mhurhangee/patent-ind-claim-en huggingface dataset:
A processing system for a flight simulator , comprising: a ScramNet interface configured to establish a ScramNet bus on which ScramNet messages are transmitted and received; an Ethernet interface configured to be coupled to an Ethernet network , and further configured to receive a flight control message from a flight control system ; a non-transitory memory configured to store computer-executable instructions for a host process and a ScramNet-to-Ethernet application programming interface (API) ; and a processor communicatively coupled to said ScramNet interface and said non-transitory memory , and configured to execute the host process and the ScramNet-to-Ethernet API to: convert, using the ScramNet-to-Ethernet API , the flight control message to a first ScramNet message on the ScramNet bus ; process, using the host process , the first ScramNet message to generate a second ScramNet message on the ScramNet bus ; and convert, using the ScramNet-to-Ethernet API , the second ScramNet message to a display message, wherein the Ethernet interface is further configured to transmit the display message to a display system . a ScramNet interface configured to establish a ScramNet bus on which ScramNet messages are transmitted and received; an Ethernet interface configured to be coupled to an Ethernet network , and further configured to receive a flight control message from a flight control system ; a non-transitory memory configured to store computer-executable instructions for a host process and a ScramNet-to-Ethernet application programming interface (API) ; and a processor communicatively coupled to said ScramNet interface and said non-transitory memory , and configured to execute the host process and the ScramNet-to-Ethernet API to: convert, using the ScramNet-to-Ethernet API , the flight control message to a first ScramNet message on the ScramNet bus ; process, using the host process , the first ScramNet message to generate a second ScramNet message on the ScramNet bus ; and convert, using the ScramNet-to-Ethernet API , the second ScramNet message to a display message, wherein the Ethernet interface is further configured to transmit the display message to a display system . convert, using the ScramNet-to-Ethernet API , the flight control message to a first ScramNet message on the ScramNet bus ; process, using the host process , the first ScramNet message to generate a second ScramNet message on the ScramNet bus ; and convert, using the ScramNet-to-Ethernet API , the second ScramNet message to a display message, wherein the Ethernet interface is further configured to transmit the display message to a display system .
Floor panel comprising a substrate , a decorative layer and a wear layer , said decorative layer being positioned between the substrate and the wear layer , wherein at least one of the substrate, the decorative layer and the wear layer comprises a thermoplastic synthetic material, the floor panel further comprising a foamed backing layer attached to a side of the floor panel opposite to the wear layer , characterized in that the foamed backing layer has a density of at least 120 kg/m 3 and a compressive strength value as determined in accordance with ASTM D 3575-91 (25 %) of at least 210 kPa.
A filter system comprising a housing , a fluid inlet formed in a housing wall , a fluid outlet formed in a housing wall , a primary filter element and a secondary filter element , both being accommodated in the housing , wherein the primary filter element is arranged upstream the secondary filter element , the secondary filter element being arranged on a stand pipe having a longitudinal axis (L), the stand pipe being rigidly connected to one of the housing walls , the inside of the stand pipe being in fluid connection with the fluid outlet , wherein the primary filter element comprises a closed first end cap at a top region of the primary filter element and an open second end cap at a bottom region of the primary filter element , and wherein the primary filter element and the one of the housing walls accommodating the stand pipe and the bottom region of the primary filter element are configured with mutual self-positioning elements to arrange the primary filter element on the one of the housing walls accommodating the stand pipe in a defined rotational position with respect to one or more struts of the stand pipe (150, characterized in that the mutual self-positioning elements comprise a radially extending protrusion and a guiding surface , the radially extending protrusion being configured to glide along the guiding surface on a relative rotational movement of the primary filter element and the one of the housing walls about a common rotational axis. wherein the primary filter element is arranged upstream the secondary filter element , the secondary filter element being arranged on a stand pipe having a longitudinal axis (L), the stand pipe being rigidly connected to one of the housing walls , the inside of the stand pipe being in fluid connection with the fluid outlet , wherein the primary filter element comprises a closed first end cap at a top region of the primary filter element and an open second end cap at a bottom region of the primary filter element , and wherein the primary filter element and the one of the housing walls accommodating the stand pipe and the bottom region of the primary filter element are configured with mutual self-positioning elements to arrange the primary filter element on the one of the housing walls accommodating the stand pipe in a defined rotational position with respect to one or more struts of the stand pipe (150, characterized in that the mutual self-positioning elements comprise a radially extending protrusion and a guiding surface , the radially extending protrusion being configured to glide along the guiding surface on a relative rotational movement of the primary filter element and the one of the housing walls about a common rotational axis.
