• 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:
    The invention relates to a system for the depollution of aquatic environments, comprising: at least one tray (100) adapted to receive and maintain water polluted by waste, including microparticles of plastics, while allowing the evaporation of water,. means (300) adapted to provide on the plate a controlled volume of water and. means (410) adapted to recover solid residues (210) present on the tray (100) after evaporation of water.
    公开号:FR3068689A1
    申请号:FR1756396
    申请日:2017-07-06
    公开日:2019-01-11
    发明作者:Pierre-Edouard Fayollet；Isabelle Moulin
    申请人:Fayollet Pierre Edouard；
    IPC主号:
    专利说明:

    GENERAL TECHNICAL AREA
    The present invention relates to the depollution of aquatic environments.
    The present invention applies in particular to the depollution of the oceans.
    Many reports and publications warn of a very significant pollution of the oceans, in particular pollution based on plastic materials which constitute up to 80% of marine litter.
    There are in particular five main oceanic gyres formed, at the meeting points of maritime currents, gigantic whirlpools animated by the force of Coriolis, which collect and entrain in their currents tons of waste made up mainly of plastic. These oceanic gyres are assimilated by some to continents of plastic material located on the oceans. They cover areas of 1 to 2 million km 2 , to a depth of up to 30 meters. There is waste of all sizes, ranging from pieces of several meters to micro-waste such as flakes of the order of a few hundred microns meters, for example 300pm.
    This waste is consumed by birds, fish and marine mammals. We know that they only decompose very slowly. For a part they photodegrade and stagnate on the spot, annihilating any form of life in situ. On the other hand, they progress slowly and spread their toxicity in water and in the food chain. They therefore ultimately lead to an ecological disaster. They are also responsible for considerable damage to ships and therefore have a considerable economic impact.
    PRIOR ART
    Various proposals have already been made to try to recover this waste.
    It has been proposed to equip boats with nets to fish for waste, in particular plastic waste.
    It has also been proposed to rely on fixed bases and to contain waste using floating dams.
    Other projects are based on a concept of aspiration.
    To date, no system is entirely satisfactory for eliminating waste present in the seas or oceans.
    In particular the micro-waste of plastic material, particles or small plastic flakes, are very difficult to recover.
    In general, no known system has so far made it possible to correctly manage the great diversity of size and characteristics of the waste.
    No proposal is moreover satisfactory in terms of efficiency and financial realism, nor satisfactory in ecological terms.
    The cleaning of marine litter therefore represents a major titanic and essential work for the ecosystem and the entire living world.
    OVERVIEW OF THE INVENTION
    An object of the invention is to improve the state of the art by proposing more effective means for the depollution of aquatic environments.
    Another object of the invention is very particularly to depollute ocean gyres.
    These aims are achieved within the framework of the present invention thanks to a system comprising:
    . at least one tray adapted to receive and maintain water polluted by waste, in particular micro-particles of plastic materials, while allowing the evaporation of water,. means adapted to supply a controlled volume of water to the tray and. means adapted to recover the solid residues present on the plate after evaporation of the water.
    According to other advantageous characteristics of the present invention:
    . The tray is a floating barge.
    . The system includes a plurality of modular trays capable of being interconnected.
    . The means for recovering solid residues comprise a film placed on the surface of the plate, to receive the polluted water.
    . The system comprises a covering film, for example a plastic film, deposited on top of the waste, once the water has evaporated. This covering film may be separate from the film placed on the surface of the tray to recover solid residues or may have come in one piece with this recovery film.
    . The bottom of the plate is not necessarily flat to facilitate stratification and recovery of solid residues.
    . The system includes means for recovering the evaporated water.
    . The system includes means adapted to recover noble materials, such as precious metals, and / or toxic components, from the collected residues.
    . The system includes means adapted to optimize the conditions of evaporation, by promoting or controlling in particular the ventilation above the barges, as well as the temperature of the air and / or water, the hygrometry and the pressure.
