mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a base station to communicate system information in a mobile telecommunications system, the method comprising maintaining primary system information; maintaining secondary system information; periodically broadcasting the primary system information; in response to a trigger event, broadcasting the secondary system information, wherein the broadcast primary system information includes scheduling information relating to the broadcasting of the secondary system information; receiving from a user equipment, as a trigger event, a request for secondary system information; in response to receiving the request, broadcasting primary system information including new scheduling information and broadcasting the secondary system information, after the primary system information is broadcast, in accordance with the new scheduling information.
Flame arrester having a cylindrical flame barrier (8, 8', 21) installed in a wall (6, 6') which separates an at-risk region from an external region, said flame barrier (8, 8', 21) having a cross-sectional area having a multiplicity of through-flow gaps and a height determining the length of the through-flow gaps, and also having an underside directed toward the explosive region and a top side directed toward the external region, wherein the flame barrier (8, 8', 21) is inserted into an opening (7, 7') in the wall (6, 6'), said opening (7, 7') corresponding to the cross-sectional areas of the flame barrier (8, 8', 21), characterized in that the flame barrier (8, 8', 21) is produced by circular or spiral coiling together of a plain metal strip and a corrugated metal strip and in that the flame barrier (8, 8', 21) projects beyond the wall (6, 6') with at least a fifth of its height into the external region.
A film comprising a polyethylene polymer having a melt index (as measured according to ASTM D1238, Condition E) from 0.1 g/10 min. to 0.5 g/10 min., a density (as measured by the method provided in the description) from 0.910 g/cm 3 to 0.917 g/cm 3 and a melt strength (as measured by the method provided in the description) of at least 5 cN at 190°C, wherein the film has: (a) MD 1% Secant Modulus (as measured according to ASTM D-882) of less than 400 MPa, (b) Elmendorf Tear MD (as measured according to ASTM D-1922) of at least 3937 g/mm (100 g/mil), (c) Dart drop (as measured according to ASTM D-1709, Method A) of at least 7874 g/mm (200 g/mil), (d) Puncture resistance break energy (as measured by the method provided in the description) of at least 120 mJ/μm, (e) TD shrink (as measured by the method provided in the description) at 150°C of at least 40% or at least 30% at 120°C, and (f) Haze value (as measured according to ASTM D-1003) of less than 40%. (a) MD 1% Secant Modulus (as measured according to ASTM D-882) of less than 400 MPa, (b) Elmendorf Tear MD (as measured according to ASTM D-1922) of at least 3937 g/mm (100 g/mil), (c) Dart drop (as measured according to ASTM D-1709, Method A) of at least 7874 g/mm (200 g/mil), (d) Puncture resistance break energy (as measured by the method provided in the description) of at least 120 mJ/μm, (e) TD shrink (as measured by the method provided in the description) at 150°C of at least 40% or at least 30% at 120°C, and (f) Haze value (as measured according to ASTM D-1003) of less than 40%.
The use of a flavouring mixture comprising: a) two or three esters of formula R 1 -COO-R 2; b) two or three ketones of formula R 3 -CO-R 4; and c) two or three aldehydes of formula R 5 -CHO; wherein R 1, R 3, and R 4 are C 1-5 linear alkyl groups; R 2 is a C 1-5 linear or branched alkyl group; and R 5 is a C 2-9 linear alkyl group; for flavouring animal creep feed compositions. a) two or three esters of formula R 1 -COO-R 2; b) two or three ketones of formula R 3 -CO-R 4; and c) two or three aldehydes of formula R 5 -CHO;
A transperineal stepper (800, 900), comprising: an acoustic probe including a first end which is insertable into a patient; a probe mounting structure (830, 930) which holds the acoustic probe; a base (850, 950); and characterized by: a gearless longitudinal translation device (400, 600) connected to, and enabling longitudinal movement of, the probe mounting structure and the acoustic probe with respect to the base, wherein the gearless longitudinal translation device comprises: a first friction wheel (330, 430, 630) having at least a first beveled side surface (331, 431, 631), and a second friction wheel (332, 432, 632) having at least a second beveled side surface (333, 433, 633); and a first linear rod (210, 610, 810, 910) disposed between the first and second friction wheels and in contact with the first and second beveled surfaces, wherein a displacement of the first linear rod longitudinally with respect to the first and second friction wheels causes the acoustic probe and the probe mounting structure to be longitudinally displaced with respect to the base. an acoustic probe including a first end which is insertable into a patient; a probe mounting structure (830, 930) which holds the acoustic probe; a base (850, 950); and characterized by: a gearless longitudinal translation device (400, 600) connected to, and enabling longitudinal movement of, the probe mounting structure and the acoustic probe with respect to the base, wherein the gearless longitudinal translation device comprises: a first friction wheel (330, 430, 630) having at least a first beveled side surface (331, 431, 631), and a second friction wheel (332, 432, 632) having at least a second beveled side surface (333, 433, 633); and a first linear rod (210, 610, 810, 910) disposed between the first and second friction wheels and in contact with the first and second beveled surfaces, wherein a displacement of the first linear rod longitudinally with respect to the first and second friction wheels causes the acoustic probe and the probe mounting structure to be longitudinally displaced with respect to the base. a first friction wheel (330, 430, 630) having at least a first beveled side surface (331, 431, 631), and a second friction wheel (332, 432, 632) having at least a second beveled side surface (333, 433, 633); and a first linear rod (210, 610, 810, 910) disposed between the first and second friction wheels and in contact with the first and second beveled surfaces, wherein a displacement of the first linear rod longitudinally with respect to the first and second friction wheels causes the acoustic probe and the probe mounting structure to be longitudinally displaced with respect to the base.
