Marine photosynthetic microorganism cultivation system

Abstract

The invention relates to the field of cultivation of marine photosynthetic microorganisms, in particular to a marine photosynthetic microorganism cultivation system which comprises a data acquisition and microorganism sampling intelligent nutrition and microorganism sampling and nutrition and photosynthetic bacterium and algae intelligent evaluation system, the invention further discloses a matched intelligent nutrient substance putting and bacterium and algae seed putting system and a material shortage reminding device. Firstly, microorganisms are sampled through data acquisition, a service terminal calculates and processes information through a central processing unit, instructions and control are sent to the service terminal through a voice interaction function and a touch interaction function of an intelligent interaction machine, then instruction information is sent to a sensing module, and a feedback module performs data sampling through water quality sampling. Finally, the reaction module is monitored through the monitoring module, the pressure and flow of the cultivation system are monitored through pressure monitoring and flow monitoring of the monitoring module, and through cooperation of the technologies, the purpose of cultivating microorganisms with the high utilization rate is achieved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of cultivating marine photosynthetic microorganisms, and particularly relates to a marine photosynthetic microorganism cultivation system. BACKGROUND

[0002] Photosynthetic microorganisms, also known as photosynthetic bacteria, are prokaryotes that appear earliest on earth, exist universally in nature, and have a primitive light energy synthesis system. Photosynthetic microorganisms are a general term for bacteria that perform non-oxygen-releasing photosynthesis under anaerobic conditions. They are a kind of gram-negative bacteria that do not form spores. They are a kind of microorganism that uses light as energy and utilizes organic matter, sulfides, ammonia, etc. in nature as hydrogen donors and carbon sources to perform photosynthesis under anaerobic light or aerobic dark conditions. Photosynthetic bacteria are widely distributed in soil, paddy fields, marshes, lakes, rivers, and seas in nature, and mainly exist in the anoxic zone where light can penetrate in aquatic environments. In recent years, with the rapid development of aquaculture, the output of aquaculture units has increased rapidly, and the input has also increased, resulting in serious water pollution. In particular, during the later stage of aquaculture, the content of organic matter, ammonia, and nitrite in the water is high, which seriously affects the growth of the cultured products. After using photosynthetic bacteria in the aquaculture water, the residual feed, feces, and other organic matter in the water can be degraded, and harmful substances such as ammonia, nitrite, and hydrogen sulfide in the water can be absorbed and utilized.

[0003] Although the existing technology has the advantages of promoting the circulation of organic matter, improving water quality, and creating an excellent environment for the growth of aquaculture products, the energy utilization rate of traditional photosynthetic microorganism cultivation is low, which affects the efficiency of photosynthetic microorganism cultivation, and the strain is prone to degradation, so that the microorganism is in a high-speed reproduction condition for a long time, even if the spontaneous mutation rate is very low.

[0004] Therefore, we propose a marine photosynthetic microorganism cultivation system to solve the above problems. SUMMARY

[0005] The purpose of the present application is to provide a marine photosynthetic microorganism cultivation system to solve the problems raised in the background art.

[0006] To achieve the above purpose, the present application provides the following technical scheme:

[0007] A marine photosynthetic microorganism cultivation system, comprising: data acquisition and intelligent nutrition and microorganism sampling, intelligent nutrition and photosynthetic algal evaluation system, and matched intelligent nutrition and algal species delivery system and material shortage reminding device, the output end of the data acquisition is unidirectionally and electrically connected with a service terminal, the output end of the service terminal is bidirectionally and electrically connected with a sensing module, the output end of the service terminal is bidirectionally and electrically connected with an illumination and warning module, the output end of the service terminal is bidirectionally and electrically connected with a reaction module, the output end of the reaction module is bidirectionally and electrically connected with a power supply module, the output end of the reaction module is bidirectionally and electrically connected with a feedback module, the output end of the feedback module is unidirectionally and electrically connected with a controller module, the output end of the reaction module is bidirectionally and electrically connected with a monitoring module, the output end of the microorganism sampling is unidirectionally and electrically connected with an illumination system, the output end of the illumination system is unidirectionally and electrically connected with a feeding reaction system, the output end of the feeding reaction system is unidirectionally and electrically connected with a circulation system, and the output end of the circulation system is unidirectionally and electrically connected with a cultivation result.

[0008] In further embodiments, the data acquisition comprises data comparison, and the data acquisition further comprises data analysis, and the output ends of the data comparison and data analysis are bidirectionally and electrically connected with the service terminal.

