Partitioned continuous breeding mechanism and breeding system thereof

Abstract

The utility model relates to a kind of partition type continuous breeding mechanism and its breeding system, including automatic in-out material mechanism, breeding layer and environmental control mechanism;The side plate and two automatic doors with the automatic in-out material mechanism contact, form breeding space, the breeding space is divided into at least two breeding areas, each described breeding area is provided with environmental control mechanism, and at least one described breeding area is provided with material loosening mechanism;At least one described breeding area is provided with automatic door in both ends.The utility model breaks the traditional overall one-time feeding breeding mode, divides breeding space into several breeding areas, for different needs of insects and plants in different growth stages to environment and material, each breeding area can be respectively accurately controlled, to provide more suitable growth conditions for insects and plants, shorten breeding cycle, improve the growth speed and quality of insects and plants.

Description

Technical Field

[0001] This utility model relates to a zoned continuous breeding facility and its breeding system, belonging to the category of animal and plant breeding equipment. Background Technology

[0002] Insect farming is a high-yield and cost-effective industry. Insects have short growth cycles, high reproductive capacity, and high feed conversion rates. Compared with traditional animal husbandry, insect farming has a smaller carbon footprint and less environmental impact. Insect farming can reduce greenhouse gas emissions and mitigate climate change; protect biodiversity, reduce deforestation and land degradation; and produce organic fertilizer, improving soil quality. The application of artificial intelligence and automation technologies is making insect farming more efficient and automated. Patent CN 115251011B, utility model title: A drying system and method for breeding detritivorous insects, includes a breeding platform and a drying system. The breeding platform includes a bottom sealing layer and several insect breeding layers. Each insect breeding layer includes a breathable support plate and baffles arranged around the breathable support plate. The drying system includes a drying air inlet located at the bottom of the breathable support plate, which is connected to a hot air duct inlet. The hot air duct carries relatively dry hot air for drying. The novel saprophytic insect breeding and drying system can simultaneously carry out breeding and drying operations. One set of equipment can complete two different operations, which can effectively reduce equipment investment and breeding costs. Compared with general drying devices, it has a larger surface area, which is conducive to the spread of breeding residues and larvae, and can effectively improve thermal efficiency and reduce costs. However, the raw materials for insect breeding are generally agricultural waste, poultry and livestock manure and kitchen waste. If one-time feeding is used for breeding, there are the following problems: (1) The insects are small in the early stage and have poor resistance. It is necessary to accurately control the breeding environment and material composition. Therefore, one-time feeding results in the material not being most suitable for the early growth needs of insects, resulting in slow insect growth and long storage time of materials in the breeding equipment, which easily leads to deterioration and odor; (2) One-time feeding results in a large breeding space, and the cost of accurately controlling breeding conditions is high; (3) The material consumption is slow in the early stage, resulting in low equipment utilization. Utility Model Content

[0003] This invention provides a zoned continuous breeding facility and its breeding system, which solves the problems of slow insect production, long material storage time, and easy deterioration caused by the use of one-time feeding in existing three-dimensional breeding equipment.

[0004] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is as follows:

[0005] A zoned continuous aquaculture system includes an automatic material loading and unloading mechanism, an aquaculture layer, and an environmental control mechanism.

[0006] The aquaculture layer includes side panels and at least three isolation doors. The side panels are located on both sides of the automatic material loading and unloading mechanism, and isolation doors are located at both ends of the side panels. The side panels, isolation doors, and automatic material loading and unloading mechanism are in contact and sealed to form an aquaculture space.

[0007] The breeding space is divided into at least two breeding areas, each of which is equipped with an environmental control mechanism, and at least one of the breeding areas is equipped with a material loosening mechanism; at least one of the breeding areas is equipped with isolation doors at both ends.

[0008] Furthermore, preferably: the area of ​​the different breeding areas is determined according to the breeding situation, and the area of ​​different breeding areas is allowed to vary.

[0009] Furthermore, preferably, the environmental control mechanism includes one or more of the following: a ventilation mechanism, a temperature control mechanism, a humidity control mechanism, a light control mechanism, a dissolved oxygen control mechanism, and a nutrient supplementation mechanism.

[0010] Further, preferably: the material loosening mechanism includes a fixed rod and a plurality of plowshares or rake teeth disposed on the fixed rod;

[0011] Alternatively, the material loosening mechanism may include an inclined scraper that is in contact with or slightly above the upper surface of the automatic material feeding and discharging mechanism.

[0012] Alternatively, the material loosening mechanism may be a turning and throwing mechanism.

[0013] Further, preferably: the automatic material feeding and discharging mechanism includes a roller, a breathable conveyor belt, and a sealing support mechanism at both ends, wherein the breathable conveyor belt is mounted on the roller, and the sealing support mechanism is disposed at both ends of the breathable conveyor belt.

[0014] Furthermore, preferably, the automatic material feeding and discharging mechanism further includes a breathable support mechanism, which is disposed between the breathable conveyor belts.

[0015] Furthermore, preferably, the breathable support mechanism is a plurality of support rollers or breathable support plates.

[0016] Furthermore, preferably, the automatic material feeding and discharging mechanism further includes at least one of a scraper and a baffle bar;

[0017] The scraper is disposed at one or both ends of the breathable conveyor belt;

[0018] The baffle strip is installed at one or both ends of the breathable conveyor belt, and the baffle strip is installed at the junction of the breathable conveyor belt and the roller.

