TWM490748U - Layered rack type symbiosis system for fish and vegetable - Google Patents

Description

Shelf-type fish-culture symbiosis system

This creation is about a fish-and-food symbiosis system, especially a multi-layered and easily circulated liquid layered fish-culture symbiosis system.

The basic principle of the so-called fish-and-symbiosis system is to use the interaction between the organisms in nature. The fish-and-symbiotic system is an ecosystem composed of plants, fish, bacteria or microorganisms to transform the fish's excrement into plant growth. In a broad sense, fish and vegetable symbiosis is also called ecological farming or compound farming technology. In the actual system structure, the cultured wastewater is absorbed by the bacteria to be nitrified to produce the nutrients needed for plant growth. The wastewater is also absorbed because it is converted into the nutrients needed for the plant, and it has the effect of purifying the water. Therefore, the whole fish and vegetable symbiosis is a closed water circulation system, so it has the advantage of no need to water the vegetables without watering. The fish-and-vegetable symbiosis system is an organic breeding and breeding technology that combines the functions of various organisms to provide humans with more natural and healthy food.

The design concept of the conventional fish and vegetable symbiosis system 100 is as shown in FIG. 1 . The bell siphon 101 is mainly used. The siphon structure 101 includes a bell cover 102 , an inner tube 103 , and an external air tube 104 . The bell cover 102 includes a plurality of through holes 105. A liquid extracting material 107 in a nutrient storage tank 106 is continuously pumped into a plant planting pot 108. When the nutrient solution enters the bell jar 102 from the through holes 105 and reaches the high point of the inner tube 103, That is, the plurality of cultivated plants 109 absorb the high liquid level of the nutrient solution. At this time, if the amount of liquid output from the nutrient solution via the inner tube 103 is sufficient to form a water film and the pressure in the bell jar 102 is less than the external atmospheric pressure, The clock siphon structure 101 then produces a siphon effect, the external air pressure will push the nutrient solution back to the nutrient storage basin 106, and when the nutrient solution is lowered to the low liquid level line, the external gas can enter the bell jar 102 from the external air tube 104. The liquid column is interrupted to stop the siphoning action, the nutrient solution is stopped and the reflux is continued, and the liquid level in the plant planting pot 108 reaches the minimum liquid level, so that the root of the cultivated plant is subjected to aerobic respiration. At this time, the nutrient solution is obtained in the liquid extracting object 107. Continue to accumulate liquid to the high liquid level line to achieve circulating nutrient planting.

In addition, in order to make good use of breeding and planting space, stacked fish and vegetable symbiosis systems have also been developed in recent years, such as the aquatic plant and aquatic symbiosis system of China New Patent Publication No. M474330, which contains an aquatic plant area, three An aquatic bioregion, and a number of pumps. According to this, the pump can absorb the excrement from the aquatic bio-region to the aquatic plant area. The fish and vegetable symbiosis device of the new patent no. M465006 of China includes a breeding area, two cultivation areas, and a pump. Accordingly, the user can start the pump in a manual or timed manner, and the water and excrement in the culture area can be transported to the cultivation area.

Although the existing stacked fish and vegetable symbiosis system uses the pumping water to extract water and excrement from the fish tank to provide to the plant planting box, and then transfer the water back to the fish tank with the pipe fittings placed at the bottom of the plant planting box, however, the plant may It will rot due to long-term immersion in water, and the number of pumping pumps must also consider the number of fish tanks and plant planting boxes. Therefore, how to design a stacked fish-and-food symbiosis system that easily achieves continuous circulation between water tanks and plant planting boxes has become a problem to be solved.

The main purpose of this creation is to solve the problem that the stacked fish and vegetable symbiosis system cannot easily achieve the water cycle.

