mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft autobraking system , comprising: an aircraft control mode executive module comprising an autonomous pedal command module and a autonomous aircraft deceleration target module , wherein said aircraft control mode executive module being further configured to calculate of an aircraft control braking command and an aircraft deceleration target; an autobrake controller configured to receive the aircraft deceleration target from the aircraft control mode executive module, and calculate an initial autobrake pedal command based on the aircraft deceleration target and an aircraft deceleration feedback; a pedal balance controller configured to calculate an autobrake pedal correction factor based on at least one of an aircraft yaw angle, an aircraft yaw speed, and an aircraft wheel speed; an autobrake pedal executive module configured to calculate an autobrake pedal command based on at least one of the initial autobrake pedal command and the autobrake pedal correction factor; and a pedal executive module configured to receive at least one of the aircraft control braking command and the autobrake pedal command, and generate a pedal braking command based on at least one of the aircraft control braking command and the autobrake pedal command, characterised in that said autonomous pedal command module is configured to receive remote braking signals and said autonomous aircraft deceleration target module is configured to receive remote deceleration signals. an aircraft control mode executive module comprising an autonomous pedal command module and a autonomous aircraft deceleration target module , wherein said aircraft control mode executive module being further configured to calculate of an aircraft control braking command and an aircraft deceleration target; an autobrake controller configured to receive the aircraft deceleration target from the aircraft control mode executive module, and calculate an initial autobrake pedal command based on the aircraft deceleration target and an aircraft deceleration feedback; a pedal balance controller configured to calculate an autobrake pedal correction factor based on at least one of an aircraft yaw angle, an aircraft yaw speed, and an aircraft wheel speed; an autobrake pedal executive module configured to calculate an autobrake pedal command based on at least one of the initial autobrake pedal command and the autobrake pedal correction factor; and a pedal executive module configured to receive at least one of the aircraft control braking command and the autobrake pedal command, and generate a pedal braking command based on at least one of the aircraft control braking command and the autobrake pedal command, characterised in that said autonomous pedal command module is configured to receive remote braking signals and said autonomous aircraft deceleration target module is configured to receive remote deceleration signals.
A honeycomb sandwich sheet or panel, based on thermoplastic polypropylene, comprising a structure consisting of two flat outer films, at the top and bottom , welded to an inner or central film , blister thermoformed with blisters repeated in a regular and continuous pattern, wherein said inner or central film is thermoformed on both sides or faces, said sheet or panel being characterised in that the flat outer films and the inner thermoformed film consist of three coextruded layers; said honeycomb sandwich sheet or panel being further characterized by the symmetry of the thermoformed structure, the inner thermoformed film being either positive or negative thermoformed on the two faces or sides of the film 11 itself, with blisters having the same form, dimension and number, suitable for guaranteeing the symmetry of the thermoformed structure.
A method for carrying out a cyclic energy storage for a process space (P) in a cyclic operation using an energy storage medium (W) with a hot side (H) and a cold side (K) with the following method steps repeated within a cycle time (t Zyklus ) with the following energy storage cycle: - heating up the energy storage medium (W) on the hot side (H) by means of a hot medium (HM) for initiating an energy transfer to the energy storage medium (W) from the hot side (H) to the cold side (K), - continuously registering the sensor values on the cold side (K) of the energy storage medium (W) by means of a sensor (S) arranged on the cold side of the energy storage medium (W) and measuring the temperature of the energy storage medium (W) in the region of the cold side (K) and comparison with a preset threshold (S Grenz ) (Figs. 2 and 6), - wherein a heat front (WF) progressing through the energy storage medium (W) and arriving on the cold side (K) is registered by the sensor (S), - after reaching the threshold (S Grenz ), feeding a cold medium (KM) to the cold side (K) of the energy storage medium (W) and discharging the stored energy starting from the cold side (K) in the direction of the hot side (H) of the energy storage medium (W), - wherein the heat front (WF) is forced back from the cold side (K) to the hot side (H) of the energy storage medium (W), - renewed heating up of the energy storage medium (W) on the hot side (H) and start of a renewed energy storage cycle. - heating up the energy storage medium (W) on the hot side (H) by means of a hot medium (HM) for initiating an energy transfer to the energy storage medium (W) from the hot side (H) to the cold side (K), - continuously registering the sensor values on the cold side (K) of the energy storage medium (W) by means of a sensor (S) arranged on the cold side of the energy storage medium (W) and measuring the temperature of the energy storage medium (W) in the region of the cold side (K) and comparison with a preset threshold (S Grenz ) (Figs. 2 and 6), - wherein a heat front (WF) progressing through the energy storage medium (W) and arriving on the cold side (K) is registered by the sensor (S), - after reaching the threshold (S Grenz ), feeding a cold medium (KM) to the cold side (K) of the energy storage medium (W) and discharging the stored energy starting from the cold side (K) in the direction of the hot side (H) of the energy storage medium (W), - wherein the heat front (WF) is forced back from the cold side (K) to the hot side (H) of the energy storage medium (W), - renewed heating up of the energy storage medium (W) on the hot side (H) and start of a renewed energy storage cycle.
