mhurhangee/patent-ind-claim-en huggingface dataset:
A radio resource controller, RRC, for use in a radio cell , in particular a base station , for preserving communication in an Out-of-Coverage, OOC, area , the RRC comprising: a processor , configured to: determine an egress traffic of mobile communication devices, in particular vehicles , from an area covered by the radio cell to an OOC area not covered by the radio cell , determine an ingress traffic of mobile communication devices, in particular vehicles , from the OOC area to the area covered by the radio cell , determine a demand of radio resources for services running on the mobile communication devices entering the OOC area , control admission to the services running on the mobile communication devices entering the OOC area , and schedule radio resources for the admitted services based on an admission and scheduling metric with respect to the egress traffic, the ingress traffic and the demand of radio resources, characterized in that : the services comprise pre-scheduled services and Ad-hoc services; and wherein the processor is configured to reserve a portion of the schedulable radio resources for the Ad hoc services. a processor , configured to: determine an egress traffic of mobile communication devices, in particular vehicles , from an area covered by the radio cell to an OOC area not covered by the radio cell , determine an ingress traffic of mobile communication devices, in particular vehicles , from the OOC area to the area covered by the radio cell , determine a demand of radio resources for services running on the mobile communication devices entering the OOC area , control admission to the services running on the mobile communication devices entering the OOC area , and schedule radio resources for the admitted services based on an admission and scheduling metric with respect to the egress traffic, the ingress traffic and the demand of radio resources, determine an egress traffic of mobile communication devices, in particular vehicles , from an area covered by the radio cell to an OOC area not covered by the radio cell , determine an ingress traffic of mobile communication devices, in particular vehicles , from the OOC area to the area covered by the radio cell , determine a demand of radio resources for services running on the mobile communication devices entering the OOC area , control admission to the services running on the mobile communication devices entering the OOC area , and schedule radio resources for the admitted services based on an admission and scheduling metric with respect to the egress traffic, the ingress traffic and the demand of radio resources, characterized in that : the services comprise pre-scheduled services and Ad-hoc services; and wherein the processor is configured to reserve a portion of the schedulable radio resources for the Ad hoc services. the services comprise pre-scheduled services and Ad-hoc services; and wherein the processor is configured to reserve a portion of the schedulable radio resources for the Ad hoc services.
A method of detecting grid islanding in a grid supporting voltage source converter , the method comprising: modulating an output voltage at an output of the grid supporting voltage source converter; determining at least one grid parameter at an input to the grid supporting voltage source converter; and detecting the grid islanding for the grid supporting voltage source converter based on the at least one grid parameter. modulating an output voltage at an output of the grid supporting voltage source converter; determining at least one grid parameter at an input to the grid supporting voltage source converter; and detecting the grid islanding for the grid supporting voltage source converter based on the at least one grid parameter.
A shape memory actuator comprising: a monolithic shape memory alloy wire; a shape memory effect (SME) section of the monolithic shape memory alloy wire, configured for actuation; a pseudo-elastic (PE) section of the monolithic shape memory alloy wire, configured as a sensor for enabling position sensing; and a control system configured to control the actuator by controlling a current through at least the SME section based on the sensor results of the PE section, wherein the sensor results include an estimated position of the actuator based on a first resistance of the SME section and a second resistance of the PE section; wherein the PE section is configured with transformation temperatures lower than an intended operating temperature of the SME section allowing the PE section to exhibit pseudo-elastic (PE) properties. a monolithic shape memory alloy wire; a shape memory effect (SME) section of the monolithic shape memory alloy wire, configured for actuation; a pseudo-elastic (PE) section of the monolithic shape memory alloy wire, configured as a sensor for enabling position sensing; and a control system configured to control the actuator by controlling a current through at least the SME section based on the sensor results of the PE section, wherein the sensor results include an estimated position of the actuator based on a first resistance of the SME section and a second resistance of the PE section; wherein the PE section is configured with transformation temperatures lower than an intended operating temperature of the SME section allowing the PE section to exhibit pseudo-elastic (PE) properties.
