TWM526268U - Three-dimensional aquaponics system - Google Patents

Description

Three-dimensional fish-culture symbiosis system

This creation is a technical field that can recycle water resources into a three-dimensional fish-and-food symbiosis system for aquaculture and vegetable cultivation, especially a water-producing material that is suitable for breeding regional and mutually remnant, easy to feed, and breeding box. A three-dimensional fish-and-food symbiosis system with functions such as drainage, water exchange and expansion, and stable water temperature.

At present, the common fish-and-food symbiosis system in the market is supplemented by planting vegetables as the main aquaculture water production. As shown in Taiwan's Announcement Nos. M465006 and M510058, it mainly sets the cultivation box for growing vegetables to the cultured water production. Above the breeding box, the water in the culture box is then pumped by the pump to water the vegetables in the cultivation box, and the cultivation box filters the water and then discharges it into the culture box to achieve the purpose of recycling water resources.

However, the traditional fish-and-food symbiosis system supplemented by planting vegetables as the main aquaculture water production product is only suitable for the cultivation of regional and non-residual water-producing water products for eating seaweed, microorganisms and insects. Farming of carnivorous or carnivorous and regional and mutually remnant water-producing products (eg crabs, shrimps, etc.) is not suitable. In particular, the feeding of aquaculture is very inconvenient and it is desirable to The water in the tank is completely drained for cleaning and harvesting. The expansion of the tank is also very poor, and the water temperature is also subject to drastic changes due to the external environment. The survival rate of aquaculture is reduced.

In general, the fish-food symbiosis system has various problems such as unsuitable breeding of regional and mutually remnant water-generating substances, inconvenient feeding, breeding tanks, difficulty in changing water and expansion, and unstable water temperature.

The three-dimensional fish-and-food symbiosis system described in the present invention comprises a breeding device, a feeding device and a water circulation device. Wherein, the cultivating device comprises a plurality of incubators and a plurality of siphon control valves, each incubator comprises an aquaculture tank and at least one cultivating tank, wherein the plurality of cultivating tanks are respectively provided for breeding water production, and are separably coupled to each other side by side and up and down When the water in the upper culture tank reaches a predetermined water level, it will be automatically discharged downward into the corresponding culture tank of the lower layer, and the cultivation tank is combined with the vegetable on the rear side of the culture tank, and the cultivation tank of the upper layer is arranged. The excess water will drip down to the corresponding cultivation box in the lower layer, and each of the horizontal rows of the culture tanks is provided with a siphon control valve, which can control the water of the plurality of culture tanks to form a siphon phenomenon and downward Discharge or drain the appropriate amount of water (eg half...etc.). The feeding device is arranged above the cultivating device, and can automatically feed the feed into the uppermost plurality of breeding boxes. The water circulation device comprises a water storage tank, a temperature regulating pipeline, a pumping unit and a water supply pipeline. The water storage tank is arranged below the breeding device, and can receive the lowermost plurality of breeding tanks and the plurality of cultivation tanks downward. The drained water is buried in the underground below 2M, and the temperature regulating pipeline is arranged in a zigzag shape to increase the length of the buried underground. In order to facilitate the heat exchange in the ground to make the water temperature reach the summer temperature and the effect of winter heat preservation, and one end is connected to the water tank, the pump is connected to the other end of the temperature regulating water pipe, and the water can be stored through the temperature regulating pipe. The water of the pool is withdrawn, one end of the water supply pipe is connected to the pump, and the other end is extended above the cultivating device for injecting and watering the pumped water into the uppermost plurality of culture tanks and the plurality of cultivation tanks.

