mhurhangee/ep-ind-claims huggingface dataset:
Device (170, 270) for preparing a high-voltage direct current transmission, in particular for installation at sea, comprising: a first busbar, which is connectable to a plurality of first energy generation or consumer units, in particular wind turbines (G1; w1_1, w1_2,..., w1_n1); a second busbar, which is connectable to a plurality of second energy generation or consumer units, in particular wind turbines (G2; w2_1, w2_2,..., w2_n2); a transformer system (180, 280) having: a first primary coil, which is connectable to the first busbar, a second primary coil, which is connectable to the second busbar, a secondary coil system (190, 290), which is inductively coupled to the first primary coil and the second primary coil in order to transform power routed on the first and second busbars (S1, S2) to increased AC voltage; a converter system (111, 211), which is connected to the secondary coil system (190, 290) in order to convert the increased AC voltage into DC voltage for the high-voltage direct current transmission, wherein the device furthermore comprises a switch, via which the first busbar is connectable to or disconnectable from the second busbar, and which is configured in such a way that, during normal operation of the device, the first busbar is disconnected from the second busbar by means of the switch. a first busbar, which is connectable to a plurality of first energy generation or consumer units, in particular wind turbines (G1; w1_1, w1_2,..., w1_n1); a second busbar, which is connectable to a plurality of second energy generation or consumer units, in particular wind turbines (G2; w2_1, w2_2,..., w2_n2); a transformer system (180, 280) having: a first primary coil, which is connectable to the first busbar, a second primary coil, which is connectable to the second busbar, a secondary coil system (190, 290), which is inductively coupled to the first primary coil and the second primary coil in order to transform power routed on the first and second busbars (S1, S2) to increased AC voltage; a first primary coil, which is connectable to the first busbar, a second primary coil, which is connectable to the second busbar, a secondary coil system (190, 290), which is inductively coupled to the first primary coil and the second primary coil in order to transform power routed on the first and second busbars (S1, S2) to increased AC voltage; a converter system (111, 211), which is connected to the secondary coil system (190, 290) in order to convert the increased AC voltage into DC voltage for the high-voltage direct current transmission, wherein the device furthermore comprises a switch, via which the first busbar is connectable to or disconnectable from the second busbar, and which is configured in such a way that, during normal operation of the device, the first busbar is disconnected from the second busbar by means of the switch.
Hose pump having a pump hose and having at least one squeeze element which is movable by means of a pump drive (34, 36; 92, 36) and which, during the pump operation of the hose pump, is cyclically movable along the pump hose such that the latter is squeezed and a medium present in the pump hose is conveyed, characterized in that a) the hose pump comprises a synchronization system, by which the movements and/or the positions of the at least one squeeze element and of a pig which is present in the pump hose are able to be synchronized such that, when the pump drive (34, 36; 92, 36) is active, no positioning collision occurs at a collision point between the squeeze element and the pig; wherein b) the synchronization system comprises means with the aid of which, when the pump drive (34, 36; 92, 36) is active, the movement of the at least one squeeze element is able to be delayed or accelerated before the squeeze element reaches the collision point; and/or c) the synchronization system comprises a device by means of which, when the pump drive (34, 36; 92, 36) is active, the movement of the pig is able to be delayed or accelerated before the pig reaches the collision point. a) the hose pump comprises a synchronization system, by which the movements and/or the positions of the at least one squeeze element and of a pig which is present in the pump hose are able to be synchronized such that, when the pump drive (34, 36; 92, 36) is active, no positioning collision occurs at a collision point between the squeeze element and the pig; wherein b) the synchronization system comprises means with the aid of which, when the pump drive (34, 36; 92, 36) is active, the movement of the at least one squeeze element is able to be delayed or accelerated before the squeeze element reaches the collision point; and/or c) the synchronization system comprises a device by means of which, when the pump drive (34, 36; 92, 36) is active, the movement of the pig is able to be delayed or accelerated before the pig reaches the collision point.
A method of decentralized presence management within a communications system performed at a user device, comprising: selectively updating at least one frequency at which the user device transmits presence update messages to one or more other user devices that belong to a contact group associated with the user device; characterised in that at least one of the one or more presence update messages is configured to request that a corresponding target user device respond with presence information associated with the corresponding target user device; and transmitting one or more presence update messages in accordance with the selectively updated frequency. selectively updating at least one frequency at which the user device transmits presence update messages to one or more other user devices that belong to a contact group associated with the user device; characterised in that at least one of the one or more presence update messages is configured to request that a corresponding target user device respond with presence information associated with the corresponding target user device; and transmitting one or more presence update messages in accordance with the selectively updated frequency.
