Indoor culture device for sargassum fusiforme frond and fertilized eggs

Abstract

The utility model discloses an indoor culture device for sargassum fusiforme frond and fertilized ova, which comprises a culture container and an auxiliary device, the auxiliary device comprises a water supply pump, an oxygenation pump and an intelligent controller, the intelligent controller sets and controls the start and stop of the oxygenation pump and the water supply pump through a built-in program, and the culture container comprises a culture bottle and a culture frame. The culture bottle is also provided with a hollow glass tube, the hollow glass tube is obliquely inserted relative to the culture bottle, one end of the hollow glass tube outside the culture bottle is connected with an air pipe and an oxygenation pump, the wall of the culture frame is provided with an overflow hole with a water outlet pipe and a water inlet hole with a water inlet pipe, and the water inlet hole is higher than the water level of the culture frame; the culture device can be provided with a water supply system and an air supply system which are intelligently controlled in a matched mode to achieve water circulation and water liquid automatic adjustment in the culture container, and suspension culture of sargassum fusiforme fertilized eggs and static flow culture of algae can be conducted through the culture container. And an artificial intelligence controller is combined to realize the use requirement of indoor scientific culture.

Description

Technical Field

[0001] This utility model relates to the field of artificial intelligence aquaculture device technology, specifically to an indoor culture device for Sargassum fusiforme thallus and fertilized eggs. Background Technology

[0002] Artificial climate chambers provide and control the essential elements for plant growth: temperature, humidity, light, and nutrients. Currently, the main approach involves setting up controllable climate chambers to artificially replace the natural environment. Specifically, in these artificial climate chambers, plants are typically cultivated and grown in various culture containers on different shelves. For example, in the indoor cultivation of Sargassum fusiforme, fertilized eggs and young sporophytes can be cultivated indoors. Combined with automated control using artificial intelligence, large-scale, scientific cultivation can be carried out automatically to optimize indoor plant strains. Therefore, a cultivation device that integrates scientific artificial cultivation is particularly important. Utility Model Content

[0003] The purpose of this invention is to provide a culture device component of an artificial intelligence-controlled indoor culture system, which includes an intelligent auxiliary device to control the working components of the culture container, enabling the suspension culture of Sargassum fusiforme fertilized eggs and the static flow culture of algae.

[0004] The technical solution adopted in this utility model is as follows: an indoor culture device for Sargassum fusiforme thallus and fertilized eggs, including a culture container and an auxiliary device. The auxiliary device includes a water supply pump, an oxygenation pump, and an intelligent controller. The intelligent controller controls the start and stop of the oxygenation pump and the water supply pump through a built-in program. The culture container includes a culture bottle and a culture frame. The culture bottle is also provided with a hollow glass tube. The hollow glass tube is inserted at an angle relative to the culture bottle. One end of the hollow glass tube is connected to an air pipe and connected to the oxygenation pump. The culture frame wall is provided with an overflow hole with an outlet pipe and a water inlet hole with an inlet pipe. The water inlet hole is set higher than the water level of the culture frame.

[0005] As a further feature of the above scheme, the water supply pump is a peristaltic pump, and the other end of the water inlet pipe is connected to the water outlet of the peristaltic pump.

[0006] As a further feature of the above scheme, it also includes a seawater tank, with several similar culture frames connected to the same seawater tank. The air outlet of the oxygenation pump is connected to an air outlet pipe that extends into the seawater tank to aerate and oxygenate the culture seawater in the seawater tank. The water supply pump's water intake pipe extends into the seawater tank, and the overflow hole is connected to an outlet pipe that is connected to the seawater tank to return the seawater overflowing from the culture frames to the seawater tank.

[0007] As a further feature of the above scheme, the air tube of the hollow glass tube is equipped with an air volume control valve, which is used to control the air intake. The end of the hollow glass tube is inclined to the bottom of the culture bottle. The oxygen pump supplies air through the hollow glass tube to create a vortex in the culture seawater inside the culture bottle, which then stirs up the sediment at the bottom of the bottle.

[0008] As a further feature of the above scheme, the number of overflow holes and the total outflow are greater than the number of inlet holes.

[0009] As a further feature of the above scheme, the intelligent controller is equipped with several sensors that extend into the culture container. The sensors are used to send feedback signals to the intelligent controller to control the operation of the auxiliary device.

[0010] Beneficial Effects: The cultivation device of this utility model achieves water circulation and water liquid regulation within the cultivation container through the intelligent control of water and air supply systems. The cultivation container used in this embodiment can also effectively improve the survival rate of Sargassum fusiforme fertilized eggs and avoid the influence of water flow on algal attachment. In this embodiment, a hollow glass tube is inserted into the cultivation bottle. Driven by airflow, it not only increases the oxygen content in the water but also uses the airflow to form a vortex within the bottle, which lifts up the fertilized eggs that have sunk to the bottom, thereby improving the survival rate of the fertilized eggs. In addition, the component of the cultivation frame with a seawater tank avoids the turbulence aroused during oxygenation from affecting the growth and attachment of the cultivated algae, while also achieving water circulation and oxygenation, meeting the usage requirements of intelligent indoor scientific cultivation devices. Attached Figure Description

[0011] Figure 1 This is a component of the indoor culture device of this utility model.