The creation system provides a three-dimensional fish-and-food symbiosis system, which can be combined with each other by a plurality of smaller culture boxes, and combined with the upper and lower layers to form the cultivation device, thereby being suitable for breeding regional and mutually remnant water-generating substances (such as crabs). , shrimp, etc.), and it is easier to expand. Moreover, the water can be exchanged with the underground soil by deep burying the temperature control pipeline below 2M underground, so that the water temperature can reach the summer temperature drop, and the winter heat preservation can achieve the purpose of stabilizing the water temperature. In particular, the breeding water circulation and the watering circulation formed by the cultivation device and the water supply device, together with the automatic feeding of the feeding device, can not only form a three-dimensional fish-food symbiosis system supplemented by the cultured water-producing vegetables, but also It is also possible to automatically spread the feed to all the culture tanks for automatic feeding. In particular, the siphon control valve of each layer can be used to make the water in the plurality of breeding boxes siphon and easily discharge all the light, thereby achieving the purpose of facilitating cleaning and harvesting by arranging and changing water.

1‧‧‧Cultivation device

10‧‧‧ incubator

11‧‧‧Siphon control valve

110‧‧‧ Extension tube

111‧‧‧Closed air gate

12‧‧‧ breeding box

120‧‧‧ 容容

121‧‧‧Block

122‧‧‧Inlay

123‧‧‧Slot

124‧‧‧ Insert

125‧‧‧ hanging holes

126‧‧‧Drainage pipe

127‧‧‧Groove

128‧‧‧ sector slot

13‧‧‧cultivation box

130‧‧‧hook

131‧‧‧Drip hole

14‧‧‧Siphon sleeve

140‧‧‧Intake pipe

15‧‧‧ side cover

150‧‧‧ linkage

2‧‧‧Feeding device

20‧‧‧Unloading tube

21‧‧‧Feed tube

22‧‧‧Into the hopper

23‧‧‧Connecting tube

24‧‧‧Upfeed screw

25‧‧‧Upper drive

26‧‧‧Feed feed screw

27‧‧‧Lower drive

28‧‧‧Outlet

3‧‧‧Water circulation device

30‧‧‧ reservoir

31‧‧‧ thermostating line

32‧‧‧ pump

33‧‧‧Water supply pipeline

34‧‧‧ farming water pipes

35‧‧‧Watering hose

36‧‧‧fishing water inlet

37‧‧‧Watering inlet hole

4‧‧‧Monitor

40‧‧‧ Track

41‧‧‧ drive car

42‧‧‧Image capture device

43‧‧‧Signal transmitter

Figure 1 is a perspective view of the front side of the creation.

Figure 2 is a perspective view of the rear side of the creation.

Figure 3 is a schematic cross-sectional view of the structure before the creation.

Figure 4 is a schematic cross-sectional view of the creation of the present invention.

Fig. 5 is a perspective exploded view of the incubator of the present invention.

Figure 6 is a schematic enlarged view of the three-dimensional combination of the incubator of the present creation.

Figure 7 is a schematic diagram of the action when the closed air gate of the present invention is opened.

Figure 8 is a schematic diagram of the action when the closed air gate of the present invention is closed.

Figure 9 is a schematic view showing the opening of the side cover of the incubator of the present invention.

Figure 10 is a perspective enlarged view of the feeding device of the present invention.

Figure 11 is an enlarged schematic cross-sectional view of the feeding device of the present invention.

Figure 12 is another embodiment of the present creation.

Referring to Figures 1 to 4, there is shown a three-dimensional fish-and-food symbiosis system according to the present invention, comprising a breeding device 1, a feeding device 2 and a water circulation device 3, wherein the cultivation device 1 comprises a plurality of cultivation devices. The tank 10 and the plurality of siphon control valves 11. Each incubator 10 includes a culture tank 12 and at least one cultivation tank 13. The plurality of breeding tanks 12 are respectively available for breeding water production, and the plurality of breeding tanks 12 are detachably coupled to each other side by side and stacked up and down, and the water in the upper plurality of breeding tanks 12 automatically reaches a predetermined water level. It is discharged into the corresponding culture tank 12 of the lower layer. The cultivation box 13 is attached to the rear side of the culture tank 12 to be filled with soil to grow vegetables, and the excess water in the upper cultivation tank 13 can be discharged downward into the corresponding cultivation tank 13 in the lower layer. Each of the plurality of horizontal breeding tanks 12 is provided with a siphon control valve 11 for controlling the water of the plurality of breeding tanks 12 to form a siphon Draw down or drain the appropriate amount of water (eg, half...etc.).