Flexible structure for transferring heat between a heating device and an object to be heated in a trace heating system, the flexible structure having a longitudinal shape with a longitudinal axis and characterised in that it comprises an expanded graphite structure which forms at least a portion of a surface area of the flexible structure .
A connection device comprising a first component ; a second component which can be connected to the first component by a plugging into one another; and a coupling lever which is movably supported at the first component , which is adjustable from an open position into a closed position and which has coupling elements which cooperate with coupling elements of the first and second components and which are configured such that the first and second components can be transferred from a loose state into a fixed state by an adjustment movement of the coupling lever from the open position into the closed position, wherein the components are completely plugged into one another and fixedly connected to one another in the fixed state and are, in contrast, incompletely plugged into one another and loosely connected to one another in the loose state; and wherein the first and second components can be transferred from the loose state into a secured state, in which the components are secured against a release from one another, by an adjustment movement of the coupling lever from the open position into a securing position provided in the extent between the open position and the closed position, with the relative position of said first and second components to one another in the secured state not differing from their relative position to one another in the loose state, characterized in that the adjustment movement of the coupling lever from the open position into the securing position is substantially a pure translation.
A method of operating a speed control system of a vehicle , the method comprising: identifying a pattern or change in at least one component of vehicle drag, monitoring vehicle speed to predict where a pattern or change in said at least one component of vehicle drag may result in a speed overshoot event or a speed undershoot event; and in response to said predicted speed overshoot event or speed undershoot event, automatically commanding the application of an appropriate opposing torque to one or more wheels of the vehicle to counteract said predicted speed overshoot or undershoot. identifying a pattern or change in at least one component of vehicle drag, monitoring vehicle speed to predict where a pattern or change in said at least one component of vehicle drag may result in a speed overshoot event or a speed undershoot event; and in response to said predicted speed overshoot event or speed undershoot event, automatically commanding the application of an appropriate opposing torque to one or more wheels of the vehicle to counteract said predicted speed overshoot or undershoot.
A device for connecting a pylon to a pylon base fixed to the ground, wherein the device comprises: • a pylon base, • a base plate for connecting to the pylon base, • a tilting plate for connecting to the pylon , • wherein the tilting plate and the base plate are pivotally connected to each other, so that the tilting plate can be tilted relative to the base plate , • a first fastening facility by which the tilting plate and the base plate can be fixed in a substantially parallel position relative to each other, • a rotary guide enabling a rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon in a state where the pylon is connected to the tilting plate and the pylon base to the base plate and the tilting plate and the base plate are fixed in the substantially parallel position, • a second fastening facility by which the rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon can be blocked, wherein either (i) the base plate has the rotary guide and the second fastening facility is adapted to fix the base plate relative to the pylon base, or (ii) the tilting plate has the rotary guide and the second fastening facility is adapted to fix the tilting plate to the pylon . • a pylon base, • a base plate for connecting to the pylon base, • a tilting plate for connecting to the pylon , • wherein the tilting plate and the base plate are pivotally connected to each other, so that the tilting plate can be tilted relative to the base plate , • a first fastening facility by which the tilting plate and the base plate can be fixed in a substantially parallel position relative to each other, • a rotary guide enabling a rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon in a state where the pylon is connected to the tilting plate and the pylon base to the base plate and the tilting plate and the base plate are fixed in the substantially parallel position, • a second fastening facility by which the rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon can be blocked, wherein either (i) the base plate has the rotary guide and the second fastening facility is adapted to fix the base plate relative to the pylon base, or (ii) the tilting plate has the rotary guide and the second fastening facility is adapted to fix the tilting plate to the pylon .
Filling machine with a dosing valve for dosing liquid or paste-like masses in the form of food products, with a movable valve element which opens and closes a valve opening through which a portion is discharged as well as a squeezing region between said valve element and a valve housing in which a finger can be squeezed by said valve element movement wherein that said valve element comprises elastic material at its end region which when viewed in the closing direction (S) is the leading one and which has a hardness of 30-80 Shore A, wherein the dosing valve is arranged at the discharge end of said filling machine and wherein the valve opening has an area in a range of 50mm2 -2000 mm2 and wherein said dosing valve can be actuated by a control device such that the closing force of the valve element is limited to a predetermined value less than 135N.
