mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication system comprising: a radio terminal; a radio base station; a serving base station controller adapted to transmit a control signal to the radio terminal by using a Signaling Radio Bearer, SRB; and a drift base station controller adapted to relay data communication between the serving base station controller and the radio terminal; wherein, during an RNC relocation procedure, a first ID for identifying the Signaling Radio Bearer, SRB, and a second ID for identifying HS-DSCH MAC-d flow are reported from the serving base station controller to the drift base station, and wherein the first ID is mapped with the second ID, and wherein the first ID and the second ID are reported from the serving base station controller to the drift base station controller via a core network. a radio terminal; a radio base station; a serving base station controller adapted to transmit a control signal to the radio terminal by using a Signaling Radio Bearer, SRB; and a drift base station controller adapted to relay data communication between the serving base station controller and the radio terminal; wherein, during an RNC relocation procedure, a first ID for identifying the Signaling Radio Bearer, SRB, and a second ID for identifying HS-DSCH MAC-d flow are reported from the serving base station controller to the drift base station, and wherein the first ID is mapped with the second ID, and wherein the first ID and the second ID are reported from the serving base station controller to the drift base station controller via a core network.
A system comprising: at least one computer-readable storage medium including a set of instructions for estimating time of arrival; and at least one processor in communication with the at least one computer-readable storage medium, wherein when executing the set of instructions, the at least one processor is directed to: obtain a target route associated with a user; determine characteristic data relating to the target route, wherein the characteristic data includes first feature data corresponding to at least a portion of the target route; obtain an estimation model for estimating time of arrival, wherein the estimation model includes a first sub-model and a second sub-model; determine first cell state data and first hidden state data based on the first feature data and the first sub-model; determine a first vector based on the first cell state data and the first hidden state data; determine second cell state data and second hidden state data based on the first vector and the second sub-model; and determine an estimated time of arrival relating to the target route based on the second cell state data and the second hidden state data. at least one computer-readable storage medium including a set of instructions for estimating time of arrival; and at least one processor in communication with the at least one computer-readable storage medium, wherein when executing the set of instructions, the at least one processor is directed to: obtain a target route associated with a user; determine characteristic data relating to the target route, wherein the characteristic data includes first feature data corresponding to at least a portion of the target route; obtain an estimation model for estimating time of arrival, wherein the estimation model includes a first sub-model and a second sub-model; determine first cell state data and first hidden state data based on the first feature data and the first sub-model; determine a first vector based on the first cell state data and the first hidden state data; determine second cell state data and second hidden state data based on the first vector and the second sub-model; and determine an estimated time of arrival relating to the target route based on the second cell state data and the second hidden state data. obtain a target route associated with a user; determine characteristic data relating to the target route, wherein the characteristic data includes first feature data corresponding to at least a portion of the target route; obtain an estimation model for estimating time of arrival, wherein the estimation model includes a first sub-model and a second sub-model; determine first cell state data and first hidden state data based on the first feature data and the first sub-model; determine a first vector based on the first cell state data and the first hidden state data; determine second cell state data and second hidden state data based on the first vector and the second sub-model; and determine an estimated time of arrival relating to the target route based on the second cell state data and the second hidden state data.
Hoist drum for a fiber rope drive, having a drum jacket body for winding up the fiber rope, having guide plates encompassing the drum jacket body, and having a rope end fastening apparatus for fastening a rope end to the hoist drum, wherein the rope end fastening apparatus comprises two strand guiding passages (13, 14) that are disposed next to one another and that lead to a rope turning element at which the rope end can be turned around and back so that a respective rope strand (11, 12) comes to lie in the rope guiding passages (13, 14), and furthermore comprises a clamping apparatus associated with the strand guiding passages (13, 14) for clamping at least the turned back rope strand in the strand guiding passage associated therewith, characterized in that the clamping apparatus is configured such, that the two rope strands (11, 12) can be acted on by different clamping forces, wherein the strand guiding passages (13, 14) and/or clamping jaws of the clamping apparatus are individually contoured in a manner differing from one another for each of the rope strands (11, 12) such that a rope leadthrough passage for one of the rope strands that is defined between the associated rope guiding passage and the clamping jaws has a larger height and/or a greater width and/or a larger cross-section than a rope guiding passage for the other rope strand that is defined between the associated rope guiding passage and the clamping jaws.
