mhurhangee/ep-ind-claims huggingface dataset:
An optical communication system comprising: a transmitter configured to transmit an optical signal; a receiver configured to receive said optical signal; and a transmission path extending between said transmitter and said receiver, said transmission path comprising, an optical transmission cable comprising a power conductor (204, 206) and at least one optical fiber, and at least one cable signal generator coupled to said transmission cable, said cable signal generator comprising line current modulation circuitry configured to impart modulation in line current provided on said power conductor (204, 206) of said cable, characterised in that said cable signal generator is as a component of an undersea element coupled to said transmission path and said modulation is imparted in response to a command signal transmitted on said optical fiber of said cable and said line current modulation circuitry comprising modulation circuitry and shunt bypass circuitry, said shunt bypass circuitry being configured for selectively shunting said line current around said modulation circuitry and said line current modulation is imparted in response to a modulation of voltage across said cable signal generator imparted by said modulation circuitry. a transmitter configured to transmit an optical signal; a receiver configured to receive said optical signal; and a transmission path extending between said transmitter and said receiver, said transmission path comprising,
Thermal flowmeter comprising a sensor with a metal sensor housing, said housing comprising a hollow body designed to connect to a plug-in apparatus and/or a pipe wall, wherein said hollow body has a base area; wherein the sensor housing comprises at least a first and a second pin sleeve (3a, 3b), said pin sleeves projecting out of the base area, wherein the first and the second pin sleeve (3a, 3b) each have an exterior surface that can be exposed to medium, wherein the metal sensor housing is designed as a single piece, wherein the pin sleeves (3a, 3b) and the hollow body are seamlessly connected to one another, wherein the sensor housing features a flow obstacle, wherein the sensor housing has at least a third pin sleeve featuring a heater element, wherein the flow obstacle is arranged on the third pin sleeve in such a way that the third pin sleeve is partially or completely in the flow shadow of the flow obstacle in the event of medium flow to the sensor housing from a predefined flow direction, while the first and the second pin sleeve (3a, 3b) are arranged outside the flow shadow of the flow obstacle, wherein, starting from the base area of the hollow body, the third pin sleeve and/or the flow obstacle project into the interior of the tube and are seamlessly connected to the hollow body, wherein the total length of the third pin sleeve and/or of the flow obstacle is less than the total length of the first or the second pin sleeve (3a, 3b) and wherein the sensor housing has an arc-shaped bracket, which at least spans the first and second pin sleeve (3a, 3b) and is seamlessly connected to the hollow body.
Openable superstructure for a substructure, such as a truck, trailer, semitrailer, railway wagon, dumper truck, or container, comprising a folding-top framework to which, for example, a tarpaulin made of weather-resistant material or a plurality of hingedly couplable wall elements can be connected, wherein the folding-top framework has a plurality of carriages which are displaceable along at least one guide (32, 38), wherein the guide comprises a longitudinal beam member along which the carriages are displaceable, characterized in that the longitudinal beam member is adjustably arranged at least in sections in a direction (y) transverse to the displacement direction (x) of the carriages. a folding-top framework to which, for example, a tarpaulin made of weather-resistant material or a plurality of hingedly couplable wall elements can be connected, wherein the folding-top framework has a plurality of carriages which are displaceable along at least one guide (32, 38), wherein the guide comprises a longitudinal beam member along which the carriages are displaceable, characterized in that the longitudinal beam member is adjustably arranged at least in sections in a direction (y) transverse to the displacement direction (x) of the carriages.
