mhurhangee/ep-ind-claims huggingface dataset:
An active suspension system (10; 40) comprising: a force bias eliminator (14; 54; 70); an actuator (12; 50; 66) configured to be operably coupled to an energy storage reservoir (32; 76) a plant (16; 52; 68; 82) connected to and suspended to a vehicle by the force bias eliminator and the actuator, such that the actuator and force bias eliminator jointly suspend the plant along a substantially vertical axis; a load-unload detector (28; 46; 60; 82) that detects a loading or unloading of the plant; and a control system (20; 62) operably coupled to the load-unload detector, the force bias eliminator, the energy storage reservoir and the actuator, wherein the control system, in response to a loading or unloading of the plant detected by the load-unload detector: determines the amount of energy stored in the energy storage reservoir; causes the force bias eliminator to respond to counteract forces acting on the plant as a result of the loading or unloading; and reduces the current supplied to the actuator to reduce the rate of energy discharge from the energy storage reservoir to preserve energy remaining in the energy storage reservoir while the force bias eliminator responds to counteract the forces. a force bias eliminator (14; 54; 70); an actuator (12; 50; 66) configured to be operably coupled to an energy storage reservoir (32; 76) a plant (16; 52; 68; 82) connected to and suspended to a vehicle by the force bias eliminator and the actuator, such that the actuator and force bias eliminator jointly suspend the plant along a substantially vertical axis; a load-unload detector (28; 46; 60; 82) that detects a loading or unloading of the plant; and a control system (20; 62) operably coupled to the load-unload detector, the force bias eliminator, the energy storage reservoir and the actuator, wherein the control system, in response to a loading or unloading of the plant detected by the load-unload detector: determines the amount of energy stored in the energy storage reservoir; causes the force bias eliminator to respond to counteract forces acting on the plant as a result of the loading or unloading; and reduces the current supplied to the actuator to reduce the rate of energy discharge from the energy storage reservoir to preserve energy remaining in the energy storage reservoir while the force bias eliminator responds to counteract the forces. determines the amount of energy stored in the energy storage reservoir; causes the force bias eliminator to respond to counteract forces acting on the plant as a result of the loading or unloading; and reduces the current supplied to the actuator to reduce the rate of energy discharge from the energy storage reservoir to preserve energy remaining in the energy storage reservoir while the force bias eliminator responds to counteract the forces.
A method by a mobile device performing localization of the mobile device using a set of sensors that are transported with the mobile device, the method comprising determining a confidence score ( λ i) for each of the sensors (S i) among the set of sensors; defining a subset of the sensors among the set of sensors that are to remain active based on their respective confidence scores satisfying a defined threshold; and deactivating the sensors within the set of sensors that do not belong to the subset, wherein the deactivation comprises controlling power consumption by deactivated ones of the sensors, characterized by the defining of the subset of the sensors among the set of sensors (301, 303, 305) to remain active is further based on a combination of their respective confidence scores and an amount of similarity in the operational characteristics of the sensors. determining a confidence score ( λ i) for each of the sensors (S i) among the set of sensors; defining a subset of the sensors among the set of sensors that are to remain active based on their respective confidence scores satisfying a defined threshold; and deactivating the sensors within the set of sensors that do not belong to the subset, wherein the deactivation comprises controlling power consumption by deactivated ones of the sensors, characterized by the defining of the subset of the sensors among the set of sensors (301, 303, 305) to remain active is further based on a combination of their respective confidence scores and an amount of similarity in the operational characteristics of the sensors.
A distribution device for distributing information relating to a content, the devise comprising: an acquire unit configured to acquire media presentation description data including information relating to a partial video that is at least a part of a full video; and a distribution unit configured to distribute the MPD data, wherein the information is described by at least one of a Sub-Presentation of MPEG-DASH and an Adaptation Set of MPEG-DASH, the partial video spatially occupies at least a part of a video region of the full video; and the information includes (i) a parameter which indicates, based on a left upper coordinate of the full video, a left upper coordinate of the partial video and (ii) a parameter which indicates a width and a height of the full video. an acquire unit configured to acquire media presentation description data including information relating to a partial video that is at least a part of a full video; and a distribution unit configured to distribute the MPD data, wherein the information is described by at least one of a Sub-Presentation of MPEG-DASH and an Adaptation Set of MPEG-DASH, the partial video spatially occupies at least a part of a video region of the full video; and the information includes (i) a parameter which indicates, based on a left upper coordinate of the full video, a left upper coordinate of the partial video and (ii) a parameter which indicates a width and a height of the full video.