A gimbal, comprising: an electric motor; and a rotation bracket connected to the electric motor and driven by the electric motor to rotate, wherein the electric motor includes: a first body; a second body; a magnetic ring disposed in the first body; a position sensing assembly disposed in the second body; and a mechanical limit mechanism disposed between the first body and the second body to define a limiting position of the first body when rotating relative to the second body, wherein: a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal. an electric motor; and a rotation bracket connected to the electric motor and driven by the electric motor to rotate, wherein the electric motor includes: a first body; a second body; a magnetic ring disposed in the first body; a position sensing assembly disposed in the second body; and a mechanical limit mechanism disposed between the first body and the second body to define a limiting position of the first body when rotating relative to the second body, wherein: a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal. a first body; a second body; a magnetic ring disposed in the first body; a position sensing assembly disposed in the second body; and a mechanical limit mechanism disposed between the first body and the second body to define a limiting position of the first body when rotating relative to the second body, wherein: a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal. a positioning structure is formed on the magnetic ring in a position where a pre-determined magnetic field of the magnetic ring is located; and when the first body rotates relative to the second body to the limiting position, the position sensing assembly is capable of sensing a pre-determined magnetic field signal.
Flushing cistern having a container for storing flushing water, in which a discharge valve is arranged, having an actuating device which has an actuating plate in front of an inspection opening, said actuating plate being arranged on a fastening frame and being capable of triggering flushing, and having means (16, 17) for introducing an additive into the aforementioned container, wherein the inspection opening has arranged in front of it a bearing device which can be used to move the actuating plate out of the operating position into an introduction position, in which the inspection opening is accessible in order for the additive to be introduced, characterized in that the inspection opening has arranged in it a slide, on which the additive can slide into a collecting container, and in that the actuating plate has arranged on its inner side an introduction vessel for the additive, it being possible for the additive to be positioned in said vessel and for the latter to transfer the additive to the slide when the actuating plate is moved from the introduction position into the operating position.
A welding wire feeder comprising: a welding wire feed drive configured to drive welding wire towards a welding application; wire feed control circuitry coupled to the welding wire feed drive and configured to control the drive of welding wire towards the welding application; and an operational component that comprises the welding wire feed drive, the wire feed control circuitry, or any combination thereof, as well as power conversion circuitry configured to receive the input power from a welding power source and to convert the input power to welding output; characterized by a power relay configured to receive input power and to close to convey the input power to said operational component of the welding wire feeder; bypass circuitry coupled in parallel to the power relay and configured to carry the input power during opening and closing of the power relay; and control circuitry coupled to the power relay and to the bypass circuitry, wherein the control circuitry is configured to apply signals to the power relay to close and to open a first current carrying path of the input power to the operational component through the power relay, and the control circuitry is configured to apply the signals to the bypass circuitry to close and to open a second current carrying path of the input power to the operational component through the bypass circuitry in coordination with the power relay, as well as in coordination with closing of the power relay. a welding wire feed drive configured to drive welding wire towards a welding application; wire feed control circuitry coupled to the welding wire feed drive and configured to control the drive of welding wire towards the welding application; and an operational component that comprises the welding wire feed drive, the wire feed control circuitry, or any combination thereof, as well as power conversion circuitry configured to receive the input power from a welding power source and to convert the input power to welding output; characterized by a power relay configured to receive input power and to close to convey the input power to said operational component of the welding wire feeder; bypass circuitry coupled in parallel to the power relay and configured to carry the input power during opening and closing of the power relay; and control circuitry coupled to the power relay and to the bypass circuitry, wherein the control circuitry is configured to apply signals to the power relay to close and to open a first current carrying path of the input power to the operational component through the power relay, and the control circuitry is configured to apply the signals to the bypass circuitry to close and to open a second current carrying path of the input power to the operational component through the bypass circuitry in coordination with the power relay, as well as in coordination with closing of the power relay.