[0019] Furthermore, preferably: the side panel is an integral structure or composed of several separate structures, including an upper frame, a ventilation panel, a lower frame and an elastic arc-shaped base plate installed together in sequence, and the ventilation panel is provided with air holes.

[0020] Furthermore, preferably: the upper end of the ventilation plate at the air inlet is provided with a first air guide plate, the width of the first air guide plate being smaller than the breeding space.

[0021] Furthermore, preferably: a second air guide plate is provided at the upper end of the ventilation plate at the air inlet end, one end of the second air guide plate is movably connected to the upper end of the ventilation plate at the air inlet end, and the other end of the second air guide plate is movably connected to the upper end of the ventilation plate at the air outlet end. The second air guide plate is movable on one side of the air inlet end so that it is positioned above or below the air vent.

[0022] Furthermore, preferably, the side panel further includes a ventilation duct, which is installed together with the upper frame and the lower frame.

[0023] Furthermore, preferably, the isolation door is a manual door or an automatic door.

[0024] This utility model also provides a zoned continuous aquaculture system, including a frame and several zoned continuous aquaculture mechanisms, wherein the zoned continuous aquaculture mechanisms are installed on the frame, and the structure of each layer of the zoned continuous aquaculture mechanism is determined according to the aquaculture conditions, and the structure of each layer of the zoned continuous aquaculture mechanism is allowed to be different.

[0025] Furthermore, preferably, ventilation ducts are provided on one or both sides of the partitioned continuous aquaculture facility.

[0026] Furthermore, preferably, the bottom and / or top of the frame are respectively provided with sealing mechanisms.

[0027] Further, preferably: the breeding area is divided into an early-stage breeding section, a later-stage breeding section, and a drying section; a first air guide plate is provided on the side plates of the early-stage and later-stage breeding sections, and the ventilation ducts allow gas that meets the breeding requirements to flow; a second air guide plate is provided on the side plates of the drying section, and the drying ducts allow gas that meets the drying requirements to flow; a sealing cover is provided at the bottom of the frame to seal the lower part of the breathable conveyor belt, and a ventilation duct is provided on the sealing cover, within which gas that meets the drying requirements flows; air holes are provided on both sides of the sealing cover, and a second air guide plate is provided between the two air holes.

[0028] The beneficial effects of this utility model are:

[0029] This invention breaks away from the traditional one-time feeding method for breeding. It divides the breeding space into several breeding areas. Each breeding area can be precisely controlled according to the different environmental and material needs of insects and plants at different growth stages, providing more suitable growth conditions for insects and plants, shortening the breeding cycle, and improving the growth rate and quality of insects and plants.

[0030] Compared to the situation where feeding is done all at once, which results in a large breeding space and high costs for precise control of breeding conditions, this zoned continuous breeding facility can rationally allocate space and resources according to the insect's growth stage, precisely control the environment of each breeding area, avoid unnecessary energy waste and equipment investment, enable the insects to continuously utilize the materials, make efficient use of the breeding space, improve the overall utilization rate of the equipment, and reduce breeding costs.

[0031] This invention effectively avoids the problems of materials deteriorating and emitting odors when stored in equipment for a long time, reduces environmental pollution and impact on the surrounding environment, and also provides a cleaner and healthier growth environment for insects, which helps reduce the occurrence of diseases.

[0032] This invention incorporates both an environmental control mechanism and a material loosening mechanism within the breeding area. The environmental control mechanism can precisely regulate environmental parameters such as temperature, humidity, and ventilation in each breeding area to meet the environmental needs of insects at different growth stages. The material loosening mechanism prevents material from clumping, maintaining a loose state that facilitates insect activity and feeding, while also improving ventilation and heat dissipation in the breeding environment. Attached Figure Description

[0033] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0034] Figure 1 This is a three-dimensional structural diagram of the automatic material feeding and discharging mechanism of this utility model;

[0035] Figure 2 This is a schematic diagram of the planar structure of the automatic material feeding and discharging mechanism of this utility model;

[0036] Figure 3 This is a three-dimensional structural diagram of the ventilated breeding area of ​​this utility model;

[0037] Figure 4 This is a three-dimensional structural diagram of the side plate of this utility model;

[0038] Figure 5 This is a schematic diagram of the structure of the second air guide plate of this utility model;

[0039] Figure 6 This is a schematic diagram of the structure of the ventilated and heated breeding area of ​​this utility model;

[0040] Figure 7 This is a schematic diagram of the structure of the ventilated and loosened feed breeding area of ​​this utility model;

[0041] Figure 8 This is a schematic diagram of the structure of the spray aquaculture area of ​​this utility model;

[0042] Figure 9 This is a schematic diagram of the structure of the automatic door of this utility model;

[0043] Figure 10 This is the first three-dimensional structural diagram of the partitioned continuous aquaculture mechanism of this utility model;

[0044] Figure 11 This is the second three-dimensional structural diagram of the partitioned continuous aquaculture mechanism of this utility model;

[0045] Figure 12 This is the third three-dimensional structural diagram of the partitioned continuous aquaculture mechanism of this utility model;

[0046] Figure 13 This is a plan view of the partitioned continuous aquaculture mechanism of this utility model;

[0047] Figure 14 This is the fourth three-dimensional structural diagram of the partitioned continuous aquaculture mechanism of this utility model;

[0048] Figure 15 This is another plan view of the partitioned continuous aquaculture mechanism of this utility model;

[0049] Figure 16 This is the fifth three-dimensional structural diagram of the partitioned continuous aquaculture mechanism of this utility model;