A compound of the formula: wherein M is ruthenium or osmium; X and X 1 are the same or different and are each independently any anionic ligand; L, L 1', and L 2 are the same or different and are each independently any neutral electron donor ligand, wherein at least one is an N-heterocyclic carbene ligand; R and R 1 are the same or different and are each independently hydrogen or a substituted or unsubstituted substituent selected from C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 2 -C 20 alkynyl, aryl, C 1 -C 20 carboxylate, C 1 -C 20 alkoxy, C 2 -C 20 alkenyloxy, C 2 -C 20 alkynyloxy, aryloxy, C 2 -C 20 alkoxycarbonyl, C 1 -C 20 alkylthio, C 1 -C 20 alkylsulfonyl, C 1 -C 20 alkylsulfinyl, and silyl.
A nonreturn device for a fluid-carrying pipe, said nonreturn device includes, intended to be positioned on said pipe: - a shut-off gate of the two-position type, an active one for shutting said pipe, and an inactive one, provided with a mobile selector element associated with actuation means, - a nonreturn valve including an inlet (6 a) and an outlet (6 b), taking into account the normal direction of displacement of the fluid, adapted to maintain a fluid pressure difference ΔP between said inlet (6 a) and said outlet (6 b), and - a triggering piston comprising a body delimiting an internal volume separated into two chambers (82 a, 82 b) by a mobile element that is equipped with an activation rod, a first one of said chambers (82 a) being intended to be in fluidic communication with said pipe downstream from said nonreturn valve, and a second one of said chambers (82 b) being intended to be in fluidic communication with said pipe upstream from said nonreturn valve, characterized in that said actuation means of said shut-off gate are provided with a device for accumulating and releasing potential energy (54, 54'), adapted to accumulate potential energy when said shut-off gate passes from its active position to its inactive position, and adapted to release said potential energy when said shut-off gate passes from its inactive position to its active position, said activation rod of said triggering piston being adapted to be able to actuate said actuation means of the selector element of said shut-off gate, in order to operate the latter from its inactive position to its active position, in the case where said pressure difference ΔP passes under a predetermined threshold, with release of the potential energy accumulated by said device for accumulating / releasing potential energy (54, 54). - a shut-off gate of the two-position type, an active one for shutting said pipe, and an inactive one, provided with a mobile selector element associated with actuation means, - a nonreturn valve including an inlet (6 a) and an outlet (6 b), taking into account the normal direction of displacement of the fluid, adapted to maintain a fluid pressure difference ΔP between said inlet (6 a) and said outlet (6 b), and - a triggering piston comprising a body delimiting an internal volume separated into two chambers (82 a, 82 b) by a mobile element that is equipped with an activation rod,
A wind turbine comprising: - a tower, - a nacelle mounted on the tower, - a generator, - a hub mounted rotatably on the nacelle, - a blade carrying structure connected to the hub, - one or more wind turbine blades connected to the blade carrying structure via a hinge, each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle and a maximum pivot angle, each wind turbine blade extending between an outer tip and an inner tip, wherein each wind turbine blade has: - an outer portion extending between the hinge and the outer tip and having a first length (L 1), and - an inner portion extending between the hinge and the inner tip and having a second length (L 2), wherein a coning angle of the blade carrying structure is larger than zero and/or a tilt angle of the rotor axis is larger than zero, and wherein a horizontal distance (L 0) from - the tower at a vertical position defined by a position of the hinge at tower passage to - a point of connection between the blade carrying structure and the hub is equal to or less than the second length (L 2). - a tower, - a nacelle mounted on the tower, - a generator, - a hub mounted rotatably on the nacelle, - a blade carrying structure connected to the hub, - one or more wind turbine blades connected to the blade carrying structure via a hinge, each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle and a maximum pivot angle, each wind turbine blade extending between an outer tip and an inner tip, wherein each wind turbine blade has: - an outer portion extending between the hinge and the outer tip and having a first length (L 1), and - an inner portion extending between the hinge and the inner tip and having a second length (L 2), - an outer portion extending between the hinge and the outer tip and having a first length (L 1), and - an inner portion extending between the hinge and the inner tip and having a second length (L 2), wherein a coning angle of the blade carrying structure is larger than zero and/or a tilt angle of the rotor axis is larger than zero, and wherein a horizontal distance (L 0) from - the tower at a vertical position defined by a position of the hinge at tower passage to - a point of connection between the blade carrying structure and the hub is equal to or less than the second length (L 2). - the tower at a vertical position defined by a position of the hinge at tower passage to - a point of connection between the blade carrying structure and the hub is equal to or less than the second length (L 2).