To achieve the above objectives, the present invention provides a shelf-type fish-and-food symbiosis system comprising a shelf, a basic fish-and-food symbiosis planting system, and at least one layer of fish-culture symbiosis planting system. The shelf has an assembly space. The basic fish and vegetable symbiosis planting system is installed in the assembly space, and the basic fish and vegetable symbiosis planting system comprises a first aquatic biological breeding tank and a first plant growing pot, the first aquatic biological breeding tank comprises a capacity a first culture space for placing a liquid, a liquid suction member disposed in the first culture space and extracting the liquid, and a liquid supply pipe connecting the liquid suction member to transport the liquid to the first plant planting pot, and The first plant planting basin comprises a first planting space for receiving the liquid from the liquid supply pipe, and a first planting plant basin is defined to define a liquid for retaining the liquid in the first planting space. a low liquid level line and a first siphon member that attracts the liquid to produce a siphon phenomenon and outputs a first high liquid level line of the liquid. Each of the stratified fish and vegetable symbiosis planting systems is installed in the assembly space and is bounded between the first aquatic biological breeding tank and the first plant growing pot, and each of the lining type fish and vegetable symbiosis plants The system comprises a second aquatic biological breeding tank and a second plant growing pot, the second aquatic biological breeding tank distinguishing at least one receiving the liquid from the first plant growing pot and storing the liquid by a spacer. a culture space and an overflow space disposed apart from the second culture space, and a liquid discharge member connecting the second culture space and the overflow space, and a liquid disposed in the overflow space and outputting the liquid to the The infusion piece of the second plant planting basin defines an overflow bit line, a first-class liquid level line and an infusion line line by the spacer object, the liquid discharging piece and the infusion piece, and the second plant planting basin comprises an accepting The second aquatic biological breeding tank outputs a second planting space of the liquid, and a second planting pot is defined to define a second low liquid level line for retaining the liquid in the second planting space and a attract Liquid siphon phenomenon and outputs the second liquid to the second siphon high level of the first line of the cylinder breeding of aquatic organisms.

In an embodiment of the present invention, the first aquatic biological culture tank includes a barrier mesh that isolates the liquid extraction member.

In an embodiment of the present invention, the spacer member includes a through hole, the liquid discharge member includes a first opening that communicates with the through hole, and a first opening is connected to the first opening and the flow line is disposed at the overflow. The second opening in the space.

In an embodiment of the present invention, the first siphon member includes a first inner tube extending toward the first planting space and disposed on the first high liquid level line, and a first open end and a first The closed end and the first bell jar of the first inner tube are covered.

In an embodiment of the present invention, the second siphon member includes a second inner tube extending toward the second planting space and disposed on the second high liquid level line, and a second open end and a second portion a closed end and a second bell jar of the second inner tube.

In an embodiment of the present invention, the first siphon member comprises a pair of liquid inlet tubes disposed on the first low liquid level line, a connecting tube connecting the liquid inlet tubes, and the connecting tube is connected to the first high a ㄇ-shaped tube provided by the liquid level line, a connecting tube for the ㄇ-shaped tube sleeve, a central tube for the connecting tube, and a set of the central tube and outputting the liquid to the first The outlet pipe of the second aquatic biological breeding cylinder, the inner diameter of the connecting pipe is larger than the inner diameter of the central pipe, and the inner diameter of the liquid discharging pipe is larger than the inner diameter of the central pipe.

In an embodiment of the present invention, the liquid inlet tube is provided with a first siphon auxiliary object, the first siphon auxiliary object has an open end located at the first low liquid level line, and a closed upper portion than the liquid inlet tube At the end, the closed end, the open end and the liquid inlet tube form a siphon chamber.

In an embodiment of the present invention, the second siphon member comprises a pair of liquid inlet tubes disposed on the second low liquid level line, a connecting tube connecting the liquid inlet tubes, and the connecting tube is connected to the second highest a ㄇ-shaped tube provided by the liquid level line, a connecting tube for the ㄇ-shaped tube sleeve, a central tube for the connecting tube, and a set of the central tube and outputting the liquid to the first The outlet pipe of the aquatic organism culture cylinder, wherein the inner diameter of the communication pipe is larger than the inner diameter of the inner pipe, and the inner diameter of the outlet pipe is larger than the inner diameter of the central pipe.

In an embodiment of the present invention, the liquid inlet tube is provided with a second siphon auxiliary object, the second siphon auxiliary object has an open end located at the second low liquid level line, and a closed upper portion than the liquid inlet tube At the end, the closed end, the open end and the liquid inlet tube form a siphon chamber.

In an embodiment of the present invention, the first aquatic biological culture tank comprises a partition separating the first culture space to define a culture space for aquaculture and a liquid infusion space for placing the liquid suction member, and The culture space is connected with the first-class liquid piece between the infusion space, and an overflow line and a first-class liquid level line are defined by the partition and the flow piece.

In an embodiment of the present invention, the partition member has an opening, the liquid flow member includes a first hole communicating with the opening, and a first hole is connected to the first hole and the liquid flow line is disposed in the infusion space. The second hole.

In an embodiment of the present invention, the infusion set comprises an infusion tube disposed in the second aquatic biological culture tank, and a flow control valve disposed on the infusion tube and controlling the flow of the liquid.