    . Each barge or tray can be equipped with power supply means.
    . The electrical supply means can be used to supply a network of sensors.
    . The electrical supply means can be used to activate equipment provided to optimize evaporation.
    . The electrical supply means are preferably autonomous based on renewable energy, such as solar panels and / or wind turbines.
    PRESENTATION OF THE FIGURES
    Other characteristics, aims and advantages of the present invention will appear on reading the detailed description which follows and with reference to the appended drawings, given by way of nonlimiting examples and in which:
    FIG. 1 represents an exemplary embodiment of a system in accordance with the present invention, comprising a volume of polluted water before evaporation,
    - Figure 2 shows the same system after evaporation of the water,
    - Figure 3 shows the same system after winding a collection film to facilitate the evacuation of solid residues,
    FIGS. 4 to 6 represent three alternative embodiments of barges in accordance with the present invention,
    FIG. 7 represents an alternative embodiment comprising means for recovering the evaporated water,
    FIG. 8 represents a schematic view of a system according to an alternative embodiment of the present invention,
    FIG. 9 represents a schematic view of a system according to another variant embodiment of the present invention, and
    - Figure 10 shows a schematic view of a plurality of trays or barges according to the present invention coupled to provide a large treatment area.
    DETAILED DESCRIPTION OF THE INVENTION
    As indicated previously, the present invention proposes a system for the depollution of aquatic environments comprising, as shown diagrammatically in FIG. 1, at least one tray 100 adapted to receive and maintain water 200 polluted by waste 210, in particular microparticles of plastic materials, while allowing the evaporation of water.
    The system according to the present invention also comprises means 300, such as pumping means, adapted to supply the tray 100 with a controlled volume of water 200.
    Schematically illustrated in FIG. 1 is a pump 300 adapted to pump polluted water into a medium 400 and pour this polluted water onto the plate 100.
    In the context of the present invention, the polluted water 200 can be discharged onto the trays 100 by any other appropriate means, for example by an autonomous pumping system, by filling via a pump boat, by a dredger system, the buckets of which flow over the barges or by pipeline serving a network of 100 barges.
    The system according to the present invention further comprises means 400 adapted to recover the solid residues 210 present on the plate 100 after evaporation of the water 200, as seen in FIG. 2.
    According to the embodiment shown diagrammatically in Figures 1 to 3 appended, these means 400 for recovering solid residues 210 comprise a film 410 placed on the bottom of the tray 100 before the pump 300 pours the polluted water onto the tray. The film 410 is preferably a waterproof film. It can be a plastic film. It is at least impermeable to the smallest particles of waste 210. Thus the polluted water 200 covers the film 410. And when the water 200 is completely evaporated, as shown diagrammatically in FIG. 3, the solid residues 210 can easily be removed by removing the film, for example by winding the film 410 on itself before moving it or else by cutting the film 410 in the form of plates of dimensions suitable for easy evacuation.
    To facilitate the evacuation of solid residues 210, it is also possible to apply a covering film, for example a plastic film, over the waste 210, once the water has evaporated, as illustrated schematically in FIG. 2. Such a covering film 420 which covers the solid residues 210 makes it possible to prevent the residues from flying away and facilitates handling (in particular by plates or by rollers).
    The covering film 420 may be separate from the film 410 placed on the surface of the plate to recover the solid residues or may have come in one piece with this recovery film 410. In the latter case the recovery film 410 is folded back on itself, after evaporation of the water, to cover solid residues and prevent this from being subjected to bad weather, rain and wind.
    Once the films 410, 420 and the residues 210 have been removed, it is possible to repeat the laying of a film 410 on the bottom of the barge 100 receiving the polluted water 200 and to repeat the filling of the barge with a new volume d polluted water.
    It is also possible to carry out several fillings of the barge 100 with a volume of polluted water and to evaporate the water, before removing the film 410. The solid residues thus accumulate successively on the film 410.
    The tray 100 can be the subject of numerous embodiments.