[0050] Figure 17 This is the sixth three-dimensional structural diagram of the partitioned continuous aquaculture mechanism of this utility model;

[0051] Figure 18 This is the first three-dimensional structural diagram of the partitioned continuous aquaculture system of this utility model;

[0052] Figure 19 for Figure 18 A plan view of a zoned continuous aquaculture system;

[0053] Figure 20 This is the second three-dimensional structural diagram of the partitioned continuous aquaculture system of this utility model;

[0054] Figure 21 for Figure 20 A plan view of a zoned continuous aquaculture system;

[0055] Figure 22 This is the second three-dimensional structural diagram of the partitioned continuous aquaculture system of this utility model;

[0056] Figure 23 for Figure 22 A plan view of a zoned continuous aquaculture system;

[0057] Figure 24 for Figure 22 A magnified structural diagram of part A;

[0058] Figure 25 This is the third three-dimensional structural diagram of the partitioned continuous aquaculture system of this utility model;

[0059] Figure 26 This is the fourth three-dimensional structural diagram of the partitioned continuous aquaculture system of this utility model;

[0060] Figure 27 This is a three-dimensional structural diagram of the air valve of this utility model;

[0061] In the diagram, 1 is the roller, 2 is the sealing support mechanism, 3 is the breathable conveyor belt, 4 is the breathable support plate, 5 is the baffle strip, 6 is the scraper, 7 is the upper frame, 8 is the ventilation plate, 9 is the air hole, 10 is the lower frame, 11 is the elastic arc-shaped bottom plate, 12 is the first air guide plate, 13 is the second air guide plate, 14 is the electric push rod, 15 is the heat exchange mechanism, 16 is the heating frame, 17 is the fixing rod, 18 is the rake teeth, 19 is the automatic door, 20 is the spray pipe, 21 is the ventilation duct, 22 is the sealing plate, 23 is the sealing cover, 24 is the fan, and 25 is the air valve. Detailed Implementation

[0062] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are also described.

[0063] Example 1

[0064] A zoned continuous aquaculture system includes an automatic material loading and unloading mechanism, an aquaculture layer, and an environmental control mechanism.

[0065] The function of the automatic feeding and discharging mechanism is to realize the distribution and discharge of materials on the breeding equipment, which can be achieved by using a belt conveyor. Belt conveyors are conventional material conveying equipment, mainly composed of a frame, conveyor belt, belt rollers, tensioning device, transmission device, etc., which will not be described in detail.

[0066] like Figure 1 and 2 As shown, for aquaculture facilities requiring ventilation and drying, the automatic material feeding and discharging mechanism needs to be made of breathable material. The mechanism used in this embodiment includes a roller 1, a breathable conveyor belt 3, and a two-end sealing support mechanism 2. The breathable conveyor belt 3 is mounted on the roller 1, and the roller 1 is installed together with the power mechanism. The power mechanism can be a conventional belt conveyor power mechanism, which will not be described in detail. The breathable conveyor belt 3 is generally made of breathable mesh or wire mesh; this embodiment uses breathable mesh. The sealing support mechanism 2 seals both ends of the breathable conveyor belt 3 to prevent air leakage and provides support. It is generally made of lightweight materials, such as plastic honeycomb panels. The sealing support mechanism 2 is located at both ends of the breathable conveyor belt.

[0067] Excessive feed or high moisture content can cause the breathable conveyor belt 3 to deform under pressure. To prevent this, the automatic feed mechanism also includes a breathable support mechanism, which is installed between the breathable conveyor belts 3. The breathable support mechanism consists of several support rollers or breathable support plates 4. In this embodiment, a breathable support plate 4 is used, and the breathable support plate 4 is provided with ventilation holes.

[0068] During the conveying of viscous materials, some materials adhere to the breathable conveyor belt 3, resulting in reduced efficiency or damage. To solve the above technical problems, the automatic material feeding and discharging mechanism further includes at least one of a scraper 6 and a baffle 5.

[0069] The scraper 6 is set at one or both ends of the breathable conveyor belt 3. One end of the scraper 6 is in contact with or slightly higher than the breathable conveyor belt 3 (2-3mm). This can effectively remove the material adhering to the breathable conveyor belt 3 and clean the breathable conveyor belt 3. Of course, high-pressure gas or liquid can also be used for cleaning.

[0070] The baffle strip 5 is disposed at one or both ends of the breathable conveyor belt 3; the baffle strip 5 is disposed at the junction of the breathable conveyor belt 3 and the roller 1. The baffle strip 5 effectively prevents material from entering the gap between the roller 1 and the breathable conveyor belt 3, preventing material from damaging the roller 1 and improving its service life.

[0071] like Figure 11-15As shown, the aquaculture layer includes side panels. The side panels can be a single integral structure, using only two side panels, or they can be composed of several side panels connected together, depending on the specific situation. This embodiment adopts a split structure, using multiple side panel structures connected together to form an integral structure.

[0072] like Figure 3 As shown, the side panel includes an upper frame 7, a ventilation plate 8, a lower frame 10, and an elastic arc-shaped base plate 11, which are installed together in sequence. The ventilation plate 8 is provided with air holes 9.

[0073] If ventilation is not required at a certain breeding stage, the side panel can adopt a structure of upper frame, connecting plate, lower frame and flexible arc bottom plate. The difference between this structure and ventilation is that there are no air holes on the connecting plate. The specific structure will not be described further.

