An intelligent factory-based aquaculture ecological breeding system

Abstract

The embodiment of the present invention provides an intelligent factory-scale aquatic ecological breeding system, including several main breeding ponds and more than two auxiliary breeding ponds; the main breeding ponds are used to breed main animals and algae plants, and the main breeding ponds are connected to the auxiliary breeding ponds through a particle filtering device to filter the particles generated in the main breeding ponds and then transport them to the auxiliary breeding ponds; the auxiliary breeding ponds are used to breed auxiliary animals that eat particles, and the auxiliary breeding ponds are connected to an external collection device through a feces filtering device to centrally process the feces generated in the auxiliary breeding ponds to obtain organic fertilizer. The present invention can make full use of ecological principles, use nutrients dissolved in water as a source of nutrition for other organisms, realize the recycling of nutrients, effectively reduce feed resource waste, and achieve zero discharge of pollutants.

Description

Technical Field

[0001] The present invention relates to the technical field of aquaculture, and in particular to an intelligent factory-based aquaculture ecological breeding system. Background Art

[0002] Factory aquaculture has the characteristics of small space occupation, high breeding density, intelligent control, high efficiency and water saving, few diseases, high yield, good product quality, and ecological and environmental protection. Therefore, the development of factory aquaculture is a general trend and the best way to get rid of traditional extensive management methods and resource dependence. By the end of 2017, the area of ​​factory aquaculture in my country reached 70 million square meters, and the total output reached 429,000 tons. Although my country's factory aquaculture area and output are among the highest in the world, most of my country's factory aquaculture models are currently based on flow aquaculture and semi-closed recirculating aquaculture, and the proportion of closed recirculating aquaculture models is still very small, and closed recirculating aquaculture also needs to be filtered to achieve water purification.

[0003] Since aquatic animals live in water, only a portion of the feed is ingested by the animals, and the remaining food dissolves in the water, which not only causes a waste of feed, but also pollutes the water. At the same time, the feces of aquatic animals are also excreted in the water, which together with the residual bait aggravates water pollution. For example, in the process of shrimp farming, only 75% of the feed is ingested, and the remaining residual bait dissolves and is lost in the water. At the same time, about 27% of feces (dry weight), 25% of suspended particles and 1% of ammonia nitrogen are produced, and only 24% of the feed nitrogen is converted into farmed shrimp production. In 2018, the total output of aquatic feed in my country was 22.11 million tons, of which about 1.6 million tons were shrimp feed, and 400,000 tons were directly lost in the water. It can be seen that how to make full use of ecological principles, use nutrients dissolved in water as a source of nutrition for other organisms, and realize the recycling of nutrients through the symbiotic system of fish, shrimp and algae to reduce

[0004] Feed resource waste and zero pollutant emissions are technical problems that urgently need to be solved in factory aquaculture, and will also promote technological and model innovation in my country's blue granary. Summary of the invention

[0005] In view of this, an embodiment of the present invention provides an intelligent factory-scale aquatic ecological breeding system to solve the above technical problems.

[0006] To achieve the above technical objectives, an embodiment of the present invention provides an intelligent factory-scale aquatic ecological breeding system, which is improved in that it includes several main breeding ponds and one or more auxiliary breeding ponds; the main breeding ponds are used to breed main animals and algae plants, and the main breeding ponds are connected to the auxiliary breeding ponds through a particle filtering device to filter the particles generated in the main breeding ponds and transport them to the auxiliary breeding ponds; the auxiliary breeding ponds are used to breed auxiliary animals that eat particles, and the auxiliary breeding ponds are connected to an external collection device through a feces filtering device to centrally process the feces generated in the auxiliary breeding ponds to obtain organic fertilizer.

[0007] Due to the adoption of the above technical solution, the present invention has the following advantages compared with the prior art:

[0008] The present invention can make full use of ecological principles by specifically setting up the main culture pond and the auxiliary culture pond, use the nutrients dissolved in the water as the nutrient source of other organisms, realize the recycling of nutrients through the symbiotic system of fish, shrimp and algae, effectively reduce the waste of feed resources, and achieve zero discharge of pollutants.