[0009] In further embodiments, the service terminal comprises a central processing unit, and the service terminal further comprises an intelligent interaction machine, and the intelligent interaction machine comprises voice interaction and touch interaction.

[0010] In further embodiments, the sensing module comprises a PH sensor, and the sensing module further comprises an intelligent display screen, and the PH sensor and intelligent display screen are bidirectionally and electrically connected with the service terminal.

[0011] In further embodiments, the illumination and warning module comprises an intelligent lamp group, and the illumination and warning module further comprises a voltage stabilizing module, and the intelligent lamp group and voltage stabilizing module are bidirectionally and electrically connected with the service terminal.

[0012] In further embodiments, the reaction module comprises a bioreactor, and the reaction module further comprises data management, and the bioreactor and data management are bidirectionally and electrically connected with the service terminal.

[0013] In further embodiments, the power supply module comprises a battery pack, and the power supply module further comprises a solar photovoltaic, and the battery pack and solar photovoltaic are bidirectionally and electrically connected with the reaction module.

[0014] In further embodiments, the feedback module comprises data feedback, and the feedback module further comprises water quality sampling, and the output ends of the data feedback and water quality sampling are bidirectionally and electrically connected with the feedback module.

[0015] In further embodiments, the control module comprises a feedback control, and the control module further comprises a reaction control, and the output terminals of the feedback control and the reaction control are unidirectionally electrically connected with the feedback module.

[0016] In further embodiments, the monitoring module comprises a pressure monitoring, and the monitoring module further comprises a flow monitoring, and the output terminals of the pressure monitoring and the flow monitoring are unidirectionally electrically connected with the reaction module.

[0017] Compared with the prior art, the present application has the following beneficial effects:

[0018] Firstly, in the present application, microorganisms are sampled through data acquisition, the service terminal calculates and processes information through a central processing unit, sends instructions and controls the service terminal through the voice interaction function and the touch interaction function of the intelligent interaction machine, then sends the instruction information to the sensing module, turns on the intelligent lamp group included in the light and warning module to perform light work on the cultivated microorganisms, returns the cultivation information to the service terminal, the bioreactor included in the reaction module reacts the microorganisms, sends the information after the reaction to the data management for unified management, the feedback module samples data through water quality sampling, and finally the monitoring module monitors the reaction module, the pressure monitoring and the flow monitoring included in the monitoring module monitor the pressure and flow of the cultivation system, so as to realize the purpose of high-efficiency utilization of microorganisms.

[0019] Secondly, in the present application, the microorganisms are sampled and cultivated through the microorganism sampling system, the sampled and cultivated microorganism groups are irradiated through the light irradiation system to promote photosynthesis, the microorganism groups are stimulated to react through the feeding reaction system, the water quality is adjusted through the circulation system, and finally people get the cultivation results, and according to the cultivation results, the selection and cultivation are further optimized.

[0020] Thirdly, in the present application, the automatic feeding of photosynthetic microorganism strains and algal strains system: according to the detection results, various nutrient elements lacking in water are reasonably and effectively supplemented, photosynthetic microorganisms automatically perform photosynthesis to expand and produce various organic nutrients, and through the cooperation of the above technologies, the purpose of high-efficiency utilization of microorganisms is realized.

[0021] Fourthly, for the above system, because photosynthetic microorganisms and nutrients are involved, in order to improve the efficiency, a fence net needs to be arranged to properly constrain these substances and manage them in a semi-open manner. Suitable fry are also put into the fence to freely feed and avoid the entry of enemy organisms. BRIEF DESCRIPTION OF DRAWINGS

[0022] Fig. 1 It is a structural schematic diagram of a marine photosynthetic microorganism cultivation system.

[0023] Fig. 2 The figure is a schematic diagram of the microbial cultivation process in the present application.

[0024] Fig. 3 The figure is a schematic diagram of the microbial cultivation environment in the present application DETAILED DESCRIPTION

[0025] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0026] Please refer to Figs. 1-3 In the embodiments of the present application, a marine photosynthetic microorganism cultivation system comprises: data acquisition and intelligent microorganism sampling nutrition, an intelligent microorganism sampling nutrition and photosynthetic algal evaluation system, and a matched intelligent nutrition and algal species delivery system and material shortage reminding device. The output end of the data acquisition is unidirectionally electrically connected with a service terminal. The output end of the service terminal is bidirectionally electrically connected with a sensing module. The output end of the service terminal is bidirectionally electrically connected with a light and warning module. The output end of the service terminal is bidirectionally electrically connected with a reaction module. The output end of the reaction module is bidirectionally electrically connected with a power supply module. The output end of the reaction module is bidirectionally electrically connected with a feedback module. The output end of the feedback module is unidirectionally electrically connected with a controller module. The output end of the reaction module is bidirectionally electrically connected with a monitoring module. The output end of the microorganism sampling is unidirectionally electrically connected with a light system. The output end of the light system is unidirectionally electrically connected with a feeding reaction system. The output end of the feeding reaction system is unidirectionally electrically connected with a circulation system. The output end of the circulation system is unidirectionally electrically connected with a cultivation result.

