mhurhangee/ep-ind-claims huggingface dataset:
A dual-flow ventilation system for domestic hot water production and for heat-pump heating for premises, the system being an integrated module intended to be connected to aeraulic networks and to domestic water ducts of the premises, as well as to a power supply, said system including aeraulic circuits with air inlets/outlets, said system including, in relation with the air from outside the premises, an inlet for the entry into the system of outside air, called "source air", an outlet for the exit out of the system of air from the system, called "rejected air", said system including, in relation with the air from inside the premises, an outlet for the exit towards the inside of the premises of air from the system, called "blown air", a first inlet for the entry into the system of air from the inside of the premises, called "return air", and a second inlet for the entry into the system of air from the inside of the premises, called "foul air", said foul air coming from air delivery pipes of the mechanical ventilation type, the source air aeraulic circuit being connected to the blown air aeraulic circuit and the foul air aeraulic circuit being connected to the rejected air aeraulic circuit, the source air aeraulic circuit being connected to the rejected air aeraulic circuit by a controlled opening/closing by-pass, the blown air aeraulic circuit being connected to the return air aeraulic circuit by a controlled opening/closing flap, the rejected air aeraulic circuit including a second fan and a second air/refrigerant fluid heat exchanger, the by-pass arriving upstream from said second heat exchanger and said second fan in the rejected air aeraulic circuit, the blown air aeraulic circuit including a first fan and a first air/refrigerant fluid exchanger, the return air aeraulic circuit downstream the flap arriving upstream from said first heat exchanger and said first fan in the blown air aeraulic circuit, the first and the second heat exchangers being connected by a first portion of refrigerant fluid circuit and a second portion of refrigerant fluid circuit, the first portion of refrigerant fluid circuit including a compressor to make the refrigerant fluid circulate between the second exchanger and the first exchanger and the second portion of refrigerant fluid circuit for the return of the refrigerant fluid from the first exchanger to the second exchanger including an expander, and in that, for domestic hot water production, a refrigerant fluid/domestic water heat exchanger is bypassed to the first portion of refrigerant fluid circuit, an adjustable three-way control valve arranged downstream the compressor being operable to adjust the refrigerant fluid flow rate to the refrigerant fluid/domestic water heat exchanger, the refrigerant fluid/domestic water heat exchanger being in a domestic hot water storage tank integrated into the system, the system further including a means for managing its operation, operable to control the controlled opening/closing bypass, the controlled opening/closing flap, the first fan, the second fan, the compressor and the adjustable three-way control valve.
A communication system, comprising: one or more chargers (5750, 6100) each including a power transmission coil (5755, 6101) for transmitting power to a vehicle; and a server capable of communicating with the one or more chargers, wherein the server: obtains first information corresponding to data from a first vehicle via a first charger included in the one or more chargers, during charging of the first vehicle by the first charger; and supplies second information corresponding to data based on the first information to a second vehicle via a second charger included in the one or more chargers, during charging of the second vehicle by the second charger; characterized by each of the one or more chargers further including: a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil. one or more chargers (5750, 6100) each including a power transmission coil (5755, 6101) for transmitting power to a vehicle; and a server capable of communicating with the one or more chargers, wherein the server: obtains first information corresponding to data from a first vehicle via a first charger included in the one or more chargers, during charging of the first vehicle by the first charger; and supplies second information corresponding to data based on the first information to a second vehicle via a second charger included in the one or more chargers, during charging of the second vehicle by the second charger; characterized by each of the one or more chargers further including: a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil. obtains first information corresponding to data from a first vehicle via a first charger included in the one or more chargers, during charging of the first vehicle by the first charger; and supplies second information corresponding to data based on the first information to a second vehicle via a second charger included in the one or more chargers, during charging of the second vehicle by the second charger; characterized by each of the one or more chargers further including: a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil. a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil.