[0009] The invention has a high degree of intelligence, less waste of feed resources, and zero discharge of pollutants, and can be widely used in the field of aquaculture technology to achieve offshore, circulating water utilization, high-yield, intelligent, ecological, and factory-based aquaculture. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 It is a layout diagram of one embodiment of the intelligent factory-scale aquatic ecological breeding system of the present invention;

[0011] Figure 2 This is a control principle diagram of one embodiment of the intelligent factory-scale aquatic ecological breeding system of the present invention;

[0012] Figure 3 It is a structural schematic diagram of the sun room of the intelligent factory-scale aquatic ecological breeding system of the present invention. DETAILED DESCRIPTION

[0013] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the embodiments and the accompanying drawings. Here, the illustrative embodiments of the present invention and their descriptions are used to explain the present invention, but are not intended to limit the present invention.

[0014] like Figures 1 to 3As shown, an embodiment of the present invention provides an intelligent factory-scale aquatic ecological breeding system, including a plurality of main breeding pools 1 and more than two auxiliary breeding pools 2, and a water storage pool 4 and a circulation pool 6 are also provided; usually, 7 to 18 main breeding pools 1, more than 2 auxiliary breeding pools 2, more than one water storage pool 4 and more than one circulation pool 6 can be provided; in this embodiment, there are 7 main breeding pools 1 and 2 auxiliary breeding pools 2, but it is not limited thereto, and it can be provided as needed when it is used specifically;

[0015] The main culture pond 1 is used for breeding main animals and algae plants. The main culture pond 1 is connected to the auxiliary culture pond 2 through a particle filtering device 3, so that the excrement and metabolites produced in the main culture pond can be decomposed into flocs and granular substances by microorganisms in the main culture pond, and transported to the auxiliary culture pond through the filtering device; the auxiliary culture pond 2 is used for breeding auxiliary animals that eat granular matter. The auxiliary culture pond 2 is connected to an external collection device through a feces filtering device, so that the feces produced in the auxiliary culture pond 2 can be centrally processed to obtain organic fertilizer.

[0016] A preferred technical solution: the auxiliary breeding pond includes a first auxiliary breeding pond and a second auxiliary breeding pond connected together; the two auxiliary breeding ponds culture different species: the first auxiliary breeding pond is used to culture phagocytic fish that feed on debris, and the second auxiliary breeding pond is used to culture filter-feeding fish that feed on microorganisms as auxiliary animals.

[0017] The particles filtered out of the main culture tank are transported to the first auxiliary culture tank for the phagocytic fish to eat; the excrement produced after eating is decomposed, reduced and assimilated by the beneficial animal and plant microorganisms in this tank to denature the substances, and then flows into the second auxiliary culture tank with water under the action of natural water pressure for the filter-feeding fish to eat; after the filter-feeding fish eat the above substances, the excrement produced is decomposed, reduced and assimilated by the beneficial animal and plant microorganisms in this tank to denature the substances, and then flows into the circulation tank with water under the action of natural water pressure; after being decomposed, reduced and assimilated by the beneficial animal and plant microorganisms in the circulation tank, the substances are denatured for the second time and can be used as auxiliary feed for the farmed animals in the main culture tank. The water reservoir is used to store water to supplement the water consumed by the farming system; the circulation tank is connected to the main culture tank through a particle filter device, and the water and excrement in the main culture tank pass through the particle filter device with water under mechanical action; the water returns to the circulation tank, and the filtered particles are transported to the second auxiliary culture tank.

[0018] When in use, the main animals cultured in the main culture pond 1 can be species with good local sales effect and high economic value, such as white shrimp, golden pomfret and other precious pure freshwater or seawater shrimps and fish; it can also be used as a variety of precious pure freshwater and seawater seedlings to cultivate a rough intelligent zero-emission environmental protection facility. Special feed and special microecological preparations are added to the main culture pond 1 regularly, and soluble organic matter in the water body is decomposed and treated by bacteria as a nutrient source for algae plants, and the algae plants become the food of the main animals. In this way, the organic matter, bacteria, algae and main animals dissolved in the water reach a dynamic equilibrium state due to the relationship of the food chain, forming a breeding mode with algae and bacteria, creating a bacterial-algae balance in the water body of the entire breeding system, strengthening the population of micro-animals and micro-plants, and the powerful micro-animals and micro-plants orderly decompose, reduce and assimilate the excrement and metabolites of the water body of the entire breeding system into amino acids, polysaccharides, bacterial-algae proteins, etc., to achieve the purpose of high yield and zero discharge of pollutants.

