mhurhangee/ep-ind-claims huggingface dataset:
A method for vehicle identification, which method comprises the steps of: an ego vehicle detecting a communicating vehicle by means of wireless vehicle to vehicle communication; the ego vehicle detecting a vehicle by means of a sensor onboard the ego vehicle; the ego vehicle sending an identification request to the communicating vehicle by means of wireless vehicle to vehicle communication, wherein the identification request instructs the communicating vehicle to perform an action; the ego vehicle determining whether or not the vehicle detected by the sensor performed said action based at least on data from said sensor; and if the ego vehicle determines that the vehicle detected by the sensor performed said action, the ego vehicle determining that the communicating vehicle and the vehicle detected by the sensor are the same vehicle, characterized in that the method further comprises: the ego vehicle receiving information from the communicating vehicle by means of wireless vehicle to vehicle communication, said information indicating start time and end time of the performance of the action, and wherein determining whether or not the vehicle detected by the sensor performed said action is further based on data received from the communicating vehicle via wireless vehicle to vehicle communication, which received data is related to the action, and wherein the ego vehicle compares the received data with data from the sensor for determining whether or not the vehicle detected by the sensor performed said action. an ego vehicle detecting a communicating vehicle by means of wireless vehicle to vehicle communication; the ego vehicle detecting a vehicle by means of a sensor onboard the ego vehicle; the ego vehicle sending an identification request to the communicating vehicle by means of wireless vehicle to vehicle communication, wherein the identification request instructs the communicating vehicle to perform an action; the ego vehicle determining whether or not the vehicle detected by the sensor performed said action based at least on data from said sensor; and if the ego vehicle determines that the vehicle detected by the sensor performed said action, the ego vehicle determining that the communicating vehicle and the vehicle detected by the sensor are the same vehicle, characterized in that the method further comprises: the ego vehicle receiving information from the communicating vehicle by means of wireless vehicle to vehicle communication, said information indicating start time and end time of the performance of the action, and wherein determining whether or not the vehicle detected by the sensor performed said action is further based on data received from the communicating vehicle via wireless vehicle to vehicle communication, which received data is related to the action, and wherein the ego vehicle compares the received data with data from the sensor for determining whether or not the vehicle detected by the sensor performed said action.
A tool for use in a wellbore, comprising a tubular body having a bore therethrough and an opening through a wall thereof; an arm: pivotally connected to the body or a first piston, disposed in the opening in a retracted position, and movable to an extended position where an outer surface of the arm extends outward past an outer surface of the body; the first piston: disposed in the body bore, having a bore therethrough, and operable to move the arm from the retracted position to the extended position in response to fluid pressure in the first piston bore exceeding fluid pressure in the opening; and a lock operable to retain the first piston in the retracted position; and characterised in that the tool further comprises a controller operable to release the lock in response to receiving an instruction signal. pivotally connected to the body or a first piston, disposed in the opening in a retracted position, and movable to an extended position where an outer surface of the arm extends outward past an outer surface of the body; disposed in the body bore, having a bore therethrough, and operable to move the arm from the retracted position to the extended position in response to fluid pressure in the first piston bore exceeding fluid pressure in the opening; and
An angle measuring device, comprising: a digital angle meter; a housing having opposing first and second face portions (26, 28) and a perimeter portion extending between the first and second face portions (26, 28); a cavity defined within the housing; a processor and at least one gyrometer disposed within the cavity, the at least one gyrometer electrically coupled to the processor and including a first gyrometer axis for measuring an angle of the device relative to a reference position; and a second gyrometer axis that is perpendicular to said first gyrometer axis; a single elongated groove formed in and extending across the second face of the housing; and an attachment mechanism disposed adjacent to the elongated groove for removably attaching the device to an elongated support member, and wherein the attachment mechanism includes at least one magnet embedded within the housing adjacent to the elongated groove. a digital angle meter; a housing having opposing first and second face portions (26, 28) and a perimeter portion extending between the first and second face portions (26, 28); a cavity defined within the housing; a processor and at least one gyrometer disposed within the cavity, the at least one gyrometer electrically coupled to the processor and including a first gyrometer axis for measuring an angle of the device relative to a reference position; and a second gyrometer axis that is perpendicular to said first gyrometer axis; a single elongated groove formed in and extending across the second face of the housing; and an attachment mechanism disposed adjacent to the elongated groove for removably attaching the device to an elongated support member, and wherein the attachment mechanism includes at least one magnet embedded within the housing adjacent to the elongated groove.
