mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum cleaner comprising: a housing having an introduction opening through which air is introduced; a filtering unit mounted in an inner space of the housing , and defining a dust collection space (S1) between the filtering unit and an inner surface of the housing ; and a cleaning unit mounted to surround the filtering unit and being configured to raise and lower inside the dust collection space (S1), at least a portion of the cleaning unit having a guide flow path (E) being at an initial position thereof connected to an air introduction path extending from the introduction opening , the cleaning unit being configured to guide a flow of introduced air, wherein a guide edge (GE) extends from a lower portion of the cleaning unit toward a bottom of the dust collection space (S1), and a surface of the guide edge (GE) facing the inner surface of the housing is configured to be inclined to gradually increase a gap (d) between the surface of the guide edge (GE) and the inner surface of the housing facing the guide edge (GE) at the same height from the bottom of the dust collection space (S1) in a direction toward an end portion of the guide edge (GE) that is directed toward the bottom of the dust collection space (S1), characterized by a cleaning ring of an elastic material which is coupled to a lower portion of a cleaning body constituting the cleaning unit , and at least a portion of a guide inclination surface is formed on a surface of the cleaning ring . a housing having an introduction opening through which air is introduced; a filtering unit mounted in an inner space of the housing , and defining a dust collection space (S1) between the filtering unit and an inner surface of the housing ; and a cleaning unit mounted to surround the filtering unit and being configured to raise and lower inside the dust collection space (S1), at least a portion of the cleaning unit having a guide flow path (E) being at an initial position thereof connected to an air introduction path extending from the introduction opening , the cleaning unit being configured to guide a flow of introduced air, wherein a guide edge (GE) extends from a lower portion of the cleaning unit toward a bottom of the dust collection space (S1), and a surface of the guide edge (GE) facing the inner surface of the housing is configured to be inclined to gradually increase a gap (d) between the surface of the guide edge (GE) and the inner surface of the housing facing the guide edge (GE) at the same height from the bottom of the dust collection space (S1) in a direction toward an end portion of the guide edge (GE) that is directed toward the bottom of the dust collection space (S1), characterized by a cleaning ring of an elastic material which is coupled to a lower portion of a cleaning body constituting the cleaning unit , and at least a portion of a guide inclination surface is formed on a surface of the cleaning ring .
A method for transferring a security context for a user equipment in an idle mode, the method implemented by one or more core network nodes in a core network of a wireless communication network , wherein the one or more core network nodes provide a source Access and Mobility Management Function , the method comprising: receiving , from a target Access and Mobility Management Function , a request for a security context for the user equipment ; generating a new non-access stratum key responsive to determining that an operator specific security policy is met; and sending , responsive to the request, the new non-access stratum key and a key change indication comprising a key change indicator flag to the target Access and Mobility Management Function , wherein the key change indicator flag is set to a value indicating that a non-access stratum key has been changed. receiving , from a target Access and Mobility Management Function , a request for a security context for the user equipment ; generating a new non-access stratum key responsive to determining that an operator specific security policy is met; and sending , responsive to the request, the new non-access stratum key and a key change indication comprising a key change indicator flag to the target Access and Mobility Management Function , wherein the key change indicator flag is set to a value indicating that a non-access stratum key has been changed.
A gel composition for use in animal feeding comprising - a powder composition comprising - at least one gelling agent in an amount of 0,1 to 20 wt.% based on the total amount of the powder composition; - at least one carrier in an amount of 30 to 70 wt.% based on the total amount of the powder composition, wherein the at least one carrier is a saccharide, wherein the saccharide is selected from the group of maltodextrin, inulin, dextrose, lactose or mixtures thereof; and - a prebiotic additive, wherein the prebiotic additive is an aquatic photosynthesizing organism, wherein the amount of the prebiotic additive is between 1 to 50 wt.% based on the total amount of the powder composition, and wherein the prebiotic additive is green; and - water, wherein the powder composition is suspended in the water to form the gel composition; wherein the gel composition has a viscosity of 30 - 250 mPa ' s, measured as set forth in the Experimental Section; wherein the colour of the gel composition is green, and wherein the gel composition has at least two absorption maxima in the range of 600 to 700 nm determined via photometric measurement; and wherein the amount of the prebiotic additive is between 0,1 to 15 wt.% based on the total amount of the gel composition. - a powder composition comprising - at least one gelling agent in an amount of 0,1 to 20 wt.% based on the total amount of the powder composition; - at least one carrier in an amount of 30 to 70 wt.% based on the total amount of the powder composition, wherein the at least one carrier is a saccharide, wherein the saccharide is selected from the group of maltodextrin, inulin, dextrose, lactose or mixtures thereof; and - a prebiotic additive, wherein the prebiotic additive is an aquatic photosynthesizing organism, wherein the amount of the prebiotic additive is between 1 to 50 wt.% based on the total amount of the powder composition, and wherein the prebiotic additive is green; and - at least one gelling agent in an amount of 0,1 to 20 wt.% based on the total amount of the powder composition; - at least one carrier in an amount of 30 to 70 wt.% based on the total amount of the powder composition, wherein the at least one carrier is a saccharide, wherein the saccharide is selected from the group of maltodextrin, inulin, dextrose, lactose or mixtures thereof; and - a prebiotic additive, wherein the prebiotic additive is an aquatic photosynthesizing organism, wherein the amount of the prebiotic additive is between 1 to 50 wt.% based on the total amount of the powder composition, and wherein the prebiotic additive is green; and - water, wherein the powder composition is suspended in the water to form the gel composition; wherein the gel composition has a viscosity of 30 - 250 mPa ' s, measured as set forth in the Experimental Section; wherein the colour of the gel composition is green, and wherein the gel composition has at least two absorption maxima in the range of 600 to 700 nm determined via photometric measurement; and wherein the amount of the prebiotic additive is between 0,1 to 15 wt.% based on the total amount of the gel composition.
