mhurhangee/ep-ind-claims huggingface dataset:
- Motor vehicle including - a base having a front and a rear part, - a cradle of engine, - a deflector underfloor fixed both under the front part of the said underfloor and under the said cradle, the said deflector underfloor consisting of a front and a rear portion, the front portion being arranged next to the said cradle; the front and rear portion of the deflector underfloor extending according to horizontal plans vertical axis so that the front portion extends in a plane greater than the plane in which the rear portion extends, the vehicle being characterized in that it includes at least one means of reinforcement having a rear end fixed to the front part of the said underlay and a front end fixed to that cradle, the underfloor deflector being configured to partially cover the said means of reinforcement) and having at least one opening at the front of it arranged to be crossed by the front end of a means of reinforcement. - a base having a front and a rear part, - a cradle of engine, - a deflector underfloor fixed both under the front part of the said underfloor and under the said cradle, the said deflector underfloor consisting of a front and a rear portion, the front portion being arranged next to the said cradle; the front and rear portion of the deflector underfloor extending according to horizontal plans vertical axis so that the front portion extends in a plane greater than the plane in which the rear portion extends, the vehicle being characterized in that it includes at least one means of reinforcement having a rear end fixed to the front part of the said underlay and a front end fixed to that cradle, the underfloor deflector being configured to partially cover the said means of reinforcement) and having at least one opening at the front of it arranged to be crossed by the front end of a means of reinforcement.
A method for managing network traffic communicated over a network including a network device comprising a policy engine and a script engine separate from the policy engine, wherein the network device is operative to perform operations, comprising: determining by the policy engine a policy rule from a plurality of policy rules based in part on at least one attribute of the managed network traffic; determining a condition that corresponds to the determined policy rule; if the determined condition includes a script, employing the script engine to execute the script to determine if the determined condition is met; and if the determined condition includes a declarative expression, implementing by the policy engine the determination of whether the determined condition is met, wherein the declarative expression is separate from a script and comprises operands, operators, and functions that have been pre-declared either as part of policy engine or in one or more components of the network device 300; and if the determined condition is met, performing further steps, including: determining an action that corresponds to the determined policy rule; and executing the determined action. determining by the policy engine a policy rule from a plurality of policy rules based in part on at least one attribute of the managed network traffic; determining a condition that corresponds to the determined policy rule; if the determined condition includes a script, employing the script engine to execute the script to determine if the determined condition is met; and if the determined condition includes a declarative expression, implementing by the policy engine the determination of whether the determined condition is met, wherein the declarative expression is separate from a script and comprises operands, operators, and functions that have been pre-declared either as part of policy engine or in one or more components of the network device 300; and if the determined condition is met, performing further steps, including: determining an action that corresponds to the determined policy rule; and executing the determined action. determining an action that corresponds to the determined policy rule; and executing the determined action.
A display system comprising: a continuous flexible display; and at least two frame parts each housing a main display support (40, 41, 50, 51), said supports (40, 41, 50, 51) being hingeable with respect to each other and each structurally configured to support a respective portion of the flexible display; wherein the two main display supports (40, 41, 50, 51) are rotatable in opposite directions connected to each other by a hinge mechanism comprising two hinges (53, 54) being mutually located at a distance, each of the hinges (53, 54) being configured for rotation of a respective one of the main display supports (40, 41, 50, 51), the main display supports (40, 41, 50, 51) being rotatable between a configuration for fixing the flexible display in a closed storage position and a planar configuration for fixing the flexible display in an open position, wherein the two main display supports (40, 41, 50, 51) are coupled to each other by a movement synchronizing coupling, said coupling enabling during movement between the closed and open position a mutual substantially synchronized rotating of the main display supports (40, 41, 50, 51) at substantially equal but oppositely directed angles; characterised in that the movement synchronizing coupling comprises an elongated spring extending between the ends of both hinges (53, 54) and providing spring forces on both main display supports (40, 41, 50, 51) to keep the display system into the open or closed position respectively. a continuous flexible display; and at least two frame parts each housing a main display support (40, 41, 50, 51), said supports (40, 41, 50, 51) being hingeable with respect to each other and each structurally configured to support a respective portion of the flexible display; wherein the two main display supports (40, 41, 50, 51) are rotatable in opposite directions connected to each other by a hinge mechanism comprising two hinges (53, 54) being mutually located at a distance, each of the hinges (53, 54) being configured for rotation of a respective one of the main display supports (40, 41, 50, 51), the main display supports (40, 41, 50, 51) being rotatable between a configuration for fixing the flexible display in a closed storage position and a planar configuration for fixing the flexible display in an open position, wherein the two main display supports (40, 41, 50, 51) are coupled to each other by a movement synchronizing coupling, said coupling enabling during movement between the closed and open position a mutual substantially synchronized rotating of the main display supports (40, 41, 50, 51) at substantially equal but oppositely directed angles; characterised in that the movement synchronizing coupling comprises an elongated spring extending between the ends of both hinges (53, 54) and providing spring forces on both main display supports (40, 41, 50, 51) to keep the display system into the open or closed position respectively.