A computer-implemented method performed in a vehicle control unit (130, 140) for controlling motion of a heavy-duty vehicle, the method comprising obtaining a vehicle motion request, wherein the vehicle motion request is indicative of a target curvature (c req) and a target acceleration (a req), determining a motion support device, MSD, control allocation (T i / λ i / ω i / δ i) based on the vehicle motion request, characterized by: determining a dynamic wheel slip angle limit (α lim) for at least one wheel of the vehicle based on the vehicle motion request, where the dynamic wheel slip angle limit (α lim) increases with a decreasing target acceleration (a req), and controlling the motion of the heavy-duty vehicle based on the MSD control allocation constrained by the dynamic wheel slip angle limit (α lim). obtaining a vehicle motion request, wherein the vehicle motion request is indicative of a target curvature (c req) and a target acceleration (a req), determining a motion support device, MSD, control allocation (T i / λ i / ω i / δ i) based on the vehicle motion request, characterized by: determining a dynamic wheel slip angle limit (α lim) for at least one wheel of the vehicle based on the vehicle motion request, where the dynamic wheel slip angle limit (α lim) increases with a decreasing target acceleration (a req), and controlling the motion of the heavy-duty vehicle based on the MSD control allocation constrained by the dynamic wheel slip angle limit (α lim). determining a dynamic wheel slip angle limit (α lim) for at least one wheel of the vehicle based on the vehicle motion request, where the dynamic wheel slip angle limit (α lim) increases with a decreasing target acceleration (a req), and controlling the motion of the heavy-duty vehicle based on the MSD control allocation constrained by the dynamic wheel slip angle limit (α lim).
A pulse wave detector comprising: a pulse wave detection sensor which is configured to detect a pressure pulse wave from an artery of a measurement subject; a pressing member which supports the pulse wave detection sensor and is configured to be moved in one direction to press the pulse wave detection sensor against a body surface of the measurement subject; a plurality of guiding members which are placed around the pulse wave detection sensor in a plan view as seen in the one direction and extend in the one direction; and a housing which supports the plurality of guiding members, wherein the housing has fitting portions into which end portions in the one direction of the guiding members are fitted, and wherein the pressing member includes pass-through portions through which the plurality of guiding members are passed to allow for movement along the guiding members, respectively. a pulse wave detection sensor which is configured to detect a pressure pulse wave from an artery of a measurement subject; a pressing member which supports the pulse wave detection sensor and is configured to be moved in one direction to press the pulse wave detection sensor against a body surface of the measurement subject; a plurality of guiding members which are placed around the pulse wave detection sensor in a plan view as seen in the one direction and extend in the one direction; and a housing which supports the plurality of guiding members, wherein the housing has fitting portions into which end portions in the one direction of the guiding members are fitted, and wherein the pressing member includes pass-through portions through which the plurality of guiding members are passed to allow for movement along the guiding members, respectively.