[0074] The above structure is simple and can be easily and quickly assembled and disassembled. Simultaneously, the flexible arc-shaped bottom plate 11 seals against the breathable conveyor belt 3, effectively improving the sealing effect. The flexible arc-shaped bottom plate 11 is generally made of PP plastic sheet, which has good corrosion resistance. The side plates can also adopt other structures, such as a bottomless, faceless square frame, a box, etc., and are not limited to the structure of this embodiment. The shape of the air vents 9 can be set according to specific circumstances, such as oblong holes, round holes, square holes, etc. To prevent the escape of materials or insects, a mesh can also be installed on the air vents 9.

[0075] like Figure 4 As shown, in order to improve the ventilation effect, a first air guide plate 12 can be provided at the upper end of the ventilation plate 8 on the left or right side plate. Generally, it is set at the upper end of the ventilation plate 8 on the air inlet side. The width of the first air guide plate 12 is smaller than the breeding space, which can effectively improve the gas utilization rate.

[0076] The main function of the first air guide plate 12 is to guide the airflow from the air inlet to the air outlet, thereby improving the ventilation effect. This equipment is mainly used in aquaculture.

[0077] like Figure 5 As shown, the structure of the air guide plate can also be as follows: a second air guide plate 13 is provided at the upper end of the ventilation plate 8 at the air inlet end. One end of the second air guide plate 13 is movably connected to the upper end of the ventilation plate 8 at the air inlet end, which can be done by overlapping or other means. In this embodiment, the second air guide plate 13 is installed together with the telescopic mechanism to realize the movement of the second air guide plate 13. The telescopic mechanism can be selected according to the needs. In this embodiment, an electric telescopic rod is used. The other end of the second air guide plate 13 is movably connected to the upper end of the ventilation plate 8 at the air outlet end, which can be done by overlapping or shaft connection, etc. In this embodiment, overlapping is used. The second air guide plate 13 can move on the side of the air inlet end so that it is located at the upper or lower end of the air hole 9.

[0078] With the above structure, when breeding, the air inlet of the second air guide plate 13 is located above the air hole 9, and the air flows from the air inlet to the air outlet, improving the ventilation effect.

[0079] When ventilation or drying is required, the air inlet of the second air guide plate 13 can be located at the lower end of the air hole 9, and the air flows upward from the air inlet to perform ventilation or drying.

[0080] The specific structure of the air guide plate can be combined according to the actual situation. For example, the first air guide plate 12 can be used as a whole, mainly for aquaculture. Alternatively, several layers of the first air guide plate 12 can be used, and several layers of the second air guide plate 13 can be used to achieve both horizontal ventilation and penetrating ventilation and drying.

[0081] The breeding space is divided into several breeding zones, each equipped with an environmental control mechanism, at least one material loosening mechanism, and automatic doors at both ends of at least one breeding zone. The number of breeding zones is primarily determined based on the growth and development patterns of the insects or plants being bred; generally, one breeding zone is set up for each growth and development stage, but multiple breeding zones can also be set up. For example, in this embodiment, the breeding space is divided into 4, 5, 6, or 12 zones, etc.

[0082] The area of ​​different breeding zones is determined based on the breeding conditions, and differences in area are allowed between different breeding zones. During insect breeding, as the insects grow, the required feed and the size of the insects increase. Therefore, the area of ​​the breeding zone used for the early stages of breeding will be much smaller than the area of ​​the breeding zone for later stages. Thus, the areas of different breeding zones within the same zoned continuous breeding facility can be different; for example, the area of ​​the primary breeding zone may be 0.3 m². 2 The area of ​​the secondary aquaculture zone is 1m². 2 The area of ​​the primary aquaculture zone is 2m². 2 Then, new materials are added to the rear breeding area using a later-stage fabric method.

[0083] Of course, the area of ​​the breeding zone can vary within different zoned continuous breeding facilities. For example, in a zoned continuous breeding facility used for the early stages of insect rearing, the area of ​​each breeding zone is 0.6 m². 2 Each breeding zone in the partitioned continuous breeding facility used for the later stages of insect rearing has an area of ​​3 m². 2 wait.

[0084] The purpose of environmental control systems is to provide a favorable environment for the growth and development of cultured organisms, thereby improving their breeding efficiency. Each breeding area needs to be equipped with environmental control systems tailored to the different time requirements of the cultured organisms. These systems generally include one or more of the following: ventilation, temperature control, humidity control, lighting control, and nutrient supplementation.

[0085] The function of the ventilation system is to provide gas for aquaculture to support the growth and development of organisms. It is generally provided by air holes 9 on the side plate and the corresponding air supply mechanism.

[0086] like Figure 6 As shown, the temperature control mechanism is used to adjust the temperature of the breeding space. It typically employs a combination of a heat exchange mechanism 15 and a heating frame 16. The heat exchange mechanism 15 can be a water-heating pipe, an electric heating rod, or other similar device; in this embodiment, a water-heating pipe is used. Alternatively, temperature control can be achieved by introducing hot or cold air through a ventilation system.

[0087] like Figure 8 As shown, the function of the humidity control mechanism is to adjust the humidity in the breeding space to make it suitable for biological growth. This can generally be achieved by introducing gases of different humidity through the ventilation mechanism, or by setting up a separate spray pipe 20.

[0088] The lighting control mechanism can use lighting equipment that promotes the growth and development of organisms, such as fluorescent lamps or infrared lamps.

[0089] like Figure 8 As shown, the main function of the nutritional supplementation device is to supplement the trace elements for biological growth, and a spray tube of 20 is generally sufficient.