A method for detecting a synchronization signal block, the synchronization signal block comprising a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a synchronization channel, wherein the method comprises: receiving, by a terminal, a first synchronization signal block transmitted by an access network device; and determining, by the terminal, a location of a time-frequency resource of a second synchronization signal block according to preset information comprised in the first synchronization signal block, wherein the first synchronization signal block and the second synchronization signal block are sent using a same beam, or the first synchronization signal block and the second synchronization signal block carry same information; and detecting, by the terminal, the second synchronization signal block. receiving, by a terminal, a first synchronization signal block transmitted by an access network device; and determining, by the terminal, a location of a time-frequency resource of a second synchronization signal block according to preset information comprised in the first synchronization signal block, wherein the first synchronization signal block and the second synchronization signal block are sent using a same beam, or the first synchronization signal block and the second synchronization signal block carry same information; and detecting, by the terminal, the second synchronization signal block.
Arrangement for monitoring a switchgear installation, for thermal loading, having at least one sensor and having evaluation electronics which are connected to the at least one sensor, with an indicator substance which is arranged at at least one point or on at least one component in the installation, wherein the indicator substance can be detected by the at least one sensor, characterized in that the amount of the indicator substances which is released into the environment is temperature-dependent, and in that the at least one sensor is a gas chromatograph or a gas sensor and the sensor has a ventilation unit, which passes a predetermined gas flow over a detector element of the sensor, as a result of which the detection time for a thermal stress that is to be detected is shortened and the accuracy of the sensor is increased by supplying a uniform gas stream.
A method in a network element of a packet data network to route packets with embedded virtual local area network information and an IP header to end addresses of virtual forwarding instances to establish virtual extensible LAN, VxLAN, based virtual local area networks over 802.1aq Ethernet networks, the method comprising the steps of: receiving an 802.1aq Ethernet frame from a Virtual Machine, VM, run on a VxLAN server including an embedded virtual network identifier, VNI; looking up the VNI in a VNI to I-SID virtual forwarding instance, VFI, table to map the VNI to an 802.1aq I-SID, I-Component Service Identifier, and an associated VFI, the associated VFI having an associated internet protocol, IP, address to backbone media access control, B-MAC, address table that is shared with a set of VFIs each having a respective associated I-SID; resolving by the VFI a destination IP address of the frame to a remote B-MAC address using the shared IP to B-MAC table; encapsulating the frame with the I-SID and B-MAC; and sending the frame to the remote B-MAC address. receiving an 802.1aq Ethernet frame from a Virtual Machine, VM, run on a VxLAN server including an embedded virtual network identifier, VNI; looking up the VNI in a VNI to I-SID virtual forwarding instance, VFI, table to map the VNI to an 802.1aq I-SID, I-Component Service Identifier, and an associated VFI, the associated VFI having an associated internet protocol, IP, address to backbone media access control, B-MAC, address table that is shared with a set of VFIs each having a respective associated I-SID; resolving by the VFI a destination IP address of the frame to a remote B-MAC address using the shared IP to B-MAC table; encapsulating the frame with the I-SID and B-MAC; and sending the frame to the remote B-MAC address.
A method of manufacturing a fishing line guide which has a guide ring for guiding a fishing line and is attachable to a tubular rod of a fishing rod, the method comprising: working a ring support composed of a metallic thin plate, the ring support comprising: a ring holding portion holding the guide ring; and a ring supporting portion integrally formed with the ring holding portion, wherein the ring supporting portion is bent at a first bending angle with reference to a first bending portion which extends to a lower end of the ring supporting portion in a downward direction toward the tubular rod when the fishing line guide is attached to the fishing rod; and injection molding an annular attachment portion, which has an inner peripheral surface to be fitted with an outer peripheral surface of the tubular rod, from a resin material by using the ring support as an insert such that a lower portion of the ring supporting portion including a lower portion of the first bending portion is embedded in the attachment portion and the ring support and the attachment portion are partially coupled to each other. working a ring support composed of a metallic thin plate, the ring support comprising: a ring holding portion holding the guide ring; and a ring supporting portion integrally formed with the ring holding portion, wherein the ring supporting portion is bent at a first bending angle with reference to a first bending portion which extends to a lower end of the ring supporting portion in a downward direction toward the tubular rod when the fishing line guide is attached to the fishing rod; and injection molding an annular attachment portion, which has an inner peripheral surface to be fitted with an outer peripheral surface of the tubular rod, from a resin material by using the ring support as an insert such that a lower portion of the ring supporting portion including a lower portion of the first bending portion is embedded in the attachment portion and the ring support and the attachment portion are partially coupled to each other.
