mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a plurality of battery assemblies located in or associated with respective buildings in a plurality of buildings connected to the electricity distribution network, wherein each battery assembly is located behind a meter and: A) comprises power storage and control electronics and communication means for communicating with a remote third party service; and, B) is configured to: I) act as: a local hub for local power demand monitoring; and, a local DC power supply for DC loads and/or for a micro-inverter; II) charge the power storage, wherein for each battery assembly the power storage charging and supply of DC power or supply of power back to the mains network is scheduled based on a demand management signal or demand request from the remote service received via the communications means and in accordance with demand from local end users, the battery assembly being configured to receive the demand management signal or demand request via the communications means connecting to the remote third party service or, where the meter is a smart meter, via the communications means from the smart meter connected remotely to the remote third party service, wherein the plurality of battery assemblies are installed in local clusters on the distribution network, feeder or substation network, to be managed as a collective resource in aggregate, characterised in that each local cluster is further configured to charge all batteries either at an off peak time in accordance with expected demand by local end users for corresponding peak periods or on availability of local distributed generation resources, such that said scheduling of the charging and power supply of those battery assemblies in aggregate provides local grid storage services or local LV network benefits. A) comprises power storage and control electronics and communication means for communicating with a remote third party service; and, B) is configured to: I) act as: a local hub for local power demand monitoring; and, a local DC power supply for DC loads and/or for a micro-inverter; II) charge the power storage, I) act as: a local hub for local power demand monitoring; and, a local DC power supply for DC loads and/or for a micro-inverter; a local hub for local power demand monitoring; and, a local DC power supply for DC loads and/or for a micro-inverter; II) charge the power storage,
A mutant of a parent Trichoderma strain, comprising a polynucleotide encoding a polypeptide and a first subtilisin-like serine protease gene comprising or consisting of a nucleotide sequence having at least 80% sequence identity to SEQ ID NO: 1 or the cDNA thereof, or the mature polypeptide coding sequence thereof, and a trypsin-like serine protease gene comprising or consisting of a nucleotide sequence having at least 80% sequence identity to SEQ ID NO: 5 or the cDNA thereof, or the mature polypeptide coding sequence thereof, wherein the genes are modified rendering the mutant strain deficient in the production of a first subtilisin-like serine protease comprising or consisting of an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 2 or the mature polypeptide thereof and a trypsin-like serine protease comprising or consisting of an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 6 or the mature polypeptide thereof, compared to the parent Trichoderma strain when cultivated under identical conditions.
An air conditioner controlling method of an air conditioner repeater, the method comprising: based on a remote controller being connected to the air conditioner repeater via a cable, generating pairing information; transferring the generated pairing information to the remote controller via the cable; based on a response message for the pairing information being received from the remote controller via the cable, performing pairing with the remote controller; and based on the wired connection with the remote controller being released and an air conditioner and the air conditioner repeater being connected via a cable, transferring a wireless signal, which is received from the remote controller through a Bluetooth communication, to the air conditioner through the cable connected with the air conditioner. based on a remote controller being connected to the air conditioner repeater via a cable, generating pairing information; transferring the generated pairing information to the remote controller via the cable; based on a response message for the pairing information being received from the remote controller via the cable, performing pairing with the remote controller; and based on the wired connection with the remote controller being released and an air conditioner and the air conditioner repeater being connected via a cable, transferring a wireless signal, which is received from the remote controller through a Bluetooth communication, to the air conditioner through the cable connected with the air conditioner.
A press tooling comprising at least one mobile punch (2, 3), the tooling comprising a die in which the punch penetrates, the die being made up of sectors (23, 40) separated by slots but that can come into contact with each other, a rack surrounding the die, which bears on the rack slidingly via conical surfaces, a means for moving the rack relative to the die in a direction of mobility of the punch, characterized in that: the die comprises a lower, single-unit piece (21, 43) to which the sectors (23, 40) are securely attached and form a single piece with it; the slots separating the sectors extend over a part of the height of the die; the sectors are able to separate from each other, opening the die, a flexion and an elastic stress appearing at a connection between the sectors (23, 40) and the lower, single-unit piece (21, 43); and the sectors comprise inserts at their inner surface.