[0090] To achieve precise control, sensors for different purposes can be set, such as temperature sensors, humidity sensors, dissolved oxygen sensors, and trace element sensors. The appropriate sensor can be selected according to the actual situation, which will not be explained in detail here.

[0091] Of course, different equipment can be set up according to different organisms for precise control of the breeding environment.

[0092] like Figure 7 As shown, in general, prolonged accumulation of materials in a breeding space can reduce their permeability. To improve permeability, a material loosening mechanism can be installed in the breeding area according to different breeding times. Generally, at least one material loosening mechanism should be installed in a zoned continuous breeding facility. Alternatively, material loosening mechanisms can be installed in different breeding areas as needed, with the preferred option being that each breeding area has a loosening mechanism. The specific structure of the material loosening mechanism can be set according to actual needs. For example, the material loosening mechanism may include a fixed rod 17 and several plowshares or harrow teeth 18 mounted on the fixed rod 17.

[0093] Alternatively, the material loosening mechanism may include an inclined scraper fixed to a side plate.

[0094] Alternatively, the material loosening mechanism may be a turning and throwing mechanism.

[0095] The solution adopted in this embodiment is as follows: the material loosening mechanism includes a fixed rod 17 and several rake teeth 18 set on the fixed rod 17. In this way, during the transportation process of the breathable conveyor belt 3, the material loosening mechanism loosens the material in the breeding area, effectively improving the material's air permeability.

[0096] like Figure 9 As shown, isolation doors are installed at both ends of the aquaculture layer, mainly for sealing. These doors can be manual or automatic; this embodiment uses automatic door 19. Automatic door 19 is a conventional device, generally consisting of a door panel and a power mechanism. The door panel can be an integral structure or a split structure, such as... Figure 9 As shown, this embodiment adopts a split structure. The power mechanism can be set as needed, generally an electric actuator, hydraulic cylinder, or other similar mechanism can be selected; this embodiment uses an electric actuator.

[0097] Automatic doors 19 can be installed at both ends of the breeding area as needed. For example, automatic doors 19 can be installed at both ends of each breeding area, or automatic doors 19 can be installed at both ends of several breeding areas.

[0098] The breeding area of ​​this utility model can be equipped with different environmental control mechanisms, material loosening mechanisms, and automatic doors 19 according to its specific conditions. For example, it can be configured as follows:

[0099] like Figure 10 As shown, a zoned continuous aquaculture system includes an automatic material loading and unloading mechanism, an aquaculture layer, and an environmental control mechanism. The aquaculture layer includes eight side panels and five automatic doors 19. The side panels and automatic doors contact the automatic material loading and unloading mechanism to form an aquaculture space. The aquaculture space is divided into four aquaculture zones from left to right: a primary aquaculture zone, a secondary aquaculture zone, a tertiary aquaculture zone, and a quaternary aquaculture zone. Each aquaculture zone has automatic doors 19 at both ends. The specific structure is as follows:

[0100] The environmental control mechanism of the primary breeding area is the air vent 9 installed on the side plate. The breeding environment is regulated by air with different temperatures, humidity and dissolved oxygen levels through the air vent 9.

[0101] The environmental control mechanism for the secondary aquaculture area consists of air vents 9 installed on the side panels. These vents regulate the aquaculture environment by allowing airflow with varying temperatures, humidity levels, and dissolved oxygen concentrations. A material loosening mechanism is also included to loosen the materials within the aquaculture area, improving its air permeability.

[0102] The environmental control mechanism of the three-level breeding area consists of air vents 9 and heat exchange mechanism 15 installed on the side plate. The breeding environment is regulated by air with different temperatures, humidity and dissolved oxygen levels through the air vents 9 and heat exchange mechanism 15. At the same time, a material loosening mechanism is also provided.

[0103] The environmental control mechanism for the fourth-level aquaculture zone consists of air vents 9 and heat exchange mechanisms 15 installed on the side panels. The aquaculture environment is regulated by air with different temperatures, humidity levels, and dissolved oxygen levels through the air vents 9 and the heat exchange mechanisms 15. No loosening mechanism is required.

[0104] like Figure 11 As shown, a zoned continuous aquaculture system includes an automatic material loading and unloading mechanism, an aquaculture layer, and an environmental control mechanism. The aquaculture layer includes eight side panels and five automatic doors 19. The side panels and automatic doors contact the automatic material loading and unloading mechanism to form an aquaculture space. The aquaculture space is divided into four aquaculture zones from left to right: a primary aquaculture zone, a secondary aquaculture zone, a tertiary aquaculture zone, and a quaternary aquaculture zone. Each aquaculture zone has automatic doors 19 at both ends. The specific structure is as follows:

[0105] The environmental control mechanism of the primary breeding area is the air vent 9 set on the side plate. The breeding environment is regulated by air with different temperatures, humidity and dissolved oxygen levels through the air vent 9.

[0106] The environmental control mechanism for the secondary aquaculture area consists of air vents 9 and spray pipes 20 installed on the side panels. The air vents 9 regulate the aquaculture environment by introducing air with varying temperatures, humidity levels, and dissolved oxygen concentrations; the spray pipes supplement nutrients and regulate temperature and humidity.

[0107] The environmental control mechanism of the tertiary aquaculture area consists of air vents 9 and heat exchange mechanisms 15 installed on the side plates. The aquaculture environment is regulated by air with different temperatures, humidity, and dissolved oxygen levels through the air vents 9 and the heat exchange mechanisms 15.

