mhurhangee/ep-ind-claims huggingface dataset:
A control system for an autonomous vehicle, the control system comprising: a self-driving system; and one or more computing devices in communication with the self-driving system, the one or more computing devices being configured to: detect, using a detection system, a rail agent in a vicinity of the autonomous vehicle; and determine one or more tracks (271, 273, 274, 276) on which the detected rail agent is possibly traveling, characterized in that the one or more computing devices are configured to: predict possible paths for the rail agent based on the determined one or more tracks; determine one or more motion plans (900A, 900B) for one or more probable paths from the possible paths; determine a likelihood for each of the one or more probable paths based on each motion plan; and determine a path for the autonomous vehicle based on a most probable path associated with a highest likelihood for the rail agent. a self-driving system; and one or more computing devices in communication with the self-driving system, the one or more computing devices being configured to: detect, using a detection system, a rail agent in a vicinity of the autonomous vehicle; and determine one or more tracks (271, 273, 274, 276) on which the detected rail agent is possibly traveling, detect, using a detection system, a rail agent in a vicinity of the autonomous vehicle; and determine one or more tracks (271, 273, 274, 276) on which the detected rail agent is possibly traveling, predict possible paths for the rail agent based on the determined one or more tracks; determine one or more motion plans (900A, 900B) for one or more probable paths from the possible paths; determine a likelihood for each of the one or more probable paths based on each motion plan; and determine a path for the autonomous vehicle based on a most probable path associated with a highest likelihood for the rail agent.
Switch-mode power converter structure having a current input and comprising an inductor-type current filtering device, said structure comprising a primary stage and a secondary stage, said primary stage including first and second primary windings (Tr1-P, Tr2-P) and first and second push-pull-type conversion stages (CPP1, CPP2) connected in parallel with the ends of said first and second primary windings (Tr1-P, Tr2-P), respectively, said first and second conversion stages (CPP1, CPP2) each including first and second controlled switches (T1, T2; T3, T4) and first and second auxiliary switching circuits (CAC1, CAC2; CAC3, CAC4) connected in parallel to said first and second controlled switches (T1, T2; T3, T4), respectively, said first and second auxiliary switching circuits (CAC1, CAC2; CAC3, CAC4) each including a storage circuit (S1, S2; S3, S4) and a recirculation circuit, characterised in that each storage circuit (S1, S2, S3, S4) includes a snubber capacitor (Cs1, Cs2, Cs3, Cs4) and a snubber diode (Ds1, Ds2, Ds3, Ds4), in that the two conversion stages are linked to a fluctuating common potential, the first conversion stage having its negative potential linked to the common potential and the second conversion stage having its positive potential linked to the common potential, and in that the first auxiliary switching circuits (CAC1, CAC3) of said first and second conversion stages (CPP1, CPP2) are interconnected and the second auxiliary switching circuits (CAC2, CAC4) of said first and second conversion stages (CPP1, CPP2) are interconnected.
Plug for mounting on a connecting element of a medical syringe, the connecting element being connected to the medical syringe and having an outer taper of a Luer cone and a medium channel, characterised in that the plug has an inner taper in which the outer taper of the connecting element is received, the plug has a through-channel through which a medium contained in the syringe in the form of an active ingredient, a pharmaceutical or a nutrient solution passes, and is designed to be free of any further connectivity or connecting elements, as a result of which the plug cannot be connected to any further connecting or application element, the inner taper of the plug having a Luer cone which is designed to interact with an outer taper of a Luer cone of the medical syringe, the plug being circular cylindrical and having a flat distal front face.
Modular receptacle composed of a plurality of necked containers that are successively axially nestable with each other with placing in cooperation between their base and their neck extended by a flared section, the containers comprising members for axial nesting (11, 12, 16, 17) with a neighbouring container, of which at least one is arranged as a flange arranged around the neck of a container and of which at least one other is arranged as a recess for receiving the flange, said recess is comprised in a cavity open to the exterior which is arranged in the base of the containers and which comprises a blind tubular space for receiving a neck extended by a flared pocket for receiving the flared section extending this neck, wherein the recess is formed by the tubular space which is arranged as an undercut in the base of the container, with this tubular space arranging a chamber for receiving the flange with radial freedom characterised in that the flange is bearing axially in one direction against a shoulder formed in the base of the chamber opposite its blind surface.
