• 专利附录
  • 专利说明
  • 权利要求
  • 类似技术
  • 同族专利
  • 引用文献
  • 法律状态
  • 优先权
    • 专利摘要:
    Device (1) for supplying fluid under pressure, in particular pressurized gas, comprising a bottle (2) of pressurized fluid comprising at least a first valve (3) connected to the bottle (2) and comprising a circuit (13) fluid carrier having an isolation valve (4), the device (1) comprising an electronic wireless electromagnetic wave remote data communication apparatus (8, 18, 12, 22), characterized in that said apparatus ( 8, 18, 28, 38, 12, 22) comprises a communication element (18) configured to communicate wirelessly according to at least one of the long-range and low-power frequency modulation communication technologies and / or following phases: LoraR communication technology, the communication technology of Sigfox.
    公开号:FR3042255A1
    申请号:FR1559527
    申请日:2015-10-07
    公开日:2017-04-14
    发明作者:Philippe Bernard；Patrick Bacot；David Laurent
    申请人:Air Liquide SA；LAir Liquide SA pour lEtude et lExploitation des Procedes Georges Claude；
    IPC主号:
    专利说明:

    The invention relates to a device for supplying fluid under pressure. The invention more particularly relates to a device for supplying pressurized fluid, in particular pressurized gas, comprising a pressurized fluid bottle comprising at least a first valve connected to the bottle and comprising an internal fluid circuit comprising a valve of FIG. isolation, the device comprising an electronic device for wireless remote data communication by electromagnetic waves.
    Gas cylinders or their components (body, head or any other equipment and accessories) may be misplaced or located in any undetermined location when in use. Similarly, these devices can be in an indeterminate configuration or state. For example, a gas cylinder can be sealed, full, in use, empty, in service, out of service, etc. In the same way, a component or accessory may or may not be connected to the bottle, in service, out of use, etc. The fact of not knowing the location and the state of these elements in real time, does not make it possible to anticipate the events or to optimize the logistics and the production.
    There are traceability systems that require specific and / or manual operations (scan of a bar code, a radio-tag "RFID", use of a detection portal, etc.) in order to concentrate this information in a computer system. These known systems are not synchronous and do not allow to effectively monitor the equipment in real time.
    EP1988327A1 describes a known solution for bottle localization and data processing.
    An object of the present invention is to overcome all or part of the disadvantages of the prior art noted above.
    A possible object of the invention may be to propose an automatic system or not, to know at any time the state and the actual position of a bottle of pressurized fluid or, where appropriate, one of its components (head, body, accessories, etc.). To this end, the device according to the invention, furthermore in accordance with the generic definition given in the preamble above, is essentially characterized in that said electronic communication device comprises a communication device configured to communicate wirelessly according to at least one of the following long-range and low-power frequency and / or phase modulation communication technologies: Lora® communication technology, the communication technology of Sigfox.
    Furthermore, embodiments of the invention may include one or more of the following features: - LoRa® communication technology uses a spread spectrum frequency modulation and frequency hopping, in particular allowing the reconstitution of transmitted data even when received with a signal-to-noise ratio of less than 0 dB, operating on specific frequency bands, in particular 433.0 to 434.79 MHz, from 863 to 870 MHz, from 902 to 928 MHz, from 2400 to 2500 MHz, the communication technology of Sigfox uses a frequency modulation or a phase modulation synthesizing a very narrow band frequency modulation ("UNB", "Ultra-Narrow Band"), allowing to obtain a high power spectral density in order to increase the signal-to-noise ratio, operating on specific frequency bands, in particular from 433.0 to 434.79 MHz, 8 63 to 870 MHz, from 902 to 928 MHz, from 2400 to 2500 MHz, the device comprises at least one electronic element for receiving data transmitted wirelessly by the electronic communication device, the electronic reception device being configured to determining the position of the electronic communication device from the data transmitted wirelessly by the latter, the at least one electronic data reception element comprises at least one of: an antenna connected to a communication network, in particular a cloud communication network comprising at least one server, a wireless telephone, the electronic communication device comprises at least one communication device configured to communicate wirelessly according to the "Bluetooth" technology, the least an electronic data reception unit comprises a wireless telephone configured to communicate according to the "Bluetoo" technology th "and a receiver and wireless data transmitter configured to communicate according to the" Bluetooth "technology and according to the Lora® communication protocol and / or via the very narrow frequency band communication network developed by Sigfox, said receiver and transmitter box being configured to receive data transmitted by the communication element according to the long-range and low-power communication technology and to convert and return this data to the telephone according to the "Bluetooth" technology, - the receiver box and transmitter is configured to receive data transmitted by "Bluetooth" technology by the telephone and convert and return this data to the communication device according to the long-range and low-power communication technology, - the telephone and / or the receiver box comprises an accelerometer and / or magnetometer, the