A method for installing a sea floor anchor , the method comprising the steps (a) building a drill string from a vessel , (b) drilling a hole in the sea floor , (c) lowering an anchor member from the vessel and into the hole , and (d) cementing the anchor member in place in the hole via a cementing hose from the vessel , characterized by , after carrying out steps (a)-(d), moving the vessel to a new drilling location with the drill string hung off from the vessel . (a) building a drill string from a vessel , (b) drilling a hole in the sea floor , (c) lowering an anchor member from the vessel and into the hole , and (d) cementing the anchor member in place in the hole via a cementing hose from the vessel ,
A resource allocation method for an LTE system, comprising: generating a first modulation symbol stream for a first terminal and a second modulation symbol stream for a second terminal; multiplexing modulation symbols included in the first modulation symbol stream and modulation symbols included in the second modulation symbol stream alternately in a unit of two continuous modulation symbols; converting the multiplexed modulation symbols to precoded symbols; frequency first mapping the precoded symbols to resource elements, RE, in an ascending order of frequency; and transmitting the precoded symbols mapped to the REs. generating a first modulation symbol stream for a first terminal and a second modulation symbol stream for a second terminal; multiplexing modulation symbols included in the first modulation symbol stream and modulation symbols included in the second modulation symbol stream alternately in a unit of two continuous modulation symbols; converting the multiplexed modulation symbols to precoded symbols; frequency first mapping the precoded symbols to resource elements, RE, in an ascending order of frequency; and transmitting the precoded symbols mapped to the REs.
A mounting system for mounting a ceiling or wall device in or on a ceiling or a wall, the mounting system comprising: - a ceiling or wall part adapted to removably attach in or on the ceiling or the wall; and - a device holding part adapted to receive the ceiling or wall device, the device holding part comprises a flange extending in a first plane and a cylinder extending from the flange in a direction perpendicular to the first plane, the ceiling or wall part and the device holding part comprising mating connecting means adapted to removably fix the device holding part to the ceiling or wall part by means of a combination of a linear movement and a rotating movement, such that, when mounted, an inner surface of the ceiling or wall part is facing an outer surface of the device holding part , characterized in that - the device holding part comprises a plurality of ribs extending longitudinally on the outer surface thereof, adjacent ribs thereby being spaced equidistant from one another, the ribs appearing, when a cross-section is taken along a plane parallel to the flange , like a continuous stretch of crests and troughs, and - the ceiling or wall part comprises at least one tooth on the inner surface thereof, adapted to engage with a spacing defined between two adjacent ribs of the device holding part . - a ceiling or wall part adapted to removably attach in or on the ceiling or the wall; and - a device holding part adapted to receive the ceiling or wall device, the device holding part comprises a flange extending in a first plane and a cylinder extending from the flange in a direction perpendicular to the first plane, - the device holding part comprises a plurality of ribs extending longitudinally on the outer surface thereof, adjacent ribs thereby being spaced equidistant from one another, the ribs appearing, when a cross-section is taken along a plane parallel to the flange , like a continuous stretch of crests and troughs, and - the ceiling or wall part comprises at least one tooth on the inner surface thereof, adapted to engage with a spacing defined between two adjacent ribs of the device holding part .