Lubrication system for a differential of a driven axle on an automotive vehicle, comprising a sump in which is located a crown wheel driven by a pinion, the crown wheel being fast in rotation with a carrier, and a main lubricant tank, located in the sump, having an inlet port and at least one outlet port (36, 38), rotation of the crown wheel causing lubricant to be transferred from the sump to the main tank via the inlet port, and the outlet port (36, 38) allowing the lubricant to pass from the main tank to the sump, characterized in that said lubrication system comprises: - an auxiliary lubricant tank located in the sump, adapted to be filled in with lubricant by rotation of the crown wheel, and - means (32, 34) to convey (A2, A4) lubricant from auxiliary tank to a lubricant needing portion (V8, 14) of the differential, in that the lubricant needing portion comprises one or several of an interior volume of the carrier and/or of a bearing, in that the means to convey lubricant, to the interior volume of the carrier, comprise at least one pipe adapted to convey the lubricant from the auxiliary tank to an area above at least one of two wheel axles (10, 12) of the differential outside the carrier, and in that said wheel axle (10, 12) comprises a thread, realized on an outer peripheral surface of said wheel axle, and adapted to convey lubricant towards the interior of the carrier during the rotation of said wheel axle (10, 12). - an auxiliary lubricant tank located in the sump, adapted to be filled in with lubricant by rotation of the crown wheel, and - means (32, 34) to convey (A2, A4) lubricant from auxiliary tank to a lubricant needing portion (V8, 14) of the differential,
A method for removing a metal white layer and/or recast material comprising the steps of: providing a part having a blade retention slot from which the white or recast material is to be removed; providing a porous metallic cathode comprising a recess bounded by a wall having an outer surface having a fir tree shape and corresponding to said part surface; inserting said porous metallic cathode into said slot; introducing an electrolyte into said recess of said porous metallic cathode; and removing a portion of an inner surface of said slot by flowing an electric current between said part and said porous metallic cathode. providing a part having a blade retention slot from which the white or recast material is to be removed; providing a porous metallic cathode comprising a recess bounded by a wall having an outer surface having a fir tree shape and corresponding to said part surface; inserting said porous metallic cathode into said slot; introducing an electrolyte into said recess of said porous metallic cathode; and removing a portion of an inner surface of said slot by flowing an electric current between said part and said porous metallic cathode.
A transmission device for transmitting power coming from an electric motor to an output shaft connected to an axle side, the transmission device configured to achieve a two-stage transmission for low speed and high speed and comprising: a first input shaft configured to be coaxial with a rotating shaft of the electric motor and rotate integrally with the rotating shaft; a first gear mechanism configured to connect the first input shaft and the output shaft with a first gear ratio for the low speed stage serving as starting; a synchro mechanism configured to fix an idle gear of the gears of the first gear mechanism to the first input shaft or the output shaft, the idle gear being mounted on either the first input shaft or the output shaft; characterized by a second input shaft coaxially arranged onto an outside periphery of the first input shaft; a second gear mechanism configured to connect the second input shaft and the output shaft with a second gear ratio for the high speed stage and smaller than the first gear ratio; and a friction clutch configured to connect and disconnect the rotating shaft and the second input shaft. a first input shaft configured to be coaxial with a rotating shaft of the electric motor and rotate integrally with the rotating shaft; a first gear mechanism configured to connect the first input shaft and the output shaft with a first gear ratio for the low speed stage serving as starting; a synchro mechanism configured to fix an idle gear of the gears of the first gear mechanism to the first input shaft or the output shaft, the idle gear being mounted on either the first input shaft or the output shaft; characterized by a second input shaft coaxially arranged onto an outside periphery of the first input shaft; a second gear mechanism configured to connect the second input shaft and the output shaft with a second gear ratio for the high speed stage and smaller than the first gear ratio; and a friction clutch configured to connect and disconnect the rotating shaft and the second input shaft.
A portable charger for supplying power to an aerosol delivery device, the portable charger comprising: a first communication interface configured to receive data from an aerosol delivery device, and a second communication interface configured to wirelessly transmit the received data directly to a server; characterised in that the server is a cloud-based server, and in that the first communication interface is configured for both physical/wired and wireless connection with the aerosol delivery device. a first communication interface configured to receive data from an aerosol delivery device, and a second communication interface configured to wirelessly transmit the received data directly to a server; characterised in that the server is a cloud-based server, and in that the first communication interface is configured for both physical/wired and wireless connection with the aerosol delivery device.
A modified NK-92 cell comprising one or more alterations that inhibit expression of one or more target genes, wherein CD96 is one of the one or more target genes.
Method of manufacturing at least a portion of rotor blade for a wind turbine, the method comprising: casting at least a portion of a rotor blade outer surface (5, 7) using a casting material thereby at least partially embedding at least one fluid convey tube into the casting material, the fluid convey tube being provided for conveying fluid into or out of a deformable container for adjusting an adjustable flow regulating device of the rotor blade (1, wherein the portion of the rotor blade outer surface (5, 7) and a fluid convey tube embedding material are chemically crosslinked with each other in the completed rotor blade. casting at least a portion of a rotor blade outer surface (5, 7) using a casting material thereby at least partially embedding at least one fluid convey tube into the casting material, the fluid convey tube being provided for conveying fluid into or out of a deformable container for adjusting an adjustable flow regulating device of the rotor blade (1, wherein the portion of the rotor blade outer surface (5, 7) and a fluid convey tube embedding material are chemically crosslinked with each other in the completed rotor blade.
Process for transmitting data between at least two transmitter units and a receiver unit on a data transmission channel which is also called upon by other users which transmit data in differing data formats at arbitrarily different times, wherein the transmitter units each transmit in a time slice specifically predetermined for them with reference to the start of an interrogation cycle, an interrogation cycle being the total duration of all the time slices that lies between the transmitting of a transmitter unit and a second transmitting of the same, characterised in that the start of an interrogation cycle is varied stochastically.