An electronic cigarette atomizer, wherein the electronic cigarette atomizer comprises an outer sleeve and a suction nozzle connected with one end of the outer sleeve; a tobacco tar cavity and an atomization core are provided in the outer sleeve; the atomization core comprises a first ultrasonic atomization component and a second ultrasonic atomization component which are provided oppositely; a gap is provided between the first ultrasonic atomization component and the second ultrasonic atomization component; the gap communicates with the suction nozzle; the first ultrasonic atomization component and the second ultrasonic atomization component are respectively in contact with a first tobacco tar storage body and a second tobacco tar storage body; and both of the first tobacco tar storage body and the second tobacco tar storage body communicate with the tobacco tar cavity, wherein one surface of the first ultrasonic atomization component is a first atomization surface, one surface of the second ultrasonic atomization component is a second atomization surface, the first atomization surface and the second atomization surface are provided oppositely, and the gap communicates the first atomization surface with the second atomization surface, such that the ultrasonic atomization components eject smoke to each other in a working process, so that the large-particle smoke is absorbed and atomized again by the tobacco tar storage bodies on the atomization surfaces.
An air turbine starter assembly comprising: a starter turbine housing having a turbine gas flow path and a fan gas flow path; a shaft (48,54) rotatable with respect to the starter turbine housing; a plurality of turbine blades connected to the shaft and positioned in the turbine gas flow path; a plurality of fan blades connected to the shaft and positioned in the fan gas flow path, characterised in that said starter further comprises a heat exchanger positioned in the fan gas flow path for cooling lubricating liquid flowing through the heat exchanger via air flowing through the fan gas flow path. a starter turbine housing having a turbine gas flow path and a fan gas flow path; a shaft (48,54) rotatable with respect to the starter turbine housing; a plurality of turbine blades connected to the shaft and positioned in the turbine gas flow path; a plurality of fan blades connected to the shaft and positioned in the fan gas flow path, characterised in that said starter further comprises a heat exchanger positioned in the fan gas flow path for cooling lubricating liquid flowing through the heat exchanger via air flowing through the fan gas flow path.
Kit for inhaling vaporized substances, comprising an electronic cigarette with improved safety and a bottle said electronic cigarette comprising: a mouthpiece through which the user inhales, a chamber for storing a liquid substance to be inhaled, an atomizer suitable to vaporize said substance to be inhaled and to produce a vaporized substance, said atomizer being suitable to deliver said vaporized substance to said mouthpiece, an electric battery connected to said atomizer and suitable to permit the activation thereof, activating means of said atomizer, said chamber comprising: at least one outer wall forming a boundary with the external environment, and means of access arranged along said outer wall, said means of access being of the one-way type suitable to connect the external environment with said chamber and to permit the introduction of said liquid substance to be inhaled from the external environment, said bottle comprising a neck provided with an aperture through which said liquid substance to be inhaled is able to flow, characterized in that: - said means of access comprise a filling valve and in that said liquid substance to be inhaled is introduced into said chamber from the external environment through said filling valve by means of a bottle comprising a neck provided with an aperture through which said liquid substance to be inhaled is able to flow, and wherein said filling valve comprises first releasable retaining means suitable to firmly connect said neck of said bottle to said filling valve and to establish a fluidic through connection between said aperture and said filling valve. - said means of access comprise a filling valve and in that said liquid substance to be inhaled is introduced into said chamber from the external environment through said filling valve by means of a bottle comprising a neck provided with an aperture through which said liquid substance to be inhaled is able to flow, and wherein said filling valve comprises first releasable retaining means suitable to firmly connect said neck of said bottle to said filling valve and to establish a fluidic through connection between said aperture and said filling valve.
