mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle environment detection system adapted to be mounted in an ego vehicle and comprising at least one vehicle environment sensor arrangement and a main control unit , where the vehicle environment detection system is arranged to detect and track at least one oncoming vehicle , where the vehicle environment detection system is arranged to determine when the ego vehicle has entered a curve , characterized in that when the vehicle environment detection system has determined that the ego vehicle has entered a curve , for each tracked oncoming vehicle the main control unit is arranged to: - determine an ego direction along which the ego vehicle travels with a corresponding ego direction angle (γ ego ) with respect to a predetermined axis (x glob ); - determine a measured oncoming direction of said tracked oncoming vehicle with a corresponding oncoming angle (θ track, glob ) with respect to the predetermined axis (x glob ) during a plurality of radar cycles; - determine a difference angle (δ) between said measured oncoming direction and the ego direction ; - compare the difference angle (δ) with a threshold angle (θ max ) ; and - determine that the oncoming vehicle is crossing if the difference angle (δ) has been determined to exceed the threshold angle (θ max ). - determine an ego direction along which the ego vehicle travels with a corresponding ego direction angle (γ ego ) with respect to a predetermined axis (x glob ); - determine a measured oncoming direction of said tracked oncoming vehicle with a corresponding oncoming angle (θ track, glob ) with respect to the predetermined axis (x glob ) during a plurality of radar cycles; - determine a difference angle (δ) between said measured oncoming direction and the ego direction ; - compare the difference angle (δ) with a threshold angle (θ max ) ; and - determine that the oncoming vehicle is crossing if the difference angle (δ) has been determined to exceed the threshold angle (θ max ).
A vehicle body structure comprising: a body side section that is configured of a first composite component that comprises a metal plate and a fiber reinforced thermoplastic portion containing discontinuous fibers; and a body lower section that is configured of a second composite component that comprises a metal plate and a fiber reinforced thermoplastic portion containing discontinuous fibers, wherein the fiber reinforced thermoplastic portion of the first composite component is configured to include a lining layer formed on the metal plate and a plurality of reinforcing ribs raised from the lining layer , the fiber reinforced thermoplastic portion of the second composite component is configured to include a planar portion infilled in an opening formed on the metal plate to close the opening , the body side section and the body lower section are directly adjoined by welding the metal plate of the first composite component and the metal plate of the second composite component , and the discontinuous fibers contained in the fiber reinforced thermoplastic portion of the second composite component are longer than the discontinuous fibers contained in the fiber reinforced thermoplastic portion of the first composite component . a body side section that is configured of a first composite component that comprises a metal plate and a fiber reinforced thermoplastic portion containing discontinuous fibers; and a body lower section that is configured of a second composite component that comprises a metal plate and a fiber reinforced thermoplastic portion containing discontinuous fibers, wherein the fiber reinforced thermoplastic portion of the first composite component is configured to include a lining layer formed on the metal plate and a plurality of reinforcing ribs raised from the lining layer , the fiber reinforced thermoplastic portion of the second composite component is configured to include a planar portion infilled in an opening formed on the metal plate to close the opening , the body side section and the body lower section are directly adjoined by welding the metal plate of the first composite component and the metal plate of the second composite component , and the discontinuous fibers contained in the fiber reinforced thermoplastic portion of the second composite component are longer than the discontinuous fibers contained in the fiber reinforced thermoplastic portion of the first composite component .
A method for detecting anomalous behavior in network traffic, the method comprising: monitoring network traffic in a network , wherein the network traffic is separated into network flow data that comprises individual time slices; constructing a first model that predicts aspects of the network traffic, wherein the first model learns representations of network data using a recurrent neural network, RNN, by processing sequences of network data with the RNN to generate the representations; using the first model to embed a sequence of network data into a first vector space, the sequence of network data comprising an ordered sequence of the individual time slices; constructing a second model that processes the sequence of network data in reverse-time order; using the second model to embed the sequence of network data into a second vector space, wherein individual time slices from the sequence of network data are presented in reverse chronological order; transforming an output of the second model to compensate for the reverse chronological order before sending the output of the second model to a projection layer; combining both outputs from the first model and the second model in the projection layer; analyzing the sequence of network data to predict an aspect of the network traffic; and generating data that indicates a network anomaly if abnormal behavior is identified. monitoring network traffic in a network , wherein the network traffic is separated into network flow data that comprises individual time slices; constructing a first model that predicts aspects of the network traffic, wherein the first model learns representations of network data using a recurrent neural network, RNN, by processing sequences of network data with the RNN to generate the representations; using the first model to embed a sequence of network data into a first vector space, the sequence of network data comprising an ordered sequence of the individual time slices; constructing a second model that processes the sequence of network data in reverse-time order; using the second model to embed the sequence of network data into a second vector space, wherein individual time slices from the sequence of network data are presented in reverse chronological order; transforming an output of the second model to compensate for the reverse chronological order before sending the output of the second model to a projection layer; combining both outputs from the first model and the second model in the projection layer; analyzing the sequence of network data to predict an aspect of the network traffic; and generating data that indicates a network anomaly if abnormal behavior is identified.