A heat exchanger bypass apparatus comprising: an enclosure having a bypass inlet and a bypass outlet for fluid communication with the air supply inlet and the air supply outlet of a ventilation unit respectively; a bypass air channel within the enclosure extending between the bypass inlet and bypass outlet; a rotatable damper located within the bypass air channel arranged to rotate between an open and closed position in which it opens and closes the bypass air channel respectively; and sealing ridges located on opposing sides of the bypass air channel, with the ridges and the rotatable damper being arranged such the damper engages and sealingly abuts the sealing ridges when in the closed position to close and seal the bypass air channel; characterised by: first and second internal partition walls extending in the longitudinal direction of the bypass air channel with the first internal partition wall extending between the lower edges of the bypass inlet and bypass outlet and the second internal partition wall extending between the upper edges of the bypass inlet and bypass outlet, the first and second internal partition walls have a curved wave form configured to minimise turbulence within the bypass channel and each defining a chamber (51,53) within the enclosure that is isolated from the bypass air channel. an enclosure having a bypass inlet and a bypass outlet for fluid communication with the air supply inlet and the air supply outlet of a ventilation unit respectively; a bypass air channel within the enclosure extending between the bypass inlet and bypass outlet; a rotatable damper located within the bypass air channel arranged to rotate between an open and closed position in which it opens and closes the bypass air channel respectively; and sealing ridges located on opposing sides of the bypass air channel, with the ridges and the rotatable damper being arranged such the damper engages and sealingly abuts the sealing ridges when in the closed position to close and seal the bypass air channel; characterised by: first and second internal partition walls extending in the longitudinal direction of the bypass air channel with the first internal partition wall extending between the lower edges of the bypass inlet and bypass outlet and the second internal partition wall extending between the upper edges of the bypass inlet and bypass outlet, the first and second internal partition walls have a curved wave form configured to minimise turbulence within the bypass channel and each defining a chamber (51,53) within the enclosure that is isolated from the bypass air channel.
Tool for cleaning surfaces comprising a supporting element that holds a plurality of bristles, or groups of bristles, a handle for gripping and manoeuvring said tool, and a coupling element that can be connected removably to said supporting element, wherein said coupling element is provided with a cradle element suitable for coupling with an attachment element (18; 38; 38a; 51) to which said handle can be removably connected, wherein said attachment element (18; 38; 38a; 51) is angularly movable with respect to said coupling element, wherein on a bottom of said cradle element there are provided protrusions, characterized in that said cradle element is provided with side walls, in each of which there is provided a respective through hole suitable for receiving a pivot constituting a rotation axis of said attachment element (18; 38; 38a; 51) in relation to said cradle element.
Transport system for the transporting of packaging from a packaging inlet to a packaging outlet, with a plurality of transport elements (4, 6 - 8, 9) driven such as to circulate, wherein a part of the transport elements (6, 7, 8.1-8.3) also represent handling elements, at which chemical and/or physical effects are exerted on the surface of the packaging, and which connect to one another in a transport direction of the packaging and form a packaging transport path between the packaging inlet and the packaging outlet, wherein the packaging transport path is a part length of a closed transport path for a plurality of holding and centring units, which are configured in each case for taking up a packaging means at the packaging inlet and for conveying the respective packaging along the packaging transport path as far as the packaging outlet, as well as with a puck return transport path, forming a further part length (12.2) of the transport path, for returning the pucks, after releasing the respective packaging, from the packaging outlet to the packaging inlet, wherein the part length (12.1) of the puck transport path, forming the packaging transport path, and the part length (12.2) of the puck transport path, forming the return transport path, exhibit different path lengths, wherein the part length (12.1) forming the packaging transport path and the puck return transport path (12.2) comprise transport elements (6, 7, 8.1-8.3), which also represent handling-printing elements when the part length (12.1) forms the packaging transport path of the puck transport path or the transport path by means of the holding and centring elements, characterised in that the first printing element is connected to a drying and curing station for the transport of the packaging, and wherein this element is connected to a further printing element (8.1, 8.2, 8.3), and wherein the drying and curing station comprises at least two drying and curing paths (7.1, 7.2).