In an embodiment of the present invention, the shelf-type fish-and-food symbiosis system further comprises at least one light-emitting diode light source that provides a light source to illuminate the first planting space.

In an embodiment of the present invention, the shelf-type fish-food symbiosis system further comprises at least one light-emitting diode light source that provides a light source to illuminate the second planting space.

The structure of the shelf-type fish-and-food symbiosis system of the present invention has the following characteristics compared with the conventional structure: 1. The creation of the shelf-type fish-and-food symbiosis system by the first aquatic organism culture tank, the first plant cultivation The pots, the second aquatic breeding tanks and the second plant growing pots can create greater economic benefits in a limited space. 2. The layered fish-and-food symbiosis system of the present invention only needs to use the liquid extracting member to extract liquid, and by the first siphoning member, the second siphoning member, the spacer member, the liquid discharging member, and the infusion liquid The liquid circulation can be easily accomplished.

The detailed description and technical content of this creation are as follows:

Please refer to FIG. 2 , which is a schematic structural view of the first embodiment of the creation of the layered fish and vegetable symbiosis system. As shown in the figure, the creation is a layered fish and vegetable symbiosis system, which comprises a shelf 1 and a basic fish dish. The symbiotic planting system 2 and at least one layer of fish and vegetable symbiosis planting system 3. The shelf 1 may be a cabinet, a shelf or any device capable of placing the basic fish and vegetable symbiosis planting system 2 and the stratified fish and vegetable symbiosis planting system 3. Further, the shelf 1 has an assembly space 11. In the present invention, the assembly space 11 can load the basic fish and vegetable symbiosis planting system 2 and the stratified fish and vegetable symbiosis planting system 3. Since the shelf 1 and its assembly space 11 are devices that can be easily accomplished by a person skilled in the art, the design of the shelf 1 will not be further described in this creation. The technical focus of the creation of the layered fish and vegetable symbiosis system lies in the basic fish and vegetable symbiotic planting system 2 and the stratified fish and vegetable symbiotic planting system 3, and their mutual arrangement relationship. The following is a detailed introduction to its structural design. With features.

The basic fish and vegetable symbiosis planting system 2 can be installed in the assembly space 11 of the shelf 1, and comprises a first aquatic biological breeding tank 4 and a first plant growing pot 5, the first aquatic breeding tank 4 includes a first culture space 41 for accommodating a liquid, a liquid extracting member 42 disposed in the first culture space 41 and extracting the liquid, and connecting the liquid extracting member 42 to transport the liquid to the first plant planting The liquid supply pipe 43 of the basin 5, and a barrier mesh 44 disposed in the first culture space 41 and isolating the liquid suction member 42. The barrier mesh 44 prevents aquatic organisms within the first culture space 41 from accessing the liquid suction member 42. The first plant planting pot 5 includes a first planting space 51 for receiving the liquid from the liquid feeding tube 43, and a first planting pot 5 is defined to define a liquid to be retained in the first The first low liquid level line L1 in the planting space 51 and a first siphon member 52 that attracts the liquid to cause a siphon phenomenon and output the first high liquid level line H1 of the liquid.

Each of the tiered fish and vegetable symbiosis planting systems 3 is also installed in the assembly space 11 and is bounded between the first aquatic biological breeding tank 4 and the first plant growing pot 5, each of which is tiered The fish and vegetable symbiotic planting system 3 comprises a second aquatic biological breeding tank 6 and a second plant growing pot 7 which is distinguished by a spacer 61 to receive at least one of the first planting pots. a second culture space 62 that outputs the liquid and stores the liquid, and an overflow space 63 that is spaced apart from the second culture space 62, and is provided with a row that communicates the second culture space 62 with the overflow space 63. The liquid member 64 and an infusion member 65 disposed in the overflow space 63 and outputting the liquid to the second plant growing pot 7. The spacer member 61 includes a through hole 611. The liquid discharge member 64 includes a first opening 641 communicating with the through hole 611, and a first opening 641 communicating with the first opening 641 and disposed in the overflow space 63. Two openings 642. The height of the spacer member 61 is higher than the height of the second opening 642. In order to explain the flow of the liquid more clearly, the second opening 642 is clarified to allow the second culture space 62 to define a flow of the liquid flowing through the liquid discharge member 64 to the overflow space 63. Bit line D1. The flow line D1 can be interpreted as a position in which the liquid remains in the second culture space 62 to raise organisms in the water. The spacer member 61 allows the second culture space 62 to define an overflow bit line D2 that is higher than the flow level line D1 to overflow the liquid to the overflow space 63. The infusion member 65 includes an infusion tube 651 disposed in the second aquatic biological culture tank 6, and a flow control valve 652 disposed in the infusion tube 651 and controlling the flow rate of the liquid. In addition, in order to explain the flow of the liquid more clearly, the infusion tube 651 of the infusion member 65 can be clarified to allow the overflow space 63 to define a flow of the liquid through the infusion tube 651 to the second aquatic organism. The infusion line D3 outside the culture tank 6. As can be seen from the above, the spacer member 61, the liquid discharge member 64 and the liquid inlet member 65 can respectively define the overflow bit line D2, the flow liquid level line D1 and the infusion line line D3.