The feeding device 2 is disposed above the incubating device 1 and can automatically feed the feed into the uppermost plurality of culture tanks 12.

The water circulation device 3 includes a water reservoir 30, a temperature control line 31, a pump 32, and a water supply line 33. The reservoir 30 is disposed below the cultivation device 1, and can receive the water discharged downward from the plurality of culture tanks 12 and the plurality of cultivation tanks 13 in the lowermost layer. The temperature regulating pipeline 31 is embedded in the underground below 2M, and one end extends upward to open the water reservoir 30, and the other end extends upward to turn on the pump 32. The temperature regulating pipeline 31 is formed in a zigzag shape (such as Continuous S-shaped, continuous arcuate or vortex...etc.) to increase the length of its buried in the ground. The pump 32 can draw water from the reservoir 30 through the temperature control line 31. The water supply pipe 33 has one end connected to the pump 32 and the other end extending above the cultivating device 1 and is provided with a culture inlet pipe 34 and a watering pipe 35. The culture inlet pipe 34 extends above the uppermost plurality of culture tanks 12, and the culture inlet pipe 34 is provided with a plurality of culture inlet holes 36 for discharging water into the corresponding breeding tanks 12, respectively. The watering pipe 35 extends above the uppermost plurality of cultivation tanks 13, and the watering pipe 35 is provided with a plurality of watering inlet holes 37 for discharging water into the corresponding cultivation tanks 13 respectively.

It can be seen in the figures 3 and 4 that since the cultivating device 1 is composed of a plurality of smaller breeding boxes 12 which are combined side by side and stacked side by side, it is suitable for breeding regional and mutually remnant aquatic products. Biological (such as crab, shrimp, etc.), and when it is desired to expand the cultivation device 1, it is only necessary to combine and stack the plurality of breeding boxes 12 side by side on one side, and then extend the siphon control valve 11 of each layer. In order to increase the number of the culture tanks 12 as needed, the expansion is easy.

When the pump 32 draws the water in the reservoir 30 into the temperature regulating line 31, the water system in the temperature regulating line 31 can exchange heat with the underground soil, so that the water temperature reaches the summer temperature drop. Insulation in winter and the purpose of stabilizing water temperature. The pump 32 then drives the water having a stable water temperature in the temperature control line 31 into the water supply line 33 to pass through the culture water inlet hole 36 of the culture inlet pipe 34 and the watering inlet hole of the watering pipe 35. 37 is injected into the uppermost multi-culture tank 12 and the plurality of cultivation tanks 13, respectively. When the water of the uppermost plurality of culture tanks 12 reaches the predetermined water level (at this time, each layer of the siphon control valve 11 is opened), the excrement of some of the feed and the water-generating material is overflowed to the lower part. In a corresponding one of the culture tanks 12, the water layer is allowed to overflow downward to the lowermost culture tank 12 and then overflow into the water storage tank 30, thereby forming a water circulation of the aquaculture, and even more Therefore, it is spread into all the culture tanks 12 for automatic feeding. In addition, the uppermost plurality of cultivation boxes 13 can also drip the water down into the corresponding cultivation box 13 of the lower layer, so that the water layer is dropped down to the lowermost cultivation box 13 and then dropped into the In the reservoir 30, a water circulation for vegetable planting is formed, and after the water passes through the cultivation box 13 of the layer, the excrement of the water product and the remaining bait produce ammonia, nitrogen, and the like which are harmful to the water product. The nitrated bacteria on the foamed stone in the cultivation tank 13 are decomposed into nitrates to become nutrients of the vegetables, which are absorbed by the vegetables, and finally the water that falls into the reservoir 30 passes through the 13 layers of the plurality of cultivation tanks. Filtered clean water. By combining the water cycle of aquaculture with the water cycle of vegetable cultivation, a three-dimensional fish-food symbiosis system supplemented by cultured water-producing vegetables can be built.

When the siphon control valve 11 of each layer is closed, the water in the plurality of culture tanks 12 will be completely discharged due to the phenomenon of siphoning, thereby facilitating the drainage and water exchange for the purpose of easy cleaning and harvesting.