[0019] The auxiliary breeding pond 2 is used to breed phagocytic fish and filter-feeding fish that eat particles as auxiliary animals, wherein the particles include bait residues and feces filtered out of the main breeding pond 1. The auxiliary animals can be selected from animals that are high-density bred, have a large food intake, a variety of diets, and strong tolerance. In this embodiment, mullet, basa fish, black mullet, silver carp, etc. are selected; the type of auxiliary animal can be determined based on whether the main aquatic animal is saltwater or pure freshwater. After the feces and sewage produced by the auxiliary animals are concentrated in the collection device, microecological preparations can be added to the collection device to obtain organic fertilizer.

[0020] Specifically, the main breeding pond 1 adopts a phased continuous breeding method according to the selected aquatic animal breeding cycle, that is, the main breeding pond 1 is divided into 3 to 6 breeding stages. For example, the main breeding pond 1 is set with 3 breeding stages, namely: 1 seedling pond, 2 growth ponds, and 4 rearing ponds, and the breeding time of each stage is 1 month.

[0021] After the animals in one nursery pond have been raised for 2 months, they are divided into 2 growing ponds for further breeding. After another 2 months, when the growth stage is completed, the animals in the growing pond are divided into 4 rearing ponds. After another 2 months, they meet the standards for listing and the animals in the rearing ponds are caught and sold.

[0022] When the nursery, growing and finishing ponds are emptied, new animals are immediately added, thus achieving phased cycle farming.

[0023] Obviously, through the above settings, we can make full use of ecological principles, use the nutrients dissolved in water as a source of nutrition for other organisms, realize the recycling of nutrients, effectively reduce the waste of feed resources, and achieve zero pollutant emissions.

[0024] In some embodiments, the water inlets of the main culture tank 1 and the auxiliary culture tank 2 are connected to the water outlet of the water reservoir 4 to obtain fresh water from the water reservoir 4. The water inlet of the water reservoir 4 is used to connect to the water source 5. The water outlets of the main culture tank 1 and the auxiliary culture tank 2 are connected to the water inlet of the circulation tank 6 through the particle filter device 3. The water outlet of the circulation tank 6 is connected to the water inlet of the main culture tank 1 to recycle the water.

[0025] In one embodiment, the main culture tank 1, the water storage tank 4 and the circulation tank 6 are all provided with a water level control device 7, so as to control the start and stop of water replenishment through the water level control device 7, specifically:

[0026] When the water level of the water reservoir 4 is lower than the set height, the water level control device 7 controls the water from the water source 5 to automatically replenish the water reservoir 4; when the water levels of the main breeding pool 1 and the circulation pool 6 are lower than the set height, the water level control device 7 controls the water in the water reservoir 4 to automatically replenish the water to the main breeding pool 1 and the circulation pool 6, and when the water level of the corresponding pool reaches the set height, the water level control device 7 controls the water replenishment to stop automatically.

[0027] In this embodiment, one water storage tank 4 and one circulation tank 6 are provided, but the invention is not limited thereto and they can be provided as required in actual use.

[0028] Specifically, the main culture pool 1, the auxiliary culture pool 2, the water storage pool 4 and the circulation pool 6 are all made of PC transparent material to facilitate obtaining sufficient sunlight, but are not limited to this PE transparent material, and can also be a cement pool or the like.

[0029] In some embodiments, the main culture tank 1 , the auxiliary culture tank 2 , the water storage tank 4 and the circulation tank 6 are all arranged in the sun room 8 .

[0030] In one embodiment, the sun room 8 includes a roof, a wall, a door and a swing window. The bottom surface of the roof is circumferentially fixedly connected to the wall, and the door and the swing window are arranged on the wall.

[0031] In this embodiment, the walls, doors and windows are all made of PC transparent sunlight panels, and the roof is made of PC transparent sunlight panels and colored tiles.

[0032] Specifically, vents and ventilation fans are also provided on the roof.

[0033] More specifically, the sun room 8 is supported by a metal frame.