    It is preferably a floating barge. There is thus schematically illustrated in Figures 1 to 3 a barge 400 which floats on an aquatic environment 400, for example a marine environment. In FIGS. 1 to 3, the water level on which the barge 400 floats is referenced 402.
    Each barge 100 typically comprises a bottom 110 surrounded by vertical edges 120 delimiting a suitable volume.
    According to Figures 1 to 3 the bottom of the barges 100 is flat.
    FIG. 4 shows an alternative embodiment according to which the bottom 110 of the barge is inclined towards an edge and has at this level a bowl 112 allowing stratification and collection of solid residues 210.
    FIG. 5 shows another alternative embodiment according to which the bottom 110 of the barge is also inclined in the form of a channel or dihedral concave upwards, symmetrical with respect to a longitudinal median vertical plane P. This arrangement also facilitates stratification and collection of solid residues 210.
    FIG. 6 shows another alternative embodiment according to which the bottom 110 of the barge extends generally horizontally, but comprises on its upper surface which receives the collecting film 410, a series of projecting structures 114. It can be pyramid studs or longitudinal or transverse ribs, or even networks of crisscrossed ribs. This arrangement also facilitates stratification and collection of solid residues 210.
    The solid residues 210 can then be removed, stored and recycled easily.
    The various embodiments of barges in accordance with the present invention are preferably floating and equipped with a film 410 to facilitate the recovery of solid residues 210.
    Each barge 100 can itself be divided into several parallel corridors. This arrangement makes it possible in particular to facilitate the recovery of solid residues by limiting the width of the films 410 used to evacuate the residues after evaporation of the water.
    The aforementioned dewatering corridors dividing a common barge 100 can also constitute side-by-side basins, in cascade, separated by filtering walls, filtering smaller and smaller. For example, the first tank can retain larger waste, a second tank can hold waste larger than 25 mm, a third tank can hold waste between 25 and 5mm and a fourth and last tank is used to decant the flakes. The fourth basin is preferably covered with a film, for example a plastic film, as explained above.
    The system according to the present invention also preferably comprises means for recovering the evaporated water.
    There is thus illustrated in FIG. 7 appended an alternative embodiment of a barge comprising, in the upper part, condensation plates 130 associated with a recovery gutter 135. More precisely, according to the schematic representation given in FIG. 7, it is provided two plates 132 and 133 forming a downward convex dihedral overhanging the bottom of the barge and covering the entire surface thereof. The two plates 132 and 133 converge and meet at a low point 134 located vertically above the gutter 135.
    The condensation plates 130 are preferably plates cooled at a low temperature suitable for optimizing the condensation.
    The water 200 evaporates, condenses on the ceiling formed by the plates 130 and forms droplets, which slide along the small slope formed by the plates 130 and fall into the recovery gutter, slightly inclined 135, itself preferably connected to a tank or any equivalent means forming a reserve.
    As a variant, the vertical or semi-vertical walls 120 can also be used to ensure the condensation of the evaporated water. They can also be equipped with chilled plates. The drops that form on these walls run off and are collected in a gutter also leading to a tank of pure water.
    In the context of the present invention, there is preferably provided means for filtering the water discharged onto the bottom of the barges with a view to subsequent separation of the solid waste residues by evaporation of the water.
    Preferably, provision is made for successive filters to separate the large pieces of waste and direct them to a recovery location without passing them through the evaporation barges.
    Upstream of the sampling point, a first filtering can be carried out by any appropriate means, for example using nets.
    Additional filtering can be carried out in the barge itself. A simple option is to pour the polluted water on a multi-stage sieve system, allowing to gradually filter the water so that only the small and very small waste, the flakes, ends up in the bottom of the barge, on the recovery film 410.
    The sieve solution allows easy recovery of "bulky" waste pre-sorted before barge.