electronic communication device comprises at least one communication device configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology and / or according to the "Radio Frequency Identification" ("RFID") technology the fluid supply device comprises a protective cap mounted on the bottle to protect the first valve and a second valve removably connected to the first valve, said electronic communication device being located on the bottle and / or on the cap and / or on the first tap and / or on the second tap, - the electronic communication device comprises at least a first communication element configured to communicate wirelessly according to the "Near-Field Communication" ("NFC") technology arranged on one of: the bottle, the cap, the first tap, the device comprising a second communication member configured to communicate wireless communication using "Near Field Communication" ("NFC") technology disposed on a first lower end of the second valve and positioned adjacent to the first communication member ("NFC") when the second valve (5) is connected to the first valve to allow data exchange, - the electronic communication device comprises a third communication element configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology arranged on a second end of the second valve located at the upper part of the second valve when the latter is connected to the first valve and the bottle is in the vertical position of use, - the electronic communication device comprises a first communication element configured to communicate wirelessly according to the technology. "Bluetooth" placed on the on the bottle and / or on the hat and / or on the first obinet, - the electronic communication device comprises a second communication element configured to communicate wirelessly using "Bluetooth" technology and located on the second tap, - the LoRa® communication technology uses a spread spectrum frequency modulation and Frequency Hopping Spread Spectrum (Frequency Hopping Spread Spectrum), DSSS (Direct Sequence Spread Spectrum), and "Frequency Hopping Spread Spectrum"; CSS "(" Chirp Spread Spectrum "=" Spectrum Spread Chirp "), - LoRa® communication technology uses sequences from 2e to 212 chirps to encode a bit, allowing rates from 250 bits / s to 21900 bit / s following in particular the widths of channels used (typically 125, 250 and 500 kHz, - the LoRa® communication technology uses a modulation according to a protocol such as "LoRaWAN", defining no also frames of maximum length 250 bytes on the MAC layer (Medium Access Control) corresponding to a maximum of 242 bytes on the application layer, and providing power levels radiated up to 30 dBm (typically, a default value of 20 dBm and a maximum value of 30 dBm in the band of 902 to 928 MHz, and a default value of 14 dBm and a maximum value of 20 dBm in the band of 863 to 870 MHz), - the communication technology of the company Sigfox uses a very narrow band frequency modulation of 100 Hz for example, at rates of 100 to 1000 bit / s, used for example with protocols allowing powers radiated up to 20 dBm and frames of maximum length 12 bytes on the application layer, and generally designed for exchange, within a large cell (of the order of one kilometer to ten kilometers radius), short messages between several thousand objects and a base station, the bulk of communications being on the uplink, - the electronic data receiving member is configured to determine the position of the electronic communication device by at least one of the following technologies trilateration, triangulation, multilateration, the telephone and / or the receiver box is configured to locate the electronic communication device from the data transmitted wirelessly by the latter via a radio guide in accordance with at least one of among the following technologies: by indication of the received signal strength ("RSSI" = "Received Signal Strength Indication"), by the measurement of the angle of arrival ("Angle of arrivai" = "AoA"), LoS, by measuring the difference in the arrival time of the signals ("Time Difference of Arrival" = "TDoA"), ToF, TWTOF or TWR, the measurement with two directions two symmetrical sides (SDS-TWR = "Symmetrical double-sided two-way ranging"), the N FER® technology, - the second valve is provided with an internal fluid circuit, the second valve comprising a movable member for actuating the isolation valve of the first valve for controlling the opening or closing thereof of the first valve, - the first and the second valve comprise respective latching members forming a detachable male / female quick connection system of the second valve on the first valve, - when the second valve is in position connected to the first valve, the second valve is partially housed in the cap, - the electronic communication device is configured to send, receive or store at least one of: an identification of the bottle, a information relating to the nature of the fluid contained in the bottle, information relating to the maximum capacity of the bottle, information relating to the quantity of e fluid contained in the bottle, identification information of the owner or user of the bottle, information on the site of use of the bottle, information on the expiry date of the fluid contained in the bottle, information relating to to a certification of the fluid contained in the bottle, a history of at least one of the previous information. The invention may also relate to any alternative device or method comprising any combination of the above or below features. Other features and advantages will appear on reading the following description, with reference to the figures in which: - Figure 1 shows a schematic and partial sectional view, illustrating a first embodiment of a device of supply of fluid in a disconnected state; FIG. 2 is a schematic and partial sectional view of the fluid delivery device of FIG. 1 in a connected state with its additional communication system and separate valve.