A method of wireless communication, comprising: identifying a first transmission time interval, TTI, bundling length of a first channel; identifying a second TTI bundling length of a second channel; determining, based at least in part on the identified first TTI bundling length, a first search space from among a plurality of search spaces to monitor for the first channel; monitoring the first search space for the first channel during a TTI; and determining, based at least in part on the identified second TTI bundling length, a second search space from among the plurality of search spaces to monitor for the second channel; and monitoring the second search space for the second channel during the TTI. identifying a first transmission time interval, TTI, bundling length of a first channel; identifying a second TTI bundling length of a second channel; determining, based at least in part on the identified first TTI bundling length, a first search space from among a plurality of search spaces to monitor for the first channel; monitoring the first search space for the first channel during a TTI; and determining, based at least in part on the identified second TTI bundling length, a second search space from among the plurality of search spaces to monitor for the second channel; and monitoring the second search space for the second channel during the TTI.
An assembly (50; 150) for an aircraft having a propeller , the assembly (50; 150) comprising: a wheel well configured for receiving a retracted landing gear ; first and second cooling ducts ; and an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller , the engine assembly (10; 110) including a coolant circulation system for circulation of a liquid coolant, a lubricant circulation system for circulation of a lubricant, a first heat exchanger in fluid communication with at least the coolant circulation system , and a second heat exchanger in fluid communication with at least the lubricant circulation system , the first heat exchanger positioned and configured for receiving a first cooling airflow from the first cooling duct , the second heat exchanger positioned and configured for receiving a second cooling airflow from the second cooling duct , and the wheel well located between the first and second heat exchangers . a wheel well configured for receiving a retracted landing gear ; first and second cooling ducts ; and an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller , the engine assembly (10; 110) including a coolant circulation system for circulation of a liquid coolant, a lubricant circulation system for circulation of a lubricant, a first heat exchanger in fluid communication with at least the coolant circulation system , and a second heat exchanger in fluid communication with at least the lubricant circulation system , the first heat exchanger positioned and configured for receiving a first cooling airflow from the first cooling duct , the second heat exchanger positioned and configured for receiving a second cooling airflow from the second cooling duct , and the wheel well located between the first and second heat exchangers .
A low-floor electric bus comprising: a body; a floor; and a plurality of battery packs mounted underneath the floor into designated areas in the floor, characterized in that each battery pack fits into a designated area in the floor of the low-floor electric bus. a body; a floor; and a plurality of battery packs mounted underneath the floor into designated areas in the floor, characterized in that each battery pack fits into a designated area in the floor of the low-floor electric bus.
A fluid spray apparatus comprising: an inlet ; a first outlet ; a second outlet ; a diverter structure (128; 130) disposed in a passage network that connects the inlet with the first and second outlets ; and a first actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network ; characterised: by a a second actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network ; and in that the diverter structure (128; 130) is configured to be placed in: a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet ; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet . an inlet ; a first outlet ; a second outlet ; a diverter structure (128; 130) disposed in a passage network that connects the inlet with the first and second outlets ; and a first actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network ; characterised: by a a second actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network ; and in that the diverter structure (128; 130) is configured to be placed in: a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet ; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet . a second actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network ; and in that the diverter structure (128; 130) is configured to be placed in: a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet ; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet . a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet ; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet .
A medical device in the form of a monitor with a housing or a computer, which comprises computer hardware and a touch-sensitive display unit integrated in a common housing, wherein the housing comprises at least a first housing part and a second housing part releasably connectable to the first housing part , wherein the first housing part includes first connecting means (3.1) and the second housing part includes second connecting means (4.1) interacting with said first connecting means (3.1), wherein the first and second connecting means (3.1, 4.1) are configured to cause a fixing of the second housing part on the first housing part by means of a form-fitting connection, wherein the form-fitting connection is caused by interlocking the housing parts in a toothed or hooked manner, wherein the second housing part can be fixed on the first housing part by placement in a first spatial direction and by shifting in a second spatial direction extending transversely to the first spatial direction, wherein securing means configured to secure the fixing of the second housing part on the first housing part are provided, wherein the securing means include a magnetic or magnetizable element (5.1) configured to interact with a magnetic unlocking device in such a way that the securing means can be moved from a locking position to an unlocking position by the magnetic field of the magnetic unlocking device , wherein a seal is provided at the interface between the first and second housing parts , wherein said seal seals the interface in a liquid-tight manner when the second housing part is fixed to the first housing part and the seal is formed circumferentially in one piece formed and is partially inserted into a beading of the first housing part or the second housing part , wherein due to the form-fitting connection of the housing parts against each other a contact pressure of the housing parts against this seal is obtained so that the interface between the housing parts is fluid-tight.