A brush seal assembly, comprising: a packing body configured to be positioned between a rotating body (5, 6) and a fixing body (3, 4) and to include an insertion groove; a brush seal part configured to include a brush extending toward the rotating body (5, 6) and to be inserted at one end into the insertion groove of said packing body and into a support member supporting the brush; a thermal expansion member configured to adhere to the support member and to be thermally expanded in a circumferential direction of the packing body; and a fixing member configured to be fitted in the insertion groove to face the thermal expansion member to fix the brush seal part in the circumferential direction and a radial direction of the packing body. a packing body configured to be positioned between a rotating body (5, 6) and a fixing body (3, 4) and to include an insertion groove; a brush seal part configured to include a brush extending toward the rotating body (5, 6) and to be inserted at one end into the insertion groove of said packing body and into a support member supporting the brush; a thermal expansion member configured to adhere to the support member and to be thermally expanded in a circumferential direction of the packing body; and a fixing member configured to be fitted in the insertion groove to face the thermal expansion member to fix the brush seal part in the circumferential direction and a radial direction of the packing body.
A co-extruded multi-layer translucent polyester film having a matte side and opposed smooth side, wherein the polyester film consists of a co-extruded AB or ABA structure, wherein at least one A layer of the film comprises a PET copolyester and talc, blended with a plain PET homopolymer resin, at least one B layer comprises a polyester resin and optionally comprises talc, and the at least one A layer contains a higher percentage content of talc by weight than the at least one B layer, wherein the total concentration of talc in the at least one A layer is from 3% to 6% based upon total weight of the layer, said talc has a median particle size of 1 micrometer to 1.8 micrometers, and wherein the gloss level measured at 60 degree angle from an A layer side is 39 to 128, and wherein the surface roughness (SRa) of the at least one A layer is between or equal to 76.6 nm and 147 nm.
A fluid control device comprising: a vibrating plate having a central part having a circular shape in plan view, a frame part surrounding the central part, and plural connecting parts (23,24,25,26) connecting between the central part and the frame part, located around the central part concentrically; a driver stacked over the central part, the driver being configured to vibrate the vibrating plate in a flexural manner from the central part to the connecting parts (23,24,25,26); and an opposed plate stacked over the frame part, the opposed plate being spaced apart from and opposed to at least the connecting parts (23,24,25,26), and the fluid control device being adapted so that the flexural vibration is produced in the stack of the driver and the vibrating plate in a higher-order resonant mode, and wherein the opposed plate has a plurality of channel holes (39,40,41,42) through which a fluid flows, characterized in that, each of the channel holes (39,40,41,42) is located at a position opposed to the connecting part (23,24,25,26). a vibrating plate having a central part having a circular shape in plan view, a frame part surrounding the central part, and plural connecting parts (23,24,25,26) connecting between the central part and the frame part, located around the central part concentrically; a driver stacked over the central part, the driver being configured to vibrate the vibrating plate in a flexural manner from the central part to the connecting parts (23,24,25,26); and an opposed plate stacked over the frame part, the opposed plate being spaced apart from and opposed to at least the connecting parts (23,24,25,26), and the fluid control device being adapted so that the flexural vibration is produced in the stack of the driver and the vibrating plate in a higher-order resonant mode, and wherein the opposed plate has a plurality of channel holes (39,40,41,42) through which a fluid flows, characterized in that, each of the channel holes (39,40,41,42) is located at a position opposed to the connecting part (23,24,25,26).