    The device 1 for supplying pressurized fluid, especially pressurized gas, comprises at least one bottle 2 of pressurized fluid comprising at least one first valve 3 connected to the bottle 2. The first valve 3 comprises an internal fluid circuit 13 having a valve 4 insulation.
    The device 1 comprising an electronic device for wireless remote data communication by electromagnetic waves.
    According to an advantageous feature, the electronic communication device comprises a communication member 18 configured to communicate wirelessly according to at least one of the following long-range and low-power communication technologies with frequency modulation and / or phase modulation: the technology communication system Lora®, the communication technology of Sigfox.
    Low power consumption means low power consumption, including, for example, a consumption characterized by an intensity at the terminals of the radio modem (transmitter and / or receiver) of 20mA maximum reception, and 200mA maximum emission. .
    Each technology is characterized by a modulation of data, one or more communication protocols and possibly specific physical material.
    Modulation is the choice of waveforms that carry the information.
    The communication protocol is the set of rules that govern the syntax and semantics of the data exchanged, the possible sequences of exchanges, and the settings of the physical parameters of the transmitters and receivers over time (on / off, the choice of channel, choice of flow, etc ...). It does not necessarily require using a particular modulation. And in practice, there are several protocols stacked on top of each other.
    LoRa® technology therefore combines LoRa® modulation and protocols, in particular the LoRaWAN® protocol. Of course other protocols can be used with the same modulation.
    Sigfox technology is less dissociable, it includes a specific modulation and a specific protocol.
    This improves the exchange of information remotely with the device and also allows easier location of the latter.
    In addition, knowledge of this information locally or remotely provides additional device management services, improves user efficiency and optimizes the supply chain. The use of these communication technologies also makes it possible to minimize the power consumption of the device.
    In the nonlimiting example of FIG. 1, the device for supplying pressurized fluid, in particular pressurized gas, comprises a first functional assembly comprising a bottle 2 of pressurized fluid provided with an orifice in which a fitting is fixed. fluidic or port called hereinafter "first valve" 3. For the sake of simplification the term "bottle" used hereinafter can refer to the assembly comprising the bottle 2, the first valve 3 and the cap 11.
    The first valve 3 may be a simple filling and / or withdrawal port provided with a self-closing valve (opening by mechanical actuation and / or via a gas pressure, of course, alternatively, this first valve may be a more elaborate valve, including an isolation valve controlled by a manual control device and / or electrical and / or pneumatic.
    The first valve 3 is for example screwed into a tapped hole of the bottle 2. That is to say that the first 3 valve is integral with the bottle 2 (fixed) and is not intended to be disassembled in a configuration of 'use.
    The first valve 3 conventionally comprises an internal circuit 13 of fluid connected to the internal volume of the bottle 2. The circuit comprises at least one valve 4 of insulation. Of course, the first valve 3 may include any other usual functional body for a valve.
    The device 1 comprises a second valve 5 forming a physical entity distinct from the first 2, 3 together. This second valve 5 is also provided with an internal fluid circuit. In the same way as for the first valve 3, the internal circuit of the second valve 5 may comprise at least one isolation valve and / or a pressure regulator and / or a flow regulator and / or any other appropriate functional organ. for a faucet.
    The first valve 3 and the second valve 5 each comprise members 6, 7 of respective snaps forming a removable quick connection system of the second valve 5 on the first 3 valve (see Figure 2 the connected position). For example, the quick connect system may comprise a ball system cooperating with ribs, latching claws cooperating with conjugate housings, a bayonet system and corresponding grooves.
    The quick connection system 6, 7 is for example of the male / female type and allows the mechanical attachment of the second valve 5 to the first valve 3 removably. This locking system may comprise a manual actuator, optionally comprising a movable locking member requiring one or more manual actions for the user.
