Disclosure of Invention
Aiming at the defects of the prior art, the invention aims to provide an oyster temporary culture ecosystem, which can purify a water body for temporarily culturing oysters, optimize the living environment of the oysters, efficiently purify the oyster bodies in the oysters, achieve the effect of purifying the oysters, improve the taste of the oyster bodies and guarantee the food safety of the oysters.
The purpose of the invention is realized by adopting the following technical scheme:
oyster temporary rearing ecosystem includes:
temporarily breeding in a pond;
the water body purification system comprises a first circulating water pipeline and an air floatation system, wherein two opposite ends of the first circulating water pipeline are respectively communicated with the temporary culture pond, the air floatation system comprises a first power pump and a protein separator, the protein separator is communicated with the first circulating water pipeline, the first power pump is arranged on the first circulating water pipeline so that water in the temporary culture pond can flow back into the temporary culture pond through the first circulating water pipeline after passing through the protein separator, and the protein separator is communicated with a gas supply device for supplying oxygen and/or ozone into the protein separator so that organic matters in water bodies entering the protein separator are suspended to purify the water bodies flowing through the protein separator and then flowing back into the temporary culture pond;
oyster clean system gives birth to, including second circulating water pipeline, second circulating water pipeline with first circulating water pipeline mutual independence, second circulating water pipeline's relative both ends respectively with temporarily support the pond intercommunication, be equipped with the second power pump on the second circulating water pipeline, second circulating water pipeline intercommunication has gas-liquid mixer, gas-liquid mixer with the air feeder intercommunication, so that can let in oxygen and/or ozone in the gas-liquid mixer under the power action of second power pump, temporarily support the water in the pond and can pass through the second circulating water pipeline gets into in the gas-liquid mixer with let in form mixed liquid backward flow in after oxygen in the gas-liquid mixer and/or ozone mix in temporarily support the pond.
Furthermore, the air floatation system also comprises a pre-filter which is arranged on the first circulating water pipeline and is used for physically filtering the water flowing out of the temporary rearing pond and entering the protein separator.
Further, the first powered pump is located between the pre-filter and the protein separator.
Furthermore, a coarse filter is further arranged on the second circulating water pipeline and used for coarsely filtering the water flowing from the temporary culture pond to the gas-liquid mixer.
Furthermore, a fine filter is further arranged on the second circulating water pipeline and used for finely filtering the water flowing from the coarse filter to the gas-liquid mixer.
Furthermore, a water temperature control device is further arranged on the second circulating water pipeline and used for regulating and controlling the temperature of the water flowing from the fine filter to the gas-liquid mixer.
Further, the second power pump is located between the fine filter and the water temperature control device.
Furthermore, the invention also comprises an electric control system which is electrically connected with the gas supply device and is used for controlling the gas supply device to deliver oxygen and/or ozone gas into the gas-liquid mixer and/or the protein separator.
Further, the gas-liquid mixer, the protein separator, the first power pump and the second power pump are all controlled by the electronic control system.
Further, the gas supply device comprises an ozone generator and/or an oxygen generator.
Compared with the prior art, the invention has the beneficial effects that:
1. when the oyster temporary rearing device is used, the water body purification system pumps water in the oyster temporary rearing pond through the first power pump to flow through the protein separator, and simultaneously provides oxygen or ozone into the protein separator through the gas supply device to enable organic matters in the water body in the protein separator to be suspended and purified, and the purified water body in the protein separator flows back to the water body in the temporary rearing pond to circulate, so that the water body in the oyster temporary rearing pond is purified, and the living environment of the oysters is optimized. In addition, the water body purification system uses a circulating water temporary culture purification mode, so that the water body in the oyster temporary culture pond can be always kept in an optimal purification state, and the purification effect is good; meanwhile, a large-capacity pool does not need to be additionally configured, and the occupied area is small.
2. When the oyster purifying system is used, the aquaculture water in the temporary culture pond is pumped into the gas-liquid mixer through the second power pump, and meanwhile, oxygen is input into the gas-liquid mixer through the gas supply device and mixed with the water in the gas-liquid mixer to form a mixed liquid containing oxygen, and the mixed liquid flows back into the temporary culture pond so as to circulate, so that the dissolved oxygen concentration of the water in the temporary culture pond is ensured, and the oyster is high in metabolic performance under sufficient dissolved oxygen conditions, so that the oyster is efficiently purified, and the taste of the oyster is better.