The second planting pot 7 includes a second planting space 71 for receiving the liquid from the second aquatic living tank 6, and a second planting pot 7 is defined to a second low liquid level line L2 remaining in the second planting space 71 and a second liquid attracting the liquid to produce a siphon phenomenon and outputting the liquid to the second high liquid level line H2 of the first aquatic biological culture tank 4 Siphon member 72. Accordingly, the first culture space 41 and the second culture space 62 can culture aquatic organisms, and the first planting space 51 and the second planting space 71 can plant plants.

Referring to FIG. 2, the first siphon 52 and the second siphon 72 of the present invention have two implementations, respectively. First, with regard to the first embodiment of the first siphon member 52, the first siphon member 52 includes a first inner tube extending toward the first planting space 51 and disposed on the first high liquid level line H1. 521, and a first bell jar 524 having a first open end 522 and a first closed end 523 disposed on the first low liquid level line L1 and covering the first inner tube 521. In addition, the first bell 524 can be further provided with a first external air tube 525 for allowing outside air to enter the first bell 524. With regard to the first embodiment of the second siphon member 72, the second siphon member 72 includes a second inner tube 721 extending toward the second planting space 71 and disposed on the second high liquid level line H2. And a second bell 724 having a second open end 722 and a second closed end 723 disposed on the second low liquid level line L2 and covering the second inner tube 721. In addition, the second bell 724 can be further provided with a second external air tube 725 for allowing the outside air to enter the second bell 724.

Referring to FIG. 2, the layered fish and vegetable symbiosis system of the present invention further comprises a plurality of plants arranged in the first plant planting pot 5 and the second plant planting pot 7 and irradiating the first planting space 51 and the second The light-emitting diode light source 8 of the space 71 is planted. The light-emitting diode illumination sources 8 provide sufficient illumination to promote photosynthesis of the plants.

Referring to Figures 3-1 and 3-2, the flow sequence of the liquid in the shelf-type fish-food symbiosis system will be explained in detail below. When the liquid extracting member 42 of the first aquaculture tank 4 draws the liquid of the first culture space 41, the liquid will be transported to the first plant planting pot 5 via the liquid supply pipe 43 and simultaneously enter the The first plant holds the first syphon 52 in the pot 5. At this time, the liquid enters the first bell 524 via the first open end 522 of the first low liquid level line L1, and the liquid will be in the first planting space in the first plant planting pot 5. The first inner tube 521 located in the first high liquid level line H1 is gradually stored and raised in the first siphon member 52. When the liquid begins to be outputted to the first plant planting pot 5 via the first inner tube 521 and the liquid can form a water film in the first inner tube 521, the pressure in the first bell jar 524 is already Less than the external atmospheric pressure, the first squirrel 52 then produces a siphon effect and the liquid is discharged outside the first planting space 51 and delivered to the second aquaculture tank 6. And when the liquid remaining in the first planting space 51 drops below the first external air pipe 525 and the outside air enters the first bell 524 from the first external air pipe 525, the outside air The siphoning phenomenon of the first syphon 52 will begin to be hindered. When the liquid drops to the first low liquid level line L1 and the outside air enters the first bell jar 524 from the first open end 522, the siphon phenomenon of the first siphon member 52 is destroyed. The output of the liquid to the second aquatic biological culture tank 6 is stopped.