[0027] In the present application, the microorganism is first sampled through data acquisition. The service terminal calculates and processes information through a central processor. The service terminal sends instructions and controls through the voice interaction function and touch interaction function of an intelligent interactive machine. Then the instruction information is sent to a sensing module. The intelligent lamp group included in the light and warning module is turned on to perform light work on the cultivated microorganism. The cultivation information is returned to the service terminal. The bioreactor included in the reaction module reacts the microorganism. The information after the reaction is sent to data management for unified management. The feedback module samples data through water quality sampling. Finally, the reaction module is monitored through the monitoring module. The pressure monitoring and flow monitoring included in the monitoring module monitor the pressure and flow of the cultivation system. Through the cooperation of the above technologies, the purpose of efficiently cultivating microorganisms is achieved.

[0028] Specifically, the data collection comprises data comparison, and the data collection further comprises data analysis, and the output ends of the data comparison and the data analysis are bidirectionally electrically connected with the service terminal.

[0029] Specifically, the service terminal comprises a central processing unit, and further comprises an intelligent interaction machine, and the intelligent interaction machine comprises voice interaction and touch interaction.

[0030] Specifically, the sensing module comprises a PH sensor, and further comprises an intelligent display screen, and the PH sensor and the intelligent display screen are bidirectionally electrically connected with the service terminal.

[0031] Specifically, the light and warning module comprises an intelligent lamp group, and further comprises a voltage stabilizing module, and the intelligent lamp group and the voltage stabilizing module are bidirectionally electrically connected with the service terminal.

[0032] Specifically, the reaction module comprises a biological reactor, and further comprises data management, and the biological reactor and the data management are bidirectionally electrically connected with the service terminal.

[0033] Specifically, the power supply module comprises a battery pack, and further comprises a solar photovoltaic, and the battery pack and the solar photovoltaic are bidirectionally electrically connected with the reaction module.

[0034] Specifically, the feedback module comprises data feedback, and further comprises water quality sampling, and the output ends of the data feedback and the water quality sampling are bidirectionally electrically connected with the feedback module.

[0035] Specifically, the control module comprises feedback control, and further comprises reaction control, and the output ends of the feedback control and the reaction control are unidirectionally electrically connected with the feedback module.

[0036] Specifically, the monitoring module comprises pressure monitoring, and further comprises flow monitoring, and the output ends of the pressure monitoring and the flow monitoring are unidirectionally electrically connected with the reaction module.

[0037] In the application, the microorganism is sampled and cultivated through the microorganism sampling system, the microorganism colony is irradiated through the light system to promote photosynthesis, the microorganism colony is stimulated to react through the feeding reaction system, the water quality is adjusted through the circulation system, and finally the cultivation result is obtained, and the cultivation result is further optimized and selected.

[0038] The working principle of the application is: first, the microorganisms are sampled through data acquisition, then the sampled data are collected through data acquisition, and the collected data are compared through data comparison, then the compared information is analyzed through data analysis, and after the data analysis, the information is sent to the service terminal, the service terminal calculates and processes the information through the central processor, people understand the specific data, send instructions and control the service terminal through the voice interaction function and touch interaction function of the intelligent interaction machine, then send the instruction information to the sensing module, the PH sensor in the sensing module is amplified and processed through the electronic circuit, finally outputs an electric signal corresponding to the PH value of the solution, and is displayed directly through the intelligent display screen, which is convenient for people to understand the cultivation process more directly, then the information is further sent to the light and warning module, the intelligent lamp group included in the light and warning module is started to illuminate the cultivated microorganisms, the intelligent lamp group can perform intelligent adaptive illumination to promote photosynthesis effect, and the power supply circuit of the intelligent lamp group is stabilized through the voltage stabilizing module, to prevent the intelligent lamp group from being unable to illuminate stably due to unstable power supply voltage, so as to return the cultivation information to the service terminal, then the service terminal sends the related information to the reaction module, the bioreactor included in the reaction module reacts the microorganisms, sends the information after the reaction to the data management for unified management, and the entire system is powered by the power supply module, meanwhile, the power supply module includes a battery pack, the battery pack can perform charging and discharging operation, and the battery pack is charged by solar photovoltaic during the day, to ensure the utilization of resources and the need of power supply, the sampled data are sent to the feedback module, the feedback module samples the data through water quality sampling, and feeds back the sampled information to the reaction module through data feedback, meanwhile, the feedback control of the control module controls and processes the feedback information, and reacts in time through reaction control, finally, the reaction module is monitored through the monitoring module, the pressure monitoring and flow monitoring included in the monitoring module monitor the pressure and flow of the cultivation system.