An image sensor comprising an image sensor substrate having an array of pixels formed thereon, said array of pixels comprising: a first pixel region comprising a contiguous first array of pixels, said first array of pixels only comprising pixels configured for peak sensitivity to wavelength(s) below 700 nm; and a second pixel region comprising a contiguous second array of pixels of at least 300 pixels, said second array of pixels comprising pixels of a first pixel type and pixels of a second pixel type, wherein pixels of the first pixel type are configured for peak sensitivity to wavelength(s) between 700 nm and 1000 nm; and pixels of the second pixel type are configured for peak sensitivity to wavelength(s) below 700 nm, wherein the first pixel region surrounds the second pixel region , such that an average distance of pixels within the second pixel region from a centre of the image sensor is less than an average distance of pixels within the first pixel region from the centre of the image sensor. a first pixel region comprising a contiguous first array of pixels, said first array of pixels only comprising pixels configured for peak sensitivity to wavelength(s) below 700 nm; and a second pixel region comprising a contiguous second array of pixels of at least 300 pixels, said second array of pixels comprising pixels of a first pixel type and pixels of a second pixel type, wherein pixels of the first pixel type are configured for peak sensitivity to wavelength(s) between 700 nm and 1000 nm; and pixels of the second pixel type are configured for peak sensitivity to wavelength(s) below 700 nm, wherein the first pixel region surrounds the second pixel region , such that an average distance of pixels within the second pixel region from a centre of the image sensor is less than an average distance of pixels within the first pixel region from the centre of the image sensor. pixels of the first pixel type are configured for peak sensitivity to wavelength(s) between 700 nm and 1000 nm; and pixels of the second pixel type are configured for peak sensitivity to wavelength(s) below 700 nm, wherein the first pixel region surrounds the second pixel region , such that an average distance of pixels within the second pixel region from a centre of the image sensor is less than an average distance of pixels within the first pixel region from the centre of the image sensor.
A communication method, wherein the method comprises: receiving (S401), by a terminal device , configuration information of at least one carrier component group from a network device ; receiving (S402), by the terminal device by using at least one beam, a downlink signal from the network device on a corresponding carrier component in the at least one carrier component group, wherein each carrier component group comprises at least two carrier components, each carrier component corresponds to at least one beam, and the configuration information comprises an identifier of each carrier component group and an identifier of each carrier component; and when it is detected (S403), by the terminal device , based on the downlink signal that a beam associated with a first carrier component in a carrier component group fails, sending (S404), by the terminal device , a beam recovery request to the network device on a second carrier component in the carrier component group. receiving (S401), by a terminal device , configuration information of at least one carrier component group from a network device ; receiving (S402), by the terminal device by using at least one beam, a downlink signal from the network device on a corresponding carrier component in the at least one carrier component group, wherein each carrier component group comprises at least two carrier components, each carrier component corresponds to at least one beam, and the configuration information comprises an identifier of each carrier component group and an identifier of each carrier component; and when it is detected (S403), by the terminal device , based on the downlink signal that a beam associated with a first carrier component in a carrier component group fails, sending (S404), by the terminal device , a beam recovery request to the network device on a second carrier component in the carrier component group.