A method for rationing the amount of bandwidth used by a plurality of network computing devices sending data to a client computer, the method comprising a first computing device among the plurality of network computing devices: determining a first share of bandwidth that is to be available for the first computing device to send data to the client computer during a future period of time; determining a first rate at which the first computing device is to send data to the client computer during the future period of time; determining that the first rate is less than the first share of bandwidth that is to be available for the first computing device to send data to the client computer during the future period of time by a first delta; receiving, from a second computing device among the plurality of network computing devices, the second computing device being communicatively coupled to the first computing device, a first request for additional rate allocation; sending, to the second computing device, a first rate allocation that is equal to or less than the first delta; sending data to the client computer during the future period of time at a first actual rate that is less than or equal to the first rate minus the first rate allocation; wherein the method is performed by one or more processors. determining a first share of bandwidth that is to be available for the first computing device to send data to the client computer during a future period of time; determining a first rate at which the first computing device is to send data to the client computer during the future period of time; determining that the first rate is less than the first share of bandwidth that is to be available for the first computing device to send data to the client computer during the future period of time by a first delta; receiving, from a second computing device among the plurality of network computing devices, the second computing device being communicatively coupled to the first computing device, a first request for additional rate allocation; sending, to the second computing device, a first rate allocation that is equal to or less than the first delta; sending data to the client computer during the future period of time at a first actual rate that is less than or equal to the first rate minus the first rate allocation; wherein the method is performed by one or more processors.
A compressor rotor blade extending spanwise from a hub section to a tip section and having intermediate airfoil cross sections (S), said cross sections having a stagger angle ( γ) comprised between a chord ( c ) and a meridional axis ( m ), characterized in that the blade has a spanwise stagger angle distribution γ(s) defined as a function of a relative span ( s ) of the blade by the equation: γ s = γ 0 + s γ 1 − γ 0 + γ 1 / γ 0 * WSA s , where WSA(s) is a weighted stagger angle defined, as a function of the relative span, by a curve comprised between the following equations: WS A min s = − 43 . 5987 s 6 + 108 . 76701 s 5 − 69 . 1667 s 4 − 22 . 5948 s 3 + 27 . 9252 s 2 − 1 . 3318 s ; and WS A max s = − 20 s 2 + 20 s , the relative span ( s ) of the blade being 0 at the hub section and 1 at the tip section .
A retransmission processing method, comprising: sending (S210), by a master base station, instruction information to a first secondary base station, wherein the instruction information is used to instruct the first secondary base station to send feedback information to the master base station after the first secondary base station sends data to a terminal device; receiving (S220), by the master base station, the feedback information sent by the first secondary base station according to the instruction information, wherein the feedback information is used to indicate that the first secondary base station has sent the data to the terminal device; sending (S230), by the master base station, inquiry information to the terminal device according to the feedback information, wherein the inquiry information is used to inquire whether the terminal device correctly receives the data sent by the first secondary base station; receiving (S240), by the master base station, response information that is sent by the terminal device and that is for the inquiry information; and performing (S250), by the master base station, retransmission processing on the data according to the response information for the inquiry information determined according to the feedback information. sending (S210), by a master base station, instruction information to a first secondary base station, wherein the instruction information is used to instruct the first secondary base station to send feedback information to the master base station after the first secondary base station sends data to a terminal device; receiving (S220), by the master base station, the feedback information sent by the first secondary base station according to the instruction information, wherein the feedback information is used to indicate that the first secondary base station has sent the data to the terminal device; sending (S230), by the master base station, inquiry information to the terminal device according to the feedback information, wherein the inquiry information is used to inquire whether the terminal device correctly receives the data sent by the first secondary base station; receiving (S240), by the master base station, response information that is sent by the terminal device and that is for the inquiry information; and performing (S250), by the master base station, retransmission processing on the data according to the response information for the inquiry information determined according to the feedback information.