A method for controlling a universal rechargeable battery constituted by employing lithium-ion battery, wherein the universal rechargeable battery comprises therein a lithium-ion battery charging/discharging control circuit comprising a lithium-ion battery charging control circuit, a lithium-ion battery detection circuit and a DC-DC step-down regulator discharging circuit; during a charging status, the lithium-ion battery charging/discharging control circuit detects an output voltage of the lithium-ion battery and selects a charging scheme of trickling charge, constant-current charge or constant-voltage charge to charge the lithium-ion battery according to the output voltage of the lithium-ion battery; during a discharging status, the lithium-ion battery charging/discharging control circuit detects the output voltage of the lithium-ion battery, and performs a regulated voltage output by: decreasing the output voltage of the lithium-ion battery to a first output voltage when the output voltage of the lithium-ion battery is greater than a low power voltage VL; decreasing the output voltage of the lithium-ion battery to a second output voltage when the output voltage of the lithium-ion battery is equal to or lower than the low power voltage VL; and cutoffing the regulated voltage output when the output voltage of the lithium-ion battery drops to be equal to or lower than the discharge cutoff voltage VD; wherein VL is a preset low power voltage of the lithium-ion battery, and VD is a preset discharge cutoff voltage of the lithium-ion battery; and wherein the first output voltage ranges from 1.35V to 1.725V, and the second output voltage ranges from 0.9V to 1.35V.
A single-piece self-stiffened composite panel intended to pivot around an axis of rotation parallel to one side of the panel, particularly for a mobile aircraft part, comprising a first composite facing that is continuous, on which is arranged a main structural reinforcement (2, 3, 4, 5, 6) integral with the first facing and rigid components for joining to the axis of rotation characterized in that the main reinforcement comprises a lattice of composite stiffeners (2, 3) comprising at least one pair of stiffeners (2, 3) forming a cross and each directed in one of two directions respectively, which are neither parallel nor perpendicular to said axis of rotation, wherein the two parts (3a, 3b) of each stiffener that extend on each side of the node at the center of said cross are in structural continuity with each other, wherein the two stiffeners each have an end located at one point (A, B, C) on said side of the panel that is parallel to the axis of rotation and wherein said end is integral with a rigid component for joining to the axis of rotation, wherein the opposite end of at least one of the stiffeners (2, 3) is stopped from rotating on a support point (E, D) on an opposite side of the panel, and in that it comprises composite perimeter stiffeners (4, 5) installed along the edges of the panel and integral with the first facing and the ends of stiffeners forming a cross (2, 3).
Cleaning device for cleaning floating material from bodies of water, comprising a separating device for separating floating material and water from the body of water, and a screw conveyor by which floating material deposited on the separating device is conveyed out of the body of water, characterised in that the cleaning device also has an amphibian diverting unit for diverting animals conveyed out of the body of water by the screw conveyor and back into the body of water, and the screw conveyor has a protective arrangement, which is a narrow protective strip, at least in some sections on its boundary facing the separating device, said protective strip being arranged on the radially outer boundary of the screw conveyor and preventing animals such as amphibians or small fishes from passing partially through the separating device openings.
A wireless network device comprising: a transceiver configured to receive a broadcasted hello message that indicates network topology and interface information of neighbor nodes in a network; a processor configured to generate an announce message that includes the network topology and the interface information; the transceiver configured to transmit the announce message to unblocked hello peers of the wireless network device; the transceiver configured to receive, on a wired interface from another node, a hello message, wherein the wireless network device and the another node are determined to be link layer island heads based on the received hello message being received on the wired interface, and wherein the wired interface is utilized for further communication between the island heads; and the processor configured to identify immediate wireless neighbor nodes, wherein immediate wireless neighbor nodes having a least path cost are associated with the wireless network device, and link layer wireless links with wireless neighbor nodes associated with a different link layer island head are blocked; wherein the wireless network device is configured to dynamically determine link layer island heads based on future hello messages being received on a wired interface, and to dynamically identify other immediate wireless neighbor nodes to block based on an associated path cost. a transceiver configured to receive a broadcasted hello message that indicates network topology and interface information of neighbor nodes in a network; a processor configured to generate an announce message that includes the network topology and the interface information; the transceiver configured to transmit the announce message to unblocked hello peers of the wireless network device; the transceiver configured to receive, on a wired interface from another node, a hello message, wherein the wireless network device and the another node are determined to be link layer island heads based on the received hello message being received on the wired interface, and wherein the wired interface is utilized for further communication between the island heads; and the processor configured to identify immediate wireless neighbor nodes, wherein immediate wireless neighbor nodes having a least path cost are associated with the wireless network device, and link layer wireless links with wireless neighbor nodes associated with a different link layer island head are blocked; wherein the wireless network device is configured to dynamically determine link layer island heads based on future hello messages being received on a wired interface, and to dynamically identify other immediate wireless neighbor nodes to block based on an associated path cost.