-3-[2-(6-amino-2-fluoro-3-pyridinyl)-4-fluoro-1H-imidazol-5-yl]-7-[5-chloro-2-(1H-tetrazol-1-yl)phenyl]-2,3-dihydro-5 -indolizinone, a salt thereof, a solvate thereof or an N-oxide thereof.
A microorganism genetically modified for the fermentative conversion of levulinic acid into propionyl-CoA and acetyl-CoA, by overexpression of: i) at least one enzyme converting levulinic acid into levulinyl-CoA selected from the group consisting of acyl CoA: 3-ketoacid CoA/acetate CoA transferases belonging to EC 2.8.3.5 or EC 2.8.3.8, and combinations thereof; and ii) at least one enzyme converting said levulinyl-CoA into propionyl-CoA and acetyl-CoA. i) at least one enzyme converting levulinic acid into levulinyl-CoA selected from the group consisting of acyl CoA: 3-ketoacid CoA/acetate CoA transferases belonging to EC 2.8.3.5 or EC 2.8.3.8, and combinations thereof; and ii) at least one enzyme converting said levulinyl-CoA into propionyl-CoA and acetyl-CoA.
A cleaning apparatus for cleaning an optical device of a motor vehicle, wherein the optical device to be cleaned has a curved surface, at least two cleaning units are comprised by the cleaning apparatus, which, in a working position, are positioned and movable such that the surface can also be cleaned in curved areas by each cleaning unit having a driving part and a cleaning part , wherein the driving part includes an electroactive polymer and can at least partially move the cleaning part ; at least one holder is comprised by the cleaning apparatus, on which the cleaning units are arranged, wherein the holder is movable between a working position, in which the cleaning units are positioned relative to the optical device in such a way that the cleaning parts can be moved by the driving parts across the surface of the optical device which is to be cleaned, and a resting position, in which the cleaning units are positioned away from the optical device , and the holder is ring-shaped; and the cleaning apparatus is formed such that each cleaning part of the cleaning units is moved across a designated partial area (2a-d) of the surface which is to be cleaned, wherein the partial area (2a-d) may at least partially overlap.
A device for cooling a liquid food, in particular a beverage, comprising a cold accumulator and a thermal line , wherein the cold accumulator and the liquid to be cooled are thermally connected via the thermal line , and wherein the cold accumulator comprises a phase change material, wherein the device further comprises a means for dissipating heat from at least the thermal line , characterized in that the cold accumulator comprises a carrier material into which the phase change material is integrated, wherein the carrier material comprises a polymer, which is provided as a block copolymer.
A friction stir welding tool comprising a base , a friction stir pin rotatably mounted in said base and at least one guide member connected to said base , the welding tool being adapted to shift from upstream to downstream, the welding tool being characterised in that it comprises at least one member for shifting the guide member with respect to said base between: - at least one guiding position in which the guide member extends in a pathfinder area (Z) located downstream and facing the friction stir pin and - at least one retracted position in which the guide member is offset with respect to said pathfinder area (Z) and detecting means configured to automatically control an activation of the shifting member in the retracted position in case of detection of an obstacle downstream of said pathfinder area (Z). - at least one guiding position in which the guide member extends in a pathfinder area (Z) located downstream and facing the friction stir pin and - at least one retracted position in which the guide member is offset with respect to said pathfinder area (Z)
A computer-implemented method for identifying geological features of a subsurface region from geophysical data gathered from the region, said method comprising: (a) selecting a curvelet transform and a corresponding basis set of elementary functions, named curvelet functions, wherein the term curvelet transform also includes the contourlet and surfacelet transforms; (b) transforming the geophysical data into a curvelet representation of the data using the selected basis set and transform, wherein the geophysical data are represented as a series expansion of curvelet functions each multiplied by a corresponding expansion coefficient, named weight; (c) computing the geophysical attributes dip, frequency and location of each curvelet function used in the curvelet representation of the geophysical data; and (d) identifying geologic features directly from the weights and computed geophysical attributes of the curvelet functions. (a) selecting a curvelet transform and a corresponding basis set of elementary functions, named curvelet functions, wherein the term curvelet transform also includes the contourlet and surfacelet transforms; (b) transforming the geophysical data into a curvelet representation of the data using the selected basis set and transform, wherein the geophysical data are represented as a series expansion of curvelet functions each multiplied by a corresponding expansion coefficient, named weight; (c) computing the geophysical attributes dip, frequency and location of each curvelet function used in the curvelet representation of the geophysical data; and (d) identifying geologic features directly from the weights and computed geophysical attributes of the curvelet functions.