A process for refining molten glass including: (a) introducing a stream of molten glass into a controlled environment; (b) distributing the stream of molten glass over a flow surface having a length extending in a flow direction of the stream of molten glass and a width extending transverse to the flow direction of the stream of molten glass, wherein the width of the flow surface extends along the length of the flow surface from its leading edge to its trailing edge, wherein the flow surface may or may not expand in width along its entire length, such that a surface area of the stream of molten glass is increased as the stream of molten glass is distributed over the flow surface; (c) collecting the stream of molten glass from a downstream end of the flow surface to form a body of molten glass having a free surface exposed to the controlled environment; and then (d) removing a stream of refined molten glass from the controlled environment at a location below the free surface of the body of molten glass, wherein the flow surface slopes in a generally downward direction. (a) introducing a stream of molten glass into a controlled environment; (b) distributing the stream of molten glass over a flow surface having a length extending in a flow direction of the stream of molten glass and a width extending transverse to the flow direction of the stream of molten glass, wherein the width of the flow surface extends along the length of the flow surface from its leading edge to its trailing edge, wherein the flow surface may or may not expand in width along its entire length, such that a surface area of the stream of molten glass is increased as the stream of molten glass is distributed over the flow surface; (c) collecting the stream of molten glass from a downstream end of the flow surface to form a body of molten glass having a free surface exposed to the controlled environment; and then (d) removing a stream of refined molten glass from the controlled environment at a location below the free surface of the body of molten glass,
System (100, 200, 300) for automatic coupling and release of at least a first vehicle (70, 80) and of a second vehicle (90a, 90b) travelling on the railway network comprising: - at least a first hooking group (10, 210, 310) of the first vehicle (70, 80) and at least a second hooking group (50, 250, 350) of the second vehicle (90a, 90b); and - at least one vertical alignment apparatus (11a, 51a, 211; 251, 311, 351) for vertical alignment of said at least one first and at least a second hooking group (10, 210, 250; 50, 310, 350); Characterized in that the first and at least a second hooking group (10, 210, 250; 50, 310, 350) comprises: - male-female interlocking coupling means (18; 58; 218, 258; 318, 358) for coupling and releasing each other; - at least two sensors (19, 20; 59, 60) coupled logically two by two and positioned at 45° each other configured to detect the positions of the coupling means (18; 58; 218; 258; 318; 358) during the coupling of the vehicles, their horizontal and vertical distances and the range of variation of these distances in real time, and to communicate them to an informatic system present on each vehicle (70, 80, 90a, 90b) configured to control the coupling means (18; 58; 218; 258; 318; 358); and - at least one pair of cameras (25a, 25b; 65a, 65b) configured to send images of the occurred coupling to the informatic system present in the station or on the locomotive and to determine the certification of the occurred coupling. - at least a first hooking group (10, 210, 310) of the first vehicle (70, 80) and at least a second hooking group (50, 250, 350) of the second vehicle (90a, 90b); and - at least one vertical alignment apparatus (11a, 51a, 211; 251, 311, 351) for vertical alignment of said at least one first and at least a second hooking group (10, 210, 250; 50, 310, 350); - male-female interlocking coupling means (18; 58; 218, 258; 318, 358) for coupling and releasing each other; - at least two sensors (19, 20; 59, 60) coupled logically two by two and positioned at 45° each other configured to detect the positions of the coupling means (18; 58; 218; 258; 318; 358) during the coupling of the vehicles, their horizontal and vertical distances and the range of variation of these distances in real time, and to communicate them to an informatic system present on each vehicle (70, 80, 90a, 90b) configured to control the coupling means (18; 58; 218; 258; 318; 358); and - at least one pair of cameras (25a, 25b; 65a, 65b) configured to send images of the occurred coupling to the informatic system present in the station or on the locomotive and to determine the certification of the occurred coupling.
A damping device for a spacecraft configured to damp vibrations between a component to be isolated and a supporting structure of the spacecraft, the damping device comprising: - a metal structure obtained by additive manufacturing and comprising a first metal part configured to be attached to one of the component to be isolated or of the supporting structure, and a second metal part configured to be attached to the other of the component to be isolated or the supporting structure, - a solid elastomer damping structure arranged between the first metal part and the second metal part, so as to be in contact both with walls of the first metal part and with walls of the second metal part, the metal structure being produced by additive manufacturing such that at least a portion of the surface of the first metal part and/or the second metal part, in contact with the damping structure, has a lattice structure (112, 122), characterized in that the first metal part comprises an outer skeleton and an inner housing within the outer skeleton, the solid elastomer damping structure being arranged in the inner housing, and the second metal part being arranged at least partially inside the inner housing of the first metal part. - a metal structure obtained by additive manufacturing and comprising a first metal part configured to be attached to one of the component to be isolated or of the supporting structure, and a second metal part configured to be attached to the other of the component to be isolated or the supporting structure, - a solid elastomer damping structure arranged between the first metal part and the second metal part, so as to be in contact both with walls of the first metal part and with walls of the second metal part, the metal structure being produced by additive manufacturing such that at least a portion of the surface of the first metal part and/or the second metal part, in contact with the damping structure, has a lattice structure (112, 122), characterized in that the first metal part comprises an outer skeleton and an inner housing within the outer skeleton, the solid elastomer damping structure being arranged in the inner housing, and the second metal part being arranged at least partially inside the inner housing of the first metal part.