[0012] Figure 2 This is a schematic diagram showing the combination of the culture flask and auxiliary device in this embodiment.

[0013] Figure 3 This is a schematic diagram illustrating the use of the culture frame and auxiliary device in this embodiment.

[0014] Reference numerals: 1. Culture container; 11. Culture flask; 111. Hollow glass tube; 12. Culture frame; 121. Water outlet pipe; 122. Overflow hole; 123. Water inlet pipe; 124. Water inlet hole; 125. Air outlet pipe; 126. Water intake pipe; 2. Auxiliary device; 21. Water supply pump; 22. Oxygenation pump; 3. Seawater tank. Detailed Implementation

[0015] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, where there is no conflict, the embodiments and features described in these embodiments can be combined with each other.

[0016] like Figure 1-3 The artificial intelligence indoor culture device component of this utility model is shown. The main body of the culture device component in this embodiment includes a culture container 1 and an auxiliary device 2. The auxiliary device 2 includes a water supply pump 21, an oxygenation pump 22, and an intelligent controller for supplying water to the culture container 1 and increasing dissolved oxygen in the water. The water supply pump 21 is a peristaltic pump. The other end of the water inlet pipe 123 is connected to the water outlet of the peristaltic pump. The intelligent controller in this embodiment is set by a preset built-in program to at least realize the timed start and stop of the oxygenation pump 22 and the water supply pump 21. The water supply pump 21 and the oxygenation pump 22 are turned on by the timed program of the intelligent controller to perform regular water replacement and oxygenation to maintain the dissolved oxygen and flow of the water.

[0017] Furthermore, the culture container 1 in this embodiment includes a culture bottle 11 and a culture frame 12. The culture bottle 11 is constructed by inserting a hollow glass tube 111 at an angle from the bottle opening. One end of the hollow glass tube 111 outside the culture bottle 11 is connected to an air tube, which is connected to an oxygen pump 22. Thus, while the oxygen pump 22 delivers air into the culture bottle 11, the force of the airflow forms a vortex inside the bottle based on the inclined hollow glass tube 111. Since the hollow glass tube 111 is inclined towards the bottom of the bottle, the vortex can swirl the fertilized eggs at the bottom of the bottle, lifting them into the water inside the bottle for suspension culture. Compared with common magnetic stirring, which easily gathers the fertilized eggs in the middle, this embodiment uses airflow to form a water vortex to gently lift the fertilized eggs for suspension culture, preventing them from sinking to the bottom, which is beneficial to the cultivation and growth of the fertilized eggs. In addition, the air forming the vortex carries oxygen, increasing the oxygen content of the water, which is more conducive to the development needs of the fertilized eggs.

[0018] Secondly, in this embodiment, the culture frame 12 is configured such that its side wall has an overflow hole 122 with a water outlet pipe 121 and a water inlet hole 124 with a water inlet pipe 123. The water inlet hole 124 is positioned higher than the water level in the culture frame 12. The number and total outflow of the overflow holes 122 are greater than the number of water inlet holes 124. Figure 1 As shown, the overflow hole 122 is positioned lower than the inlet hole 124, and the overflow hole 122 is configured to have an overflow volume greater than that of the inlet hole 124. In this embodiment, the same diameter holes are used, but the number of overflow holes 122 is twice that to ensure that the inlet water flows slower than the outlet water. In addition, as Figure 1 As shown, both the outlet pipe 121 and the inlet pipe 123 extend into the seawater tank 3.

[0019] As described above, in this embodiment, the culture container 1 is equipped with a seawater tank 3. Figure 1As shown, several similar culture frames 12 can be connected to the same seawater tank 3. "Similar" here refers to culture frames 12 with the same culture conditions and the ability to share culture seawater. Then, simply extend the air outlet pipe 125 connected to the air outlet of the aeration pump 22 into the seawater tank 3 to aerate and oxygenate the culture seawater. Next, extend the water intake pipe 126 of the peristaltic pump into the seawater tank 3, and use the intermittently supplying peristaltic pump to deliver culture seawater into the culture frames 12. The water outlet pipe 121 connected to the overflow hole 122 is connected to the seawater tank 3 to return the seawater overflowing from the culture frames 12 to the seawater tank 3. This embodiment of the culture... The cultivation frame 12 set in the cultivation container 1 is mainly used for cultivating algae. During this period, there are strict requirements for the light and other conditions required for cultivation, and the circulation and oxygenation of the water also need to be guaranteed. The purpose of using the seawater tank 3 in this embodiment is to oxygenate the cultivation seawater by setting the seawater tank 3 in front of the cultivation frame 12, and then use a peristaltic pump to send the cultivation seawater into the cultivation frame 12. Firstly, it can reduce the number of branches and settings of oxygenation equipment. Secondly, it can avoid the water flow agitated by oxygenation from impacting the attachment of Sargassum algae and affecting the cultivation results. Furthermore, the use of a peristaltic pump can also accurately control and form a slow water flow, reducing the impact force of the water flow.