A rolling bearing assembly comprising: a radially inner ring defining an inner race and including a first circumferentially extending seal groove ; a radially outer ring defining an outer race , and including a second circumferentially extending seal groove ; rolling elements supported between the radially inner ring and the radially outer ring , the rolling elements running on the inner race and the outer race ; and at least one seal including a radially outer end engaged within the second circumferentially extending seal groove , and a radially inner end located in the first circumferentially extending seal groove , characterized in that the second circumferentially extending seal groove has a pressure groove therein, located inside of an axial end face of the at least one seal , and at least one hydraulic fluid gallery including an inlet and an outlet connected to the pressure groove ; wherein in a first non-pressurized operating condition, the radially inner end of the at least one seal is configured to contact the first circumferentially extending seal groove on the radially inner ring , and in a second operating condition, in which the at least one hydraulic fluid gallery is supplied with pressurized hydraulic fluid, the at least one seal is configured to be moved outwardly in an axial direction such that the radially inner end of the at least one seal disengages from the radially inner ring . a radially inner ring defining an inner race and including a first circumferentially extending seal groove ; a radially outer ring defining an outer race , and including a second circumferentially extending seal groove ; rolling elements supported between the radially inner ring and the radially outer ring , the rolling elements running on the inner race and the outer race ; and at least one seal including a radially outer end engaged within the second circumferentially extending seal groove , and a radially inner end located in the first circumferentially extending seal groove , characterized in that the second circumferentially extending seal groove has a pressure groove therein, located inside of an axial end face of the at least one seal , and at least one hydraulic fluid gallery including an inlet and an outlet connected to the pressure groove ; wherein in a first non-pressurized operating condition, the radially inner end of the at least one seal is configured to contact the first circumferentially extending seal groove on the radially inner ring , and in a second operating condition, in which the at least one hydraulic fluid gallery is supplied with pressurized hydraulic fluid, the at least one seal is configured to be moved outwardly in an axial direction such that the radially inner end of the at least one seal disengages from the radially inner ring .
A circuit for breaking alternating current, the circuit comprising: an input arranged to receive an alternating current (AC); an output arranged to provide the alternating current (AC) to at least one electrical load ; a first controllable switch and a second controllable switch coupled in series with each other and being arranged between the input and the output ; an impedance network (Z) coupled between the first controllable switch and the second controllable switch , wherein the impedance network (Z) comprises a limiting/delay circuit coupled between the first controllable switch and the second controllable switch ; and a controller coupled to a reference ground common to the controller and the first controllable switch and the second controllable switch , wherein the controller is arranged to measure at least one measuring voltage (V1; V2) between a node of the impedance network (Z) and the reference ground and to control the first controllable switch and the second controllable switch , so as to control the breaking of the alternating current (AC) provided to the at least one electrical load , based on the value of the measured at least one measuring voltage (V1; V2); the circuit for breaking alternating current is characterised in that the limiting/delay circuit is arranged to limit/delay the speed of changes of the alternating current (AC). an input arranged to receive an alternating current (AC); an output arranged to provide the alternating current (AC) to at least one electrical load ; a first controllable switch and a second controllable switch coupled in series with each other and being arranged between the input and the output ; an impedance network (Z) coupled between the first controllable switch and the second controllable switch , wherein the impedance network (Z) comprises a limiting/delay circuit coupled between the first controllable switch and the second controllable switch ; and a controller coupled to a reference ground common to the controller and the first controllable switch and the second controllable switch , wherein the controller is arranged to measure at least one measuring voltage (V1; V2) between a node of the impedance network (Z) and the reference ground and to control the first controllable switch and the second controllable switch , so as to control the breaking of the alternating current (AC) provided to the at least one electrical load , based on the value of the measured at least one measuring voltage (V1; V2); the circuit for breaking alternating current is characterised in that the limiting/delay circuit is arranged to limit/delay the speed of changes of the alternating current (AC).
Apparatus for metering carbon dioxide snow, having a storage container into which a supply line for carbon dioxide in liquid or snow-like form and a gas extraction line for the discharge of carbon dioxide gas opens, and which is equipped with a discharge unit for the metered discharge of carbon dioxide snow , characterized in that the discharge unit comprises a discharge opening which is arranged at a base side on the storage container , a horizontally movable sliding base which interacts with the discharge opening and which is movable between a first position, in which it closes the discharge opening of the storage container , and a second position, in which it opens up the discharge opening , and at least one horizontally movable separating base which is arranged above the sliding base on the storage container and which is movable from a first position, in which it separates the interior space of the storage container into two partial volumes, into a second position, in which said separating base is spaced apart from the interior space of the storage container , wherein the vertical spacing between the sliding base and the separating base is variable.