The second culture space 62 has the overflow bit line D2 and the flow liquid level line D1, and the liquid flows to the overflow according to the height position of the overflow bit line D2 and the flow liquid level line D1, respectively. Flow space 63. Further, when the liquid is transported to the second culture space 62 of the second aquaculture tank 6 via a siphon phenomenon, the second culture space 62 receives a large amount of the liquid at a time, and the liquid exceeds The capacity of the second culture space 62 can be accommodated. At this time, the liquid flows over the spacer member 61 and flows through the liquid discharge member 64 to the overflow space 63 at the same time. Then, the liquid flowing to the overflow space 63 flows out of the second aquaculture tank 6 via the infusion member 65. First, with respect to the spacer member 61, the liquid that can be accommodated beyond the second culture space 62 flows over the spacer member 61 to the overflow space 63. It can be seen that the height of the spacer member 61 limits the overflow of the liquid from the second culture space 62 to the overflow space 63, and the height of the spacer member 61 defines the overflow bit line D2. In addition, the spacer member 61 can also prevent the second culture space 62 from receiving a large amount of the liquid at a time to flush the aquatic organisms in the second culture space 62 to the overflow space 63. With regard to the liquid discharge member 64, as long as the height of the liquid located in the second culture space 62 is higher than the height of the second opening 642 located in the overflow space 63, the liquid passes through the liquid discharge member 64. The first opening 641 and the second opening 642 flow to the overflow space 63. It can be seen that the height of the second opening 642 of the liquid discharging member 64 restricts the overflow of the liquid from the second culture space 62 to the overflow space 63, and the height of the second opening 642 is defined. The fluid level line D1. With regard to the infusion member 65, as long as the height of the liquid in the overflow space 63 is higher than the height of the infusion tube 651, the liquid flows out of the overflow space 63 via the infusion tube 651. It can be seen that the height of the infusion tube 651 restricts the flow of the liquid from the overflow space 63 to the outside of the overflow space 63, and the height of the infusion tube 651 defines the infusion line line D3.

The second planting space 71 of the second planting pot 7 then receives the liquid. The liquid will fill the second planting space 71 and the second siphoning member 72. Since the second siphon member 72 has the same structure as the first siphon member 52, the siphon phenomenon is generated in the same manner as the first siphon member 52 described above, so that the second siphon member 72 does not describe how the siphon phenomenon occurs. The second syphon 72 transports the liquid from the second planting space 71 back to the first aquatic living tank 4. It should be noted here that the liquid suction member 42 is continuously extracting the liquid. As can be seen from the above, the liquid flows through the first aquatic biological culture tank 4, the first plant cultivation pot 5, the second aquatic biological culture tank 6, and the second plant cultivation pot 7, respectively, to complete the circulation.

Regarding the second embodiment of the present invention, the first siphon member 52 and the second siphon member 72 can be combined with an external siphon device. Referring to FIG. 4 and FIG. 5, the first siphon member 53 and the second siphon member 73 of the second embodiment of the present invention are provided. The first siphon member 53 and the second siphon member 73 of the second embodiment have The same structure is exemplified here only by the first siphon member 53. The first siphon member 53 includes a pair of liquid inlet tubes 531 which are disposed on the first low liquid level line L1, and a connection connecting the liquid inlet tubes 531. The tube 532 is connected to the connecting tube 532 and is disposed on the first high liquid level line H1, a connecting tube 534 for the first type of tube 533, and a connecting tube 534 for the connecting tube 534. a central tube 535, and a set of outlet tubes 536 disposed in the central tube 535 and outputting the liquid to the second aquaculture tank 6, the inner diameter of the connecting tube 534 is larger than the central tube 535 The inner diameter of the inner tube is larger than the inner diameter of the inner tube 535. Further, the communication pipe 534 and the liquid discharge pipe 536 have the same pipe diameter. As can be seen from the above, the liquid inlet pipe 531 defines the first low liquid level line L1 of the first plant planting pot 5, and the weir type pipe 533 defines the first high liquid of the first plant planting pot 5. Bit line H1. For the composition of each tube member, the connecting tube 532 and the ㄇ-shaped tube 533 are integrally formed by bending the same tube member; or the inlet tube 531, the connecting tube 532 and the ㄇ-shaped tube 533 are also formed by the same tube member. Alternatively, the liquid inlet pipe 531, the connecting pipe 532, the weir pipe 533 and the connecting pipe 534 may be integrally formed by bending the same pipe member, but it is not limited to this embodiment.

With regard to the siphon action of the first syphon 53 of the second embodiment of the present invention, when the liquid enters through the liquid inlet tube 531 and flows through the connecting tube 532 and is gradually raised to the ㄇ-shaped tube 533, The tube diameter difference between the connecting tube 534, the center tube 535 and the liquid outlet tube 536 will cause a siphon phenomenon of the full tube flow, and the gravity and air pressure of the liquid will make the liquid quickly pass through the liquid inlet tube 531, The connecting pipe 532, the weir pipe 533, the communicating pipe 534, and the center pipe 535 to the liquid discharging pipe 536 discharge the liquid. When the liquid drops to the first low liquid level line L1 of the liquid inlet pipe 531, the outside air can enter from the liquid inlet pipe 531 and interrupt the liquid column to stop the siphoning action. At this time, the water level of the liquid is maintained at the first low liquid level line L1, and waits for the next time to continue to rise to the first high liquid level line H1.