A method comprising: computing, by a deterministic random number generator at a wireless local area network, WLAN, Access Point, AP communication node (AP1, AP2), a pseudorandom number; computing, by a deterministic random number generator at a WLAN Station, WLAN STA,, another pseudorandom number, the deterministic random number generator at the WLAN AP (AP1, AP2) communication node employing the same random number generation algorithm to compute the pseudorandom number at the WLAN AP as the deterministic random number generator at the WLAN STA; the WLAN AP and the WLAN STA sharing a value associated with the deterministic random number generator, wherein the computing by the deterministic random number generator at the WLAN STA results in the same pseudorandom number as the pseudorandom number computed by the deterministic random number generator at the WLAN AP; and determining, by the WLAN AP communication node (AP1, AP2), a timing of a randomized beacon transmission using the computed pseudorandom number, determining, by the WLAN STA, the timing of the randomized beacon transmission using the computed pseudorandom number using the timing to transmit, by the WLAN AP communication node, the randomized beacon transmission to the WLAN STA; and using the timing to receive, by the WLAN STA, the randomized beacon transmission from the WLAN AP communication node; the WLAN STA transitioning from a power saving mode to an active receiving state at the timing determined, by the WLAN STA, using the computed pseudorandom number. computing, by a deterministic random number generator at a wireless local area network, WLAN, Access Point, AP communication node (AP1, AP2), a pseudorandom number; computing, by a deterministic random number generator at a WLAN Station, WLAN STA,, another pseudorandom number, the deterministic random number generator at the WLAN AP (AP1, AP2) communication node employing the same random number generation algorithm to compute the pseudorandom number at the WLAN AP as the deterministic random number generator at the WLAN STA; the WLAN AP and the WLAN STA sharing a value associated with the deterministic random number generator, wherein the computing by the deterministic random number generator at the WLAN STA results in the same pseudorandom number as the pseudorandom number computed by the deterministic random number generator at the WLAN AP; and determining, by the WLAN AP communication node (AP1, AP2), a timing of a randomized beacon transmission using the computed pseudorandom number, determining, by the WLAN STA, the timing of the randomized beacon transmission using the computed pseudorandom number using the timing to transmit, by the WLAN AP communication node, the randomized beacon transmission to the WLAN STA; and using the timing to receive, by the WLAN STA, the randomized beacon transmission from the WLAN AP communication node; the WLAN STA transitioning from a power saving mode to an active receiving state at the timing determined, by the WLAN STA, using the computed pseudorandom number.
A method of operating an electronic circuit comprising secure link connections, including communication channels between Intellectual Property (IP, IPx, IPy) cores and multiple General Purpose Input/Output (GPIO, GPIO'sPortA, GPIO'sPortZ) entities, wherein said secure link connections are achieved by means of hardware components (SecureLink) configured to decide if a connection between a source (IPx, IPy, GPIO'sPortA, GPIO'sPortZ) and a destination (GPIO'sPortA, GPIO'sPortZ, IPx, IPy) is allowed or denied, in one or both directions, wherein said decision is taken on the basis of a security information status of the source (IPx, IPy, GPIO'sPortA, GPIO'sPortZ) and destination (GPIO'sPortA, GPIO'sPortZ, IPx, IPy), characterised in that the method includes combining said secure/non-secure status information (IP_sec, IPSecurity, IO_sec, IOSecurity) and controlling said secure link connections under the following conditions: - allowing propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if both of them are configured as secure; - allowing propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if both of them are configured as non-secure; - denying propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if the Intellectual Property core (IP, IPx, IPy) is configured as secure but the General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ) is non-secure; and - denying propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if the General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ) is configured as secure but the Intellectual Property core (IP, IPx, IPy) is non-secure. - allowing propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if both of them are configured as secure; - allowing propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if both of them are configured as non-secure; - denying propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if the Intellectual Property core (IP, IPx, IPy) is configured as secure but the General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ) is non-secure; and - denying propagation of information between an Intellectual Property core (IP, IPx, IPy) and a General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ), if the General Purpose Input/Output entity (GPIO, GPIO'sPortA, GPIO'sPortZ) is configured as secure but the Intellectual Property core (IP, IPx, IPy) is non-secure.
A method performed by a mobile station in a wireless network, the method comprising reading a first system information message of a first type received from a base station, characterized in that the method further comprises: determining whether one or more Radio Access Technology, RAT, priority bits are present in the first system information message of the first type, wherein said RAT priority bits are indicative of a relative priority of neighbor cells or frequencies of one RAT with respect to corresponding neighbor cells or frequencies belonging to other RATs; determining, based on the presence or absence of the one or more RAT priority bits, whether additional ones of a plurality of available system information messages of the first type must be read before inter-RAT cell reselection may begin; and selectively initiating inter-RAT cell reselection based on the one or more RAT priority bits, when present in the first system information message of the first type. determining whether one or more Radio Access Technology, RAT, priority bits are present in the first system information message of the first type, wherein said RAT priority bits are indicative of a relative priority of neighbor cells or frequencies of one RAT with respect to corresponding neighbor cells or frequencies belonging to other RATs; determining, based on the presence or absence of the one or more RAT priority bits, whether additional ones of a plurality of available system information messages of the first type must be read before inter-RAT cell reselection may begin; and selectively initiating inter-RAT cell reselection based on the one or more RAT priority bits, when present in the first system information message of the first type.