Method for operating a two-phase or multi-phase brushless synchronous electric motor comprising a rotor which is excited by permanent magnets and intended for driving a drum in a washing machine or a tumble dryer, the stator phase windings (16u, 16v, 16w) of which rotor are supplied with current by means of a frequency converter or an electronic commutation device, comprising an inverter having controlled half bridges (14u, 14v, 14w) which are powered by a direct current intermediate circuit, the rotational speed and the position of the rotor being detected by means of a detection device in order to actuate and supply current to the individual windings (16u, 16v, 16w) on the basis of the detected values, the voltage signals which are generated by the stator windings (16u, 16v, 16w) and result from the electromagnetic effect produced when the rotor moves being used by the detection device to determine the rotational speed and position of the rotor, and this recorded position value being used to actuate the half bridges (14u, 14v, 14w) to provide currents for supplying current to the motor at the start of the subsequent rotational cycle, in such a way that the rotor is started up in a predetermined direction of rotation in an at least virtually smooth manner, characterised in that the motor is supplied with sinusoidal currents by means of pulse-width modulation and in that the final standstill position of the rotor is estimated from the previously detected dynamic angle change of the rotor when the motor is currentless, recorded as the rest position and used at the start of the subsequent rotational cycle.
Active ingredient composition containing micelles, wherein the micelle-containing active ingredient composition comprises at least two different types of micelles, preferably in an aqueous phase; and each type of micelle has a core - which predominantly contains the active ingredient - and a simple or complex shell - which contains auxiliary substances from the group of polyelectrolytes and/or glycerol esters -; and each type of micelle has an optically determined mean geometric diameter d 90 of 5 - 100 nm; and the first type of complex micelles: • contains at least one active substance, and • at least one polyelectrolyte selected from oligosaccharides and/or polysaccharides, and • contains at least one glycerol ester selected from fatty acid glycerol esters and/or glycerol esters of root resins; the second type of simple micelles: • contains at least one active substance, and either • at least one polyelectrolyte selected from oligosaccharides and/or polysaccharides, or • contains at least one glycerol ester selected from fatty acid glycerol esters and/or glycerol esters of root resins. wherein the micelle-containing active ingredient composition comprises at least two different types of micelles, preferably in an aqueous phase; and each type of micelle has a core - which predominantly contains the active ingredient - and a simple or complex shell - which contains auxiliary substances from the group of polyelectrolytes and/or glycerol esters -; and each type of micelle has an optically determined mean geometric diameter d 90 of 5 - 100 nm; and the first type of complex micelles: • contains at least one active substance, and • at least one polyelectrolyte selected from oligosaccharides and/or polysaccharides, and • contains at least one glycerol ester selected from fatty acid glycerol esters and/or glycerol esters of root resins; • contains at least one active substance, and • at least one polyelectrolyte selected from oligosaccharides and/or polysaccharides, and • contains at least one glycerol ester selected from fatty acid glycerol esters and/or glycerol esters of root resins; the second type of simple micelles: • contains at least one active substance, and either • at least one polyelectrolyte selected from oligosaccharides and/or polysaccharides, or • contains at least one glycerol ester selected from fatty acid glycerol esters and/or glycerol esters of root resins. • contains at least one active substance, and either • at least one polyelectrolyte selected from oligosaccharides and/or polysaccharides, or • contains at least one glycerol ester selected from fatty acid glycerol esters and/or glycerol esters of root resins.