3. When the oyster purifying system is used, the aquaculture water in the temporary rearing tank is pumped into the gas-liquid mixer through the second power pump in a working state, and simultaneously, the ozone is input into the gas-liquid mixer through the gas supply device and mixed with the water in the gas-liquid mixer to form a mixed liquid containing the ozone, and the mixed liquid flows back into the temporary rearing tank, so that the oysters in the temporary rearing tank are sterilized and disinfected, and are filtered into the oyster purifying system containing O 3 The water body of (ozone) is used for directly purifying the interior of the fresh oyster, so that the effect of efficiently purifying the oyster body in the fresh oyster is achieved, the purpose of directly purifying the fresh oyster is achieved, the taste of the fresh oyster is better, and the food safety of the fresh oyster is ensured.
4. When the oyster purifying system is used, the aquaculture water in the temporary culture pond is pumped into the gas-liquid mixer through the second power pump, and simultaneously, oxygen and ozone are simultaneously input into the gas-liquid mixer through the gas supply device and mixed with the water in the gas-liquid mixer to form a mixed liquid containing the oxygen and the ozone, and then the mixed liquid flows back into the temporary culture pond, so that the oysters in the temporary culture pond are sterilized and disinfected, the dissolved oxygen concentration of the water in the temporary culture pond can be ensured, the metabolic performance of the oysters in the temporary culture pond is good under the sufficient dissolved oxygen condition, the oysters are efficiently purified, and the taste of the oysters is better.
Detailed Description
The present invention will be described with reference to the accompanying drawings and the detailed description, and it should be noted that, in the following description, various embodiments or technical features may be arbitrarily combined to form a new embodiment without conflict.
In the description of the present invention, it is to be understood that the terms "upper", "lower", "front", "rear", "left", "right", "horizontal", "vertical", "top", "outer", and the like indicate orientations or positional relationships based on those shown in the drawings, and are only for convenience of description and simplicity of description, and do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, are not to be construed as limiting the present invention. Furthermore, the terms "first" and "second" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.
In the description of the present invention, it should be noted that unless otherwise explicitly stated or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, e.g., as being fixedly connected, detachably connected, or integrally connected; can be mechanically or electrically connected; either directly or indirectly through intervening media, or through both elements. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations.
The implementation mode is as follows:
referring to fig. 1-4, the invention shows an oyster temporary rearing ecosystem.
The first embodiment is as follows:
as shown in fig. 1, the oyster temporary rearing ecosystem of the embodiment includes a temporary rearing pond 10 and a water body purification system. Specifically, the water body purification system comprises a first circulating water pipeline 20 and an air flotation system, wherein the two opposite ends of the first circulating water pipeline 20 are respectively communicated with the temporary culture pond 10, the air flotation system comprises a first power pump 30 and a protein separator 40, the protein separator 40 is communicated with the first circulating water pipeline 20, the first power pump 30 is arranged on the first circulating water pipeline 20, so that water in the temporary culture pond 10 can flow back into the temporary culture pond 10 through the first circulating water pipeline 20 after passing through the protein separator 40, the protein separator 40 is communicated with an air supply device for providing ozone into the protein separator 40, so that organic matters in the water body entering the protein separator 40 are suspended to purify the water body flowing through the protein separator 40 and then flowing back into the temporary culture pond 10. That is, it can be understood that, in the working state of the water body purification system of the present invention, the first power pump 30 pumps the water body in the oyster temporary rearing pond 10 and flows through the protein separator 40, and simultaneously, the air supply device supplies ozone into the protein separator 40, so that the organic matter in the water body in the protein separator 40 and the metabolic product discharged by the oysters are suspended on the water surface to purify the water body, and the purified water body in the protein separator 40 flows back to the water body in the temporary rearing pond 10 to circulate, thereby purifying the water body in the oyster temporary rearing pond 10 and optimizing the living environment of the oysters. Of course, the organic matter suspended on the water surface and the metabolic products discharged from the fresh oysters are discharged through the sewage outlet of the protein separator 40.
It should be noted that the operation principle of the protein separator 40 is not described herein, and belongs to the prior art.
It should be noted that, because the water body purification system of the invention uses the circulating water temporary culture purification mode, the water body in the oyster temporary culture pond 10 can be always kept in the optimal purification state, and the purification effect is better; meanwhile, a large-capacity pool does not need to be additionally configured, and the occupied area is small.