An oxide ore smelting method comprising: mixing an oxide ore and a carbonaceous reducing agent; molding the resulting mixture into a solid pellet; heating the pellet in a rotary hearth furnace; and subjecting the pellet to a reduction treatment to obtain a metal of a reduction product and slag, wherein the oxide ore is nickel oxide ore, the carbonaceous reducing agent is coal and/or coke, an amount of the carbonaceous reducing agent present inside the mixture together with the nickel oxide ore is set to a proportion of 5% by mass or more and 40.0% by mass or less when an amount of the carbonaceous reducing agent required for reducing nickel oxide and iron oxide contained in the mixture without excess or deficiency is taken as 100% by mass, and the reducing treatment is performed at a reducing temperature of 1200 °C or more and 1450 °C or less in a state in which the carbonaceous reducing agent is deposited on the surface of the molded mixture so that an amount of the carbonaceous reducing agent as the surface deposit is a proportion of 0.1% by mass or more and 20.0% by mass or less when a total amount of the carbonaceous reducing agent required for reducing nickel oxide and iron oxide contained in the mixture without excess or deficiency is taken as 100% by mass. the oxide ore is nickel oxide ore, the carbonaceous reducing agent is coal and/or coke, an amount of the carbonaceous reducing agent present inside the mixture together with the nickel oxide ore is set to a proportion of 5% by mass or more and 40.0% by mass or less when an amount of the carbonaceous reducing agent required for reducing nickel oxide and iron oxide contained in the mixture without excess or deficiency is taken as 100% by mass, and the reducing treatment is performed at a reducing temperature of 1200 °C or more and 1450 °C or less in a state in which the carbonaceous reducing agent is deposited on the surface of the molded mixture so that an amount of the carbonaceous reducing agent as the surface deposit is a proportion of 0.1% by mass or more and 20.0% by mass or less when a total amount of the carbonaceous reducing agent required for reducing nickel oxide and iron oxide contained in the mixture without excess or deficiency is taken as 100% by mass.
A home node B/home evolved node B, H(e)NB, comprising: a trusted environment, TrE; H(e)NB functional building blocks; and a first interface between the TrE and a first H(e)NB functional building block, the first interface being a hardware protected interface, a second interface between the TrE and a second H(e)NB functional building block, the second interface being a cryptographically protected interface, wherein the TrE is configured to interact with the H(e)NB functional building blocks to provide security and authentication, and wherein security and authentication includes at least one of TrE or H(e)NB authentication and conditional hosting party authentication. a trusted environment, TrE; H(e)NB functional building blocks; and a first interface between the TrE and a first H(e)NB functional building block, the first interface being a hardware protected interface,
A gas supply control system for an oxygenator (1; 10) of an extracorporeal ventilation system, the gas supply control system being configured for connection to external gas supply ports (102, 104) to receive supplied oxygen and supplied nitrogen, wherein the gas supply control system comprises a configuration allowing it to create a supply gas output from a predetermined portion of supplied oxygen and from a predetermined portion of supplied nitrogen, wherein the gas supply control system comprises two or more gas output lines (140, 150), and wherein the gas supply control system comprises a configuration allowing it to switch between a mixed-gas supply mode and a high-oxygen supply mode, wherein in the mixed-gas supply mode the supply gas output is provided through one of the gas output lines and is created from supplied oxygen mixed with supplied nitrogen, and in the high-oxygen supply mode the supply gas output is provided through a plurality of the gas output lines and is created from supplied oxygen. wherein the gas supply control system comprises a configuration allowing it to create a supply gas output from a predetermined portion of supplied oxygen and from a predetermined portion of supplied nitrogen, wherein the gas supply control system comprises two or more gas output lines (140, 150), and wherein the gas supply control system comprises a configuration allowing it to switch between a mixed-gas supply mode and a high-oxygen supply mode, wherein in the mixed-gas supply mode the supply gas output is provided through one of the gas output lines and is created from supplied oxygen mixed with supplied nitrogen, and in the high-oxygen supply mode the supply gas output is provided through a plurality of the gas output lines and is created from supplied oxygen.
Elevator car comprising a support frame, a floor structure and a ceiling structure, as well as at least one car door and side walls extending between the floor structure and the ceiling structure, wherein the side walls are formed from several wall elements(28a,b,c), which are aligned end-to-end or end-to side in corners, which wall elements (28a,b,c) are composite panels consisting of at least one support material (50, 52) and at least one noise insulating material, characterized in that the elevator car comprises at least one flatbar, extending over the surface (56a,b) of both adjacent wall elements, and covering the joint between them, which flatbar is fixed by fixing elements (32a,b) to both adjacent wall elements (28a, b; 28b,c) and comprises perforations (34a,b) to be penetrated by bolts (32a,b), which are fixed to the wall element(s), whereby the perforations (34 a,b) comprise first and second perforations, that the first perforations extend over the first of two adjacent wall elements and the second perforations extend over the second of said wall elements, and that the perforations are comprising or consisting of tilted portions (38a,b; 340a,b; 3400a,b), whereby the tilted portions of the first and second perforations are tilted towards each other.