A gas turbine engine (20, 100) comprising: a fan rotor (42; 103; 150; 170; 196; 230; 242; 274) having fan blades (98; 152, 154; 172, 176; 182, 190; 220; 232, 234; 240; 276, 282) received within an outer nacelle, said fan blades (98...282) comprising at least a first type of blades (152; 172; 182; 232; 276) having a first natural frequency, and a second type of blades (154; 176; 190; 234; 282) having a second natural frequency, and said fan rotor (42...274) having a first mount structure intended for said first type (152...276) and a distinct second mount structure intended for said second type (154...282), said first type (152...276) of fan blade fitting into the first mount structure intended for said first type (152...276), and said second type (154...282) of fan blade fitting into the second mount structure intended for said second type (154...282), wherein a portion of said first type of fan blade (152...276) is received in a first type of slot in said rotor (42...274), and a portion of said second type of fan blade (154...282) is received in a second type of slot in said rotor (142...274), characterised in that: the second type of slot, is distinct from said first type of slot; the second type of slot provides a first obstruction preventing said first type (152...276) of fan blade from being placed into the second mount structure intended for said second type (154...282); the first type of slot provides a second obstruction preventing said second type (154...282) of fan blade from being placed into the first mount structure intended for said first type (152...276); and a distance is defined from a plane defined by leading edges of said fan blades (98...282) to an axial location of a forwardmost part (96, 97) of said nacelle, and an outer diameter of said fan blades (98...282) is defined, and a ratio of said distance to said outer diameter is between 0.2 and 0.5. the second type of slot, is distinct from said first type of slot; the second type of slot provides a first obstruction preventing said first type (152...276) of fan blade from being placed into the second mount structure intended for said second type (154...282); the first type of slot provides a second obstruction preventing said second type (154...282) of fan blade from being placed into the first mount structure intended for said first type (152...276); and a distance is defined from a plane defined by leading edges of said fan blades (98...282) to an axial location of a forwardmost part (96, 97) of said nacelle, and an outer diameter of said fan blades (98...282) is defined, and a ratio of said distance to said outer diameter is between 0.2 and 0.5.
Fuel injection valve for internal combustion engines, having a housing in which there is formed a pressure chamber which can be filled with fuel at high pressure and in which a nozzle needle for opening and closing at least one injection opening is arranged in longitudinally movable fashion, wherein the nozzle needle is guided in the opening of a guide disc, and having a nozzle spring which is arranged under compressive preload between the guide disc and a spring plate, wherein the spring plate is supported on the nozzle needle such that the nozzle spring exerts a closing force on the nozzle needle, wherein the spring plate has a sleeve-shaped projection on which there is formed a stop surface facing toward the guide disc, wherein the sleeve-shaped projection of the spring plate at least partially surrounds the nozzle spring, characterized in that the nozzle needle is guided, at its end averted from the injection openings, in a sleeve, and a control chamber is delimited by that face side of the nozzle needle which is averted from the injection openings and by the sleeve, by the hydraulic pressure of which control chamber a closing force is exerted on the nozzle needle.