An airfoil having a pressure side wall, a suction side wall, a leading edge and a trailing edge, with the trailing edge being cut-back on the pressure side to expose an open land on a rear surface of said suction side wall and comprising: a cooling air flow passage extending generally in a direction from said leading edge to said trailing edge to conduct the flow of cooling air first from an internal cavity between said pressure side wall and said suction side wall and to said open land and then to said trailing edge; and a plurality of pedestals formed between said pressure and suction sides (31, 33) and passing through said cooling air flow passage, said pedestals being aligned in adjacent rows (19, 21, 22, 23, 24, 26); characterised by at least one upstream row having pedestals that are of greater cross sectional areas than those of the downstream rows (21, 22, 23, 24, 26). a cooling air flow passage extending generally in a direction from said leading edge to said trailing edge to conduct the flow of cooling air first from an internal cavity between said pressure side wall and said suction side wall and to said open land and then to said trailing edge; and a plurality of pedestals formed between said pressure and suction sides (31, 33) and passing through said cooling air flow passage, said pedestals being aligned in adjacent rows (19, 21, 22, 23, 24, 26); characterised by at least one upstream row having pedestals that are of greater cross sectional areas than those of the downstream rows (21, 22, 23, 24, 26).
An Ethernet physical layer, PHY, transceiver, comprising: a transmitter, configured to generate and transmit a first signal carrying a first data stream over an asymmetric full-duplex wired channel to a peer Ethernet PHY transceiver; a receiver, configured to receive a second signal carrying a second data stream from the peer Ethernet PHY transceiver over the asymmetric full-duplex wired channel, the second signal containing an echo component from the first signal, and to decode the received second data stream; and a precoder, which is configured, in generating the first signal for transmission, to apply precoding to the first data stream, the precoding reducing the echo component from the first signal in the second data stream decoded by the receiver. a transmitter, configured to generate and transmit a first signal carrying a first data stream over an asymmetric full-duplex wired channel to a peer Ethernet PHY transceiver; a receiver, configured to receive a second signal carrying a second data stream from the peer Ethernet PHY transceiver over the asymmetric full-duplex wired channel, the second signal containing an echo component from the first signal, and to decode the received second data stream; and a precoder, which is configured, in generating the first signal for transmission, to apply precoding to the first data stream, the precoding reducing the echo component from the first signal in the second data stream decoded by the receiver.
An apparatus comprising means for: providing, from a first function instance of a set of first function instances to a second function, first information comprising an indication that a protocol session between a first function and the second function is controllable by different instances of the set of first function instances; and receiving, at one of the set of first function instances from the second function, a protocol session related message based on the first information, wherein the first function is a session management function, the second function is a user plane function and the protocol session is a packet forwarding control protocol session. providing, from a first function instance of a set of first function instances to a second function, first information comprising an indication that a protocol session between a first function and the second function is controllable by different instances of the set of first function instances; and receiving, at one of the set of first function instances from the second function, a protocol session related message based on the first information, wherein the first function is a session management function, the second function is a user plane function and the protocol session is a packet forwarding control protocol session.
An apparatus comprising: vertical, lateral, and longitudinal acceleration transducers (100, 102, 104) producing uncorrected acceleration signals (106, 108, 110) and thermal signals (112, 114, 116), the thermal signals (112, 114, 116) including a signal corresponding to a temperature of the vertical acceleration transducer, a signal corresponding to a temperature of the lateral acceleration transducer, and a signal corresponding to a temperature of the longitudinal acceleration transducer; and an error correction system connected to the acceleration transducers (100, 102, 104) for receiving the uncorrected acceleration signals (106, 108, 110) and the thermal signals (112, 114, 116), the error correction system including, (a) a system controller for generating a plurality of correction coefficients based, at least in part, on a sampling of each of the thermal signals (112, 114, 116), and (b) an error compensation circuit receiving the correction coefficients to compensate the uncorrected acceleration signals (106, 108, 110) and produce corrected acceleration signals. vertical, lateral, and longitudinal acceleration transducers (100, 102, 104) producing uncorrected acceleration signals (106, 108, 110) and thermal signals (112, 114, 116), the thermal signals (112, 114, 116) including a signal corresponding to a temperature of the vertical acceleration transducer, a signal corresponding to a temperature of the lateral acceleration transducer, and a signal corresponding to a temperature of the longitudinal acceleration transducer; and an error correction system connected to the acceleration transducers (100, 102, 104) for receiving the uncorrected acceleration signals (106, 108, 110) and the thermal signals (112, 114, 116), the error correction system including, (a) a system controller for generating a plurality of correction coefficients based, at least in part, on a sampling of each of the thermal signals (112, 114, 116), and (b) an error compensation circuit receiving the correction coefficients to compensate the uncorrected acceleration signals (106, 108, 110) and produce corrected acceleration signals. (a) a system controller for generating a plurality of correction coefficients based, at least in part, on a sampling of each of the thermal signals (112, 114, 116), and (b) an error compensation circuit receiving the correction coefficients to compensate the uncorrected acceleration signals (106, 108, 110) and produce corrected acceleration signals.