A distributed antenna system comprising: a plurality of remote antenna units, a passive element coupled to at least one of the remote antenna units; an RFID system located proximate the passive element; and wherein the RFID system includes processing circuitry and measurement circuitry, the processing circuitry configured for receiving an interrogation signal coupled onto a cable of the distributed antenna system, and processing the interrogation signal and providing a response, the response including data associated with a Radio Frequency signal parameter measurement made by the measurement circuitry of the interrogation signal. a plurality of remote antenna units, a passive element coupled to at least one of the remote antenna units; an RFID system located proximate the passive element; and wherein the RFID system includes processing circuitry and measurement circuitry, the processing circuitry configured for receiving an interrogation signal coupled onto a cable of the distributed antenna system, and processing the interrogation signal and providing a response, the response including data associated with a Radio Frequency signal parameter measurement made by the measurement circuitry of the interrogation signal.
A method of fabricating a high-density stack of laser diode bars, each of the laser diode bars having a plurality of laser diode dies, an emitter surface, opposing surfaces on either side of the emitter surface, a metallization layer on each of the opposing surfaces, and a solder layer on at least one of the metallization layers, the method comprising: arranging the laser diode bars in a stack such that each of the laser diode bars are contacting at least one other laser diode bar and the emitter surfaces of the laser diode bars are facing the same direction; placing the stack of laser diode bars in a vacuum environment of a vacuum chamber; while in the vacuum environment of the vacuum chamber, depositing an anti-reflection coating on the emitter surfaces of the laser diode bars; and while in the vacuum environment of the vacuum chamber, joining the laser diode bars by applying pressure to the laser diode bars in the stack and applying a temperature sufficient to reflow the solder layers. arranging the laser diode bars in a stack such that each of the laser diode bars are contacting at least one other laser diode bar and the emitter surfaces of the laser diode bars are facing the same direction; placing the stack of laser diode bars in a vacuum environment of a vacuum chamber; while in the vacuum environment of the vacuum chamber, depositing an anti-reflection coating on the emitter surfaces of the laser diode bars; and while in the vacuum environment of the vacuum chamber, joining the laser diode bars by applying pressure to the laser diode bars in the stack and applying a temperature sufficient to reflow the solder layers.
A bearer side network system, comprising: a fixed-mobile bearer Internet protocol, IP, metropolitan area network for achieving a uniform bearer of mobile communication and fixed communication, and a mobile communication core network user plane apparatus sunk to an aggregation layer of the fixed-mobile bearer IP metropolitan area network; wherein the mobile communication core network user plane apparatus is in a communication connection with the fixed-mobile bearer IP metropolitan area network; wherein the bearer side network further comprises: a fixed communication core network user plane apparatus sunk to the aggregation layer of the fixed-mobile bearer IP metropolitan area network, wherein the mobile communication core network user plane apparatus is connected to the fixed communication core network user plane apparatus; wherein a content distribution network, CDN, sunk to an aggregation layer of a fixed communication network is deployed at the fixed communication core network user plane apparatus; and characterized in that the bearer side network system further comprises: a first backup network, wherein the first backup network and a user plane communication network are configured to operate in an active-backup mode, and the user plane communication network comprises at least one of the mobile communication core network user plane apparatus or the fixed communication core network user plane apparatus. wherein the bearer side network further comprises: a fixed communication core network user plane apparatus sunk to the aggregation layer of the fixed-mobile bearer IP metropolitan area network, wherein the mobile communication core network user plane apparatus is connected to the fixed communication core network user plane apparatus; wherein a content distribution network, CDN, sunk to an aggregation layer of a fixed communication network is deployed at the fixed communication core network user plane apparatus; and characterized in that the bearer side network system further comprises: a first backup network, wherein the first backup network and a user plane communication network are configured to operate in an active-backup mode, and the user plane communication network comprises at least one of the mobile communication core network user plane apparatus or the fixed communication core network user plane apparatus.