    When the second valve 5 is connected to the first valve 3, the ends of the fluid circuits 13, 15 of the two valves 3, 5 are in sealing relationship and the fluid flow between these two circuits 13, 15 may be authorized or not depending on the opening or closing of the valve (s) of the circuit (s) 13, 15. For this purpose, the internal circuit of the second valve (5) may comprise a pressure sensor (9) in the circuit (15) for measuring in particular the pressure in the bottle 2 when the circuit 15 of the second valve is in fluid communication with the inside of the bottle 2 via the first valve 3.
    Thus, the bottle 2 provided with its first valve 3 and its cap 11 comprises a communication member 18 configured to communicate wirelessly according to the long-range communication technology and low consumption above. This allows the exchange of data on ranges up to 15km for example.
    For example, this communication member 18 may comprise a microcomputer, an antenna, a battery pack, one or more input / output ports, and possibly an information display screen. In particular, this communication unit 18 can integrate appropriate components marketed by the company SEMTECH (LORA® technology) and / or Sigfox such as the following radio frequency transmitters / receivers: "transceivers" (transceivers) SX1272, SX1273, SX1276 or SX1280 from SEMTECH for LoRa® technology. "Transceiver" "SI868-25MW" of the company "ADEUNIS RF", "TD1202 Module" of the company "TELECOM DESIGN" for Sigfox technology.
    In general, any radio module capable of hosting the logical layers that format the signal in accordance with the specifications of the technology concerned can be used.
    Similarly, the second valve 5 preferably also comprises such a communication member 12 configured to communicate wirelessly according to the long-range communication technology and low consumption above. This is particularly advantageous when this second valve 5 is removable from the bottle 2 and can be moved independently thereof and can be connected to another bottle 2 of the same type.
    Preferably, the device 1 comprises or uses at least one electronic device for receiving (and possibly transmitting) data transmitted by the electronic communication device of the bottle and / or the second cap 5.
    This electronic reception device is in particular configured to collect data relating to the bottle 2 and determine the position of the electronic communication device 18, 12 from the data transmitted wirelessly by the latter. The electronic device for receiving the data may in particular be configured to determine the position of the electronic communication device by at least one of the following technologies: trilateration, triangulation, multilateration. That is to say that the long-range and low-consumption communication technology is used to locate the mobile entities (on the one hand the bottle 2 with the first tap 3 and, on the other hand, the second cap 5, in particular if separated).
    As illustrated schematically in FIG. 2, the at least one electronic data reception element may comprise at least one of: an antenna 9 connected to a communication network 12, 13 (especially the internet), in particular a dematerialized communication network ("Cloud") comprising at least one server, a wireless telephone 14, a data receiving box (and transmitting if necessary), a computer or any other suitable device.
    Preferably the electronic communication device also comprises at least one communication element 28 configured to communicate wirelessly according to the "Bluetooth" technology. This Bluetooth communication member 28 is preferably integrated with the bottle 2 or the cap 11 or on the first tap 3. This additional communication element is intended for communication of lesser range (typically between 0 and 100m, in particular 30 to 100m).
    Also preferably, the second valve 5 also comprises such a communication member 22 of Buetooth type.
    Also preferably, the electronic communication device comprises at least one communication element 38 configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology and / or according to the "Radio Frequency Identification" technology ( "RFID").
    More precisely, according to the example shown in the figures, a first communication element 8 configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology is disposed on one of: the bottle 2, the cap 11, the first tap 3.
    This communication member 8 of the NFC type is located at the top when the bottle 2 is in a vertical position of use, in particular in the upper part of the cap 11.
    The device 1 comprises a second communication element 10 configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology disposed on a first lower end of the second tap 5. This second communication member 10 is arranged to placing adjacent the first communication member 38 ("NFC") of the bottle 2 when the second valve 5 is connected to the first valve 2 to exchange data. This communication system allows the exchange of information (s) between the bottle 2 and the second valve 5 which connects to it. This communication system allows the awakening / activation or standby of all or part of electrical / electronic devices depending on whether the second valve 5 is connected or not to the first valve 3. The electronic communication device preferably comprises a third communication element 38 configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology. This is preferably arranged on a second end of the second valve 5 located in the upper part of the second valve 5 when the latter is connected to the first valve 3 and the bottle 2 is in the vertical position of use.
    For reception and if necessary the transmission of data to the bottle 2 and / or the second tap 5, the device may also include a wireless telephone 14 ("Smartphone") configured to communicate according to the "Bluetooth" technology and " NFC ".