[0020] As a further feature of the above scheme, the air tube of the hollow glass tube 111 is equipped with an air volume control valve, which is used to control the air intake. The end of the hollow glass tube 111 is inclined to the bottom of the culture bottle 11. The oxygenation pump 22 supplies air through the hollow glass tube 111 to form a vortex in the culture seawater in the culture bottle 11, which picks up the sediment at the bottom of the bottle. The picked-up sediment includes fertilized eggs and sediment impurities. Firstly, it can ensure that the fertilized eggs are suspended and in full contact with the oxygenated water. Secondly, it can prevent the fertilized eggs from accumulating with sediment impurities and dying due to the influence of impurities.

[0021] As a further feature of the above scheme, the intelligent controller is equipped with several sensors that extend into the culture container 1. The sensors are used to send feedback signals to the intelligent controller to control the operation of the auxiliary device 2.

[0022] Referring to the structure described above, the culture device in this embodiment is a component of an artificial intelligence indoor culture system. Sensors are installed inside and outside the culture container 1 to allow the intelligent controller to acquire data. The collected data is used to trigger commands from the intelligent controller. By controlling devices such as the oxygenation pump 22 and the water supply pump 21, the culture conditions are intelligently adjusted to meet the requirements of intelligent indoor culture.

[0023] Obviously, those skilled in the art can make various modifications and variations to this utility model without departing from its spirit and scope. Therefore, if these modifications and variations fall within the scope of this utility model and its equivalents, this utility model also intends to include these modifications and variations.

Claims

1. An indoor culture device for Sargassum fusiforme thallus and fertilized eggs, characterized in that: The application relates to a culture container (1) and an auxiliary device (2), wherein the auxiliary device (2) comprises a water supply pump (21), an oxygenation pump (22) and an intelligent controller, the intelligent controller controls the start-stop work of the oxygenation pump (22) and the water supply pump (21) through a built-in program setting, the culture container (1) comprises a culture bottle (11) and a culture frame (12), the culture bottle (11) is additionally provided with a hollow glass tube (111), the hollow glass tube (111) is obliquely inserted into the culture bottle (11) and is connected with an air pipe and the oxygenation pump (22) at one end outside the culture bottle (11), the culture frame (12) is provided with overflow holes (122) with water outlet pipes (121) and water inlet holes (124) with water inlet pipes (123) on the wall, and the water inlet holes (124) are arranged above the water level of the culture frame (12).

2. The device for indoor culture of Hizikia fusiformis thalli and zygotes according to claim 1, characterized in that: The water supply pump (21) is a peristaltic pump, and the other end of the water inlet pipe (123) is connected with a water outlet hole of the peristaltic pump.

3. The device for indoor culture of Sargassum fusiforme alga and zygotes according to claim 1, characterized in that: The application further comprises a seawater tank (3), a plurality of culture frames (12) are arranged in the same seawater tank (3), an air outlet pipe (125) connected with the air outlet of the oxygenation pump (22) extends into the seawater tank (3) to aerate and oxygenate the culture seawater in the seawater tank (3), and a water suction pipe (126) of the water supply pump (21) extends into the seawater tank (3).

4. The device for indoor culture of Hizikia fusiformis frond and zygote according to claim 3, wherein: The water outlet pipe (121) connected with the overflow holes (122) is connected with the seawater tank (3), and the seawater overflowed from the culture frame (12) is returned to the seawater tank (3).

5. The device for indoor culture of Sargassum foliatum alga and zygotes according to claim 1, characterized in that: The air pipe of the hollow glass tube (111) is provided with an air volume control valve for controlling the air volume, the end of the hollow glass tube (111) is obliquely arranged at the bottom of the culture bottle (11), and the air supplied by the oxygenation pump (22) is blown out through the hollow glass tube (111) to form a vortex to stir up the precipitate at the bottom of the culture bottle (11).

6. The device for indoor cultivation of Hizikia fusiformis frond and zygote according to claim 1, wherein: The number and total water outlet amount of the overflow holes (122) are greater than those of the water inlet holes (124).

7. The device for indoor culture of Sargassum foliatum alga and zygotes according to claim 1, characterized in that: The intelligent controller is provided with a plurality of sensors extending into the culture container (1), and the sensors are used for feeding back signals to the intelligent controller to control the work of the auxiliary device (2).

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