    More precisely, the system according to the present invention preferably comprises a plurality of modular plates 100 capable of being mechanically interconnected and if necessary hydraulically, in order to cover an optimized surface while individually presenting a moderate size facilitating the manufacturing, storage operations. and transportation.
    It is thus possible to provide various barges interconnected with one another, in which the volumes of water are gradually displaced according to the degree of progress of the evaporation of the water.
    Of course, each barge 100 can be formed from several elements assembled in situ.
    The system according to the present invention can also be equipped with means suitable for recovering noble materials from the collected residues 210, for example of precious metals, such as gold, platinum, rhodium, etc., or even, where appropriate, toxic components. , such as mercury or certain hydrocarbons.
    The evaporation of water can only be due to natural ventilation and sunshine which provides the calories necessary for the phase change from liquid to vapor, water.
    The system according to the present invention can however be further equipped with means adapted to optimize the conditions of evaporation, by promoting or controlling in particular the ventilation above the barges 100, as well as the temperature of the air and / or of the water 200.
    The barges 100 can thus be fitted with fans.
    They can also be equipped with means for heating polluted water 200, in the volume, and / or means for heating the bottom walls 110 of the barges.
    Each barge 100 can be equipped with electrical supply means.
    These electrical supply means are preferably adapted to ensure total autonomy of the barge or of a set of barges.
    These electrical supply means can be used to supply a network of sensors, for example a network of sensors making it possible to measure the temperature of the water 200 in each barge, the temperature of the interior air in each barge, the temperature of the air outside each barge and the humidity level in each barge and outside the barges.
    The power supply means can also be used to activate equipment provided to optimize evaporation. Such means can act on the degree of humidity of the air, on a ventilation on the surface of the water, on the temperature of the water, on the temperature of the air, on the air pressure at -above water, etc, or on all parameters to optimize the evaporation of water.
    In summary, the electrical supply means are preferably adapted to supply autonomously, all of the sensors, ventilation, heating and cooling means, as well as all of the signaling and signal processing means equipping the barges.
    They are preferably autonomous power supply means based on renewable energy, such as solar panels and / or wind turbines and / or tidal turbines.
    It will be understood from reading the above description that the present invention makes it possible to clean water, to recover micro-waste from plastic material and that it constitutes a durable and autonomous system.
    By way of nonlimiting example, for a barge 100 composed of 4 parallel draining corridors 50m long and 4m wide each, 40,000 liters (40m3) can be pumped to cover the bottom of each corridor by 5cm of polluted water 200. Once the water has evaporated, the operation is repeated until the desired quantity of waste is obtained, before removing the latter.
    With average data (water at 20 ° C, air at 25 ° C, humidity at 50% and wind at lm / s) we obtain an evaporation rate of 6.5 liters / day / m 2 , i.e. 5200 l / day / barge (if we consider a long barge of 50m made up of 4 corridors of 4m wide) and this without any energy contribution other than the energy provided by the barge itself.
    Considering a height of 2cm of micro-waste collected every ten days. Each barge of 50m x 4m x 4 lanes can recover 16m 3 of micro-waste every ten days (50m x 4m x 4 = 800m 2 , and 800 x 0.02m = 16m 3 ). In addition, the same barge, equipped with a system for recovering evaporated water, makes it possible to supply 52m 3 of pure water over the same ten-day period.
    Studies have shown that gyres have a stratification, that is to say that waste accumulates on layers of different heights, below sea level, depending on the average size of this waste. Given this stratification of the gyres, within the framework of the invention, provision is preferably made for selective collection at controlled depths below sea level, in order to reduce the filtration requirements (whether by annex pump boat, by collection or any other means). In other words, in the context of the present invention, preferably the depth and the deployment of the sampling pump is controlled by the barge itself. It is thus possible to sample polluted water from a stratum containing essentially plastic waste of the straw type, that is to say particles of a size less than a few hundred microns meters , for example less than or equal to 300pm.
    Preferably the interior of the barges is dark to avoid the proliferation of algae.