[0108] The environmental control mechanism of the fourth-level breeding area consists of air vents 9 and a material loosening mechanism installed on the side plate. The air vents 9 regulate the breeding environment by allowing air with different temperatures, humidity levels and dissolved oxygen levels, while the material loosening mechanism loosens the material to improve air permeability.

[0109] like Figure 12 and 13 As shown, a zoned continuous aquaculture facility includes an automatic material loading and unloading mechanism, an aquaculture layer, and an environmental control mechanism. The aquaculture layer comprises 24 side panels and 13 automatic doors. The side panels and automatic doors contact the automatic material loading and unloading mechanism to form an aquaculture space. The aquaculture space is divided into twelve aquaculture zones from left to right. Each aquaculture zone has automatic doors 19 at both ends. The specific structure is as follows:

[0110] The first six breeding areas have the same structure, and each breeding area is equipped with an environmental control mechanism, which is a vent 9 installed on the side plate. The breeding environment is regulated by airflow with different temperatures, humidity levels, and dissolved oxygen levels through the vent 9.

[0111] The last six breeding areas have the same structure. Each breeding area is equipped with an environmental control mechanism, a heat exchange mechanism 15, and a material loosening mechanism. The breeding environment is regulated by airflow with different temperatures, humidity levels, and dissolved oxygen levels through the air vents and the heat exchange mechanism 15. The material loosening mechanism loosens the material during the movement of the automatic material feeding and discharging mechanism to improve its permeability.

[0112] like Figure 14 and 15 As shown, a zoned continuous aquaculture facility includes an automatic material loading and unloading mechanism, an aquaculture layer, and an environmental control mechanism. The aquaculture layer includes 24 side panels and 5 automatic doors 19. The side panels and automatic doors 19 contact the automatic material loading and unloading mechanism to form an aquaculture space. The aquaculture space is divided into twelve aquaculture zones from left to right. Automatic doors 19 are located at both ends of every three aquaculture zones. The specific structure is as follows:

[0113] Each breeding area is equipped with an environmental control mechanism, which consists of air vents 9 located on the left and right side panels. The breeding environment is regulated by airflow with varying temperatures, humidity levels, and dissolved oxygen levels through the air vents 9. All breeding areas except the third and sixth breeding areas are equipped with material loosening mechanisms.

[0114] In this embodiment, a ventilation duct 21 is provided in each breeding area. The ventilation duct 21 can be separately installed on the side plate, or it can be an integral structure duct fixed to the frame.

[0115] like Figure 16 As shown, a zoned continuous aquaculture system includes an automatic feeding and discharging mechanism, an aquaculture layer, and an environmental control mechanism. The aquaculture layer includes a side panel and an automatic door. The side panel and automatic door contact the automatic feeding and discharging mechanism to form an aquaculture space. The aquaculture space is divided into four aquaculture zones from left to right: a primary aquaculture zone, a secondary aquaculture zone, a tertiary aquaculture zone, and a quaternary aquaculture zone. Each aquaculture zone has an automatic door at both ends. The specific structure is as follows:

[0116] The environmental control mechanisms for the first-level to third-level breeding areas are the same, including air vents, heat exchange mechanisms, and spray pipes installed on the side panels. Through the air vents and heat exchange mechanisms, air with different temperatures, humidity levels, and dissolved oxygen levels is introduced, and through the spray pipes, nutrients are supplemented and temperature and humidity are regulated to control the breeding environment.

[0117] The environmental control mechanism of the fourth-level aquaculture zone includes air vents, heat exchange mechanisms, and spray pipes installed on the side panels. Through the air vents and heat exchange mechanisms, air with different temperatures, humidity levels, and dissolved oxygen levels is introduced, while through the spray pipes, nutrients are supplemented and temperature and humidity are regulated to control the aquaculture environment. At the same time, a first material loosening mechanism is installed to loosen the material and improve air permeability.

[0118] like Figure 17 As shown, a zoned continuous aquaculture system includes an automatic feeding and discharging mechanism, an aquaculture layer, and an environmental control mechanism. The aquaculture layer includes 16 side panels and 5 automatic doors. The side panels and automatic doors contact the automatic feeding and discharging mechanism to form an aquaculture space. The aquaculture space is divided into four aquaculture zones from left to right: a primary aquaculture zone, a secondary aquaculture zone, a tertiary aquaculture zone, and so on up to an eighth-level aquaculture zone. Automatic doors are installed at both ends of every two aquaculture zones. The specific structure is as follows:

[0119] The environmental control mechanisms for all eight levels of aquaculture zones are the same, including air vents and spray pipes installed on the side panels. Through the air vents and heat exchange mechanisms, air with different temperatures, humidity levels, and dissolved oxygen levels is introduced, while through the spray pipes, nutrients are supplemented and temperature and humidity are regulated to control the aquaculture environment. At the same time, a material loosening mechanism is installed to loosen the material and improve air permeability.

[0120] The environmental control mechanism, loosening mechanism, and automatic door of this invention can be flexibly adjusted according to different cultured organisms, enabling precise control of each growth stage of the organisms, which can effectively improve equipment utilization and production efficiency.

[0121] The number of breeding zones in this invention is not limited to the above embodiments. A breeding zone can be set up for each breeding stage according to the characteristics of the different breeding stages of the cultured organisms. Furthermore, the size of each breeding zone can be set according to actual conditions and does not require all breeding zones to be the same size.

