth height (H b) that is lesser than a tooth height (H a) of another one or more of the plurality of female spline teeth, the tooth height (H b) of the one or more of the plurality of female spline teeth defined by a top land surface of the one or more of the plurality of female spline teeth, the tooth height (H a) of the other one or more of the plurality of female spline teeth defined by a top land surface of the other one or more of the plurality of female spline teeth a male spline member having a plurality of male spline teeth; a female spline member having a plurality of female spline teeth complementary to and engaged with the plurality of male spline teeth; and a drainage hole (26, 26b) in a top land surface of the one or more of the plurality of female spline teeth and passing through the one or more of the plurality of female spline teeth, characterized in that: one or more of the plurality of female spline teeth has a tooth height (H b) that is lesser than a tooth height (H a) of another one or more of the plurality of female spline teeth, the tooth height (H b) of the one or more of the plurality of female spline teeth defined by a top land surface of the one or more of the plurality of female spline teeth, the tooth height (H a) of the other one or more of the plurality of female spline teeth defined by a top land surface of the other one or more of the plurality of female spline teeth the tooth height (H b) of the one or more of the plurality of female spline teeth defined by a top land surface of the one or more of the plurality of female spline teeth, the tooth height (H a) of the other one or more of the plurality of female spline teeth defined by a top land surface of the other one or more of the plurality of female spline teeth
Process for cryogenic separation of air in a separation column system comprising a high-pressure column, a low-pressure column, a main condenser, which is a condenser-evaporator having a liquefaction space and an evaporation space and brings high-pressure column top and low-pressure column bottom in heat-exchange relationship, and a crude argon column having an argon top condenser, which is a condenser-evaporator having a liquefaction space and an evaporation space, comprising - compressing a total feed air stream, - cooling the compressed feed air in a main heat exchanger, - introducing at least a portion of the feed air into the high-pressure column, - introducing at least one fraction (24, 26) from the high-pressure column directly or indirectly to the low-pressure column, - introducing an argon transition fraction (46, 48) from the low-pressure column to the crude argon column, - introducing a liquid cooling fraction from the high-pressure column into the evaporation space of the argon top condenser, - withdrawing a gaseous oxygen stream from the low-pressure column, - mixing the gaseous oxygen stream with another gas stream having a higher nitrogen content than the gaseous oxygen stream to form a mixed gas stream, - warming the mixed gas stream in the main heat exchanger, - work expanding the warmed mixed gas stream in an expansion machine and - completely warming the expanded mixed gas stream in the main heat exchanger, characterized in that the above stream (29, 31, 71) having a higher nitrogen content is withdrawn from the evaporation space of the argon top condenser. - compressing a total feed air stream, - cooling the compressed feed air in a main heat exchanger, - introducing at least a portion of the feed air into the high-pressure column, - introducing at least one fraction (24, 26) from the high-pressure column directly or indirectly to the low-pressure column, - introducing an argon transition fraction (46, 48) from the low-pressure column to the crude argon column, - introducing a liquid cooling fraction from the high-pressure column into the evaporation space of the argon top condenser, - withdrawing a gaseous oxygen stream from the low-pressure column, - mixing the gaseous oxygen stream with another gas stream having a higher nitrogen content than the gaseous oxygen stream to form a mixed gas stream, - warming the mixed gas stream in the main heat exchanger, - work expanding the warmed mixed gas stream in an expansion machine and - completely warming the expanded mixed gas stream in the main heat exchanger,
A bandwidth configuration method, comprising: receiving, by user equipment, UE, at least two pieces of virtual bandwidth configuration information from a base station, wherein each of the at least two pieces of virtual bandwidth configuration information is used for indicating a configuration of a virtual bandwidth, in a one-to-one relationship; receiving, by the UE, first configuration information from the base station, wherein the first configuration information is used for instructing the UE to perform signal reception or signal processing according to a first virtual bandwidth, wherein the first virtual bandwidth is one of at least two virtual bandwidths, and configurations of the at least two virtual bandwidths are indicated by the at least two pieces of virtual bandwidth configuration information; and performing, by the UE, signal reception and/or signal processing according to the first virtual bandwidth instructed by the first configuration information, wherein each virtual bandwidth of the at least two virtual bandwidths is a part or all of a downlink maximum available bandwidth or a downlink transmission bandwidth, and the downlink maximum available bandwidth is a maximum bandwidth available for downlink transmission. receiving, by user equipment, UE, at least two pieces of virtual bandwidth configuration information from a base station, wherein each of the at least two pieces of virtual bandwidth configuration information is used for indicating a configuration of a virtual bandwidth, in a one-to-one relationship; receiving, by the UE, first configuration information from the base station, wherein the first configuration information is used for instructing the UE to perform signal reception or signal processing according to a first virtual bandwidth, wherein the first virtual bandwidth is one of at least two virtual bandwidths, and configurations of the at least two virtual bandwidths are indicated by the at least two pieces of virtual bandwidth configuration information; and performing, by the UE, signal reception and/or signal processing according to the first virtual bandwidth instructed by the first configuration information, wherein each virtual bandwidth of the at least two virtual bandwidths is a part or all of a downlink maximum available bandwidth or a downlink transmission bandwidth, and the downlink maximum available bandwidth is a maximum bandwidth available for downlink transmission.
Method for optimizing a User Equipment Packet Data Network, UE PDN, connection when said UE enters a Visited Public Land Mobile Network, VPLMN, characterized by automatically allocating a default bearer to said UE in said VPLMN during a Tracking Area Update procedure, wherein said allocation of a default bearer to the UE in the VPLMN is initiated by the UE sending a Tracking Area Update Request message to the VPLMN, said Tracking Area Update Request message comprising a PDN address allocation parameter.
Unit for processing blanks of hollow bodies made of plastic material, which comprises a chamber in which the blanks file along a predetermined path, this chamber being delimited on either side of the path by two side walls (3, 4) having internal faces facing one another, this chamber comprising a main section in which at least one of the walls (3, 4) is provided with a plurality of sources of electromagnetic radiation, the side walls ( 3, 4) defining between them, at at least one end of the chamber, an opening for the passage of the blanks, this chamber also comprising at least one optical containment section, which extends between the main section and the opening, and in which the internal faces of the side walls ( 3, 4) are optically reflecting and converge towards the opening, this processing unit being equipped with a cooling device, characterized in that said cooling device is a device for cooling the side walls ( 3, 4), at least in the containment section.