Geodesic measuring instrument, in particular a theodolite, having • one mounting support (8, 8', 20) for positioning the measuring instrument, • an aligning component (5, 5', 5") being mobile relative to the mounting support, in particular being rotatable about a vertical support axis, • a measuring component (7, 7', 7") for aligning an optical beam path toward a target, • a component for a modification of the beam path used for measuring, • at least one piezoelectric micromotor (1, 1', 1a-e, 1e', 1e") having at least one motion-transmitting contact element that is operated so as to oscillate in space, • a computer for addressing the micromotor (1, 1', 1a-e, 1e', 1e"), wherein the measuring component (7, 7', 7") is supported within the aligning component (5, 5', 5") and is mobile relative to the aligning component (5, 5', 5"), in particular rotatable about a tilt axis, or measuring component (7, 7', 7"), or wherein the measuring component (7, 7', 7") and the aligning component are designed as a common component, this component being mobile about two axes, wherein the component for a modification of the beam path comprises a bearing surface (3, 3a-e) as motion-receiving element and wherein the contact element is arranged in such a way that propulsion is produced by the contact element contacting the bearing surface (3, 3a-e) while applying pressure, characterised in that the micromotor (1, 1', 1a-e, 1e', 1e") can be addressed by the computer in the geodesic measuring instrument in such a way that the thrust forces or detent forces of the micromotor (1, 1', 1a-e, 1e', 1e") can be configured freely, the computer is designed in such a way that it provides a controlling frequency that can be readjusted continually and the computer is designed in such a way that it • varies the controlling frequency by minor amounts starting from a basic value, particularly temperature-dependent, until the maximum of a speed of motion has been found or • varies the controlling frequency while measuring currents as functions of time and determining therefrom an optimum working value of the controlling frequency. • one mounting support (8, 8', 20) for positioning the measuring instrument, • an aligning component (5, 5', 5") being mobile relative to the mounting support, in particular being rotatable about a vertical support axis, • a measuring component (7, 7', 7") for aligning an optical beam path toward a target, • a component for a modification of the beam path used for measuring, • at least one piezoelectric micromotor (1, 1', 1a-e, 1e', 1e") having at least one motion-transmitting contact element that is operated so as to oscillate in space, • a computer for addressing the micromotor (1, 1', 1a-e, 1e', 1e"), • varies the controlling frequency by minor amounts starting from a basic value, particularly temperature-dependent, until the maximum of a speed of motion has been found or • varies the controlling frequency while measuring currents as functions of time and determining therefrom an optimum working value of the controlling frequency.
A ring-shaped thrust bearing for a brake actuator, extending in an axial direction and comprising a radially inner surface; characterised in that the thrust bearing further comprises: a first axial groove in the inner surface, the first axial groove having a first flat wall and a second flat wall perpendicular to the first flat wall; a first principal strain sensor positioned on the first flat wall of the first axial groove to measure compression in the axial direction; and a first transverse strain sensor positioned on the second flat wall of the first axial groove perpendicular to the first principal strain sensor. a first axial groove in the inner surface, the first axial groove having a first flat wall and a second flat wall perpendicular to the first flat wall; a first principal strain sensor positioned on the first flat wall of the first axial groove to measure compression in the axial direction; and a first transverse strain sensor positioned on the second flat wall of the first axial groove perpendicular to the first principal strain sensor.
. A network server cyctom for optimizing a resource to be down-loaded by a client device via a network, the network server system being operable to: - collect a pluralité of data records, wherein each data record relates to an object downloaded to the client device; - generate a time series of the data records collected; - apply a filter on the time series to identify a resource download event, wherein the resource download event corresponds to downloading the resource; - determine a resource key performance indicator for the resource download event; and - determine a correlation value for the resource KPI and a predetermined network performance metric, wherein the determined correlation value is utilizable to perform an optimization of the resource; wherein the optimization of the resource comprises determining, by a resource provider providing the resource, whether the resource can be optimized based on the correlation value between the determined KPI and the predetermined network performance metric; and wherein the resource provider may optimize the resource based on the predetermined network performance metric, wherein the resource provider is enabled to identify a performance level of the resource to be downloaded via the network taking at least one network KPI into account. - collect a pluralité of data records, wherein each data record relates to an object downloaded to the client device; - generate a time series of the data records collected; - apply a filter on the time series to identify a resource download event, wherein the resource download event corresponds to downloading the resource; - determine a resource key performance indicator for the resource download event; and - determine a correlation value for the resource KPI and a predetermined network performance metric, wherein the determined correlation value is utilizable to perform an optimization of the resource;
System for managing bulk liquids and/or bulk solids for in-vitro diagnostics, the system comprising, a sample processing unit, at least one bulk container unit (100, 110, 120, 130) for receiving at least one bulk liquid and/or bulk solid supply container (131, 132, 134, 101, 102) for supplying the sample processing unit with at least one bulk liquid and/or bulk solid respectively and/or at least one bulk liquid and/or bulk solid waste container (111, 121, 133, 103, 104) for receiving at least one bulk liquid and/or bulk solid waste respectively from the sample processing unit, at least one weight measuring device (150, 150', 150") comprising a loading plate, a reference base and a force measuring cell connected to the loading plate and to the reference base, the force measuring cell comprising a vibrating wire sensor comprising a tensioned sensor wire, wherein the loading plate is adapted to be biased with respect to the reference base by a weight applied to the loading plate by a bulk container (131, 132, 134, 101, 102, 111, 121, 133, 103, 104) and to transfer force to the force measuring cell, the transferred force causing a deformation of the force measuring cell and thereby a change in tension of the sensor wire, which causes a change in vibrational frequency, thereby resulting in an electric signal indicative of the weight of the bulk container (131, 132, 134, 101, 102, 111, 121, 133, 103, 104), wherein the loading plate and the reference base are resiliently coupled such that the loading plate is movable towards or away from the reference base in the same direction of the force applied by the weight to the loading plate and at the same time it is laterally translatable in a direction orthogonal to the direction of the applied force, wherein an increase in force applied to the loading plate corresponds to a decrease in distance between the loading plate and reference base and to an increase in lateral displacement and wherein a decrease in force applied to the loading plate corresponds to an increase of the distance and a decrease of the lateral displacement.