In addition, the oyster temporary rearing ecosystem of the embodiment further comprises an oyster purifying system. Specifically, the fresh oyster purification system comprises a second circulating water pipeline 21 and a second circulating water pipelineThe circulating water pipeline 21 and the first circulating water pipeline 20 are mutually independent, two opposite ends of the second circulating water pipeline 21 are respectively communicated with the temporary culture pond 10, a second power pump 31 is arranged on the second circulating water pipeline 21, the second circulating water pipeline 21 is communicated with a gas-liquid mixer 41, the gas-liquid mixer 41 is communicated with a gas supply device, so that ozone can be introduced into the gas-liquid mixer 41, under the power action of the second power pump 31, water in the temporary culture pond 10 can enter the gas-liquid mixer 41 through the second circulating water pipeline 21 and is mixed with the ozone introduced into the gas-liquid mixer 41 to form O-containing water 3 The mixed liquid of (2) flows back into the temporary rearing pond 10. That is, it can be understood that, in the working state of the oyster purifying system according to the present invention, the second power pump 31 pumps the culture water in the temporary rearing pond 10 into the gas-liquid mixer 41, and the gas supply device inputs ozone into the gas-liquid mixer 41 to mix with the water in the gas-liquid mixer 41 to form a mixed liquid containing ozone, and then the mixed liquid flows back into the temporary rearing pond 10, so as to sterilize and disinfect the oysters in the temporary rearing pond 10, and the oysters are filtered into the mixed liquid containing O 3 The (ozone) water body is used for directly purifying the interior of the fresh oyster, and simultaneously can ensure the dissolved oxygen concentration of the water body in the temporary culture pond 10, and the metabolic performance of the fresh oyster is good under the condition of sufficient dissolved oxygen, so that the effect of efficiently purifying the fresh oyster is achieved, the taste of the fresh oyster is better, and the food safety of the fresh oyster is ensured.
It should be noted that the working principle of the gas-liquid mixer 41 belongs to the prior art, and is not described here.
It should be noted that the inventor can design parameters such as the diameter of the second circulating water pipe 21 and the flow rate of the second power pump 31 according to the flow rate of water flowing from the temporary rearing pond 10 to the second circulating water pipe 21 and entering the gas-liquid mixer 41, so that the water can quantitatively enter the gas-liquid mixer 41 to be mixed with ozone gas, thereby ensuring the concentration of ozone in the mixed liquid (the mixed liquid of ozone and water) and further controlling the concentration of ozone in the water in the temporary rearing pond 10.
It should be noted that, because the concentration of ozone is relatively high and is not suitable for the survival of oysters, the ozone concentration detection tool needs to be used manually to detect the ozone concentration in the water body in the temporary rearing pond 10, so as to avoid the death of oysters due to the over-high ozone concentration in the water body in the temporary rearing pond 10.
In the embodiment, the air flotation system further includes a pre-filter 70, the pre-filter 70 is disposed on the first circulating water pipe 20, and the pre-filter 70 is used for physically filtering the water flowing out of the autotrophic pool 10 and entering the protein separator 40. That is, it can be understood that the pre-filter 70 can prevent the impurities with excessive volume in the water body from entering the protein separator 40, so as to further purify the water body in the temporary rearing pond 10.
In this embodiment, the first power pump 30 is located between the pre-filter 70 and the protein separator 40, so that on one hand, the impurities with too large volume in the water body can be prevented from entering the first power pump 30 and affecting the service life of the first power pump 30, and on the other hand, the impurities with too large volume in the water body can be prevented from entering the protein separator 40.
In this embodiment, the second circulating water pipe 21 is further provided with a coarse filter 71, and the coarse filter 71 is used for coarse filtering the water flowing from the temporary rearing pond 10 to the gas-liquid mixer 41; the second circulating water pipe 21 is further provided with a fine filter 72 for finely filtering the water flowing from the coarse filter 71 to the gas-liquid mixer 41. Therefore, by combining the coarse filter 71 and the fine filter 72, on one hand, the water entering the gas-liquid mixer 41 can be relatively clean, so that the water body can be purified, the effect of mixing ozone in the gas-liquid mixer 41 and the water body of the gas-liquid mixer 41 can be avoided being influenced, on the other hand, the water body in the temporary rearing pond 10 can be further purified, and the living environment of oysters can be further optimized.