Please refer to the figures 5-9, which indicates that the siphon control valve 11 includes an extension tube 110 and a gas-closing gate 111. The incubator 10 further includes a siphon sleeve 14 and a side cover 15, wherein the extension tube 110 has an open end and a closed end, and is disposed on each of the plurality of culture tanks 12.

The air closing gate 111 is disposed at an open end of the extension pipe 110 to allow access to the outside air to enter the extension pipe 110.

The culture tank 12 has a water-receiving material (such as crab, shrimp, etc.) which is one of the upwardly facing openings 120 for breeding regional and mutually remnant. The left and right side walls of the breeding box 12 respectively have a corresponding plurality of inserts 121 and a plurality of recesses 122, so that the adjacent breeding box 12 can be embedded by the plurality of inserts 121 and the plurality of embedded slots 122. And the combination of left and right. The top surface and the bottom surface of the breeding box 12 respectively have a plurality of corresponding slots 123 and a plurality of insertion posts 124, so that the upper and lower culture tanks 12 can be inserted into the plurality of slots 124 and the plurality of insertion posts 124. The combination is stacked up and down. The left and right side walls of the culture tank 12 have perforations for the extension tube 110 to pass through, and the upper edge of the rear side wall of the culture tank 12 has a plurality of hanging holes 125. A drain pipe 126 is defined in the tank 120. The drain pipe 126 is penetrated from the bottom of the tank 12 to the outside. The bottom of the tank 120 is disposed below the drain pipe 126 and is lower than the bottom surface of the tank 120. A water guide 127. The front portion of the pocket 120 forms a sector slot 128, and the sector slot 128 The upper side forms an outlet with a low slope.

The cultivation box 13 has a plurality of hooks 130 on one side for hooking the plurality of hanging holes 125 on the rear side of the breeding box 12, and has a plurality of dripping holes 131 penetrating into the bottom of the cultivation box 13 to the inside. In the present invention, one breeding box 12 can be configured to hang two cultivation boxes 13 , of course, only one of the embodiments for convenience of description, and of course, it can also be set as a breeding box 12 to hang one, Three or more cultivation boxes 13 will not be described again.

The siphon sleeve 14 is a cylindrical body whose bottom surface is open and has a closed top surface, and is sleeved downwardly outside the drain pipe 126 so that the inside of the siphon sleeve 14 can pass through the water guide 127 and The pockets 120 are in communication. One side of the siphon sleeve 14 has an intake pipe 140 connected to the extension pipe 110, the interior of the siphon sleeve 14 is communicated with the extension pipe 110, and the intake pipe 140 is connected to the siphon sleeve 14. The interface is flush or higher than the top end of the drain 126.

The side cover 15 is slidably coupled to the front side bevel outlet of the culture box 12, and can be turned up to cover the outlet of the slope or to be turned down to open the outlet of the slope, and the side cover 15 is under The overturning system can form a sloped one of the exiting bridges along the angle of the inclined surface outlet, so that when the breeding box 12 is used for feeding crabs and shrimps, the crab and the shrimp can follow the inverted side cover from the exit of the inclined surface. 15 climb out for automatic harvesting purposes (as shown in Figure 9), and the side covers 15 on each horizontal row of incubators 12 can be joined by a link 150 so that they can be used at once Flipping a full row of side covers 15 provides substantial efficiency.

It can be seen in Fig. 7 that when the air closing shutter 111 is opened, the outer The air of the portion can be continuously supplied to the inside of the siphon sleeve 14 from the extension pipe 110, so that when the water of the tank 120 exceeds the top end of the drain pipe 126, it will overflow into the drainage. The tube 126 is then discharged so that the culture tank 12 is maintained at the predetermined water level (i.e., the height of the drain pipe 110 in the tank 120), and a portion of the feed and water product excrement in the upper culture tank 12 is Will overflow with the water flow to the lower culture tank 12, and sequentially flow down the layer to spread the feed from top to bottom in the plurality of culture tanks 12, and let the waste fall into the reservoir 30 in.