[0034] Since the present invention adopts a breeding mode with algae and bacteria, and allows algae and bacteria to participate in material circulation, degrade and transform pollutants in water, and algae and some bacteria need to use sunlight, and sufficient sunlight is also beneficial to the health and growth of aquatic animals, the present invention sets the above-mentioned sun room 8 to achieve the following functions:

[0035] 1. Shelter from wind and rain to resist the influence of weather changes;

[0036] 2. The design of transparent sunlight panels can ensure sufficient sunlight;

[0037] 3. The transparent sun panels on the roof are matched with colored tiles to prevent sunburn while ensuring sufficient sunlight;

[0038] 4. Use windows, roof vents and ventilation fans to ensure air circulation, expel harmful gases in a timely manner, and adjust the indoor temperature by opening and closing at the right time.

[0039] In some embodiments, a track is provided above the main culture pond 1, and an automatic feeding machine is provided on the track, so that the automatic feeding machine automatically feeds bait to the feeding table on time and in quantity according to set feeding parameters along the track.

[0040] In one embodiment, a monitoring device is provided at the feeding table to obtain information on the remaining bait through the monitoring device, and the feeding parameters of the automatic feeding machine are adjusted according to the information on the remaining bait to achieve accurate feeding and further reduce waste.

[0041] In some embodiments, the main breeding pool 1 and the auxiliary breeding pool 2 are connected to an oxygen supply system 9 to provide sufficient oxygen to the animals in the main breeding pool 1 and the auxiliary breeding pool 2 through the oxygen supply system 9 .

[0042] In some embodiments, the oxygen supply system 9 includes an aerator 91, a pure oxygen generator 92 and a dissolved oxygen concentration monitoring device 93. The dissolved oxygen concentration monitoring device 93 monitors the dissolved oxygen concentration in the main culture tank 1 and the auxiliary culture tank 2 in real time, and turns on or off the pure oxygen generator 92 according to the dissolved oxygen concentration. Specifically:

[0043] The aerator 91 is set to oxygenate the main culture pool 1 and the auxiliary culture pool 2 continuously for 24 hours. The dissolved oxygen concentration monitoring device 93 monitors the dissolved oxygen concentration in the main culture pool 1 and the auxiliary culture pool 2 in real time. When the dissolved oxygen concentration in the water body of the main culture pool 1 or the auxiliary culture pool 2 is lower than the set value, the pure oxygen generator 92 is started to oxygenate the corresponding pool through the dissolved oxygen cone 94. When the dissolved oxygen concentration in the water body of the corresponding pool reaches the set value, the pure oxygen generator 92 automatically stops working.

[0044] In some embodiments, the main breeding pool 1 and the auxiliary breeding pool 2 are connected to a temperature control system 10 so as to provide suitable temperatures for the animals in the main breeding pool 1 and the auxiliary breeding pool 2 through the temperature control system 10 .

[0045] In one embodiment, the temperature control system 10 includes an air-energy water heater 101 and a temperature monitoring device 102. The air-energy water heater 101 is arranged in the circulation pool 6, and the temperature monitoring device 102 is arranged in the main culture pool 1 and the auxiliary culture pool 2 to monitor the water temperature in the main culture pool 1 and the auxiliary culture pool 2 in real time. When used specifically:

[0046] When the temperature monitoring device 102 detects that the water temperature in the main culture tank 1 or the auxiliary culture tank 2 is lower than the set temperature, the air energy water heater 101 is automatically started to heat the water in the circulation tank 6, so that the water in the main culture tank 1 or the auxiliary culture tank 2 is heated through the circulation tank 6. When the temperature monitoring device 102 detects that the water temperature in the main culture tank 1 or the auxiliary culture tank 2 reaches the set temperature, the air energy water heater 101 automatically stops working.

[0047] In this embodiment, the water temperature of the main culture pond 1 and the auxiliary culture pond 2 is controlled at 28±1°C.

[0048] In some embodiments, a lighting system is provided above the main culture pond 1 and the auxiliary culture pond 2 to provide light when necessary.

[0049] In one embodiment, the lighting system includes a switch box and LED lamps, and the LED lamps are suspended above the main culture pond 1 and the auxiliary culture pond 2.

[0050] In some embodiments, an ammonia nitrogen sensor 11 is installed in the main culture pond 1 and the auxiliary culture pond 2 to monitor the ammonia nitrogen index data in real time through the ammonia nitrogen sensor 11, so as to make it meet the requirements of factory farming.