    Similarly, the device may include a wireless receiver / transmitter housing, such as a configured (programmed) portable electronic terminal for communicating according to "Bluetooth" technology (and possibly "NFC") and also according to the protocol of Lora® communication and / or via the very narrow frequency band communication network developed by Sigfox.
    In this way, said receiver and transmitter box 15 can be configured to receive data transmitted in long range by the communication element 8 according to the long-range and low-power communication technology and to convert and return these data locally to the telephone 14. according to "Bluetooth" technology.
    Similarly, the telephone 14 (and possibly the housing 15) can also come to exchange data with the bottle 2, 3 and the second valve 5 via the NFC communication devices (via the approach of the telephone or other near the third member 38 "NFC" communication).
    The telephone 14 and / or the receiver box 5 can also be configured to locate the electronic communication device (and thus the bottle 2 and / or the second tap 5) from the wirelessly transmitted data by the latter. In particular, the data transfer via the medium-range organs 28, 22 (Bluetooth) can be used to locate the bottle 2 and / or the second cap 5.
    In particular, this location can be used to guide a user to find these elements 2, 5.
    For example, a radio guide according to at least one of the following technologies may be used: by indicating the strength of the received signal: - "RSSI" = "Received Signal Strength Indication", - by measuring the angle of arrival ("Angle of arrivai" = "AoA"), - LoS (= "Line of Sight" or "Direct Sight Line") is a situation where there is a straight and unobstructed path between the transmitter and receiver). - by measurement of the difference in the time of arrival of the signals ("Time Difference of Arrival" = "TDoA"), - ToF (= "Time of Flight" or "Time of Flight": the receiver times the time put by the wave to go from the transmitter to the receiver, for example by inserting the precise moment of the emission in the message, and comparing it to the precise moment of reception.Dividing the time of flight by the speed of the waves ( a priori, the speed of light in a vacuum if most of the path is in the air), we obtain the total distance traveled by the waves, if we assume that the only waves received by the receiver are in a straight line from the transmitter, we obtain the radius of the circle centered on the receiver on which the transmitter is located, by combining the data of several circles, we can locate the transmitter.-TW-TOF = "Two- Way Time of Flight ", or" Round Trip Time ", - TWR =" Two-way Ran ging ", (Return distance estimation) As before, it is the transmitter that can time the flight time of a signal that it sends and which is sent back to it by a transceiver (this reference is be regarded as instantaneous, or it is necessary to deduce from time to time the processing time by the transceiver). Here it is the initiator of the procedure (the transmitter) which knows its distance to the transceiver, in contrast to the ToF where it is the receiver that knows its distance to the initiator (the transmitter) - NFER® technology, - nLOS: non-line of sight, or without direct line of sight,
    Indeed, this data transmission architecture makes it possible to define a three-dimensional reference (altitude and coordinates on a plane or a map) or relative reference (distance, direction, height or difference in height) with respect to another point. This system can be implemented in real time (indoor or outdoor) and advantageously replaces the known systems GPS, RFID ...
    This allows the measurement and collection of any information on the state of the bottle 2 or the tap (in particular via a pressure sensor). This information can be communicated and processed in real time. The information may be transmitted to a remote system by long-range radio communication means.
    In the case where the gas cylinder and its equipment or accessories can be dissociated (see in particular the second valve 5 which can be nomadic from a bottle 2 to another), the system is able to recover one or more information from a remote element (via a wireless communication) such as: identification data, positioning data, measurement data, states, etc. This data, once collected by a central system, can be pre-processed and then transmitted to a remote system.
    Preferably, the system is also capable of receiving information or requests from a remote device. For example, a request for adjustment or locking of a gas cylinder 2, a new configuration parameter of the system (valve 5, etc.), a request for status, status or geographical position of the equipment, etc.
    To find a bottle or a tap 5 it is also possible to provide a radio guidance system to reach a desired equipment. This guidance can be carried out using many methods such as "RSSI", "AoA", "LoS", "ToA", "TDoA", "ToF", "TWF", "SDS-TWR" or NFER® and the use of associated algorithm (trilateration, triangulation, multilateration, etc.). For this purpose, the system may be completed by an accelerometer or magnetometer (for example at the telephone 14 or the housing 15), to improve the efficiency and accuracy of the guidance system. Indeed, the use of one or more accelerometers equipment to know the direction of movement of the user or equipment sought. By correlating this information to signal variations (Bluetooth and / or long range) this can give distance information. It is then possible to orient the user towards the equipment 2, 5, searched. The use of a magnetometer can further increase the level of information by providing geographic orientation information (heading in degrees).