    FIG. 8 shows an alternative embodiment of a barge which comprises:
    . a floating base structure 102, equipped with ballasts 105 and the bottom of which is preferably heated to a controlled temperature to optimize the evaporation of the water, which receives. an evaporation tank 100 comprising a bottom 110 surrounded by vertical or generally vertical edges 120 delimiting a suitable volume,. a film 410 deposited on the bottom 110 before the discharge of the polluted water 200 to be evaporated, to recover the solid residues 210,. a tidal turbine 500 preferably adjustable in depth,. at least one 510,. at least one photovoltaic solar panel 520,. plates 132 for condensing and recovering the evaporated water, formed for example on the sides of the structure 102 and preferably cooled to an optimal temperature to promote condensation,. gutters 135 for recovering the water provided at the base of the plates 132,. a roof 530, preferably opening between a fully open position and a completely closed position, as well as between any possible intermediate position between the open position and the closed position. The roof 530 can also be provided with plates 132 for condensing and recovering the evaporated water. These plates 132 are preferably inclined to allow water to be recovered by runoff,. a set 540 of screens superimposed on the evaporation pan and which comprises a plurality of screens superimposed vertically and having a progressively finer filtration rating by approaching the volume of water stored, for gradually eliminating the waste, the upper screen eliminating the waste larger and the lower screen eliminating the smaller waste to be removed before pouring the water containing the plastic flakes into the barge, then isolate these flakes by evaporation of the water. There is thus illustrated in FIG. 8 a set of 3 screens 541, 542 and 543. The upper screen 541 retains larger waste. The middle sieve 542 retains intermediate size waste. The lower screen 543 retains smaller waste. Preferably, these screens are mounted to slide horizontally on a support structure to be movable like drawers, to allow regular discharge of the collected waste into a suitable recovery container 550,. a dredger 560 having buckets 562 for collecting and conveying polluted water on the sieves 540. The dredger is preferably adapted to take polluted water, in a gyre, at an adjustable depth, in order to optimize the sampling point.
    If necessary, the floating base structure 102 can receive a plurality of evaporation tanks 100 arranged side by side.
    FIG. 9 shows an alternative embodiment of a barge divided into 4 evaporation lanes 103 which comprises:
    . a float / stabilizer assembly 104 integral with the basic structure of the barge 100,. a pumping assembly 300 comprising a pump associated with a filter
    310 adapted to prevent large waste from being sucked in by the pump,. a set of photovoltaic solar panels 520 for supplying all of the barge's electrical equipment,. a set 570 providing ventilation / heating functions, associated with an air extractor 580.
    FIG. 10 schematically represents a set of interconnected barges.
    There is shown diagrammatically in FIG. 10 an assembly given solely by way of illustration and without limitation of 10 barges 100 mechanically connected in the form of a matrix of 2 rows x 5 columns. Each barge 100 has for example a length L1 of the order of 50m and a width L2 of the order of 20m. At least some of the barges, as illustrated for barge 100a, can be divided into several parallel evaporation lanes 103, for example 4 lanes 103 with a length L1 of the order of 50m and an individual width of the order of 4 to 5 m. In this case, means can be provided for gradually discharging the water from a corridor 103 to another adjacent corridor 103 having a lower concentration of water, to optimize the evaporation of the water.
    Of course the present invention is not limited to the embodiments which have just been described, but extends to all variants in accordance with its spirit.
    In particular the present invention is not limited to the depollution of the seas or oceans. It can be applied to any aquatic environment.
    权利要求:
    Claims (13)
    [1" id="c-fr-0001]
    1. System for cleaning up aquatic environments comprising:
    . at least one plate (100) adapted to receive and maintain water polluted by waste, in particular micro-particles of plastic materials, while allowing the evaporation of water,. means (300) adapted to supply a controlled volume of water to the plate and. means (410) adapted to recover the solid residues (210) present on the plate (100) after evaporation of the water.