[0051] In some embodiments, pH sensors are provided in the main culture pond 1 and the auxiliary culture pond 2 to monitor pH index data in real time through the pH sensors, thereby making them meet the requirements of factory farming.

[0052] In some embodiments, each corresponding electrical device is electrically connected to the control cabinet 12 .

[0053] In some embodiments, the particle filtering device 3 may be a microfilter.

[0054] Based on the above configuration, the intelligent factory-scale aquatic ecological breeding system of the present invention has the following advantages:

[0055] 1. Based on intelligent control: The present invention realizes the stability of equipment operation and breeding environment by setting up water recycling, temperature control, oxygen supply control, automatic feeding, microbial balance and water quality control, excrement filtration and treatment, Internet of Things and monitoring, and intelligent control of lighting systems, so as to completely free aquaculture from the influence of factors such as extreme weather, reduce breeding risks, and is an important guarantee for high-yield and efficient factory production.

[0056] 2. Breakthrough in offshore inland aquaculture: The present invention realizes the recycling of aquaculture water through water quality control. It only needs to replenish the water consumed by factors such as evaporation. The water consumption is small, and offshore inland aquaculture can be realized to ensure the success rate of aquaculture in inland areas, so that inland areas can eat fresh aquatic products. The aquaculture water can be underground well water, and the sea, rivers, lakes and lakes can also be used as water sources5.

[0057] 3. Ecological balance is the key: The breeding model with algae and bacteria is the biggest breakthrough and progress of the present invention compared with the current similar factory breeding facilities, and it is also the key to achieving ecological balance and breeding success rate. That is, through the scientific matching of the main and auxiliary animal species and the use of microbial preparations, the tangible parts of the leftover bait and feces of the main animals are used as food for the auxiliary animals, and the nutrients dissolved in the water are used as nutrition for microorganisms and algae, achieving the balance of nutrient input, output, synthesis and decomposition, and achieving water quality stability and ecological balance in the breeding system.

[0058] 4. Characterized by unique factory farming: The present invention realizes a production model that is completely different from the usual aquaculture through factory facilities and standardized processes. Since agricultural production has a long production cycle, the harvest is often once or several times a year. However, the present invention realizes completely factory-based continuous production and harvesting. Taking white shrimp as an example, one farming system can guarantee the harvest of one batch of shrimp per month and 12 batches of shrimp throughout the year (the current winter shed farming model can reach a maximum of 4 batches). If a shrimp factory with 30 farming systems is built, it can be chosen according to the actual situation to harvest one batch of shrimp every day or every few days, which completely subverts the traditional shrimp farming model.

[0059] 5. High yield and high efficiency, breaking through the industry limit: The present invention adopts a staged continuous breeding mode, making full use of the space of the breeding system, and the output can reach more than 20 times the conventional production, and ensures a 100% breeding success rate. Taking white shrimp as an example, under the conventional breeding mode, the output of each crop of shrimp per acre of shrimp pond is only 400-500 kilograms, and only 2-3 crops can be produced a year, and the success rate is currently only 20-30%. If the technology of the present invention is used to build a 330-square-meter breeding system, it can achieve the production of 1 batch of shrimp per month, with a monthly output of 912 kilograms, 12 batches produced throughout the year, and an annual output of up to 10,944 kilograms, and a success rate of up to 100%.

[0060] 6. Special feed and microecological preparations are guarantees: According to the characteristics of the breeding system of the present invention and the requirements of high yield and high efficiency, special feed and microecological preparations are provided to maximize the production performance of farmed animals and the nutritional value of feed, ensure the balance between farmed animals and algae and microorganisms in the system, and the steady state of breeding water, which is an important guarantee for achieving high yield, high efficiency and high success rate.

[0061] 7. Ecological, environmentally friendly and pollution-free: The present invention is guided by ecological theory and, on the basis of the recycling of water, realizes the multi-level recycling of nutrients through the material circulation mode of "bait-main animal-microorganism-algae-main animal-auxiliary animal", ensuring that there are no pollutants and sewage discharge.

[0062] 8. Green, safe and without drug residues: Since the present invention is a breeding model with algae and bacteria, if antibiotics and chemical agents are added during the breeding process, the ecological balance in the breeding unit will be destroyed, causing system paralysis and breeding failure. Therefore, the breeding process of the present invention does not add antibiotics and chemical agents, ensuring that the aquatic products are green, safe and without drug residues.