It can be seen in Fig. 8 that when the air closing shutter 111 is closed, external air cannot enter the inside of the siphon sleeve 14, so that the water in the tank 120 continues to be discharged by the drain pipe 126, so that the siphon When the inner portion of the sleeve 14, the air inlet tube 140 and the extension tube 110 are in a vacuum state, a siphon phenomenon is formed, so that the water in the tank 120 is completely discharged by the drain tube 126, so that the cleaning can be conveniently performed. And the purpose of collecting the catch.

Referring to Figures 10 and 11, it is shown that the feeding device 2 comprises a lower feeding tube 20, a feeding tube 21, a feeding hopper 22, a plurality of connecting tubes 23, an upper feeding screw 24, and an upper driving unit 25. The feed screw 26 and the lower drive 27 are next. Wherein: the feeding tube 20 is disposed above the uppermost plurality of breeding boxes 12 and is provided with at least one discharging port 28 corresponding to each of the breeding boxes 12.

The feeding tube 21 is disposed in parallel above the lowering tube 20.

The hopper 22 is disposed at one end of the feeding pipe 21 for feeding The feed is introduced into the feed pipe 21.

The plurality of connecting pipes 23 are connected between the blanking pipe 20 and the loading pipe, and a connecting pipe 23 is disposed corresponding to each of the discharging ports 28 in the direction of the feeding hopper 22, so that the feeding pipe 21 can be provided. The feed in the feed can be discharged from the corresponding discharge port 28 after being introduced into the lower feed pipe 20.

The upper feed screw 24 is rotatably disposed in the loading tube 21, and can be rotated to push the feed in the feeding tube 21 away from the hopper 22.

The upper drive 25 is configured to drive the upper feed screw 24 to rotate.

The lower feed screw 26 is rotatably disposed in the lower feed pipe 20 and is rotatable to push the feed in the lower feed pipe 20 away from the hopper 22.

The lower driver 27 is configured to drive the lower feed screw 26 to rotate.

As can be seen in Fig. 11, when the feed is poured into the hopper 22, the feed system will fall into the loading tube 21, and when the upper driver 25 drives the upper feed screw 24 to rotate, the upper portion The spiral of the feeding screw 24 pushes the feed in the feeding pipe 21 away from the feeding hopper 22, so that the feed in the feeding pipe 21 falls below the lower connecting pipe 23 In the feeding tube 20, when the lower driving unit 27 drives the lower feeding screw 26 to rotate, the spiral piece of the lower feeding screw 26 pushes the feed introduced by the plurality of connecting tubes 23 to the plurality of discharging ports 28 respectively, so that The feed falls into the plurality of breeding boxes 12 below, and achieves the purpose of self-feeding the feed.

Please refer to FIG. 12, which is another embodiment of the present invention. The structure is substantially the same as that of the above embodiment, except that the present invention further includes a plurality of monitoring devices 4, wherein a plurality of monitoring devices 4 are disposed above each of the horizontal rows of the incubators 12. The monitoring device 4 includes a track 40 and a driving vehicle 41. The track 40 is disposed above all the breeding boxes 12 in a horizontal row. The driving vehicle 41 can travel on the track 40 and drive the vehicle. An image capturing device 42 and a signal transmitter 43 are disposed on the 41, and the image capturing device 42 can capture an image in the breeding box 12 passing thereunder. The signal transmitter 43 can be used for the image capturing device 42. The captured image signal is transmitted to a monitoring system (not shown). In this way, the monitoring device 4 can record and monitor the growth condition of the water-generating material in the culture tank 12 at any time. When it is found that the cultured crabs and shrimps are unshelled, the cultured water-producing products can be captured at this time. In this way, soft shell crabs and shrimps that can be eaten together with shells can be produced.

In addition, in order to facilitate the identification, identification symbols (not shown) such as numbers or letters may be set on the inner side of each culture box 12 by means of coating, printing, stickers, and the like.