A service chain selection control method, comprising: receiving , by a flow classifier, a service chain selection control policy sent by a policy and charging rules function, PCRF, unit, wherein the service chain selection control policy comprises a corresponding relation between an application type and an identifier of a service chain and is determined by the PCRF unit based on a policy contextual information and a service chain selection policy, wherein the policy contextual information and the service chain selection policy are sent by a cooperation device, the service chain selection policy comprises a corresponding relation among the policy contextual information, the application type and the identifier of the service chain, the service chain is a path formed by a forwarding device and a value-added service device both of which a service flow with the application type needs to pass through, and the service flow is from a user matching the policy contextual information; detecting , by the flow classifier, the service flow with the application type based on the service chain selection control policy, and adding the identifier of the service chain to a message of the service flow; and sending , by the flow classifier, the message of the service flow with the added identifier of the service chain to a forwarding device directly connected to the flow classifier. receiving , by a flow classifier, a service chain selection control policy sent by a policy and charging rules function, PCRF, unit, wherein the service chain selection control policy comprises a corresponding relation between an application type and an identifier of a service chain and is determined by the PCRF unit based on a policy contextual information and a service chain selection policy, wherein the policy contextual information and the service chain selection policy are sent by a cooperation device, the service chain selection policy comprises a corresponding relation among the policy contextual information, the application type and the identifier of the service chain, the service chain is a path formed by a forwarding device and a value-added service device both of which a service flow with the application type needs to pass through, and the service flow is from a user matching the policy contextual information; detecting , by the flow classifier, the service flow with the application type based on the service chain selection control policy, and adding the identifier of the service chain to a message of the service flow; and sending , by the flow classifier, the message of the service flow with the added identifier of the service chain to a forwarding device directly connected to the flow classifier.
A urethral antimicrobial delivery device comprising: a) a deformable reservoir in fluid connection with an elongate member, said deformable reservoir and said elongate member being integrally formed; b) the elongate member comprising a lumen, wherein the elongate member is of from 15 mm to 40 mm in length, c) the elongate member having a proximal end and a distal end, said elongate member having a closed terminus at the distal end, d) the elongate member having a plurality of pores defined therein, said pores being distributed along a length of said elongate member, e) the elongate member being dimensioned for insertion through an external urethral orifice of a female subject, f) whereby the elongate member is insertable into a distal urethral cavity for delivery of an antimicrobial in said distal urethral cavity, and g) wherein the device comprises a collar to prevent said elongate member entering a proximal urethral cavity; characterized in that h) the reservoir has an internal volume of 0.5 mL to 3 mL; and the device further comprises a water soluble antimicrobial gel. a) a deformable reservoir in fluid connection with an elongate member, said deformable reservoir and said elongate member being integrally formed; b) the elongate member comprising a lumen, wherein the elongate member is of from 15 mm to 40 mm in length, c) the elongate member having a proximal end and a distal end, said elongate member having a closed terminus at the distal end, d) the elongate member having a plurality of pores defined therein, said pores being distributed along a length of said elongate member, e) the elongate member being dimensioned for insertion through an external urethral orifice of a female subject, f) whereby the elongate member is insertable into a distal urethral cavity for delivery of an antimicrobial in said distal urethral cavity, and g) wherein the device comprises a collar to prevent said elongate member entering a proximal urethral cavity; characterized in that h) the reservoir has an internal volume of 0.5 mL to 3 mL; and the device further comprises a water soluble antimicrobial gel.
Process for manufacturing products made of composite materials, characterized in that it comprises the following operative steps: - arranging one or more substrates in at least one cavity of at least one mould made of a composite material; - hermetically closing the mould by means of mechanic fastening devices comprising a plurality of bushings incorporated in the mould ; - evacuating the cavity and injecting resin into the cavity at a pressure comprised between 0,5 bar and 3,5 bar, in particular comprised between 1,5 and 2,5 bar, so that the substrates are impregnated by the injected resin; - heating the mould for curing the resin which impregnates the substrates in the cavity . - arranging one or more substrates in at least one cavity of at least one mould made of a composite material; - hermetically closing the mould by means of mechanic fastening devices comprising a plurality of bushings incorporated in the mould ; - evacuating the cavity and injecting resin into the cavity at a pressure comprised between 0,5 bar and 3,5 bar, in particular comprised between 1,5 and 2,5 bar, so that the substrates are impregnated by the injected resin; - heating the mould for curing the resin which impregnates the substrates in the cavity .