    Similarly, it is possible to improve the service by pooling geolocation systems with the radio guidance system in order to be able to geolocate and / or reach the desired system (s). It is possible to implement a portable terminal (eg Smartphone) to position the desired equipment on an interactive map (via an integrated screen) and then physically reach the equipment by means of the guidance system.
    The device described above thus makes it possible to manage the modular elements of one or more gas transfer devices. In particular, the device makes it possible to manage the exchanges between one or more first sets (including a bottle 2) and one or more second selectively connectable taps.
    The device makes it possible to perform an automatic recognition of the bottle 2 by the second valve 5 (and vice versa), if necessary to ensure traceability and / or compatibility of the connections and uses.
    This allows better management of a pool of bottles and associated faucets. This can be used in particular to offer services such as assistance with stock management, automatic control of equipment, gas, the provision of security data ...
    In the case where the first 3 and / or the second 5 valve is equipped with a pressure sensor measuring the pressure in the bottle 2, this information can be transmitted and / or displayed and / or used to calculate a range, a consumption gas via a processing electronics (for example the electronic data processing logic 12 comprising at least one microprocessor or any other appropriate system), to generate an alert (for example signal that the bottle is almost empty).
    权利要求:
    Claims (15)
    [1" id="c-fr-0001]
    1. Device (1) for supplying fluid under pressure, in particular pressurized gas, comprising a bottle (2) of pressurized fluid comprising at least a first valve (3) connected to the bottle (2) and comprising a circuit ( 13) comprising an isolation valve (4), the device (1) comprising an electronic device (8, 18, 12, 22) for wireless remote data communication by electromagnetic waves, characterized in that said communication electronic apparatus (8, 18, 28, 38, 12, 22) comprises a communication element (18) configured to communicate wirelessly in at least one of the long-range and low-power frequency modulation communication technologies and / or phase: Lora® communication technology, the communication technology of Sigfox.
    [2" id="c-fr-0002]
    2. Device according to claim 1, characterized in that the LoRa® communication technology uses a spread spectrum frequency modulation and frequency hopping allowing in particular the reconstitution of transmitted data even when received with a signal-to-signal ratio. -noise less than 0 dB, operating on specific frequency bands, in particular 433.0 to 434.79 MHz, 863 to 870 MHz, 902 to 928 MHz, 2400 to 2500 MHz.
    [3" id="c-fr-0003]
    3. Device according to claim 1 or 2, characterized in that the communication technology Sigfox company uses a frequency modulation or a phase modulation synthesizing a frequency modulation, very narrow band (called "UNB", "Ultra" -Narrow Band "), making it possible to obtain a high power spectral density in order to increase the signal-to-noise ratio, operating on specific frequency bands, in particular from 433.0 to 434.79 MHz, from 863 to 870 MHz, from 902 to 928 MHz, from 2400 to 2500 MHz.
    [4" id="c-fr-0004]
    4. Device according to any one of claims 1 to 3, characterized in that it comprises at least one member (9, 12, 13, 14, 15) for receiving electronic data transmitted wirelessly by the device (8). , 18, 28, 38, 12, 22), the electronic receiving member (9, 12, 13, 14, 15) being configured to determine the position of the apparatus (8, 18, 28, 38 , 12, 22) electronic communication from the data transmitted wirelessly by the latter.
    [5" id="c-fr-0005]
    5. Device according to claim 4, characterized in that the at least one electronic data receiving member (9, 12, 13, 14, 15) comprises at least one of: an antenna (9) connected to a network (12, 13), including a cloud communication network comprising at least one server, a wireless telephone (14).
    [6" id="c-fr-0006]
    Device according to Claim 5, characterized in that the electronic communication device (8, 18, 28, 12, 22) comprises at least one communication device (28) configured to communicate wirelessly according to the "Bluetooth" technology. .
    [7" id="c-fr-0007]
    7. Device according to claim 6, characterized in that the least one electronic data receiving member (9, 12, 13, 14, 15) comprises a wireless telephone (14) configured to communicate according to the "Bluetooth" technology and an electronic receiver and wireless data transmitter configured to communicate according to the "Bluetooth" technology and according to the Lora® communication protocol and / or via the very narrow frequency band communication network developed by Sigfox, and in that said receiver and transmitter housing (15) is configured to receive data transmitted by the communication element (8) according to the long-range and low-power communication technology and to convert and return this data to the telephone (14). ) according to "Bluetooth" technology.