A composite material for an electromagnetic shield comprising a copper foil or a copper alloy foil, a resin layer or film laminated on one side surface of the copper foil or the copper alloy foil, and a Sn or Sn alloy plated film formed on the other surface of the copper foil or the copper alloy foil, wherein the Sn or Sn alloy plated film has a percentage of plane orientation of 20 to 40%, said plane orientation being measured by thin film X-ray diffraction, the percentage of each plane orientation being determined by representing the peak intensity of each plane orientation as a percentage so that the total percentage in all orientations is 100%, wherein the Sn or Sn alloy plated film has a total percentage of and planes orientation of 50 to 65%.
An electrodynamic transducer comprising: - a magnetic circuit, defining an air gap; - a movable element, comprising a dome-shaped diaphragm, integral with a movable coil dipped into the air gap; - a support, to which the movable element is suspended; - a suspension, providing the connection between the movable element and the support; - the support extends at least partly in an inner volume of the movable element, this support comprises a plate, on which the suspension is attached, and a rod integral with the plate and by which the support is attached to the magnetic circuit - the suspension comprises a planar inner portion attached to the plate and a peripheral portion surrounding the inner portion and which freely extends with respect to the plate, this electrodynamic transducer being characterised in that: - the suspension is made of an acoustically non-emissive material, - the peripheral portion comprises corrugations, the peripheral portion being attached to an inner face of the diaphragm by an external peripheral edge of said corrugations. - a magnetic circuit, defining an air gap; - a movable element, comprising a dome-shaped diaphragm, integral with a movable coil dipped into the air gap; - a support, to which the movable element is suspended; - a suspension, providing the connection between the movable element and the support; - the support extends at least partly in an inner volume of the movable element, this support comprises a plate, on which the suspension is attached, and a rod integral with the plate and by which the support is attached to the magnetic circuit - the suspension comprises a planar inner portion attached to the plate and a peripheral portion surrounding the inner portion and which freely extends with respect to the plate, this electrodynamic transducer being characterised in that: - the suspension is made of an acoustically non-emissive material, - the peripheral portion comprises corrugations, the peripheral portion being attached to an inner face of the diaphragm by an external peripheral edge of said corrugations. - the suspension is made of an acoustically non-emissive material, - the peripheral portion comprises corrugations, the peripheral portion being attached to an inner face of the diaphragm by an external peripheral edge of said corrugations.
A multiple chamber container housing a two part peritoneal dialysis solution wherein the first part is stored in a first chamber of the multiple chamber container and wherein the first part consists of a first solution containing icodextrin ranging from about 100.0 g/L to about 220.0 g/L, wherein the first part has a pH ranging from about 1.5 to about 5.0; and wherein the second part is stored in a second chamber of the multiple chamber container and wherein the second part comprises a buffer solution having a pH ranging from about 7.0 to about 12; and wherein the buffer solution does not contain amino acids with a pK 1 between 7 and 13, such as glycine, alanine and histidine; and wherein the first part and the second part being so constructed and arranged that the first part and the second part are mixed prior to infusion into a patient.
A method of making a tobacco extract comprising; (a) providing tobacco and an entrapment solvent in a partitioned vessel, wherein the tobacco and entrapment solvent are separated by a partition, and the vessel is configured such that the tobacco and entrapment solvent cannot contact each other; (b) flowing a supercritical extraction solvent through the vessel, wherein the extraction solvent and any dissolved substances can pass through the partition; whereby tobacco components are extracted from the tobacco into the extraction solvent and carried across the partition, wherein the extraction solvent contacts the entrapment solvent and tobacco components are transferred from the extraction solvent into the entrapment solvent; and (c) providing the entrapment solvent containing dissolved tobacco components in a cartridge, wherein the cartridge is configured for use in a smoking article. (a) providing tobacco and an entrapment solvent in a partitioned vessel, wherein the tobacco and entrapment solvent are separated by a partition, and the vessel is configured such that the tobacco and entrapment solvent cannot contact each other; (b) flowing a supercritical extraction solvent through the vessel, wherein the extraction solvent and any dissolved substances can pass through the partition; whereby tobacco components are extracted from the tobacco into the extraction solvent and carried across the partition, wherein the extraction solvent contacts the entrapment solvent and tobacco components are transferred from the extraction solvent into the entrapment solvent; and (c) providing the entrapment solvent containing dissolved tobacco components in a cartridge, wherein the cartridge is configured for use in a smoking article.