An electrical connector having a visual identifier which is machine-readable whereby the electrical connector has recordable position assurance for recording an indication that the electrical connector is fully mated with a mating connector, the electrical connector comprising: a housing having a mating interface configured to engage a complementary mating connector during a mating operation; at least one electrical conductor held in the housing; an indicating feature carried by the housing, the indicating feature having the visual identifier disposed thereon; and a concealing feature carried by the housing, wherein the indicating feature and the concealing feature are movable relative to each other between a concealed position and an exposed position, the concealing feature concealing at least a portion of the visual identifier in the concealed position, the visual identifier in the exposed position being at least one of: (i) exposed: or (ii) exposable whereby the visual identifier is able to be exposed by a routine operation without requiring undue force that may damage one or more components; wherein the indicating feature is in the concealed position relative to the concealing feature when the housing is not fully mated relative to the mating connector, and the indicating feature is in the exposed position relative to the concealing feature when the housing is fully mated to the mating connector. a housing having a mating interface configured to engage a complementary mating connector during a mating operation; at least one electrical conductor held in the housing; an indicating feature carried by the housing, the indicating feature having the visual identifier disposed thereon; and a concealing feature carried by the housing, wherein the indicating feature and the concealing feature are movable relative to each other between a concealed position and an exposed position, the concealing feature concealing at least a portion of the visual identifier in the concealed position, the visual identifier in the exposed position being at least one of: (i) exposed: or (ii) exposable whereby the visual identifier is able to be exposed by a routine operation without requiring undue force that may damage one or more components; wherein the indicating feature is in the concealed position relative to the concealing feature when the housing is not fully mated relative to the mating connector, and the indicating feature is in the exposed position relative to the concealing feature when the housing is fully mated to the mating connector.
A kit comprising: a) a toothbrush comprising elements (240, 250) that are raised on an outer surface of the toothbrush; and b) a dentifrice; characterized in that the dentifrice comprises functional film flakes; c) wherein the elements (240, 250) and flakes have the same shape. a) a toothbrush comprising elements (240, 250) that are raised on an outer surface of the toothbrush; and b) a dentifrice; c) wherein the elements (240, 250) and flakes have the same shape.
A gas turbine engine comprising: a compressor section configured for compressing combustion air; a combustor section configured for receiving a flow of compressed air from the compressor section and a fuel and for burning a fuel-air mixture generating a flow of hot pressurized combustion gases; a turbine section configured for receiving the hot pressurized combustion gases and expanding the combustion gases to generate mechanical power; the turbine section comprising a turbine rotor with at least one bladed wheel rotating around a turbine rotation axis (A-A), an exhaust gas diffuser, and a casing having an inner surface and an outer surface; wherein the casing comprises a turbine casing portion and a diffuser casing portion connected to one another, and a plurality of cooling fins located on the outer surface of the casing wherein the cooling fins are arranged at or near a connection between the turbine casing portion and the diffuser casing portion; wherein the turbine casing portion has a first connection flange and the diffuser casing portion has a second connection flange, and wherein the diffuser casing portion and the turbine casing portion are connected to one another at the first connection flange and second connection flange; and characterized in that an intermediate annular casing component is arranged between the first connection flange and the second connection flange. a compressor section configured for compressing combustion air; a combustor section configured for receiving a flow of compressed air from the compressor section and a fuel and for burning a fuel-air mixture generating a flow of hot pressurized combustion gases; a turbine section configured for receiving the hot pressurized combustion gases and expanding the combustion gases to generate mechanical power; the turbine section comprising a turbine rotor with at least one bladed wheel rotating around a turbine rotation axis (A-A), an exhaust gas diffuser, and a casing having an inner surface and an outer surface; wherein the casing comprises a turbine casing portion and a diffuser casing portion connected to one another, and a plurality of cooling fins located on the outer surface of the casing wherein the cooling fins are arranged at or near a connection between the turbine casing portion and the diffuser casing portion; wherein the turbine casing portion has a first connection flange and the diffuser casing portion has a second connection flange, and wherein the diffuser casing portion and the turbine casing portion are connected to one another at the first connection flange and second connection flange; and characterized in that an intermediate annular casing component is arranged between the first connection flange and the second connection flange.