In the present embodiment, the fine filter 72 is an activated carbon filter, and the coarse filter 71 is a screen filter or a filter bag filter, which are not limited herein and can be reasonably selected by the inventor according to the actual situation.
In this embodiment, the second water circulating pipe 21 is further provided with a water temperature control device 60, and the water temperature control device 60 is used for regulating and controlling the temperature of the water flowing from the fine filter 72 to the gas-liquid mixer 41, so as to regulate the temperature of the water in the temporary rearing pond 10, and make the temperature of the water in the temporary rearing pond 10 more suitable for oyster cultivation. The water temperature control device 60 of this embodiment selects a thermostat, that is, the water inlet of the thermostat is communicated with the water outlet of the fine filter 72, and the water outlet of the thermostat is communicated with the water inlet of the gas-liquid mixer 41, so that the water body finely filtered by the fine filter 72 is cooled by the thermostat and then enters the gas-liquid mixer 41, so that the ozone and the water body in the gas-liquid mixer 41 are mixed.
It should be noted that, the water temperature control device of the embodiment preferably regulates and controls the water body of the temporary rearing pond to 16 to 18 ℃, so as to provide an optimal metabolic environment for oyster production. Specifically, it can be understood that the water body finely filtered by the fine filter 61 is preferably cooled or heated to 16-18 ℃ by the thermostat, so as to provide an optimal metabolic environment for the fresh oysters. Due to the influence of external factors (such as weather factors in summer, winter and the like), the temperature of the water entering the gas-liquid mixer 41 may be higher than 16-18 ℃ or lower than 16-18 ℃, and when the temperature of the water entering the gas-liquid mixer 41 is higher than 16-18 ℃, the water is cooled to 16-18 ℃ by the thermostat and then enters the gas-liquid mixer 41; when the temperature of the water entering the gas-liquid mixer 41 is lower than 16-18 ℃, the water is heated to 16-18 ℃ by the thermostat and then enters the gas-liquid mixer 41, so that ozone is mixed with the water in the gas-liquid mixer 41 conveniently, and meanwhile, the living environment of the oysters in the temporary rearing pond 10 is improved.
In this embodiment, the second power pump 31 is located between the fine filter 72 and the water temperature control device 60. It can be understood that the water pumped by the second power pump 31 in the temporary rearing pond 10 sequentially enters the coarse filter 71, the fine filter 72, the second power pump 31, the water temperature control device 60 and the gas-liquid mixer 41 through the second circulating water pipe 21 and then flows back to the temporary rearing pond 10. In the process, the water flowing out of the temporary culture pond 10 is firstly subjected to coarse filtration through the coarse filter 71, then is subjected to fine filtration through the fine filter 72, enters the water temperature control device 60 for temperature regulation, then enters the gas-liquid mixer 41 for mixing with ozone gas to form a mixed solution, and finally flows back to the temporary culture pond for circulation.
In this embodiment, the power pump is a suction pump. Of course, in other embodiments, the power pump may be a vane pump or a displacement pump, which is not limited herein. Therefore, it is obvious to those skilled in the art that the structure of the power pump can be properly modified and still fall within the scope of the present invention.
On the basis of the structure, the oyster temporary rearing ecosystem further comprises an electric control system, wherein the electric control system is electrically connected with the gas supply device and is used for controlling the gas supply device to supply ozone to the gas-liquid mixer 41 and controlling the gas supply device to supply ozone to the protein separator 40. That is, the gas supply device is controlled by the electric control system, and the gas supply device of the present embodiment includes the ozone generator 50, and the water body purification system and the oyster purification system share one ozone generator 50, so as to save the number of the ozone generators 50 and save the cost. Of course, the water body purification system and the fresh oyster purification system may also use one ozone generator 50, which is not limited herein.
Wherein, the air inlet end of the protein separator 40 is provided with a first electric ball valve 401 controlled by an electric control system, the air inlet end of the gas-liquid mixer 41 is provided with a second electric ball valve 411 controlled by the electric control system, when ozone needs to be separately conveyed into the gas-liquid mixer 41, the valve of the first electric ball valve 401 is closed, and the valve of the second electric ball valve 411 is opened; when ozone needs to be separately conveyed into the protein separator 40, the valve of the first electric ball valve 401 is opened, and the valve of the second electric ball valve 411 is closed; when ozone needs to be simultaneously conveyed into the protein separator 40 and the gas-liquid mixer 41, valves of the first electric ball valve 401 and the second electric ball valve 411 are both opened, so that the water body purification system and the fresh oyster purification system can work independently or simultaneously.