A method for stabilizing an aqueous solution of β-amylase obtained from a soluble fraction of starch plants, comprising at least one step of introducing, into said aqueous solution of β-amylase: a) 0.05 to 0.5% of potassium sorbate; b) 30 to 50% of glycerol; c) 0.05 to 0.5% of sodium carbonate; these % being expressed as % by dry weight of each constituent relative to the total weight of said aqueous solution. a) 0.05 to 0.5% of potassium sorbate; b) 30 to 50% of glycerol; c) 0.05 to 0.5% of sodium carbonate;
An identification appliance adapted to provide information about a person, the identification appliance comprising: a programmable data storage device configured to receive and store identification information including biometric data for positively identifying a person; a structure configured to be worn by or attached to the person, said structure carrying said data storage device; a fastener (93, 94) disposed in or on the structure, the fastener (93, 94) being adapted to attach the structure to the person; a circuit disposed in or on the structure and electrically coupled to the fastener (93, 94), wherein closing the fastener (93, 94) enables a function of the circuit, and opening of the fastener (93, 94) causes the circuit to destroy the identification information stored on the programmable data storage device, wherein the fastener (93, 94) is configured for repeated closing and opening, and a biometric sensor coupled to the circuit for providing the biometric information. a programmable data storage device configured to receive and store identification information including biometric data for positively identifying a person; a structure configured to be worn by or attached to the person, said structure carrying said data storage device; a fastener (93, 94) disposed in or on the structure, the fastener (93, 94) being adapted to attach the structure to the person; a circuit disposed in or on the structure and electrically coupled to the fastener (93, 94), wherein closing the fastener (93, 94) enables a function of the circuit, and opening of the fastener (93, 94) causes the circuit to destroy the identification information stored on the programmable data storage device, wherein the fastener (93, 94) is configured for repeated closing and opening, and a biometric sensor coupled to the circuit for providing the biometric information.
Assembly for material processing using a laser beam, in particular for laser drilling, with - a dynamic deflection device for the laser beam, which is designed to deflect the laser beam into two directions extending perpendicularly to each other, and - an optical assembly, with which a laser beam exiting the deflection device is focussed onto a processing plane, - wherein the optical assembly includes a first optical system and a second optical system along an optical axis of the optical assembly, which are designed and arranged such that the laser beam forms a intermediate focus between the first and second optical systems (OS1, OS2), characterized in that the laser beam when entering the first optical system at an angle to the optical axis and at a distance therefrom intersects the optical axis between the second optical system and the processing plane. - a dynamic deflection device for the laser beam, which is designed to deflect the laser beam into two directions extending perpendicularly to each other, and - an optical assembly, with which a laser beam exiting the deflection device is focussed onto a processing plane, - wherein the optical assembly includes a first optical system and a second optical system along an optical axis of the optical assembly, which are designed and arranged such that the laser beam forms a intermediate focus between the first and second optical systems (OS1, OS2), characterized in that the laser beam when entering the first optical system at an angle to the optical axis and at a distance therefrom intersects the optical axis between the second optical system and the processing plane.
A process for constructing a vertical structure by setting and hardening hydraulic concrete in a casing, which comprises the following steps: - We use a casing that comprises on one hand, an airtight enclosure containing a hydraulic binder in powder form and on the other hand, an inlet valve for water to mix with the powder; the insertion of water into the powder is done with the help of the aforesaid method; a process characterised in that: - The inlet valve was designed to ensure water tightness in the enclosure till the water entry point; - We position the enclosure vertically on the ground and fix it in such a way that it is an integral part of the wall, and the structure to be constructed is a wall. - We use a casing that comprises on one hand, an airtight enclosure containing a hydraulic binder in powder form and on the other hand, an inlet valve for water to mix with the powder; the insertion of water into the powder is done with the help of the aforesaid method; a process characterised in that: - The inlet valve was designed to ensure water tightness in the enclosure till the water entry point; - We position the enclosure vertically on the ground and fix it in such a way that it is an integral part of the wall, and the structure to be constructed is a wall.
A method of forming an antimicrobial parylene coating, comprising: immobilizing an antimicrobial agent on a parylene film through molecular attachment, interaction or covalent bonding via vapor-phase deposition, wherein the parylene film and the antimicrobial agent are deposited simultaneously on a substrate, or wherein the parylene film is deposited on a substrate prior to introduction of the antimicrobial agent, wherein the antimicrobial agent is octadecyldimethyl(3-trimethoxysilylpropyl)ammonium chloride, 4-chloro-3,5-dimethylphenol, or N-trimethoxysilylpropyl-N,N,N-trimethylammonium chloride.