Please refer to FIG. 4 and FIG. 5 , in order to ensure that the siphoning action can be effectively stopped, the first siphoning member 53 can also be provided with a first siphon auxiliary object 54 in the liquid inlet tube 531, and the second siphoning member 73 can also be used. A second siphon auxiliary object 74 is provided. Since the first siphon auxiliary object 54 has the same structure as the second siphon auxiliary object 74, the present example is only illustrated by the first siphon auxiliary object 54. The first siphon assisting The object 54 has an open end 541 at the first low liquid level line L1, and a closed end 542 higher than the liquid inlet tube 531. The closed end 542, the open end 541 and the liquid inlet tube 531 are formed. A siphon chamber 543. The first siphon auxiliary object 54 can ensure the external gas if the liquid amount of the first plant planting pot 5 and the liquid discharging amount at the end of the siphoning action are caused by the control, and the liquid level balance cannot stop the siphoning action. Enter and interrupt the liquid column and stop the siphoning action.

Referring to FIG. 6, the first aquatic biological culture tank 4 can replace the barrier mesh 44 and set the spacer member 61 and the liquid discharge member 64 like the second aquatic biological culture cylinder 6. It can be seen that the first aquaculture tank 4 includes a partitioning member 45 partitioning the first culture space 41 to define a culture space 46 for aquaculture and an infusion space 47 for placing the liquid suction member 42. And a first-class liquid member 48 is connected between the infusion space 47 in the culture space 46. The partitioning member 45 has an opening 451. The fluid discharging member 48 includes a first hole 481 communicating with the opening 451, and a first hole 481 is connected to the first liquid hole 481 and disposed in the infusion space 47. The second hole 482. At the same time, the partitioning member 45 and the liquid discharging member 48 can define the overflow bit line D2 and the flowing liquid level line D1 as the spacer member 61 and the liquid discharging member 64 described above, and thus are not described herein.

Please refer to Fig. 2 and Fig. 6. In this creation, the layered fish and vegetable symbiosis system can add a plurality of the platy fish and vegetable symbiotic planting system 3, thereby increasing the number of organisms in the culture water and increasing the number of planting plants.

In summary, the layered fish-and-food symbiosis system of the present invention can be completed by a first aquatic biological breeding tank, a first plant growing pot, at least one second aquatic living breeding tank and at least one second plant growing pot. Create greater economic benefits in a limited space. In addition, the layered fish-and-food symbiosis system of the present invention only needs to use a liquid extracting member to extract liquid, and further comprises a first siphoning member, a second siphoning member, a spacer member, a row of liquid members, and an infusion solution. The liquid can be recycled.

1‧‧‧ shelves
11‧‧‧Assembly space
100‧‧‧ fish and vegetable symbiosis system
101‧‧ ‧ siphon architecture
102‧‧‧ bell cover
103‧‧‧Inside
104‧‧‧External air tube
105‧‧‧through hole
106‧‧ ‧ nutrient storage basin
107‧‧‧Sucking objects
108‧‧‧plant planting pots
109‧‧‧Cultivated plants
2‧‧‧Basic fish and vegetable symbiotic planting system
3‧‧‧ tiered fish and vegetable symbiosis planting system
4‧‧‧First Aquatic Aquaculture Cylinder
41‧‧‧First breeding space
42‧‧‧Liquid parts
43‧‧‧Supply tube
44‧‧‧Barrier network
45‧‧‧Parts
451‧‧‧ openings
46‧‧‧ farming space
47‧‧‧Infusion space
48‧‧‧Liquid parts
481‧‧‧ first hole
482‧‧‧Second hole
5‧‧‧First plant planting pot
51‧‧‧First planting space
52, 53‧‧‧ first siphon
521‧‧‧First inner tube
522‧‧‧ first open end
523‧‧‧ first closed end
524‧‧‧First bell
525‧‧‧First external air tube
531‧‧‧Inlet tube
532‧‧‧Connecting tube
533‧‧‧ㄇ型管
534‧‧‧Connected pipe
535‧‧‧中管
536‧‧‧Draining tube
54‧‧‧First siphon auxiliary object
541‧‧‧Open end
542‧‧‧closed end
543‧‧‧ siphon chamber
6‧‧‧Second aquatic biological culture tank
61‧‧‧ spacer objects
611‧‧‧Perforation
62‧‧‧Second breeding space
63‧‧‧Overflow space
64‧‧‧Draining parts
641‧‧‧First opening
642‧‧‧Second opening
65‧‧‧ Infusion parts
651‧‧‧Infusion tube
652‧‧‧Flow control valve
7‧‧‧Second plant planting pot
71‧‧‧Second planting space
72, 73‧‧‧second siphon
721‧‧‧Second inner tube
722‧‧‧second open end
723‧‧‧Second closed end
724‧‧‧second bell jar
725‧‧‧Second external air tube
74‧‧‧Second siphon auxiliary object
8‧‧‧Lighting diode source
L1‧‧‧ first low liquid level line
L2 ‧‧‧ second low liquid level line
H1‧‧‧ first high liquid level line
H2‧‧‧Second high liquid level line
D1‧‧‧ fluid level line
D2‧‧‧ overflow line
D3‧‧‧Infusion line