Of course, the gas-liquid mixer 41, the protein separator 40, the first power pump 30 and the second power pump 31 are all controlled by an electronic control system. That is, the electric control system automatically controls the working states of the gas-liquid mixer 41, the protein separator 40, the ozone generator 50, the first power pump 30 and the second power pump 31, so as to realize the automatic control of the oyster temporary rearing ecosystem of the invention.
It is worth explaining that, the electric control system (PLC control system) can be connected with the mobile phone APP software of the cloud platform in a telecommunication mode, and a user can quantitatively manage the output of ozone by controlling the software on the mobile phone APP so as to ensure the oyster purification effect and the oyster food safety.
It should be noted that, the ozone generator 50 is controlled by the mobile phone APP to quantitatively manage the output of ozone belongs to the prior art, and is similar to the principle of the air conditioner remote controller controlling and adjusting the air conditioner, and will not be described here.
In conclusion, the oyster temporary culture ecosystem is a pure-ecological, high-safety, environment-friendly and energy-saving oyster purification system, chemical substances do not need to be added from the outside in the using process, and only O is added through equipment 2 Introducing into a body of water or introducing O 3 The water body and the fresh oysters in the temporary rearing pond 10 can be purified by leading the water body into the temporary rearing pond 10, aeration equipment does not need to be installed in the temporary rearing pond 10, and the cost is saved.
Example two:
as shown in fig. 2, the present embodiment is different from the first embodiment in that: the gas supply means supplies different gases into the gas-liquid mixer 41 and the protein separator 40.
In the present embodiment, the gas supply means supplies oxygen to both the protein separator 40 and the gas-liquid mixer 41, and therefore the gas supply means of the present embodiment is selected from the oxygen generator 51. Therefore, in a working state of the water body purification system, the first power pump 30 pumps the water body in the oyster temporary rearing pond 10 to flow through the protein separator 40, and the oxygen generator 51 supplies oxygen into the protein separator 40, so that organic matters in the water body in the protein separator 40 and metabolites discharged by the oysters are suspended on the water surface to purify the water body, and the purified water body in the protein separator 40 flows back to the water body in the temporary rearing pond 10 to circulate, so that the water body in the oyster temporary rearing pond 10 is purified, and the living environment of the oysters is optimized. Of course, the organic matter suspended on the water surface and the metabolic products discharged from the fresh oysters are discharged through the sewage outlet of the protein separator 40.
In the working state of the oyster purification system of the embodiment, the aquaculture water in the temporary culture pond 10 is pumped into the gas-liquid mixer 41 through the second power pump 31, and simultaneously, oxygen is input into the gas-liquid mixer 41 through the oxygen generator 51 and mixed with the water in the gas-liquid mixer 41 to form a mixed liquid containing high-concentration oxygen, and then the mixed liquid flows back into the temporary culture pond 10, so that the circulation is performed, the dissolved oxygen concentration of the water in the temporary culture pond 10 is ensured, the metabolism performance of the oyster is good under the condition of sufficient dissolved oxygen, the oyster is efficiently purified, and the taste of the oyster is better.
Example three:
as shown in fig. 3, the present embodiment is different from the above embodiments in that: the gas supply means supplies different gases into the gas-liquid mixer 41 and the protein separator 40.
In the present embodiment, the gas supply device supplies oxygen to the protein separator 40, and the gas supply device supplies ozone to the gas-liquid mixer 41, and the gas supply device of the present embodiment includes an oxygen generator 51 and an ozone generator 50, that is, the oxygen generator 51 is communicated with the protein separator 40, and the ozone generator 50 is communicated with the gas-liquid mixer 41. Therefore, in a working state of the water body purification system, the first power pump 30 pumps the water body in the oyster temporary rearing pond 10 and the water body flows through the protein separator 40, and the oxygen generator 51 supplies oxygen into the protein separator 40, so that organic matters in the water body in the protein separator 40 and metabolites discharged by the oysters are suspended on the water surface to purify the water body, and the purified water body in the protein separator 40 flows back to the water body in the temporary rearing pond 10 to circulate, so that the water body in the oyster temporary rearing pond 10 is purified, and the living environment of the oysters is optimized. Of course, the organic matter suspended on the water surface and the metabolic products discharged from the fresh oysters are discharged through the sewage outlet of the protein separator 40.