Assembly comprising: - a connector strip for slab formwork, which has, along its length, a plurality of spaced-apart coupling regions for engagement with prop heads of formwork props , and having, in each of its two longitudinal end regions, an end coupling region and, between the two end coupling regions , at least one intermediate coupling region for engagement with the prop head of a formwork prop ; - two formwork props for a slab formwork, wherein the connector strip is coupled to the prop heads of the two formwork props in such a way that the connector strip rests with its underside on the prop head and one of the end coupling regions of the connector strip is engaged with a counter-coupling region of the prop head ; - at least one further formwork prop between said two formwork props , wherein the connection strip rests with its underside on the prop head of the further formwork prop and an intermediate coupling region of the connection strip is engaged with a counter-coupling region of the prop head of the further formwork prop ; and - at least one slab formwork panel , which rests, on each of its two corner sections adjacent to the connector strip on the prop head of a respective formwork prop assigned to the connector strip and which engages with said prop head . - a connector strip for slab formwork, which has, along its length, a plurality of spaced-apart coupling regions for engagement with prop heads of formwork props , and having, in each of its two longitudinal end regions, an end coupling region and, between the two end coupling regions , at least one intermediate coupling region for engagement with the prop head of a formwork prop ; - two formwork props for a slab formwork, wherein the connector strip is coupled to the prop heads of the two formwork props in such a way that the connector strip rests with its underside on the prop head and one of the end coupling regions of the connector strip is engaged with a counter-coupling region of the prop head ; - at least one further formwork prop between said two formwork props , wherein the connection strip rests with its underside on the prop head of the further formwork prop and an intermediate coupling region of the connection strip is engaged with a counter-coupling region of the prop head of the further formwork prop ; and - at least one slab formwork panel , which rests, on each of its two corner sections adjacent to the connector strip on the prop head of a respective formwork prop assigned to the connector strip and which engages with said prop head .
A reel for a header configured for use with an agricultural vehicle , the reel comprising a plurality of tine bar assemblies supported relative to a rotational axis of the reel , each tine bar assembly including a tine support member and plurality of tines coupled to the tine support member and spaced apart from one another in a lateral direction along a length of the respective tine support member , the reel further comprising a central support member extending along the rotational axis and at least one radial support member coupled to the tine support member of each tine bar assembly and being configured to support the plurality of tine bar assemblies relative to the central support member , the reel being characterized by : the tine support member of each tine bar assembly is formed from one or more radar-transparent materials.
A system for determining a computer model of realistic driving behavior for training an autonomous driving system, the system comprising: one or more environmental sensors configured to provide sensor data of observed vehicles (140-1, 140-2) within a traffic area ; a processor configured to extract observed vehicle behavior data from the sensor data and to extract driving behavior training data from observed vehicle behavior data of vehicles (140-1, 140-2) interacting with each other within the traffic area ; and a machine learning based driving behavior simulator configured to adjust driving behavior model parameters by reducing a deviation between the driving behavior training data and simulated vehicle behavior data generated by the machine learning based driving behavior simulator and to train an autonomous driving system. one or more environmental sensors configured to provide sensor data of observed vehicles (140-1, 140-2) within a traffic area ; a processor configured to extract observed vehicle behavior data from the sensor data and to extract driving behavior training data from observed vehicle behavior data of vehicles (140-1, 140-2) interacting with each other within the traffic area ; and a machine learning based driving behavior simulator configured to adjust driving behavior model parameters by reducing a deviation between the driving behavior training data and simulated vehicle behavior data generated by the machine learning based driving behavior simulator and to train an autonomous driving system.
An apparatus for moving objects , comprising a plurality of individually movable transport movers for transporting the objects ; a path system for the transport movers in which the transport movers are movable in a transport direction (T) along at least one predefined path; and a control device for controlling the movements of the transport movers in the path system , wherein the transport movers each comprise at least one runner cooperating with the path system and at least one carrier for objects attached to the runner ; wherein the carrier is permanently located in a protruding position in which the carrier protrudes laterally at least with a pick-up region for the objects ; wherein the pick-up region is arranged in the protruding position laterally offset from a stator of the path system , from the runner and/or from a guide for the runner ; and wherein at least one guide is at least sectionally provided for the carrier , with in particular the guide for the carrier differing from the guide for the runner , characterized in that a stabilization apparatus is provided which at least temporarily restricts a movability of the carrier relative to the runner ; and in that the carrier and/or the transport mover can be raised by means of the stabilization apparatus .