Figure 1. Schematic diagram of the structure of the Xizhong siphon architecture. Figure 2 is a schematic view showing the structure of the first embodiment of the creation of a layered fish and vegetable symbiosis system. Fig. 3-1 to Fig. 3-2, the schematic diagram of the operation of the circulating liquid in the first embodiment of the creation of the layered fish and vegetable symbiosis system. Fig. 4 is a schematic view showing the structure of the second embodiment of the present layered fish-food symbiosis system. FIG. 5 is a schematic structural view of a first siphon member of a second embodiment of the present invention. Figure 6. Schematic diagram of another structure of the first embodiment of the creation of a shelf-type fish-food symbiosis system.

1‧‧‧ shelves

11‧‧‧Assembly space

2‧‧‧Basic fish and vegetable symbiotic planting system

3‧‧‧ tiered fish and vegetable symbiosis planting system

4‧‧‧First Aquatic Aquaculture Cylinder

41‧‧‧First breeding space

42‧‧‧Liquid parts

43‧‧‧Supply tube

44‧‧‧Barrier network

5‧‧‧First plant planting pot

51‧‧‧First planting space

52‧‧‧First siphon

521‧‧‧First inner tube

522‧‧‧ first open end

523‧‧‧ first closed end

524‧‧‧First bell

525‧‧‧First external air tube

6‧‧‧Second aquatic biological culture tank

61‧‧‧ spacer objects

611‧‧‧Perforation

62‧‧‧Second breeding space

63‧‧‧Overflow space

64‧‧‧Draining parts

641‧‧‧First opening

642‧‧‧Second opening

65‧‧‧ Infusion parts

651‧‧‧Infusion tube

652‧‧‧Flow control valve

7‧‧‧Second plant planting pot

71‧‧‧Second planting space

72‧‧‧Second siphon

721‧‧‧Second inner tube

722‧‧‧second open end

723‧‧‧Second closed end

724‧‧‧second bell jar

725‧‧‧Second external air tube

8‧‧‧Lighting diode source

L1‧‧‧ first low liquid level line

L2‧‧‧ second low liquid level line

H1‧‧‧ first high liquid level line

H2‧‧‧Second high liquid level line

D1‧‧‧ fluid level line

D2‧‧‧ overflow line

D3‧‧‧Infusion line

Claims (14)