    [2" id="c-fr-0002]
    2. System according to claim 1, characterized in that the plate (100) is a floating barge.
    [3" id="c-fr-0003]
    3. System according to one of claims 1 or 2, characterized in that the system comprises a plurality of modular plates (100) capable of being interconnected.
    [4" id="c-fr-0004]
    4. System according to one of claims 1 to 3, characterized in that the means for recovering solid residues comprise a film (410) disposed on the surface of the plate, to receive the polluted water.
    [5" id="c-fr-0005]
    5. System according to one of claims 1 to 4, characterized in that the system comprises a covering film (420) deposited above the waste, once the water has evaporated.
    [6" id="c-fr-0006]
    6. System according to one of claims 1 to 5, characterized in that the bottom (110) of the plate is not planar to facilitate the stratification and the recovery of solid residues.
    [7" id="c-fr-0007]
    7. System according to one of claims 1 to 6, characterized in that the system comprises means (130, 135) for recovering the evaporated water.
    [8" id="c-fr-0008]
    8. System according to one of claims 1 to 7, characterized in that the system comprises means adapted to recover noble materials, such as precious metals, and / or toxic components, in the collected residues.
    [9" id="c-fr-0009]
    9. System according to one of claims 1 to 8, characterized in that the system comprises means adapted to optimize the conditions of evaporation, by promoting or controlling in particular the ventilation above the barges, as well as the temperature of the air. and / or water.
    [10" id="c-fr-0010]
    10. System according to one of claims 1 to 9, characterized in that each plate (100) is equipped with electrical supply means.
    5
    [11" id="c-fr-0011]
    11. System according to one of claims 1 to 10, characterized in that it comprises electrical supply means for supplying a network of sensors.
    [12" id="c-fr-0012]
    12. System according to one of claims 1 to 11, characterized in that it comprises electrical supply means for activating
    10 devices planned to optimize evaporation.
    [13" id="c-fr-0013]
    13. System according to one of claims 1 to 12, characterized in that it comprises autonomous electrical supply means based on renewable energy, such as solar panels and / or wind turbines.
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    同族专利:
    公开号 | 公开日
    RU2020105283A3|2021-08-06|
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    WO2019007702A1|2019-01-10|
    RU2761348C2|2021-12-07|
    FR3068689B1|2020-05-22|
    EP3649084A1|2020-05-13|
    PT3649084T|2021-10-20|
    RU2020105283A|2021-08-06|
    EP3649084B1|2021-07-14|
    引用文献:
    公开号 | 申请日 | 公开日 | 申请人 | 专利标题
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    法律状态:
    2019-01-11| PLSC| Publication of the preliminary search report|Effective date: 20190111 |
    2019-07-09| PLFP| Fee payment|Year of fee payment: 3 |
    2020-03-13| TP| Transmission of property|Owner name: MATSYA, FR Effective date: 20200131 |
    2020-07-16| PLFP| Fee payment|Year of fee payment: 4 |
    2021-07-09| PLFP| Fee payment|Year of fee payment: 5 |
    优先权:
    申请号 | 申请日 | 专利标题
    FR1756396A|FR3068689B1|2017-07-06|2017-07-06|AQUATIC ENVIRONMENTAL DEPOLLUTION SYSTEM|
    FR1756396|2017-07-06|FR1756396A| FR3068689B1|2017-07-06|2017-07-06|AQUATIC ENVIRONMENTAL DEPOLLUTION SYSTEM|
    EP18732088.2A| EP3649084B1|2017-07-06|2018-06-21|System for pollution control of aquatic environments|
    PCT/EP2018/066676| WO2019007702A1|2017-07-06|2018-06-21|System for pollution control of aquatic environments|
    ES18732088T| ES2894968T3|2017-07-06|2018-06-21|Aquatic media decontamination system|
    RU2020105283A| RU2761348C2|2017-07-06|2018-06-21|System for purification of water areas|
    PT187320882T| PT3649084T|2017-07-06|2018-06-21|System for pollution control of aquatic environments|
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