[0039] Marine cultivation of photosynthetic bacteria is a new type of feed farming method. This method uses naturally occurring photosynthetic bacteria in the ocean, which are expanded through specialized cultivation techniques, purified, and then used as feed for fish. Marine photosynthetic bacteria are a special type of bacteria that can synthesize organic matter through photosynthesis and release oxygen. These bacteria are widely distributed in seawater and can be found in relatively bright shallow water. They have a very fast growth and reproduction rate, making them suitable for use in aquaculture. There are several advantages to using marine photosynthetic bacteria to farm fish: 1. Environmental protection: Marine cultivation of photosynthetic bacteria does not require any chemicals or fertilizers, and does not pollute the water environment; 2. Economic: Because photosynthetic bacteria have a very high growth rate, only a small amount of cultivation substrate and light is needed to produce a large amount of feed; 3. Nutrition: Marine photosynthetic bacteria contain abundant protein, fat, carbohydrates, and various vitamins, which can meet the growth needs of fish; 4. Sustainability: Marine cultivation of photosynthetic bacteria can be carried out for a long time without affecting the marine ecological environment. However, there are also some problems with marine cultivation of photosynthetic bacteria to farm fish. First, the production cost of photosynthetic bacteria is high, requiring a large investment in equipment. Second, marine photosynthetic bacteria cultivation is still in the experimental research stage and requires a lot of time and effort for experimentation and improvement. Finally, due to limitations in knowledge and technology, the scale of cultivation is currently not large. In summary, marine cultivation of photosynthetic bacteria to farm fish is a potential feed farming method that may be more widely used and developed in the future.

[0040] Marine cultivation of photosynthetic fungi is a new technology in aquaculture that can improve the efficiency and quality of fish farming. Photosynthetic fungi are organisms that produce energy through photosynthesis, which converts water and carbon dioxide into organic matter, providing nutrients and energy for fish. In marine cultivation of photosynthetic fungi, the fungi are grown on solar panels underwater, where they perform photosynthesis under sunlight. This not only provides nutrients for fish but also converts some harmful substances in water into useful organic matter. Additionally, the growth of photosynthetic fungi increases the oxygen content of the water, keeping it clean. When farming fish, it is necessary to choose fish species that are suitable for the growth of photosynthetic fungi, such as grass carp, crucian carp, and yellowfin tuna. These fish are beneficial to the growth of photosynthetic fungi and can better utilize the nutrients provided by them. It is also necessary to ensure that the water quality and temperature are suitable for the growth of photosynthetic fungi. The benefits of marine cultivation of photosynthetic fungi not only lie in improving the efficiency and quality of fish farming, but also in environmental protection and sustainability. By utilizing the growth of photosynthetic fungi, the use of feed can be reduced, and the emission of pollutants during farming can be decreased. This not only protects the marine ecological environment but also reduces the cost of farming and increases profits. In summary, marine cultivation of photosynthetic fungi is a very promising technology in aquaculture that can improve the efficiency and quality of fish farming while promoting environmental protection and sustainability. With the advancement of technology and its widespread application, it is believed that it will be widely used and developed in the future. Marine cultivation of photosynthetic algae is a new technology in aquaculture that can improve the growth rate and health level of fish. Photosynthetic algae are organisms that can produce energy through photosynthesis, providing nutrients and oxygen for fish and converting harmful substances in wastewater into useful organic matter. In marine cultivation of photosynthetic algae, copper or plastic plates are usually used as planting plates, and algae are planted on their surfaces. Under sufficient sunlight, algae can perform photosynthesis, converting carbon dioxide and water into organic matter and oxygen, effectively cleaning the water quality. When farming fish, it is necessary to choose fish species that are suitable for the growth of photosynthetic algae, such as sea bass and seafood. These fish are beneficial to the growth of photosynthetic algae and can better utilize the nutrients provided by them. It is also necessary to clean excessive algae in time to prevent the overgrowth of algae from negatively affecting water quality.