A waveguide system comprising a trunk acoustic waveguide section having an open end and a trunk terminal end, and two branch acoustic waveguide sections having substantially the same length , each having a junction end coupled to the terminal end of the trunk acoustic waveguide section and a terminal end each terminal end respectively being coupled with a respective acoustic driver , an elongate cavity defining a volume smaller than the volume of the trunk acoustic waveguide section and the branch acoustic waveguide sections, wherein the elongate cavity is attached to the waveguide system via a vent located at the junction end connecting the terminal end of the trunk acoustic waveguide section and the branch acoustic waveguide sections, and characterised in that J Z the elongate cavity is configured to generate a resonance behavior in a desired frequency range to control the magnitude of a resonance peak in the waveguide system. a trunk acoustic waveguide section having an open end and a trunk terminal end, and two branch acoustic waveguide sections having substantially the same length , each having a junction end coupled to the terminal end of the trunk acoustic waveguide section and a terminal end each terminal end respectively being coupled with a respective acoustic driver , an elongate cavity defining a volume smaller than the volume of the trunk acoustic waveguide section and the branch acoustic waveguide sections, wherein the elongate cavity is attached to the waveguide system via a vent located at the junction end connecting the terminal end of the trunk acoustic waveguide section and the branch acoustic waveguide sections, and characterised in that J Z the elongate cavity is configured to generate a resonance behavior in a desired frequency range to control the magnitude of a resonance peak in the waveguide system.
A method of making a wind turbine blade in a blade mould , the wind turbine blade comprising a plurality of elongate reinforcing structures each comprising a stack of strips of fibre-reinforced polymeric material, and the method comprising: stacking strips of fibre-reinforced polymeric material to form a plurality of stacks , each defining a longitudinal axis; aligning the stacks relative to one another in an alignment zone outside the blade mould ; supporting the stacks to maintain their relative alignment by coupling a support structure to each stack in the alignment zone; transferring the plurality of stacks into the blade mould simultaneously while maintaining the relative alignment of stacks as the stacks are transferred, the support structure being configured to maintain the relative alignment of the stacks as the stacks are transferred into the mould; integrating the stacks with other blade materials forming the blade in the blade mould ; wherein transferring the plurality of stacks comprises lifting the plurality of stacks from the alignment zone and lowering the plurality of stacks into the blade mould and primarily supporting the stacks at their respective end regions so that when the stacks are lifted, the stacks droop such that a central portion of each stack is below the end regions of the stack, and lowering the stacks into the blade mould such that the central regions of the stacks make contact with the blade mould before the end regions. stacking strips of fibre-reinforced polymeric material to form a plurality of stacks , each defining a longitudinal axis; aligning the stacks relative to one another in an alignment zone outside the blade mould ; supporting the stacks to maintain their relative alignment by coupling a support structure to each stack in the alignment zone; transferring the plurality of stacks into the blade mould simultaneously while maintaining the relative alignment of stacks as the stacks are transferred, the support structure being configured to maintain the relative alignment of the stacks as the stacks are transferred into the mould; integrating the stacks with other blade materials forming the blade in the blade mould ; wherein transferring the plurality of stacks comprises lifting the plurality of stacks from the alignment zone and lowering the plurality of stacks into the blade mould and primarily supporting the stacks at their respective end regions so that when the stacks are lifted, the stacks droop such that a central portion of each stack is below the end regions of the stack, and lowering the stacks into the blade mould such that the central regions of the stacks make contact with the blade mould before the end regions.
Active chassis for a dual-track motor vehicle provided with a wheel suspension, wherein a wheel carrier supporting a vehicle wheel (HR) is connected via connecting rods to a vehicle structure , wherein the camber behaviour of the vehicle wheel (HR) is determined by a mechanical camber curve (S M ) predetermined by the rigid kinematics of the connecting rods which defines a mechanical adjustment of the camber curve (ε) of the vehicle wheel (HR) as a function of a spring path (d) of the vehicle structure , and with a camber actuator which can be controlled by a chassis control device for carrying out an active camber angle adjustment, so that with a change of the vehicle loading state (m z , l z ) the vehicle structure compresses or decompresses by a spring path (d), and with a corresponding adjustment of the mechanical camber angle, wherein in order to control the camber actuator , an evaluating unit is assigned to the chassis control device which controls the camber actuator when the loading state (m z , l z ) is changed, in order to counteract at least partially the mechanical camber angle adjustment with an active camber angle adjustment, or in order to support the mechanical camber angle adjustment, wherein the evaluating unit determines an actuator camber curve (S A ) on the basis of the current loading state of the vehicle, wherein the evaluating unit influences the actuator camber curve (S A ) by controlling the camber actuator of the mechanical camber curve (S M ), creating a total camber curve (S G1 , S G2 ), characterised in that to determine the actual loading state (m z , l z ) a loading sensor system is assigned to the evaluating unit , by means of which the vehicle weight or additional load (m z ) and the position (l v ) of the vehicle or additional load centre of gravity can be determined, which can be detected as input parameters obtained by the evaluating unit , and on the basis of which the evaluating unit determines the actuator camber curve (S A ), in that the evaluating unit as an additional input parameter detects the spring path (d) on loading or unloading the vehicle, and in that the evaluating unit on the basis of the spring path (d) and the actuator camber curve (S A ) generates a camber angle signal (S), by means of which the camber actuator can be controlled.