A transmitter comprising: a generation unit configured to generate multiple OFDM symbols included in a predefined time unit; and a transmitting unit configured to transmit the multiple OFDM symbols generated at the generation unit, wherein the generation unit arranges a primary synchronization channel at an end OFDM symbol in the predefined time unit, the primary synchronization channel being generated based on one sequence, and a secondary synchronization channel, where two types of sequences are alternately arranged in a frequency domain, at an OFDM symbol preceding the OFDM symbol where the primary synchronization channel is arranged, and a cyclic prefix is arranged for each of the multiple OFDM symbols, and any of specified different cyclic prefix lengths is used. a generation unit configured to generate multiple OFDM symbols included in a predefined time unit; and a transmitting unit configured to transmit the multiple OFDM symbols generated at the generation unit,
Hydraulically damping bearing having a core, an outer sleeve surrounding the core, and an elastomeric supporting body which connects the core and the outer sleeve to one another, the supporting body separating from one another a first working chamber and a second working chamber which are filled with fluid and are connected to one another via a damping duct and at least one overpressure duct (30a, 30b), a pivotable valve element (32a, 32b) being provided which is connected to the supporting body on three sides, the valve element (32a, 32b) closing the overpressure duct (30a, 30b) in a closed position and pivots into an open position when a predetermined differential limit pressure in the working chambers (20, 22) is exceeded, to connect the two working chambers (20, 22) to one another in a fluid-conducting manner, a separate supporting device (40a, 40b) being provided which bears on one side against the valve element (32a, 32b) and moves the valve element (32a, 32b) in the closed position, the supporting device (40a, 40b) having a part (54a, 54b) which can be inserted between the supporting body and the outer sleeve, characterized in that the insertable part (54a, 54b) is designed as a channel shell (56a, 56b), wherein in an outer surface of the channel shell (56a, 56b) - the overpressure channel (30a, 30b) and/or the damping channel is introduced, the overpressure channel (30a, 30b) and/or the damping channel communicating with the working chambers (20, 22) via flow openings introduced into the channel shell (56a, 56b), and the valve element (32a, 32b) closing at least one flow opening in the closed position, and/or - the damping channel is introduced, and wherein the damping channel is provided with a short-circuit opening in the form of an overpressure channel (30a, 30b) which closes the valve element (32a, 32b) in the closed position. - the overpressure channel (30a, 30b) and/or the damping channel is introduced, the overpressure channel (30a, 30b) and/or the damping channel communicating with the working chambers (20, 22) via flow openings introduced into the channel shell (56a, 56b), and the valve element (32a, 32b) closing at least one flow opening in the closed position, and/or - the damping channel is introduced, and wherein the damping channel is provided with a short-circuit opening in the form of an overpressure channel (30a, 30b) which closes the valve element (32a, 32b) in the closed position.
A method for wireless communication, comprising: registering with a network entity for peer discovery by a first device (120a-k; 1020); receiving, from the network entity, at least one peer discovery parameter to use for peer discovery by the first device (120a-k; 1020); generating a network-coded message based on the at least one peer discovery parameter, the peer discovery parameter comprising an index of a message assigned to the first device (120a-k; 1020) in a set of messages available for peer discovery; wherein generating the network-coded message comprises forming a message matrix based on the message assigned to the first device (120a-k; 1020) and on at least one message received from a peer device (120a-k; 1020); and transmitting the network-coded message by the first device (120a-k; 1020) to enable other devices (120a-k; 1020) to detect the first device (120a-k; 1020). registering with a network entity for peer discovery by a first device (120a-k; 1020); receiving, from the network entity, at least one peer discovery parameter to use for peer discovery by the first device (120a-k; 1020); generating a network-coded message based on the at least one peer discovery parameter, the peer discovery parameter comprising an index of a message assigned to the first device (120a-k; 1020) in a set of messages available for peer discovery; wherein generating the network-coded message comprises forming a message matrix based on the message assigned to the first device (120a-k; 1020) and on at least one message received from a peer device (120a-k; 1020); and transmitting the network-coded message by the first device (120a-k; 1020) to enable other devices (120a-k; 1020) to detect the first device (120a-k; 1020).