Temperature control and transformation device for a 3D printer, for transforming at least one plastic filament from a solid state into a melted viscous printing material, - having a printing nozzle for dispensing the printing material, - having a base body, -- having at least one filament channel (6a, 6b) with an inlet (4, 5) for supplying the at least one plastic filament and with an outlet (7a, 7b) for dispensing the printing material to the printing nozzle, -- having a heating receptacle for a heating unit, wherein the heating receptacle is adjacent to a melting volume (SV1 + SV2) of the filament channel (6a, 6b), in which printing material melted by means of the heating unit is present during operation of the device, - wherein the base body is manufactured from a metal having a coefficient of thermal conduction of less than 100 W/(mK), - wherein the filament channel (6a, 6b) is in thermally conductive connection to at least one cooling body (18, 19) for heat dissipation via an inlet-side cooling channel section (16, 17) of the filament channel (6a, 6b), - wherein the cooling body is configured such that cooling air is guided towards the cooling channel section. - having a printing nozzle for dispensing the printing material, - having a base body, -- having at least one filament channel (6a, 6b) with an inlet (4, 5) for supplying the at least one plastic filament and with an outlet (7a, 7b) for dispensing the printing material to the printing nozzle, -- having a heating receptacle for a heating unit, wherein the heating receptacle is adjacent to a melting volume (SV1 + SV2) of the filament channel (6a, 6b), in which printing material melted by means of the heating unit is present during operation of the device, -- having at least one filament channel (6a, 6b) with an inlet (4, 5) for supplying the at least one plastic filament and with an outlet (7a, 7b) for dispensing the printing material to the printing nozzle, -- having a heating receptacle for a heating unit, wherein the heating receptacle is adjacent to a melting volume (SV1 + SV2) of the filament channel (6a, 6b), in which printing material melted by means of the heating unit is present during operation of the device, - wherein the base body is manufactured from a metal having a coefficient of thermal conduction of less than 100 W/(mK), - wherein the filament channel (6a, 6b) is in thermally conductive connection to at least one cooling body (18, 19) for heat dissipation via an inlet-side cooling channel section (16, 17) of the filament channel (6a, 6b), - wherein the cooling body is configured such that cooling air is guided towards the cooling channel section.
Fibres or fibrous structures, one-, two- or three-dimensional, comprising fibres from a first fibre raw material, wherein the first fibre raw material contains unsubstituted or partially substituted polyvinyl alcohol and/or unsubstituted or partially substituted polyvinyl alcohol copolymer, wherein the fibres or the fibrous structure are configured to be gelling, in particular hydrogelling, wherein the fibres are crosslinked by heating at an anneal temperature in the temperature range from 100 to 200°C, characterized in that the fibres or fibrous structures have an uptake capacity in respect of 0.9% aqueous sodium chloride solution, as measured according to DIN 53923, of 300 to 3500 wt% and the fibres from the first fibre raw material have a weight of 0.9 to 10 dtex.
A vibration transfer attachment apparatus configured to be attached to whole body vibration equipment thereby allowing the transfer of vibration to and through the attachment to targeted muscle groups involving the torso, upper extremities or the upper portions of the body, the vibration transfer attachment apparatus comprising: a base, said base being configured to be attached to whole body vibration equipment, such that said base is able to receive vibrations from said whole body vibration equipment and to transfer said vibrations; a pair of uprights extending generally vertically from said base, each of said pair of uprights having a lower end and an upper end, said lower end being attached to said base in a manner that allows vibrations from said base to be transferred to and through said pair of uprights, said upper end of each of said pair of uprights being located at the opposite end of said lower end; a crossbar, said crossbar affixed to each of the upper ends of the pair of uprights in a manner that allows vibrations from said pair of uprights to be transferred to and through said upper end and to and through said crossbar, thereby imparting maximum stimulation to said targeted muscle groups; characterised by an upper diagonal support, said upper diagonal support having a first end and a second end, said upper diagonal support configured to be attached to said crossbar at said first end and configured to be attached to a stabilization handle at said second end, such that said upper diagonal support provides additional structural support for attaching said vibration transfer attachment apparatus to said whole body vibration equipment. a base, said base being configured to be attached to whole body vibration equipment, such that said base is able to receive vibrations from said whole body vibration equipment and to transfer said vibrations; a pair of uprights extending generally vertically from said base, each of said pair of uprights having a lower end and an upper end, said lower end being attached to said base in a manner that allows vibrations from said base to be transferred to and through said pair of uprights, said upper end of each of said pair of uprights being located at the opposite end of said lower end; a crossbar, said crossbar affixed to each of the upper ends of the pair of uprights in a manner that allows vibrations from said pair of uprights to be transferred to and through said upper end and to and through said crossbar, thereby imparting maximum stimulation to said targeted muscle groups; characterised by an upper diagonal support, said upper diagonal support having a first end and a second end, said upper diagonal support configured to be attached to said crossbar at said first end and configured to be attached to a stabilization handle at said second end, such that said upper diagonal support provides additional structural support for attaching said vibration transfer attachment apparatus to said whole body vibration equipment.