1‧‧‧Cultivation device

10‧‧‧ incubator

11‧‧‧Siphon control valve

12‧‧‧ breeding box

13‧‧‧cultivation box

2‧‧‧Feeding device

20‧‧‧Unloading tube

21‧‧‧Feed tube

22‧‧‧Into the hopper

23‧‧‧Connecting tube

25‧‧‧Upper drive

27‧‧‧Lower drive

28‧‧‧Outlet

3‧‧‧Water circulation device

30‧‧‧ reservoir

31‧‧‧ thermostating line

33‧‧‧Water supply pipeline

34‧‧‧ farming water pipes

35‧‧‧Watering hose

36‧‧‧fishing water inlet

37‧‧‧Watering inlet hole

Claims (15)

A three-dimensional fish-and-food symbiosis system comprises: a cultivating device comprising a plurality of incubators and a plurality of siphon control valves, each incubator comprising a culture tank and at least one cultivation tank, wherein the plurality of culture tanks are respectively for breeding water production, And the detachable combination of the left and right sides and the upper and lower layers are combined, and the water in the plurality of culture tanks of the upper layer is automatically discharged downward into the corresponding culture tank of the lower layer, and the cultivation tank is combined with the culture tank. The rear side can be used for planting vegetables, and the excess water in the upper cultivation box will drop down to the corresponding cultivation box in the lower layer, and a siphon control valve is arranged on each of the horizontal rows of the breeding boxes, and the siphon control valve can be controlled The water of the plurality of breeding boxes forms a siphon phenomenon and completely drains or discharges the appropriate amount of water downwards; a feeding device is disposed above the breeding device, and can automatically feed the feed into the uppermost plurality of breeding boxes; The water circulation device comprises a water storage tank, a temperature regulating pipeline, a pump and a water supply pipeline, and the water reservoir is arranged below the cultivation device, and can receive the most The plurality of culture tanks and the plurality of cultivation tanks discharge water downward, the temperature regulation pipeline is buried below the underground 2M, and the temperature regulation pipeline is arranged in a zigzag shape to increase the length buried in the underground to facilitate heat in the underground. Exchanging the water temperature to achieve the effect of cooling in summer and warming in winter, and one of the ends is connected to the reservoir, and the pump is connected to the other end of the temperature regulating water pipe, and the water of the water reservoir can be connected through the temperature regulating pipeline Withdrawn, one end of the water supply pipe is connected to the pump, and the other end is extended above the cultivating device for injecting and watering the pumped water into the uppermost plurality of culture tanks and the plurality of cultivation tanks. The three-dimensional fish-culture symbiosis system according to claim 1, wherein the water supply pipe is another One end is provided with a culture inlet pipe and a watering pipe, and the culture inlet pipe extends to the upper part of the plurality of culture tanks, and the culture inlet pipe is provided with a plurality of culture inlet holes for respectively discharging water into the corresponding corresponding ones. In the plurality of culture tanks, the watering water pipe extends to the top of the plurality of cultivation tanks, and the watering water pipe is provided with a plurality of watering inlet holes to discharge the water into the corresponding plurality of cultivation boxes respectively. The three-dimensional fish-and-food symbiosis system according to claim 1, wherein the temperature regulating pipeline has a continuous arc shape. The three-dimensional fish-and-food symbiosis system according to claim 1, wherein the culture box of the incubator is integrated with the cultivation box. The three-dimensional fish-and-food symbiosis system according to claim 1, wherein the culture box and the cultivation box of the incubator are detachable. The three-dimensional fish-and-food symbiosis system according to claim 1, wherein the feeding device comprises a lower feeding tube, a feeding tube, a feeding hopper, a plurality of connecting tubes, an upper feeding screw, an upper driving device, a lower feeding screw and a lowering a driving device, the feeding tube is disposed above the uppermost plurality of breeding boxes and is provided with at least one discharging port corresponding to each of the breeding boxes, the feeding tube is disposed in parallel above the discharging tube, and the feeding hopper is disposed at the One end of the feeding tube is configured to fill the feed and introduce the feed into the feeding pipe, the plurality of connecting pipes are connected between the discharging pipe and the feeding pipe, and are adjacent to each discharging port A connecting pipe is arranged in the direction of the hopper, so that the feed in the feeding pipe can be discharged into the discharging pipe and then discharged from the