Method for reducing standby-state energy consumption of an electric household appliance comprising an electronic command unit , the electronic command unit comprising an electronic control unit , a switching mode low power supply unit which supplies a main prefixed supply voltage (VB) to said electronic control unit , and switching means ; the switching mode low power supply unit comprising at least a first control terminal and at least an output terminal which supplies said main prefixed supply voltage (VB) to said electronic control unit ; the switching mode low power supply unit being further configured to switch from an operating state to a standby state when said first control terminal receives a command signal (Soff); said electronic control unit having a sensing terminal and being configured to generate said command signal (Soff) when it detects a predetermined voltage variation on said sensing terminal ; said switching means being configured to connect said output terminal to said sensing terminal ; the method being characterized by the step of connecting by said switching means , temporarily, said output terminal having said main prefixed supply voltage to said sensing terminal having a different prefixed voltage, for generating said predetermined voltage variation on the sensing terminal to cause the electronic control unit to generate said command signal (Soff) so that said switching mode low power supply unit switches from the operating state to the standby state.
A surgical table data transmission system comprising a plurality of remote nodes , wherein each remote node is attached to a component or an accessory , of a surgical table , and a data aggregation node , wherein each of the plurality of remote nodes is configured to exchange data with other remote nodes and with the data aggregation node by a first wired or wireless communication, each of the plurality of remote nodes is configured to transmit identification data of the component or accessory to the data aggregation node , either indirectly via at least one other remote node, or directly with the data aggregation node , and the data aggregation node is configured to be able to exchange the data with at least one of a controller of the surgical table and a hospital network gateway by a second wired or wireless communication. a plurality of remote nodes , wherein each remote node is attached to a component or an accessory , of a surgical table , and a data aggregation node , wherein each of the plurality of remote nodes is configured to exchange data with other remote nodes and with the data aggregation node by a first wired or wireless communication, each of the plurality of remote nodes is configured to transmit identification data of the component or accessory to the data aggregation node , either indirectly via at least one other remote node, or directly with the data aggregation node , and the data aggregation node is configured to be able to exchange the data with at least one of a controller of the surgical table and a hospital network gateway by a second wired or wireless communication.
An apparatus for adjusting a height adjustable leg for supporting a cabinet comprising: a coupling for forming part of the height adjustable leg, the coupling comprising a driven member , and a tool comprising a driving member and a torque input for applying torque to the driving member , the tool and the coupling complementarily adapted to releasably maintain engagement between the driving member and the driven member to allow the driving member to drive the driven member to rotate the coupling about a longitudinal axis of the leg for height adjustment of the leg, and wherein the driving member and the driven member are gears that releasably mesh together when the tool is engaged with the coupling , wherein the tool is adapted to remain in a stationary angular position relative to the leg when the driving member drives the driven member and, wherein the driven member and driving member having parallel rotational axes when the driving member gear and the gear of the driven member are meshed together characterized by an electric motor as the torque input for driving the driving member , wherein the motor is located between the handle and the driving member . a coupling for forming part of the height adjustable leg, the coupling comprising a driven member , and a tool comprising a driving member and a torque input for applying torque to the driving member , the tool and the coupling complementarily adapted to releasably maintain engagement between the driving member and the driven member to allow the driving member to drive the driven member to rotate the coupling about a longitudinal axis of the leg for height adjustment of the leg, and wherein the driving member and the driven member are gears that releasably mesh together when the tool is engaged with the coupling , wherein the tool is adapted to remain in a stationary angular position relative to the leg when the driving member drives the driven member and, wherein the driven member and driving member having parallel rotational axes when the driving member gear and the gear of the driven member are meshed together
A coupled inductor circuit comprising; a first winding comprising a conductive coil having a central axis; a second winding configured to magnetically couple with the first winding , the second winding having a plurality of individual segments , wherein each individual segment forms a fraction of one turn of the second winding ; wherein each individual segment includes a first conductor, a ground conductor, and a first switch (M1-M8) to selectively couple, and selectively isolate, the first conductor and the ground conductor; characterised in that each individual segment includes a second switch (M1-M8) configured to selectively couple, and selectively isolate, the first conductor and a second ground conductor, wherein the second ground conductor is the ground conductor of a different individual segment of the plurality of individual segments of the second winding . a first winding comprising a conductive coil having a central axis; a second winding configured to magnetically couple with the first winding , the second winding having a plurality of individual segments , wherein each individual segment forms a fraction of one turn of the second winding ; wherein each individual segment includes a first conductor, a ground conductor, and a first switch (M1-M8) to selectively couple, and selectively isolate, the first conductor and the ground conductor; characterised in that each individual segment includes a second switch (M1-M8) configured to selectively couple, and selectively isolate, the first conductor and a second ground conductor, wherein the second ground conductor is the ground conductor of a different individual segment of the plurality of individual segments of the second winding .
Device for applying a sealing profile to a surface , comprising a handling device comprising a robotic arm for moving and guiding a guide head in an application position to apply the sealing profile along a defined contour on the surface , wherein an advancing device (20a, b) is arranged in connection to the guide head , said advancing device having at least one driven drive element to supply the sealing profile to the surface with a compression, wherein the guide head has at least one guide element for guiding the sealing profile, said guide element is orientable in the application position at an acute angle relative to the surface and oriented counter to the direction of movement of the guide head in order to transfer the sealing profile to the surface without interposing a driven application roller, and that a non-driven pressure element , in particular a pressure roller, is arranged on the guide head , said pressure element is designed to rest against the sealing profile in the application position by means of a biased spring device , while the sealing profile is guided onto the surface .