Autonomous electrically stimulated radiator configured to be used for heating purposes inside buildings, comprising: an electronic processing unit; area and liquid sensors coupled to the electronic processing unit; a priority controller; a power unit coupled to the electronic processing unit, configured to generate alternating current through electrical impulses; a radiator unit; a plastic core; curved metal plates internally adjusted on the plastic core which are connectable to the phase; a metal rod, fixed to the plastic core with a metal neutral spacer; an electrode sealing and connecting screw to hold the curved metal plates together; wherein the autonomous electrically stimulated radiator is configured to generate heat when alternating current generated by the power unit and determined by the electronic processing unit flows intermittently through electrical impulses in a liquid inside the plastic core and thereafter circulating in the radiator unit; and wherein the priority controller comprises a microcontroller which is configured to receive from the facility panel-board information concerning power consumption of other appliances in the facility. an electronic processing unit; area and liquid sensors coupled to the electronic processing unit; a priority controller; a power unit coupled to the electronic processing unit, configured to generate alternating current through electrical impulses; a radiator unit; a plastic core; curved metal plates internally adjusted on the plastic core which are connectable to the phase; a metal rod, fixed to the plastic core with a metal neutral spacer; an electrode sealing and connecting screw to hold the curved metal plates together; wherein the autonomous electrically stimulated radiator is configured to generate heat when alternating current generated by the power unit and determined by the electronic processing unit flows intermittently through electrical impulses in a liquid inside the plastic core and thereafter circulating in the radiator unit; and wherein the priority controller comprises a microcontroller which is configured to receive from the facility panel-board information concerning power consumption of other appliances in the facility.
A modular gripper assembly comprising: a one piece body having a trident section and cylindrical section, the trident section comprising a trident structure that includes, at one end, a pair of side walls (90, 92) along with a center wall, and the cylindrical section including a fluid driven powering assembly; a pair of opposing jaw member pivotally secured to the trident section about separate pivot pins; a cam assembly operatively connected to a piston rod of the fluid driven powering assembly, the cam assembly extending laterally outward with respect to a cylinder bore axis to receive a cam bush that engages with a through slot on each of the pair of opposing jaw members, the jaw members rotating with respect to one another in response to fluid power in the cylindrical section; and a pair of side plate members respectively connected to the side walls (90, 92), each side plate member having an elongated blind slot that receives an end of the cam assembly, the ends respectively travelling in the blind slots. a one piece body having a trident section and cylindrical section, the trident section comprising a trident structure that includes, at one end, a pair of side walls (90, 92) along with a center wall, and the cylindrical section including a fluid driven powering assembly; a pair of opposing jaw member pivotally secured to the trident section about separate pivot pins; a cam assembly operatively connected to a piston rod of the fluid driven powering assembly, the cam assembly extending laterally outward with respect to a cylinder bore axis to receive a cam bush that engages with a through slot on each of the pair of opposing jaw members, the jaw members rotating with respect to one another in response to fluid power in the cylindrical section; and a pair of side plate members respectively connected to the side walls (90, 92), each side plate member having an elongated blind slot that receives an end of the cam assembly, the ends respectively travelling in the blind slots.
A method, performed by a wireless communication device, for enabling contention resolution of uplink transmissions at a radio network node, the method comprises: sending (3010; 4010) an access request to the radio network node; receiving (3040; 4040) an access grant from the radio network node; and sending (3050-3110; 4050-4110), to the radio network node, at least two data blocks, characterized in that the at least two data blocks includes only one occurrence of a unique device identity "ID" and at least one occurrence of a reduced ID that is represented by fewer bits than the unique device ID and wherein the reduced ID is included within a Radio Link Control, "RLC", and/or Medium Access Control, "MAC", header of a data block. sending (3010; 4010) an access request to the radio network node; receiving (3040; 4040) an access grant from the radio network node; and sending (3050-3110; 4050-4110), to the radio network node, at least two data blocks, characterized in that the at least two data blocks includes only one occurrence of a unique device identity "ID" and at least one occurrence of a reduced ID that is represented by fewer bits than the unique device ID and wherein the reduced ID is included within a Radio Link Control, "RLC", and/or Medium Access Control, "MAC", header of a data block.
A hybrid automatic repeat request, HARQ, retransmission method, comprising: determining a transmission parameter; and selecting dynamically a transmission starting position of each retransmission redundancy version from a circular buffer according to the transmission parameter; the transmission parameter at least comprises a coding parameter of a low-density parity-check, LDPC, code; the coding parameter at least comprises an information bit length and a coding rate; wherein the selecting dynamically the transmission starting position of each retransmission redundancy version from the circular buffer according to the transmission parameter comprises: determining a version number of each retransmission redundancy version; and selecting the transmission starting position of each retransmission redundancy version from the circular buffer according to the information bit length, the coding rate, and the version number of each retransmission redundancy version. determining a transmission parameter; and selecting dynamically a transmission starting position of each retransmission redundancy version from a circular buffer according to the transmission parameter; the transmission parameter at least comprises a coding parameter of a low-density parity-check, LDPC, code; the coding parameter at least comprises an information bit length and a coding rate; wherein the selecting dynamically the transmission starting position of each retransmission redundancy version from the circular buffer according to the transmission parameter comprises: determining a version number of each retransmission redundancy version; and selecting the transmission starting position of each retransmission redundancy version from the circular buffer according to the information bit length, the coding rate, and the version number of each retransmission redundancy version. determining a version number of each retransmission redundancy version; and selecting the transmission starting position of each retransmission redundancy version from the circular buffer according to the information bit length, the coding rate, and the version number of each retransmission redundancy version.