[0063] Obviously, those skilled in the art should understand that the modules or steps of the above-mentioned embodiments of the present invention can be implemented by a general computing device, they can be concentrated on a single computing device, or distributed on a network composed of multiple computing devices, and optionally, they can be implemented by a program code executable by a computing device, so that they can be stored in a storage device and executed by the computing device, and in some cases, the steps shown or described can be executed in a different order from that here, or they can be made into individual integrated circuit modules, or multiple modules or steps therein can be made into a single integrated circuit module for implementation. In this way, the embodiments of the present invention are not limited to any specific combination of hardware and software.

[0064] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the embodiments of the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An intelligent factory-scale aquatic ecological breeding system, characterized in that: It includes several main culture ponds and two auxiliary culture ponds; The main culture pond is used to culture main animals and algae plants, and the main culture pond is connected to the auxiliary culture pond through a particle filtering device to filter the particles generated in the main culture pond and then transport them to the auxiliary culture pond; The main culture pond is also used to receive special feed and special microecological preparations added at regular intervals, and utilizes bacteria to decompose soluble organic matter in the water as a nutrient source for algae plants, which in turn become food for the main cultured animals; The auxiliary breeding pool is used to breed auxiliary animals that eat pellets. The auxiliary breeding pool is connected to an external collection device through a feces and sewage filtering device to centrally process the feces and sewage generated in the auxiliary breeding pool to obtain organic fertilizer. Wherein, the auxiliary culture pond comprises a first auxiliary culture pond and a second auxiliary culture pond connected together; the two auxiliary culture ponds culture different species, the first auxiliary culture pond is used to culture swallowing fish that feed on debris, and the second auxiliary culture pond is used to culture filter-feeding fish that feed on microorganisms; The water inlets of the main culture pool and the auxiliary culture pool are connected to the water outlet of the reservoir, the water inlet of the reservoir is used to connect to a water source, the water outlets of the main culture pool and the auxiliary culture pool are connected to the water inlet of the circulation pool, and the water outlet of the circulation pool is connected to the water inlet of the main culture pool; The main culture pool, the auxiliary culture pool, the water storage pool and the circulation pool are all arranged in a sun room.

2. According to claim 1, the intelligent factory-scale aquatic ecological breeding system is characterized in that: The main culture tank, the water storage tank and the circulation tank are all provided with water level control devices, so as to control the start and stop of water replenishment through the water level control devices.

3. According to claim 1, the intelligent factory-scale aquatic ecological breeding system is characterized in that: A track is arranged above the main culture pond, and an automatic feeding machine is arranged on the track, so that the automatic feeding machine can automatically feed bait to the feeding table on time and in quantity according to set feeding parameters along the track.

4. According to claim 3, the intelligent factory-scale aquatic ecological breeding system is characterized in that: A monitoring device is arranged at the feeding table to obtain information on the remaining bait through the monitoring device, and to adjust the feeding parameters of the automatic feeding machine according to the information on the remaining bait.

5. According to claim 1, the intelligent factory-scale aquatic ecological breeding system is characterized in that: The main breeding pool and the auxiliary breeding pool are connected to an oxygen supply system so as to provide sufficient oxygen to the animals in the main breeding pool and the auxiliary breeding pool through the oxygen supply system.

6. According to claim 5, the intelligent factory-scale aquatic ecological breeding system is characterized in that: The oxygen supply system includes an aerator, a pure oxygen generator and a dissolved oxygen concentration monitoring device. The dissolved oxygen concentration monitoring device monitors the dissolved oxygen concentration in the main culture tank and the auxiliary culture tank in real time, and turns on or off the pure oxygen generator according to the dissolved oxygen concentration.

7. The intelligent factory-scale aquatic ecological breeding system according to claim 1 is characterized in that: The main breeding pool and the auxiliary breeding pool are connected to a temperature control system so as to provide suitable temperature for the animals in the main breeding pool and the auxiliary breeding pool through the temperature control system.

8. The intelligent factory-scale aquatic ecological breeding system according to claim 1 is characterized in that: A lighting system is arranged above the main culture pond and the auxiliary culture pond.

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