Light module for a motor vehicle headlamp, comprising light sources, optical elements each designed to guide light rays emitted by a light source, and a mounting bracket against which the optical elements and the light sources are arranged, the optical elements comprising a first optical element associated with a first light source , a second optical element associated with a second light source and a third optical element associated with a third light source, wherein the first optical element comprises means for holding the second optical element and the third optical element on the fixing support , and characterized in that each of the optical elements comprises an optical guiding portion, configured for guiding the light rays emitted by the corresponding light source and laterally extended by fins, the fins of the first optical element being configured to carry said holding means , the optical guiding portion of the first optical element being arranged between the second optical element and the third optical element .
Fire resistance device designed to be interposed between an upstream end of a mounting structure of an aircraft dual flow turbine engine , and a connection cowling installed on this turbine engine, said connection cowling being designed to connect an upstream ring delimiting part of an inter-flow compartment radially outwards, to an arm passing radially through a fan flow stream of the turbine engine, characterised in that the device comprises: - a first support portion ; - a first contact element , preferably formed by a first contact lip , the first element being carried by the first support portion through a first junction zone , and having a first contact end extending along a first curved line ; - a second support portion extending from an end portion of the first support portion ; - a second contact element , preferably formed by a second contact lip , the second element being carried by the second support portion via a second junction zone that also extends from the end portion of the first support portion , the second element having a second contact end extending along a second line distinct from the first line . - a first support portion ; - a first contact element , preferably formed by a first contact lip , the first element being carried by the first support portion through a first junction zone , and having a first contact end extending along a first curved line ; - a second support portion extending from an end portion of the first support portion ; - a second contact element , preferably formed by a second contact lip , the second element being carried by the second support portion via a second junction zone that also extends from the end portion of the first support portion , the second element having a second contact end extending along a second line distinct from the first line .
A technique for construction of prefabricated columns and beam type, whether they are made of wood, reinforced concrete or any other material, using two types of connections between the columns and the beams , on the one hand a peripheral connection made of vertical braces , connecting columns to adjacent beams , as well as horizontal braces connecting adjacent beams between them, and on the other hand, a central connection made of reinforced concrete, at the intersection of columns and beams , the number and inclination of the braces not being limited, technique which uses the prefabricated elements constituting the structure of the building which are columns , beams , vertical and horizontal braces , as well as metal frames for the reinforcement of the central connection , assembling these prefabricated elements on the construction site taking place so that after columns and beams are posed, and prefabricated reinforcements are welded in the central connections , then said columns and beams are held in their position by as many braces as necessary, so that construction work can continue, insofar as concreting of central junctions for one or more levels of the construction can take place at once at the end of construction work, technique characterized in that columns and beams are provided with short starter bars on which are welded into the junction, prefabricated metal frames , except the lower and upper ends of the posts provided with starter bars of approximately 20 cm in length at the base and 40 cm at the top, the lower end being intended for connection with the foundation or the column of the lower floor, by concreting on site at the time of the construction of the foundation or of the lower floor.
A solidification matrix comprising: (a) 0.1 to 20 wt.% of a sugar selected from the group consisting of a monosaccharide, a disaccharide, a sugar alcohol having at least 6 carbon atoms, and mixtures thereof, wherein the sugar is sorbitol; (b) 50 to 95 wt.% of a carbonate; and (c) 5 to 50 wt.% of water, wherein the amounts of (a), (b) and (c) do not result in more than 100 wt.%, wherein the solidification matrix is a hydrate salt, wherein if heated at a temperature of 49 °C (120 °F), the solidification matrix is dimensionally stable and has a growth exponent of less than 3%. (a) 0.1 to 20 wt.% of a sugar selected from the group consisting of a monosaccharide, a disaccharide, a sugar alcohol having at least 6 carbon atoms, and mixtures thereof, wherein the sugar is sorbitol; (b) 50 to 95 wt.% of a carbonate; and (c) 5 to 50 wt.% of water,
Actuator having at least one operating element , which is arranged on the outside of a housing of the actuator , wherein the operating element is at least partly inserted into a recess formed on the housing , wherein the operating element is arranged to be rotatable and/or pivotable about an axis on the housing , wherein the operating element is additionally displaceable on the housing along the axis into the recess, and wherein at least one magnetic element is formed on the operating element , and a magnetic field sensor , with which a position and/or a position change of the magnetic element can be detected, is arranged in the interior of the housing .