[0122] Example 2

[0123] like Figure 15 and 16 As shown, this utility model also provides a zoned continuous aquaculture system, including a frame and several layers of the zoned continuous aquaculture mechanism, wherein the zoned continuous aquaculture mechanism is installed on the frame and ventilation ducts are provided on both sides of the zoned continuous aquaculture mechanism.

[0124] The structure of each layer of the partitioned continuous aquaculture facility is determined according to the aquaculture conditions, and differences in the structure of each layer of the partitioned continuous aquaculture facility are allowed.

[0125] For aquaculture areas where the overall aquaculture environment can be altered by changing a few environmental control mechanisms, it is advisable to select a few layers to install environmental control mechanisms to achieve overall environmental control of the aquaculture area, such as temperature and humidity.

[0126] The zoned continuous aquaculture system in this embodiment is mainly used for aquaculture operations, and the automatic feeding and discharging mechanism can be achieved using a traditional belt conveyor. Of course, using... Figure 1 The structure is also acceptable.

[0127] In this embodiment, a 10-layer partitioned continuous aquaculture facility is set up. Each layer of the partitioned continuous aquaculture facility is divided into five aquaculture zones from left to right, namely the first aquaculture zone, the second aquaculture zone, ... the fifth aquaculture zone.

[0128] Automatic doors 19 are installed at both ends of each breeding area from the first to the fifth breeding area. Air vents 9 are installed on the side panels of each breeding area, and first air guide plates 12 are installed on the side panels.

[0129] Each of the three to five breeding zones is equipped with a material loosening mechanism, which employs... Figure 8 The structure.

[0130] Within the ten-layer breeding area from the first to the fifth breeding zone, heat exchange mechanisms are installed in 1-3 of the breeding zones as needed. For example, heat exchange mechanisms are installed on the first, third, and fifth layers of each breeding zone. The principle behind this structure is that hot air flows from the upper mesh, and the heating below causes the temperature above to rise. This effectively reduces the number of heat exchange mechanisms and lowers costs.

[0131] Of course, other methods can be used to set up the heat exchange mechanism; this embodiment adopts the method described above.

[0132] The environmental control mechanisms in each breeding area are the same as those in Example 1, and will not be described in detail again.

[0133] Each breeding area has ventilation ducts 21 on both sides. Each layer of ventilation ducts 21 is sealed together to form a single integrated ventilation duct 21. Air valves 25 (not shown in the diagram) are installed at the top and bottom of the integrated ventilation duct 21. The air valves 25 are of conventional structure; appropriate equipment can be selected based on actual conditions. A fan 24 is installed at the top of the integrated ventilation duct 21. The air valves 25 used in this embodiment are as follows... Figure 27 As shown.

[0134] Sealing mechanisms can be set at the bottom and top of the frame as needed, generally a sealing plate 22 or a sealing cover 23. In this embodiment, the top is a sealing plate 22, which is sealed together with the side plate, and the bottom is a sealing cover 23, which seals the lower part of the breathable conveyor belt 3.

[0135] The partitioned continuous aquaculture system in this embodiment can also be equipped with heat preservation systems and deodorization systems as needed.

[0136] The system in this embodiment is mainly used for the breeding of insects that require high ventilation and heating, such as black soldier fly larvae and fly maggots. In the early stages, ventilation and heating are required to promote the rapid adaptation of the larvae to the environment and rapid growth. A spray pipe 20 can also be added to breed insects that require high humidity, such as mealworms and superworms. A lighting system can also be added to cultivate plants.

[0137] Example 3

[0138] This utility model also provides a zoned continuous aquaculture system, including a frame and several layers of the zoned continuous aquaculture mechanism, wherein the zoned continuous aquaculture mechanism is installed on the frame and air ducts are provided on both sides of the zoned continuous aquaculture mechanism.

[0139] like Figure 18 and 19 As shown, this embodiment features a 10-layer zoned continuous aquaculture system. Each layer is divided into 10 aquaculture zones from left to right. Automatic doors 19 are installed at both ends of every two aquaculture zones. Each aquaculture zone has ventilation holes 9 and a material loosening mechanism on its side panels, and a first air guide plate 12 is installed on the side panels. The structure of each zoned continuous aquaculture system is the same as that in Embodiment 1, and will not be described in detail again.

[0140] The zoned continuous aquaculture system in this embodiment is mainly used for aquaculture operations, and the automatic feeding and discharging mechanism can be achieved using a traditional belt conveyor. Of course, using... Figure 1 The structure is also acceptable.

[0141] The system in this embodiment is mainly used for the breeding of insects that do not require much heating, such as black soldier fly larvae and fly maggots. In the later stages of insect growth, heat is emitted, requiring ventilation and cooling to promote the rapid growth of small larvae. A spray pipe 20 can also be added to breed insects that require higher humidity, such as mealworms and superworms. A lighting system can also be added to cultivate plants.

[0142] Example 4

[0143] A zoned continuous aquaculture system includes a frame and several layers of the zoned continuous aquaculture structure, wherein the zoned continuous aquaculture structure is installed on the frame and air ducts are provided on both sides of the zoned continuous aquaculture structure.

[0144] The partitioned continuous aquaculture system in this embodiment needs to be used for both aquaculture and drying operations. The aquaculture section of the automatic feeding and discharging mechanism can use a traditional belt conveyor. Figure 1 The structure is also acceptable. In this embodiment, all automatic feeding and discharging mechanisms utilize [the appropriate structure]. Figure 1 The structure.