    [8" id="c-fr-0008]
    8. Device according to claim 7, characterized in that the housing (15) receiver and transmitter is configured to receive data transmitted by "Bluetooth" technology by the telephone (14) and convert and return these data to the body ( 8) communication according to the long-range communication technology and low consumption.
    [9" id="c-fr-0009]
    9. Device according to any one of claims 7 or 8, characterized in that the telephone (14) and / or the housing (5) receiver comprises an accelerometer and / or magnetometer.
    [10" id="c-fr-0010]
    10.Device according to any one of claims 1 to 9, characterized in that the electronic communication device comprises at least one communication element (38) configured to communicate wirelessly according to the "Near Field Communication" technology (" NFC ") and / or according to the" Radio Frequency Identification "(" RFID ") technology.
    [11" id="c-fr-0011]
    11 .Device according to any one of claims 1 to 10, characterized in that the device (1) fluid supply comprises a cap (11) of protection mounted on the bottle (2) to protect the first valve (3) and a second valve (5) removably connected to the first valve (2), said electronic communication device (8, 18, 28, 38, 12, 22) being located on the bottle (2) and / or on the cap (11) and / or the first valve (3) and / or the second valve (5).
    [12" id="c-fr-0012]
    12. Device according to claim 11, characterized in that the electronic communication device comprises at least a first communication element (8) configured to communicate wirelessly according to the "Near Field Communication" ("NFC") technology arranged on one of: the bottle (2), the cap (11), the first tap (3), the device (1) comprising a second communication member (10) configured to communicate wirelessly according to the technology "Communication in the field close "(" NFC ") disposed on a first lower end of the second valve (5) and positioned adjacent the first communication member (38) (" NFC ") when the second valve (5) is connected to the first tap (2) to allow data exchange.
    [13" id="c-fr-0013]
    13. Device according to claim 12, characterized in that the electronic communication device comprises a third communication element (38) configured to communicate wirelessly according to the technology "Near Field Communication" ("NFC") arranged on a second end of the second valve (5) located in the upper part of the second valve (5) when the latter is connected to the first valve (3) and the bottle (2) is in the vertical position of use.
    [14" id="c-fr-0014]
    14. Device according to any one of claims 11 to 13 combined with any one of claims 4 to 6, characterized in that the electronic communication device comprises a first communication member (28) configured to communicate wirelessly according to the "Bluetooth" technology located on the bottle (2) and / or on the cap (11) and / or the first tap (3).
    [15" id="c-fr-0015]
    15.Dispositif according to claim 14 characterized in that the electronic communication device comprises a second communication member (22) configured to communicate wirelessly according to technology "Bluetooth" and located on the second valve (5).
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    同族专利:
    公开号 | 公开日
    FR3042255B1|2018-03-30|
    WO2017060579A1|2017-04-13|
    EP3359868B1|2020-07-01|
    EP3359868A1|2018-08-15|
    US10422482B2|2019-09-24|
    US20180283615A1|2018-10-04|
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    法律状态:
    2016-10-20| PLFP| Fee payment|Year of fee payment: 2 |
    2017-04-14| PLSC| Publication of the preliminary search report|Effective date: 20170414 |
    2017-10-24| PLFP| Fee payment|Year of fee payment: 3 |
    2018-10-22| PLFP| Fee payment|Year of fee payment: 4 |
    2019-10-28| PLFP| Fee payment|Year of fee payment: 5 |
    2020-10-21| PLFP| Fee payment|Year of fee payment: 6 |
    优先权:
    申请号 | 申请日 | 专利标题
    FR1559527A|FR3042255B1|2015-10-07|2015-10-07|DEVICE FOR SUPPLYING FLUID UNDER PRESSURE|
    FR1559527|2015-10-07|FR1559527A| FR3042255B1|2015-10-07|2015-10-07|DEVICE FOR SUPPLYING FLUID UNDER PRESSURE|
    EP16785186.4A| EP3359868B1|2015-10-07|2016-09-15|Device for providing fluid under pressure|
    PCT/FR2016/052334| WO2017060579A1|2015-10-07|2016-09-15|Device for providing fluid under pressure|
    US15/766,202| US10422482B2|2015-10-07|2016-09-15|Device for providing fluid under pressure|
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