Diffusion cell comprising a receiving compartment for containing a receiving medium, a clamping ring for being positioned above the receiving compartment so that a membrane sample can be arranged between the receiving compartment and the clamping ring, and clamping means that operate by rotation of the clamping ring on the receiving compartment, said clamping means comprising - at least two clamping protrusions inclined on an outer periphery of the receiving compartment; and - at least two clamping housings complementary in shape to the clamping protrusions, on an outer periphery of the clamping ring, or conversely, each of said clamping protrusions being able to be locked into a clamping housing by rotation of the clamping ring relative to the receiving compartment. - at least two clamping protrusions inclined on an outer periphery of the receiving compartment; and - at least two clamping housings complementary in shape to the clamping protrusions, on an outer periphery of the clamping ring, or conversely,
A method for controlling a wind turbine, the method comprising: detecting , via a controller, a plurality of analytic outputs relating to power performance of the wind turbine from a plurality of different analytics; analyzing , via the controller, the plurality of analytic outputs relating to power performance of the wind turbine; generating , via the controller, at least one computer-based model of the power performance of the wind turbine using at least a portion of the analyzed plurality of analytic outputs; training , via the controller, the at least one computer-based model of the power performance of the wind turbine using annotated analytic outputs relating to the power performance of the wind turbine; estimating a power magnitude of the wind turbine using the at least one machine-learned computer-based model; and implementing a control action when the power magnitude of the wind turbine is outside of a selected range; wherein analyzing the plurality of analytic outputs relating to power performance of the wind turbine further comprises using at least one of principal component analysis or factorization to reduce a number of dimensions in the plurality of analytic outputs. and wherein the plurality of analytic outputs relating to power performance of the wind turbine comprises at least two of the following: power curve low production ratio, power curve historical, power curve residual, or power ensemble. detecting , via a controller, a plurality of analytic outputs relating to power performance of the wind turbine from a plurality of different analytics; analyzing , via the controller, the plurality of analytic outputs relating to power performance of the wind turbine; generating , via the controller, at least one computer-based model of the power performance of the wind turbine using at least a portion of the analyzed plurality of analytic outputs; training , via the controller, the at least one computer-based model of the power performance of the wind turbine using annotated analytic outputs relating to the power performance of the wind turbine; estimating a power magnitude of the wind turbine using the at least one machine-learned computer-based model; and implementing a control action when the power magnitude of the wind turbine is outside of a selected range; wherein analyzing the plurality of analytic outputs relating to power performance of the wind turbine further comprises using at least one of principal component analysis or factorization to reduce a number of dimensions in the plurality of analytic outputs. and wherein the plurality of analytic outputs relating to power performance of the wind turbine comprises at least two of the following: power curve low production ratio, power curve historical, power curve residual, or power ensemble.
Test bench configured to test a drag damper , characterised in that the test bench comprises a first support capable of being rotated about a first axis (AX1) of rotation by a motor , the test bench comprising a second support rotatable about a second axis (AX2), the second axis (AX2) being offset axially in respect of the first axis (AX1), the test bench comprising a first connector secured to the first support and a second connector secured to the second support , the first connector and the second connector being offset from the first axis (AX1) and second axis (AX2), the first connector and the second connector being opposite each other along an arrangement axis (AXAMORT) and being configured to carry said damper along said arrangement axis (AXAMORT).
Shading device, comprising a cloth that can be spread out in a cloth plane and is connected to a lead bar , the lead bar being slidably guided in guides , the guides running horizontally or at an inclination of at most 30° to a horizontal, and comprising at least one blocking device that has a displaceable stop part which can be displaced between a stop position, in which it can be brought into contact with the lead bar , and a release position, the blocking device being arranged below the cloth plane and below the lead bar and having a displaceably mounted switching part which can be displaced, the displacement movement of which switching part is conveyed to the stop part by means of a transmission device in order to displace said stop part between the stop position and the release position, characterized in that the switching part is displaceable by means of the lead bar and that the switching part can be brought into contact with a control part formed on the lead bar .
Method for producing a steam generator pipe having an installation body , characterized in that a steam generator pipe having an elevation which extends in the longitudinal direction of the steam generator pipe on a pipe inner side is produced, and the installation body is welded on the elevation in the steam generator pipe .
Pressure sensor arrangement for detecting a pressure of a fluid medium in a measurement chamber, comprising a sensor housing , at least one sensor element which is arranged in or on the sensor housing in such a way that it can be subjected to the medium in order to measure a pressure of the medium, a pressure connection by means of which the pressure sensor arrangement can be mounted on or in the measurement chamber, and a housing base on which the sensor housing is arranged, wherein the housing base has at least one elastically deformable securing element for attaching the sensor housing to the housing base , wherein the sensor housing has at least one depression , wherein the securing element engages in the depression , wherein the housing base has a pressure-connection-side section and a sensor-housing-side section , wherein the sensor-housing-side section at least partially surrounds an outer side of the sensor housing , wherein the sensor-housing-side section is arranged coaxially with respect to the outer side of the sensor housing , wherein the securing element is arranged on the sensor-housing-side section , characterized in that the pressure connection has an outer thread, the housing base is embodied as a metal plate and is welded to the pressure connection , and the securing element is embodied as an elastically deformable clip , wherein the securing element extends in the direction of the pressure-connection-side section .