Measuring system for measuring an object to be measured (42, 52) with a first party, a second party (41, 53), a first virtual antenna array (44, 51) and a processing device, wherein the object to be measured (42, 52) is a mobile station, wherein the first virtual antenna array (44, 51) consists of at least two mobile stations (44, 45, 46, 51, 58, 59), wherein the first virtual antenna array (44, 51) comprises the object to be measured (42, 52), wherein the first party is arranged in such a way that it transmits signals to the first virtual antenna array (44, 51), wherein the first virtual antenna array (44, 51) is arranged in such a way that it transmits signals to the second party (41, 53) at least indirectly, and wherein the processing device is configured in such a way that it compares signals transmitted to the object to be measured (42, 52) and signals transmitted from the object to be measured (42, 52), characterised in that the processing unit is configured to control parties of the virtual antenna array (30, 31, 32, 33) so that these transmit signals to or receive signals from the object to be measured, in that the measuring system also comprises at least one channel simulation device, and in that the channel simulation device is configured to simulate an at least partially real transmission channel by adding noise and/or fading at least on a signal transmission path between two parties and/or between a virtual antenna array and a party and/or two virtual antenna arrays (51, 57), and in that the channel simulation device can be used on a plurality of connections or all the connections.
A display device, comprising: a light-transmitting substrate; a pad disposed on the light-transmitting substrate; and an electrode layer comprising a mesh configuration formed on the light-transmitting substrate and electrically connected to the pad, wherein the electrode layer comprises: a first region (120b1) spaced apart from the pad; and a second region (120b2) connecting the pad to the first region (120b1), wherein a density of the mesh configuration of the second region (120b2) is higher than a density of the mesh configuration of the first region (120b1), wherein a length of a side of the pad connected to the second region (120b2) is substantially equal to a length of a first side of the second region (120b2) connected to the pad, wherein a second side of the second region (120b2) is connected to the first region (120b1) and the first side of the second region (120b2) is longer than the second side of the second region (120b2), characterized in that the pad comprises a mesh configuration and is electrically connected to the electrode layer, and wherein the density of the mesh configuration of the pad is equal to one of the first region (120b1) or the second region (120b2). a light-transmitting substrate; a pad disposed on the light-transmitting substrate; and an electrode layer comprising a mesh configuration formed on the light-transmitting substrate and electrically connected to the pad, wherein the electrode layer comprises: a first region (120b1) spaced apart from the pad; and a second region (120b2) connecting the pad to the first region (120b1), wherein a density of the mesh configuration of the second region (120b2) is higher than a density of the mesh configuration of the first region (120b1), wherein a length of a side of the pad connected to the second region (120b2) is substantially equal to a length of a first side of the second region (120b2) connected to the pad, wherein a second side of the second region (120b2) is connected to the first region (120b1) and the first side of the second region (120b2) is longer than the second side of the second region (120b2), a first region (120b1) spaced apart from the pad; and a second region (120b2) connecting the pad to the first region (120b1), wherein a density of the mesh configuration of the second region (120b2) is higher than a density of the mesh configuration of the first region (120b1), wherein a length of a side of the pad connected to the second region (120b2) is substantially equal to a length of a first side of the second region (120b2) connected to the pad, wherein a second side of the second region (120b2) is connected to the first region (120b1) and the first side of the second region (120b2) is longer than the second side of the second region (120b2), characterized in that the pad comprises a mesh configuration and is electrically connected to the electrode layer, and wherein the density of the mesh configuration of the pad is equal to one of the first region (120b1) or the second region (120b2).
A roller door comprising a door leaf which is movable between an open position, in which it at least partially uncovers a wall opening and preferably forms a multi-layer winding at least partially above the wall opening, and a closed position, in which it at least partially closes the wall opening, said door leaf having a plurality of door leaf segments (110, 120) arranged one behind the other in a direction of movement of the door leaf, wherein at least one stabilizing device extending perpendicular to the direction of movement of the door leaf is arranged between two door leaf segments, and mutually facing edge regions of the door leaf segments (110, 120) are held on the stabilizing device, wherein at least one edge region of at least one segment is held in a floating manner on the stabilizing device to enable a relative movement of this edge region with respect to the stabilizing device at least in the direction of movement of the door leaf, and wherein a constraining arrangement is provided to limit the relative movement of the floatingly held edge region with respect to the stabilizing device, characterised in that the constraining arrangement includes a widening of the floatingly held edge region in a thickness direction perpendicular to the plane of the door leaf which is defined by the direction of movement of the door leaf and the stabilizing device, and a receptacle formed in the stabilizing device for the widening of the edge region which is held thereon in a floating manner, wherein the receptacle has a mouth through which a transition region of the segment between the widening and a region of the segment which is exposed outside the stabilizing device passes, wherein the width of the mouth, in the thickness direction, is greater than the thickness of the transition region in the thickness direction but less than the dimensions of the widening in the thickness direction.