A cooking appliance comprising: a main body that includes a cooking chamber; an illuminating device comprising a light source and an optical waveguide that is adapted to transmit the light from the light source into the cooking chamber, wherein the illuminating device comprises an elastic holder that is adapted to hold the light source and the adjacent end of the optical waveguide together; and one or more elastic suspension members that are each adapted to resiliently hang the elastic holder into main body; characterized in that the elastic holder is a single piece made from silicone rubber.
Oil filter device for an internal combustion engine, comprising a receiving chamber for the oil filter having a circular cylindrical internal form with a longitudinal axis and being open towards the bottom, with a substantially vertical orientation, or inclined considerably relative to the horizontal, when the engine block with the filter device is mounted in position in a corresponding vehicle, said device also comprising a cover in the form of a cylindrical dome, with a part forming a plug which is able to block the opening of the receiving chamber and a part forming a cylindrical sleeve which able to be housed in the receiving chamber with the ability to rotate, the device in which the wall delimiting the receiving chamber has an opening leading to the external environment and the cylindrical sleeve comprises a lateral opening, and in which the cylindrical sleeve and the wall of the receiving chamber comprise means (11, 12) which cooperate mutually by mechanical engagement and are able to define at least two nested positions with support at different depths according to the longitudinal axis of the cylindrical sleeve in the receiving chamber, the deepest nested position corresponding to the tight sealed position of the opening of said chamber and the other or one of the other nested position(s) enabling the matching of the openings (9, 10) of the cylindrical sleeve and of the wall of the receiving chamber respectively, the oil filter device being characterised in that the receiving chamber for the oil filter is integrated into an oil sump for an internal combustion engine, in that the mutually cooperating means of the cylindrical sleeve of the cover and the wall of the receiving chamber consist respectively of at least two, preferably three, projections, such as lugs, vanes, skids or the like, and at least two, preferably three, flow paths for said projections, in the form of shoulders, grooves or edges by for example, with mutually offset segments according to the longitudinal axis which define said different nesting depths, the passage from one nested position to another being performed by rotating the cover, and in that the receiving chamber is provided with a pressure limiting unit enabling the evacuation of gases towards the interior volume of the sump if an upper limit pressure has been exceeded in said receiving chamber.
A brake caliper of an automobile vehicle, for overlapping an outer edge of a braking disc, this caliper comprising at least one friction pad (7, 11) for being pressed against a face of the disc as well as: - two distinct mechanical actuators (8, 9, 12, 13) each including a driving pinion gear (8a, 9a, 12a, 13a) and a movable piston (8b, 9b, 12b, 13b) resting on the pad (7, 11) to press it against the disc by rotating the driving pinion gears (8a, 9a, 12a, 13a); - a rotary shaft (14, 18) for driving both actuators (8, 9, 12, 13), this shaft including two worm gears (16, 17, 19, 21) having opposite winding directions, this shaft (14, 18) being translationally movable along its own longitudinal direction; - an electric motor for driving the rotary shaft (14, 18); and wherein the rotary shaft (14, 18) extends between both pinion gears (8a, 9a, 12a, 13a) with its two worm gears (16, 17, 19, 21) each meshed in a pinion gear (8a, 9a, 12a, 13a). - two distinct mechanical actuators (8, 9, 12, 13) each including a driving pinion gear (8a, 9a, 12a, 13a) and a movable piston (8b, 9b, 12b, 13b) resting on the pad (7, 11) to press it against the disc by rotating the driving pinion gears (8a, 9a, 12a, 13a); - a rotary shaft (14, 18) for driving both actuators (8, 9, 12, 13), this shaft including two worm gears (16, 17, 19, 21) having opposite winding directions, this shaft (14, 18) being translationally movable along its own longitudinal direction; - an electric motor for driving the rotary shaft (14, 18);