In the working state of the oyster purifying system of this embodiment, the aquaculture water in the temporary rearing pond 10 is pumped into the gas-liquid mixer 41 by the second power pump 31, and simultaneously, ozone is input into the gas-liquid mixer 41 by the ozone generator 50 to be mixed with the water in the gas-liquid mixer 41 to form a mixed liquid containing ozone, and then the mixed liquid flows back into the temporary rearing pond 10, so that the circulation is performed, thereby sterilizing and disinfecting the oysters in the temporary rearing pond 10, and filtering the oysters to contain O 3 The water body of (ozone) is used for directly purifying the interior of the fresh oyster, and meanwhile, the dissolved oxygen concentration of the water body in the temporary culture pond 10 can be ensured, and the metabolic performance of the fresh oyster is good under the condition of sufficient dissolved oxygen, so that the effect of efficiently purifying the fresh oyster is achieved, the taste of the fresh oyster is better, and the food safety of the fresh oyster is ensured.
Example four:
as shown in fig. 4, the present embodiment is different from the above embodiments in that: the gas supply means supplies different gases into the gas-liquid mixer 41 and the protein separator 40.
In this embodiment, the gas supplied from the gas supply device into the protein separator 40 is oxygen gas and ozone, and the gas supplied from the gas supply device into the gas-liquid mixer 41 is ozone. Specifically, the gas supply device of the present embodiment includes an oxygen generator 51 and an ozone generator 50; that is, the oxygen generator 51 is communicated with the protein separator 40, the ozone generator 50 is respectively communicated with the protein separator 40 and the gas-liquid mixer 41, the gas inlet port of the gas-liquid mixer 41 is provided with the third electric ball valve 412, the third electric ball valve 412 is controlled by an electric control system, and the third electric ball valve 412 can enable the oyster purification system and the water body purification system to work independently. Therefore, in a working state of the water body purification system, the first power pump 30 pumps the water body in the oyster temporary rearing pond 10 to flow through the protein separator 40, and the oxygen generator 51 and the ozone generator 50 supply oxygen and ozone to the protein separator respectively, so that organic matters in the water body in the protein separator 40 and metabolites discharged by the oysters are suspended on the water surface to purify the water body, and the purified water body in the protein separator 40 flows back to the water body in the temporary rearing pond 10 to circulate, so that the water body in the oyster temporary rearing pond 10 is purified, and the living environment of the oysters is optimized. Of course, the organic matter suspended on the water surface and the metabolic products discharged from the fresh oysters are discharged through the sewage outlet of the protein separator 40.
In the working state of the oyster cleaning system of the present embodiment, the aquaculture water in the temporary rearing pond 10 is pumped into the gas-liquid mixer 41 by the second power pump 31, and simultaneously passes through the ozone generator 5 communicated with the gas-liquid mixer 410, inputting ozone into the gas-liquid mixer 41 to be mixed with the water body in the gas-liquid mixer 41 to form a mixed liquid containing the ozone, and then refluxing the mixed liquid into the temporary culture pond 10 to circulate, thereby sterilizing and disinfecting the fresh oysters in the temporary culture pond 10 and filtering the fresh oysters to contain O 3 The (ozone) water body is used for directly purifying the interior of the fresh oyster, and simultaneously can ensure the dissolved oxygen concentration of the water body in the temporary culture pond 10, and the metabolic performance of the fresh oyster is good under the condition of sufficient dissolved oxygen, so that the effect of efficiently purifying the fresh oyster is achieved, the taste of the fresh oyster is better, and the food safety of the fresh oyster is ensured.
In view of the above, those skilled in the art can understand that the water body purification system can use one air supply device alone, the fresh oyster purification system can use one air supply device alone, the water body purification system and the fresh oyster purification system can share one gas supply device, limitation is not required, and the inventor can reasonably change and select the gas supply device according to the working states of the water body purification system and the fresh oyster purification system. The number of the oxygen generators 51 and the ozone generators 50 is not limited herein, and the inventor can reasonably change and select the oxygen generators according to the working states of the water body purification system and the oyster purification system. Therefore, it is within the scope of the present invention for the skilled person to reasonably change the number of the oxygen generators 51 and the ozone generators 50 and the layout thereof.
The above embodiments are only preferred embodiments of the present invention, and the protection scope of the present invention is not limited thereby, and any insubstantial changes and substitutions made by those skilled in the art based on the present invention are within the protection scope of the present invention.