A method of transmitting orthogonal frequency division multiplexing-based signals to a receiver by a transmitter, the method comprising: - forming a first transmission symbol vector for user data; - forming a second transmission symbol vector for the pilot; - adding additional information only to one of the first and the second transmission symbol vector by multiplying a complex value indicating the additional information by the first or the second transmission symbol vector, respectively; - transforming the first transmission symbol vector and the second transmission symbol vector to time domain signals, wherein one of the first transmission symbol vector and the second transmission symbol vector contain the additional information; and - transmitting the time domain signals to the receiver. - forming a first transmission symbol vector for user data; - forming a second transmission symbol vector for the pilot; - adding additional information only to one of the first and the second transmission symbol vector by multiplying a complex value indicating the additional information by the first or the second transmission symbol vector, respectively; - transforming the first transmission symbol vector and the second transmission symbol vector to time domain signals, wherein one of the first transmission symbol vector and the second transmission symbol vector contain the additional information; and - transmitting the time domain signals to the receiver.
A vacuum assisted venous drainage, VAVD, system, comprising: a regulator valve assembly (124, 212) configured to facilitate application of vacuum to a reservoir; a control unit (122, 236) configured to control the regulator valve assembly to facilitate controlling application of the vacuum; at least one pressure sensor (116, 238) coupled to the reservoir and configured to obtain pressure measurements of pressure in the reservoir; characterised by a heating element (126, 222) configured to heat the regulator valve assembly to a target temperature; and at least one temperature sensor (128, 224) configured to determine a temperature of the regulator valve assembly. a regulator valve assembly (124, 212) configured to facilitate application of vacuum to a reservoir; a control unit (122, 236) configured to control the regulator valve assembly to facilitate controlling application of the vacuum; at least one pressure sensor (116, 238) coupled to the reservoir and configured to obtain pressure measurements of pressure in the reservoir; characterised by a heating element (126, 222) configured to heat the regulator valve assembly to a target temperature; and at least one temperature sensor (128, 224) configured to determine a temperature of the regulator valve assembly.
A throttle device configured to be provided in a duct (Du1, Du2) supplying a refrigerant, comprising: a tube body which has opening end sections at both ends (10'E1, 10'E2), the opening end sections being configured for communicating with the inside of the duct (Du1, Du2); a valve seat (48V, 48'V) which is provided on an inner circumferential part of the tube body and has a valve port (48P, 48'P); a valve member including: a valve section (50P2) which is provided to be movable toward and away from the valve port (48P, 48'P) of the valve seat (48V, 48'V) and controls an opening area of the valve port (48P, 48'P); and a guide stem section (50P3) which is continuous with the valve section and extends toward an upstream side in a flow of the refrigerant; a urging member which is provided at upstream side portion of the valve port (48P, 48'P) and urges the valve member in a direction toward the valve port (48P, 48'P) of the valve seat (48V, 48'V); and a guide section (48B, 48'B) which is provided upstream side of the valve port (48P, 48'P) in the flow of the refrigerant within the tube body and on which the guide stem section (50P3) of the valve member is slidably provided, characterised in that a stopper member (54, 54', 64) is provided at the guide section (48B, 48'B), the stopper member (54, 54', 64) including an inner surface which touches on an end face of the guide stem section (50P3) of the valve member and covering the urging member and a support member supporting the urging member. a tube body which has opening end sections at both ends (10'E1, 10'E2), the opening end sections being configured for communicating with the inside of the duct (Du1, Du2); a valve seat (48V, 48'V) which is provided on an inner circumferential part of the tube body and has a valve port (48P, 48'P); a valve member including: a valve section (50P2) which is provided to be movable toward and away from the valve port (48P, 48'P) of the valve seat (48V, 48'V) and controls an opening area of the valve port (48P, 48'P); and a guide stem section (50P3) which is continuous with the valve section and extends toward an upstream side in a flow of the refrigerant; a urging member which is provided at upstream side portion of the valve port (48P, 48'P) and urges the valve member in a direction toward the valve port (48P, 48'P) of the valve seat (48V, 48'V); and a guide section (48B, 48'B) which is provided upstream side of the valve port (48P, 48'P) in the flow of the refrigerant within the tube body and on which the guide stem section (50P3) of the valve member is slidably provided, characterised in that a stopper member (54, 54', 64) is provided at the guide section (48B, 48'B), the stopper member (54, 54', 64) including an inner surface which touches on an end face of the guide stem section (50P3) of the valve member and covering the urging member and a support member supporting the urging member.