A shelf-type fish-and-food symbiosis system comprises: a shelf with an assembly space; a basic fish-culture symbiosis planting system installed in the assembly space, the basic fish-culture symbiosis plant system comprises a first aquatic a biological breeding tank and a first planting pot, the first aquatic living tank comprising a first culture space for accommodating a liquid, a liquid collecting member disposed in the first culture space and extracting the liquid, and a Connecting the liquid collecting member to transfer the liquid to the liquid supply pipe of the first plant planting pot, and the first plant planting pot comprises a first planting space for receiving the liquid from the liquid feeding tube, and a first planting space is provided A plant planting basin defines a first low liquid level line for retaining the liquid in the first planting space and a first siphoning member for attracting the liquid to produce a siphon phenomenon and outputting the first high liquid level line of the liquid And at least one layer of fish and vegetable symbiosis planting system installed in the assembly space and bounded between the first aquatic biological breeding tank and the first plant growing pot, each of the lining fish and vegetable symbiosis The planting system comprises a second aquatic biological breeding tank and a second plant growing pot, the second aquatic biological breeding tank distinguishing at least one receiving the liquid from the first plant growing pot and storing the liquid by a spacer. a second culture space and an overflow space disposed apart from the second culture space, and a liquid discharge member connecting the second culture space and the overflow space, and a liquid disposed in the overflow space and outputting the liquid The infusion member to the second plant planting basin defines an overflow bit line, a first-class liquid level line and an infusion line line with the spacer object, the liquid discharging piece and the infusion piece, and the second plant planting pot comprises Receiving a second planting space for outputting the liquid by the second aquatic biological breeding tank, and a second planting basin for defining a second low liquid level line for retaining the liquid in the second planting space And a second siphon member that attracts the liquid to produce a siphon phenomenon and outputs the liquid to a second high liquid level line of the first aquatic biological culture tank. The shelf-type fish-and-food symbiosis system according to claim 1, wherein the first aquatic biological culture tank comprises a barrier net that isolates the liquid-absorbent member. The shelf-type fish-food symbiosis system of claim 1, wherein the spacer comprises a perforation, the liquid discharge member comprises a first opening communicating with the perforation, and a first opening is connected and The fluid level line is disposed in the second opening in the overflow space. The shelf-type fish-culture symbiosis system according to claim 1, wherein the first syphon member comprises a first inner tube extending toward the first planting space and disposed on the first high liquid level line, and a first open end and a first closed end and covering the first bell jar of the first inner tube. The shelf-type fish-food symbiosis system of claim 1 or 4, wherein the second siphon member comprises a second inner tube extending toward the second planting space and disposed on the second high liquid level line, and a second bell cover having a second open end and a second closed end and covering the second inner tube. The shelf-type fish-food symbiosis system according to claim 1, wherein the first siphon member comprises a pair of liquid inlet tubes disposed at a first low liquid level line, and a connecting tube connecting the liquid inlet tubes, one connected The connecting pipe is a ㄇ-shaped pipe which is disposed on the first high liquid level line, a connecting pipe for the ㄇ-shaped pipe, a central pipe for the connecting pipe, and one set in the middle Causing and outputting the liquid to the outlet pipe of the second aquatic biological culture cylinder, wherein the inner diameter of the communication pipe is larger than the inner diameter of the inner pipe, and the inner diameter of the outlet pipe is larger than the central pipe Inner diameter. The shelf-type fish-food symbiosis system according to claim 6, wherein the liquid inlet tube is provided with a first siphon auxiliary object, the first siphon auxiliary object having an open end located at the first low liquid level line, and A siphon chamber is formed between the closed end, the open end and the liquid inlet tube, above the closed end of the liquid inlet tube. The shelf-type fish-and-food symbiosis system according to claim 1 or 4 or 6, wherein the second siphon member comprises a pair of liquid inlet tubes disposed at a second low liquid level line, and a connecting tube connecting the liquid inlet tubes a connecting pipe which is connected to the second high liquid level line, a connecting pipe for the casing, a central pipe for the connecting pipe, and a set a liquid discharge pipe disposed in the middle pipe and outputting the liquid to the first aquatic biological culture tank, wherein the inner diameter of the communication pipe is larger than the inner diameter of the inner pipe, and the inner diameter of the liquid discharge pipe is larger than the diameter The inner diameter of the middle tube. The shelf-type fish-culture symbiosis system according to claim 8, wherein the liquid inlet tube is provided with a second siphon auxiliary object, and the second siphon auxiliary object has an open end located at the second low liquid level line, and A siphon chamber is formed between the closed end, the open end and the liquid inlet tube, above the closed end of the liquid inlet tube. The shelf-type fish-culture symbiosis system according to claim 1, wherein the first aquatic biological culture tank comprises a partitioning portion separating the first culture space to define a culture space for aquaculture and aquaculture The infusion space of the liquid collecting member is connected to the infusion space to provide a first-class liquid member, and the overflow member and the first-level liquid level line are defined by the partitioning member and the flowing member. The shelf-type fish-and-food symbiosis system according to claim 10, wherein the partition member has an opening, the fluid flow member includes a first hole communicating with the opening, and a first hole is connected to the first hole The bit line is disposed in the second hole in the infusion space. The shelf type fish-culture symbiosis system according to claim 1, wherein the infusion set comprises an infusion tube disposed in the second aquatic biological culture tank, and a flow control valve disposed on the infusion tube and controlling the flow rate of the liquid . The shelf-type fish-culture symbiosis system according to claim 1, further comprising at least one light-emitting diode light source that provides a light source to illuminate the first planting space. The shelf-type fish-food symbiosis system according to claim 1, further comprising at least one light-emitting diode light source that provides a light source to illuminate the second planting space.