A transgene comprising: a first splice acceptor sequence and a second splice acceptor sequence positioned within the transgene in opposite directions; a first coding sequence operably linked to the first splice acceptor sequence and a second coding sequence operably linked to the second splice acceptor sequence, wherein the first and second coding sequences are positioned within the transgene in opposite directions; and a first terminator operably linked to the first coding sequence and a second terminator operably linked to the second coding sequence, wherein the first and second terminators are positioned within the transgene in opposite directions, or a bidirectional terminator operably linked to the first and second coding sequences and positioned within the transgene; wherein the first splice acceptor sequence flanks the first coding sequence and the first or the bidirectional terminator, wherein the second splice acceptor sequence flanks the second coding sequence and the second or the bidirectional terminator, and wherein the first and second coding sequences are the same nucleic acid sequences, or wherein the first and second coding sequences are different nucleic acid sequences that code for the same protein using the degeneracy of codons. a first splice acceptor sequence and a second splice acceptor sequence positioned within the transgene in opposite directions; a first coding sequence operably linked to the first splice acceptor sequence and a second coding sequence operably linked to the second splice acceptor sequence, wherein the first and second coding sequences are positioned within the transgene in opposite directions; and a first terminator operably linked to the first coding sequence and a second terminator operably linked to the second coding sequence, wherein the first and second terminators are positioned within the transgene in opposite directions, or a bidirectional terminator operably linked to the first and second coding sequences and positioned within the transgene; wherein the first splice acceptor sequence flanks the first coding sequence and the first or the bidirectional terminator, wherein the second splice acceptor sequence flanks the second coding sequence and the second or the bidirectional terminator, and wherein the first and second coding sequences are the same nucleic acid sequences, or wherein the first and second coding sequences are different nucleic acid sequences that code for the same protein using the degeneracy of codons.
A method of producing a compound of formula: the method comprising the following step: (a) reacting, in acetonitrile as solvent, a compound of formula: with a bridging element of the form ZCH 2 CH 2 Z, wherein P is an arylsulfonate protecting group and Z is a halogen selected from: Cl; Br; and, I. (a) reacting, in acetonitrile as solvent, a compound of formula: with a bridging element of the form ZCH 2 CH 2 Z, wherein P is an arylsulfonate protecting group and Z is a halogen selected from: Cl; Br; and, I.
A cable processing machine system, comprising a cable processing machine for processing a cable, a cable storage means for receiving cables processed by the cable processing machine, and a removal trough, wherein the cable storage means is designed so as to be pivotable such that cables from the cable storage means reach the removal trough when the cable storage means is pivoted, characterized in that the removal trough comprises a movable exit conveyor belt for conveying the cables away from the cable processing machine to one end of the removal trough along a transport direction. a cable processing machine for processing a cable, a cable storage means for receiving cables processed by the cable processing machine, and a removal trough, wherein the cable storage means is designed so as to be pivotable such that cables from the cable storage means reach the removal trough when the cable storage means is pivoted, characterized in that the removal trough comprises a movable exit conveyor belt for conveying the cables away from the cable processing machine to one end of the removal trough along a transport direction.