[0041] The advantages of marine cultivation of photosynthetic algae not only lie in improving the efficiency and quality of fish farming, but also in environmental protection and sustainability. By utilizing the growth of photosynthetic algae, the use of feed can be reduced, and the emission of pollutants during farming can be decreased. This not only protects the marine ecological environment but also reduces the cost of farming and increases profits. In summary, marine cultivation of photosynthetic algae is a very effective technology in aquaculture that can improve the efficiency and quality of fish farming while promoting environmental protection and sustainability. With the continuous progress and popularization of technology, it is believed that it will be increasingly widely applied and developed in the future.

[0042] Marine cultivation of photosynthetic bacteria is a new method of feed farming. This method uses naturally occurring photosynthetic bacteria in the ocean, which are then expanded and purified through specialized cultivation techniques, and then used as feed for fish. Marine photosynthetic bacteria are a special type of bacteria that can synthesize organic matter through photosynthesis and release oxygen. These bacteria are widely distributed in seawater and can be found in shallow water where the light is brighter. They have a very fast growth and reproduction rate, making them suitable for aquaculture. Marine cultivation of photosynthetic fungi is a new technology in aquaculture that can improve the efficiency and quality of fish farming. Photosynthetic fungi are organisms that can produce energy through photosynthesis, converting water and carbon dioxide into organic matter using sunlight. This provides nutrients and energy for fish. In marine cultivation of photosynthetic fungi, the fungi are grown on solar panels underwater, where they perform photosynthesis under sunlight. This not only provides nutrients for fish, but also converts some harmful substances in the water into useful organic matter. At the same time, the growth of photosynthetic fungi can increase the oxygen content of the water, keeping the water clean. When breeding fish, it is necessary to choose fish species that are suitable for the growth of photosynthetic fungi, such as grass carp, crucian carp, yellowfin tuna, etc. These fish are beneficial to the growth of photosynthetic fungi and can better utilize the nutrients provided by them. At the same time, it is necessary to ensure that the water quality and temperature are suitable to ensure that photosynthetic fungi can grow fully. The benefits of marine cultivation of photosynthetic fungi not only improve the efficiency and quality of fish farming, but also protect the environment and are sustainable. By using photosynthetic fungi to grow, the use of feed can be reduced, and the emission of pollutants during breeding can be reduced. This not only protects the marine ecological environment, but also reduces breeding costs and increases profits.

[0043] In addition, it should be understood that although the present specification is described in terms of embodiments, not every embodiment contains only one independent technical solution, and the description of the specification is only for clarity. The skilled person should consider the specification as a whole, and the technical solutions in each embodiment can be appropriately combined to form other embodiments that the skilled person can understand.

Claims

1. A marine photosynthetic microorganism cultivation system, characterized by, The application relates to an intelligent nutrient and microorganism sampling system, an intelligent nutrient and photosynthetic alga evaluation system, and a matched intelligent nutrient and alga species feeding system and material shortage reminding device. The data acquisition comprises data comparison and data analysis, and the output ends of the data comparison and data analysis are bidirectionally connected with the service terminal.

2. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The service terminal comprises a central processor and an intelligent interaction machine, and the intelligent interaction machine comprises voice interaction and touch interaction.

3. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The sensing module comprises a PH sensor and an intelligent display screen, and the PH sensor and the intelligent display screen are bidirectionally connected with the service terminal.

4. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The illumination and warning module comprises an intelligent lamp group and a voltage stabilizing module, and the intelligent lamp group and the voltage stabilizing module are bidirectionally connected with the service terminal.

5. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The reaction module comprises a bioreactor and data management, and the bioreactor and the data management are bidirectionally connected with the service terminal.

6. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The power supply module comprises a battery pack and a solar photovoltaic device, and the battery pack and the solar photovoltaic device are bidirectionally connected with the reaction module.

7. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The feedback module comprises data feedback and water quality sampling, and the output ends of the data feedback and the water quality sampling are bidirectionally connected with the feedback module.

8. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The control module comprises feedback control and reaction control, and the output ends of the feedback control and the reaction control are unidirectionally connected with the feedback module.

9. The marine photosynthetic microorganism cultivation system according to claim 1, wherein The monitoring module comprises pressure monitoring and flow monitoring, and the output ends of the pressure monitoring and the flow monitoring are unidirectionally connected with the reaction module.

10. The marine photosynthetic microorganism cultivation system according to claim 1, wherein ​

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