A smokeable material heating apparatus comprising: a smokeable material heating chamber configured to contain a body of smokeable material during heating; and a heater configured to heat the smokeable material to volatize at least one component of the smokeable material, the heater comprising a substrate and at least one heating element printed on to the substrate; wherein the smokeable material heating chamber is located around the heater such that the heater emits heat in a radially outward direction into the smokeable material heating chamber ; wherein the heater has peripheral surfaces, and wherein the heater is arranged such that the peripheral surfaces of the heater principally comprise those of the substrate such that the smokeable material is heated principally by heat emitted from the heated substrate . a smokeable material heating chamber configured to contain a body of smokeable material during heating; and a heater configured to heat the smokeable material to volatize at least one component of the smokeable material, the heater comprising a substrate and at least one heating element printed on to the substrate; wherein the smokeable material heating chamber is located around the heater such that the heater emits heat in a radially outward direction into the smokeable material heating chamber ; wherein the heater has peripheral surfaces, and wherein the heater is arranged such that the peripheral surfaces of the heater principally comprise those of the substrate such that the smokeable material is heated principally by heat emitted from the heated substrate .
A glass breakage detection method, the method comprising: receiving a plurality of audio samples; determining Mel-spaced band power values of said received plurality of audio samples; estimating low frequency power values of said received plurality of audio samples responsive to said determined Mel-spaced band power values; estimating wide band power values of said received plurality of audio samples; responsive to said estimated wide band power values, determining an amplification value; responsive to said estimated low frequency power being greater than a predetermined threshold, amplifying a function of said received plurality of audio samples by said determined amplification value; comparing said amplified function with a predetermined function of sound of breaking glass; and outputting an indication of said comparison. receiving a plurality of audio samples; determining Mel-spaced band power values of said received plurality of audio samples; estimating low frequency power values of said received plurality of audio samples responsive to said determined Mel-spaced band power values; estimating wide band power values of said received plurality of audio samples; responsive to said estimated wide band power values, determining an amplification value; responsive to said estimated low frequency power being greater than a predetermined threshold, amplifying a function of said received plurality of audio samples by said determined amplification value; comparing said amplified function with a predetermined function of sound of breaking glass; and outputting an indication of said comparison.
A display device having an integrated, optically operating proximity sensor system for detecting an object present within an observation space in front of the display device, such as a hand or a finger of a hand of a person, provided with - a display unit comprising a front side having a display surface fi displaying information, an edge region adjoining the display surface and not being used for displaying information, and a rear side, and - a proximity sensor system having at least one transmitter for emitting sensor radiation toward the observation space and having at least one receiver for receiving sensor radiation reflected out of the observation space, - wherein the at least one transmitter is arranged below the display unit , e.g. laterally below the display unit , on the rear side of the display unit , or facing the rear side of the display unit , or in the display unit , and the at least one receiver is arranged in the edge region adjoining the display surface on the front side of the display unit , - wherein the display unit comprises a display panel and a color filter layer arranged above the display panel and defining the display surface , - wherein the display panel protrudes from at least one edge portion beyond the color filter layer , and the protrusion forms the edge region laterally adjoining the display surface , and - wherein the at least one receiver is arranged in or on the protrusion of the display panel . - a display unit comprising a front side having a display surface fi displaying information, an edge region adjoining the display surface and not being used for displaying information, and a rear side, and - a proximity sensor system having at least one transmitter for emitting sensor radiation toward the observation space and having at least one receiver for receiving sensor radiation reflected out of the observation space, - wherein the at least one transmitter is arranged below the display unit , e.g. laterally below the display unit , on the rear side of the display unit , or facing the rear side of the display unit , or in the display unit , and the at least one receiver is arranged in the edge region adjoining the display surface on the front side of the display unit , - wherein the display unit comprises a display panel and a color filter layer arranged above the display panel and defining the display surface , - wherein the display panel protrudes from at least one edge portion beyond the color filter layer , and the protrusion forms the edge region laterally adjoining the display surface , and - wherein the at least one receiver is arranged in or on the protrusion of the display panel .