A straddled vehicle comprising: an under cover having a lower surface facing downward in a vehicle up-down direction; a fuel tank; a canister connected to the fuel tank and configured for collecting evaporated fuel in the fuel tank; and a drain hose connected to the canister and having a drain portion that is formed with a drain opening, wherein: the under cover includes an insertion portion into which the drain portion of the drain hose is inserted; the insertion portion is formed with a discharge opening that is open downward in the vehicle up-down direction; and characterised in that the straddled vehicle includes a projection formed on the lower surface of the under cover, arranged forward of the discharge opening in a vehicle front-rear direction, and projecting downward in the vehicle up-down direction. an under cover having a lower surface facing downward in a vehicle up-down direction; a fuel tank; a canister connected to the fuel tank and configured for collecting evaporated fuel in the fuel tank; and a drain hose connected to the canister and having a drain portion that is formed with a drain opening, wherein: the under cover includes an insertion portion into which the drain portion of the drain hose is inserted; the insertion portion is formed with a discharge opening that is open downward in the vehicle up-down direction; and characterised in that the straddled vehicle includes a projection formed on the lower surface of the under cover, arranged forward of the discharge opening in a vehicle front-rear direction, and projecting downward in the vehicle up-down direction. the under cover includes an insertion portion into which the drain portion of the drain hose is inserted; the insertion portion is formed with a discharge opening that is open downward in the vehicle up-down direction; and characterised in that the straddled vehicle includes a projection formed on the lower surface of the under cover, arranged forward of the discharge opening in a vehicle front-rear direction, and projecting downward in the vehicle up-down direction.
A method for implementing multicast in a ring network architecture, wherein the ring network architecture comprises a first aggregation layer device, a second aggregation layer device, a first access layer device connected to the first aggregation layer device, and a second access layer device connected to the second aggregation layer device; the first aggregation layer device being connected to the second aggregation layer device, and the first access layer device being connected to the second access layer device; the method comprises: setting the first access layer device and the second access layer device as root bridges, wherein a bridge priority of the first access layer device is equal to a bridge priority of the second access layer device; and reducing, by the first access layer device, its own bridge priority when a fault occurs on a link between the first aggregation layer device and the first access layer device; calculating, by the first access layer device, a root port, hereafter called RP, of the first access layer device through the Spanning Tree Protocol, hereafter called STP, and sending, by the first access layer device, a multicast Join packet through the RP. setting the first access layer device and the second access layer device as root bridges, wherein a bridge priority of the first access layer device is equal to a bridge priority of the second access layer device; and reducing, by the first access layer device, its own bridge priority when a fault occurs on a link between the first aggregation layer device and the first access layer device; calculating, by the first access layer device, a root port, hereafter called RP, of the first access layer device through the Spanning Tree Protocol, hereafter called STP, and sending, by the first access layer device, a multicast Join packet through the RP.
A segmented nut having at least two sections, each section having a concave internal surface and an outer surface, such that the sections combine to form an inner nut having a cylindrical internal surface which is at least partially threaded, and an outer surface; the segmented nut also including a sleeve arranged to locate around the inner nut, the sleeve being movable relative to the inner nut by rotation between a locked position and a release position, the sleeve having an internal surface having at least one bearing surface bearing against the inner nut when in the locked position and maintaining the sections and the sleeve of the assembled segmented nut in fixed relationship to each other for tightening of the assembled segmented nut; wherein rotational movement of the bearing surface relative to the inner nut causes the sleeve to move into the release position in which at least one said section is able to move in a radial direction, and wherein each side of a polygon defined by the outer surface of the inner nut is concave between bearing surfaces of the outer surface of the inner nut, and each side of a polygon defined by the internal surface of the sleeve is convex,.