corresponding discharging port, and the upper feeding screw is rotatably disposed in the feeding pipe. Rotating to push the feed in the feeding tube away from the hopper, the upper drive can drive the upper feed screw to rotate, and the lower feed screw is rotatably disposed on the In the lowering tube, the lower feeder can drive the lower feed screw to rotate by rotating to feed the feed in the blanking tube away from the hopper. The three-dimensional fish-and-food symbiosis system of claim 1 or 6, wherein the siphon control valve comprises an extension tube and a gas-closing gate, the incubator further comprising a siphon sleeve and a side cover, the one end of the extension tube being The other end of the opening is closed, and the air closing gate is disposed at an open end of the extension tube for controlling whether external air can enter the extension tube, and the culture box has a groove facing the upper opening for the breeding water to be generated. a drain pipe is protruded from the bottom of the tank, and the drain pipe is connected to the outer side of the tank, and the tank is disposed around the drain pipe with a water guide below the bottom surface of the tank. The siphon sleeve is The bottom surface is a closed cylindrical body having a closed top surface, and the opening is sleeved outwardly on the outer side of the drain pipe, so that the interior of the siphon sleeve can communicate with the receiving groove through the water guiding sleeve, and the siphon sleeve is One side has an intake pipe connected to the extension pipe, such that the inside of the siphon sleeve communicates with the extension pipe, and the connection port of the intake pipe and the siphon sleeve is not lower than the top end of the drain pipe. The three-dimensional fish-and-food symbiosis system according to claim 7, wherein the left and right side walls of the breeding box respectively have corresponding plurality of embedded blocks and a plurality of embedded grooves, so that adjacent breeding boxes can be used by the plurality of embedded blocks And the combination of the plurality of embedded grooves and the left and right sides, the top surface and the bottom surface of the breeding box respectively have a plurality of corresponding slots and a plurality of insertion posts, so that the upper and lower culture boxes can be separated by the plurality of slots The plugs of the plurality of plugs are stacked and stacked up and down. The three-dimensional fish-and-food symbiosis system according to claim 7, wherein the left and right side walls of the culture tank have perforations for the extension tube to pass through. A three-dimensional fish-and-food symbiosis system as claimed in claim 7, wherein the rear of the culture tank The upper edge of the side wall has a plurality of hanging holes, and one side of the cultivation box has a plurality of hooks for hooking in a plurality of hanging holes on the rear side of the breeding box. The three-dimensional fish-and-food symbiosis system according to claim 10, wherein the bottom surface of the cultivation box has a plurality of drip holes penetrating into the interior. The three-dimensional fish-and-food symbiosis system according to claim 7, wherein the incubator further comprises a side cover, the front portion of the groove forming a scalloped groove, and the upper side of the scalloped groove forms an outlet with a low slope shape, the side The lower side of the cover is swingably coupled to the outlet of the front side bevel of the culture tank, and can be turned up to cover the outlet of the inclined surface or to be turned down to open the outlet of the inclined surface, and the side cover is smoothed after being turned down The angle at which the exit of the ramp is formed forms an inclined guide tube. The three-dimensional fish-and-food symbiosis system according to claim 7, wherein the side cover of each of the horizontal rows of the culture tanks is connected by a connecting rod so that a full row of side covers can be flipped at a time. The three-dimensional fish-and-food symbiosis system according to claim 7, further comprising a plurality of monitoring devices, wherein each of the horizontal rows of the breeding boxes is provided with a monitoring device, the monitoring device comprising a track and a driving vehicle, The track is arranged above all the breeding boxes in a horizontal row, the driving car can travel on the track, and an image picker and a signal transmitter are arranged on the driving vehicle, and the image picker can capture Underneath the image in the breeding box, the signal transmitter can transmit the image signal captured by the image picker to a monitoring system, so that the growth condition of the water produced in the breeding box can be monitored at any time. The three-dimensional fish-and-food symbiosis system according to claim 14, wherein an identification symbol is provided on the inner side of each of the culture tanks to facilitate identification by the monitoring device.