A solar cell, comprising: a semiconductor substrate of a crystalline silicon having a first conductive type; a front passivation layer of amorphous silicon including first crystal lumps and formed on a front surface of the semiconductor substrate; an emitter layer of amorphous silicon including second crystal lumps and formed on a rear surface of the semiconductor substrate; a back surface field layer of amorphous silicon including third crystal lumps and formed on the rear surface of the semiconductor substrate separated from the emitter layer; a rear passivation layer of amorphous silicon including fourth crystal lumps and formed only on the rear surface of the of the semiconductor substrate between the emitter layer and the back surface field layer; a first electrode on the emitter layer; and a second electrode on the back surface field layer, wherein the first to fourth crystal lumps are formed in portions of the emitter layer, the back surface field layer and the rear passivation layer adjoining the substrate, characterized in that each of the front passivation layer, the emitter layer, and the rear passivation layer has a crystallinity equal to or less than 10 %, and the back surface field layer has a crystallinity equal to or less than 30 %, and the crystallinity of the back surface field layer is greater than the crystallinity of the emitter layers. a semiconductor substrate of a crystalline silicon having a first conductive type; a front passivation layer of amorphous silicon including first crystal lumps and formed on a front surface of the semiconductor substrate; an emitter layer of amorphous silicon including second crystal lumps and formed on a rear surface of the semiconductor substrate; a back surface field layer of amorphous silicon including third crystal lumps and formed on the rear surface of the semiconductor substrate separated from the emitter layer; a rear passivation layer of amorphous silicon including fourth crystal lumps and formed only on the rear surface of the of the semiconductor substrate between the emitter layer and the back surface field layer; a first electrode on the emitter layer; and a second electrode on the back surface field layer, wherein the first to fourth crystal lumps are formed in portions of the emitter layer, the back surface field layer and the rear passivation layer adjoining the substrate, characterized in that each of the front passivation layer, the emitter layer, and the rear passivation layer has a crystallinity equal to or less than 10 %, and the back surface field layer has a crystallinity equal to or less than 30 %, and the crystallinity of the back surface field layer is greater than the crystallinity of the emitter layers.
Device (14, 14') for loading hair grafts into an implantation instrument of the Choi pen type, comprising an element comprising: - a first orifice connected to a central channel opening into a fluid-removal chamber; - a second orifice able to communicate with the fluid-removal chamber and to define, with the central channel, a path so as to allow a needle of an implantation instrument to be introduced into said path via the second orifice; - connecting means for connecting the fluid-removal chamber to a vacuum source; - an accessory channel of a diameter substantially identical to the diameter of the central channel and opening perpendicularly, from a longitudinal face of the device, into the central channel; the first orifice being intended to be placed in communication with a first tubing intended to convey a graft such that the graft can be inserted into the needle of the implantation instrument, the accessory channel having an accessory orifice opening into the central channel and an accessory opening opposite the accessory orifice and positioned in the longitudinal face of the device, and the accessory channel having, projecting outwards at its accessory opening, a fluidtight-connection means for fluidtight connection to a third tubing configured to be connected to a pressure sensor. - a first orifice connected to a central channel opening into a fluid-removal chamber; - a second orifice able to communicate with the fluid-removal chamber and to define, with the central channel, a path so as to allow a needle of an implantation instrument to be introduced into said path via the second orifice; - connecting means for connecting the fluid-removal chamber to a vacuum source; - an accessory channel of a diameter substantially identical to the diameter of the central channel and opening perpendicularly, from a longitudinal face of the device, into the central channel; the first orifice being intended to be placed in communication with a first tubing intended to convey a graft such that the graft can be inserted into the needle of the implantation instrument, the accessory channel having an accessory orifice opening into the central channel and an accessory opening opposite the accessory orifice and positioned in the longitudinal face of the device, and the accessory channel having, projecting outwards at its accessory opening, a fluidtight-connection means for fluidtight connection to a third tubing configured to be connected to a pressure sensor.