An assembly, comprising: a gearbox including a gearbox housing; a plurality of planetary gears disposed within the gearbox housing, each rotatably mounted to a planetary carrier; and a failure detection system, FDS, wherein the FDS is attached to the planetary carrier of the gearbox, the FDS comprising: a power source disposed within the gearbox; a first camera and a second camera disposed within the gearbox; a processor disposed within the gearbox; wherein the FDS is oriented so that the first camera is configured to view an inner race surface of at least one planetary gear to generate an optical representation of the inner race surface, while the second camera is configured to view an outer race surface of the at least one planetary gear to generate an optical representation of the outer race surface; and wherein the processor is configured to compare at least one of a known optical representation to the generated optical representation of the inner race surface; and a known optical representation to the generated optical representation of the outer race surface. a gearbox including a gearbox housing; a plurality of planetary gears disposed within the gearbox housing, each rotatably mounted to a planetary carrier; and a failure detection system, FDS, wherein the FDS is attached to the planetary carrier of the gearbox, the FDS comprising: a power source disposed within the gearbox; a first camera and a second camera disposed within the gearbox; a processor disposed within the gearbox; a power source disposed within the gearbox; a first camera and a second camera disposed within the gearbox; a processor disposed within the gearbox; wherein the FDS is oriented so that the first camera is configured to view an inner race surface of at least one planetary gear to generate an optical representation of the inner race surface, while the second camera is configured to view an outer race surface of the at least one planetary gear to generate an optical representation of the outer race surface; and wherein the processor is configured to compare at least one of a known optical representation to the generated optical representation of the inner race surface; and a known optical representation to the generated optical representation of the outer race surface.
A rim assembly comprising: a rim having a first bridge member, a second bridge member and two sidewalls which are connected to two respective ends of each of the first and second bridge members (11, 12), an engaging space defined between the two sidewalls and the first bridge member; multiple spoke units each having at least one fixing frame, a fixing member and at least one spoke, the at least one fixing frame connected to an inside of the rim, the at least one fixing frame having a passage which is parallel to an axis of the engaging space, the fixing member being a rod-like member and extending through the passage, the fixing member having at least one positioning hole, the at least one spoke having a first end extending through the fixing member and fixed to the at least one positioning hole, a second end of the at least one spoke adapted to be connected to a hub; characterized by the fact that: each spoke unit has a fixing frame including multiple tubular fixing frames and each tubular fixing frame has a hollow portion, the fixing member extends through the passage of each tubular fixing frame, the at least one positioning hole is located corresponding to the hollow portion, the first end of the at least one spoke extends through the hollow portion, the fixing member has multiple positioning holes, the positioning hole at the center of the fixing member is located corresponding to the hollow portion and the positioning holes in two ends of the fixing member protrude out from the two ends of the fixing frame, each of the positioning holes is connected with one of the spokes. a rim having a first bridge member, a second bridge member and two sidewalls which are connected to two respective ends of each of the first and second bridge members (11, 12), an engaging space defined between the two sidewalls and the first bridge member; multiple spoke units each having at least one fixing frame, a fixing member and at least one spoke, the at least one fixing frame connected to an inside of the rim, the at least one fixing frame having a passage which is parallel to an axis of the engaging space, the fixing member being a rod-like member and extending through the passage, the fixing member having at least one positioning hole, the at least one spoke having a first end extending through the fixing member and fixed to the at least one positioning hole, a second end of the at least one spoke adapted to be connected to a hub; characterized by the fact that: each spoke unit has a fixing frame including multiple tubular fixing frames and each tubular fixing frame has a hollow portion, the fixing member extends through the passage of each tubular fixing frame, the at least one positioning hole is located corresponding to the hollow portion, the first end of the at least one spoke extends through the hollow portion, the fixing member has multiple positioning holes, the positioning hole at the center of the fixing member is located corresponding to the hollow portion and the positioning holes in two ends of the fixing member protrude out from the two ends of the fixing frame, each of the positioning holes is connected with one of the spokes.
A method in an aggregator proxy function, APF, for providing a monitoring service, the method comprising the APF receiving, in a first Public Land Mobile Network, PLMN, a first event report transmitted by a monitoring function in the first PLMN, the first event report comprising first event information related to a monitoring event, and a request identifier; the APF receiving, a second event report transmitted by the monitoring function in the first PLMN, the second event report comprising second event information related to the monitoring event, and said request identifier; after receiving the first and second event reports, the APF transmitting an aggregate event report to a report receiving function (150, 151) not in the first PLMN, the aggregate event report comprising at least one of the first event information and the second event information, and said request identifier; and wherein the request identifier comprises an address of the report receiving function (150, 151), characterized in that the method comprises: the APF receiving a permission request from the monitoring function; the APF, in response to the permission request, transmitting a permission response to the monitoring function; and the APF receiving the first event report and second event report from the monitoring function after transmitting the permission response. the APF receiving a permission request from the monitoring function; the APF, in response to the permission request, transmitting a permission response to the monitoring function; and the APF receiving the first event report and second event report from the monitoring function after transmitting the permission response.