[0145] like Figure 20-22 As shown, in this embodiment, the zoned continuous aquaculture system is arranged with 12 layers of zoned continuous aquaculture structures from top to bottom. Each layer of the zoned continuous aquaculture structure is divided into 12 aquaculture zones from left to right.

[0146] The first to third floors are the early-stage breeding areas. Each breeding area is equipped with an automatic door 19 at both ends, and each breeding area is equipped with a vent 9. A first air guide plate 12 is installed on the side plate. Each breeding area on the third floor is equipped with a heat exchange mechanism 15. There is no heat exchange mechanism in the breeding areas on the first and second floors.

[0147] From the fourth to the twelfth floor, automatic doors 19 are installed at both ends of every three breeding areas, and air vents 9 and material loosening mechanisms are installed in each breeding area;

[0148] The first air guide plate 12 is installed on the side panel of the first to ninth breeding areas in the fourth to twelfth floors, which is the later breeding section;

[0149] The side panels of the tenth to twelfth breeding areas on the fourth to twelfth floors are equipped with second air guide plates 13, which are used as air guides.

[0150] Ventilation ducts 21 are installed on both sides of each breeding area from the first to the ninth breeding area. Each layer of ventilation ducts 21 is sealed together to form an integral ventilation duct 21. Air valves 25 are installed at the top and bottom of the integral ventilation duct 21, and a fan is installed at the top of the integral ventilation duct 21.

[0151] Separate ventilation ducts 21 and valves are installed on the first to third floors of the tenth to twelfth breeding areas, and the air flowing in the ventilation ducts 21 meets the breeding requirements;

[0152] Separate ventilation ducts 21 and valves are installed on the fourth to twelfth floors, and gas that meets the air-drying requirements flows in the ventilation ducts 21.

[0153] Sealing mechanisms can be set at the bottom and top of the frame as needed, generally a sealing plate 22 or a sealing cover 23. In this embodiment, the top is a sealing plate 22, which is sealed together with the side plate, and the bottom is a sealing cover 23, which seals the lower part of the breathable conveyor belt 3.

[0154] A ventilation duct 21 is provided on the sealing cover 23, and gas that meets the drying requirements flows in the ventilation duct 21. Air holes 9 are provided on both sides of the side sealing cover 23 of the tenth to twelfth breeding areas, and a second air guide plate 13 is provided between the two air holes 9.

[0155] The placement and method of the second air guide plate 13 are consistent with the structure of the second air guide plate 13 in the aquaculture layer, and will not be described in detail again.

[0156] The partitioned continuous aquaculture system in this embodiment is a comprehensive aquaculture system. The top three layers are the initial insect rearing stage, and the bottom nine layers are the rapid insect rearing stage and the air-drying stage.

[0157] Taking the rearing of black soldier fly larvae as an example, the rearing time for black soldier fly larvae is 11 days, with 6 days in the early stage, 5 days in the later stage, and then 1 day of air drying. The entire rearing cycle takes 12 days. The specific operation process is as follows:

[0158] Taking the rearing of black soldier fly larvae as an example, the rearing time for black soldier fly larvae is 12 days, and the specific operation process is as follows:

[0159] Day 0: The poultry and livestock manure and small larvae used to raise black soldier fly larvae are placed into the first to third breeding areas of the early breeding section through the cloth-laying mechanism. The heat exchange mechanism 15 and ventilation in the first to third breeding areas are controlled to make the temperature and humidity in the first to third breeding areas suitable for the small black soldier fly larvae to quickly adapt to the environment and reduce the mortality rate.

[0160] Day 1: The automatic feeding and discharging mechanism is activated to deliver the materials and black soldier fly larvae that have adapted to the environment from the first to the third breeding areas to the fourth to the sixth breeding areas. At the same time, through the feeding mechanism, new poultry and livestock manure and larvae are introduced into the first to the third breeding areas. The temperature and humidity in the first to the sixth breeding areas are controlled to meet the requirements of the black soldier fly larvae for different days in terms of temperature, humidity, dissolved oxygen, etc.

[0161] Days 2-4: Similar to the first day, new materials are added, and the materials already in the breeding area are moved to one breeding area in the future. Environmental conditions are controlled to meet the environmental requirements of the larvae at this stage.

[0162] 5 days: After 4 days of precise environmental control for breeding, the black soldier fly larvae have passed through the slow growth stage and entered the rapid growth stage. Then, the automatic feeding and discharging mechanism is activated to transport the materials and larvae from the 10th to 12th breeding areas. After collection, the collected larvae and materials are put into the first to third breeding areas of the later breeding department along with fresh poultry and livestock manure. The black soldier fly larvae bred in each breeding area of ​​the early breeding department provide black soldier fly larvae for the three breeding areas of the later breeding department. At the same time, new poultry and livestock manure and larvae are put back into the first to third breeding areas of the early breeding department.

[0163] 6-7 days; repeat the process for 1-5 days to ensure that each breeding area has materials and black soldier fly larvae, and control the breeding environment of different breeding areas according to the environmental needs of black soldier fly larvae on different days to make them meet the breeding environmental conditions of different days and make them the best breeding environment.

[0164] Day 8: After three days of rearing in the later rearing section, the black soldier fly larvae are basically mature. The materials and larvae from the seventh to ninth rearing zones are transported to the air-drying section. There, the larvae and frass are air-dried. This drying process does not necessarily require complete drying of the materials and larvae; the goal is to improve output and screening efficiency. If the larvae are not yet fully mature, rearing operations can continue at this stage. The air-drying process generally takes 1-5 hours, as long as this stage does not exceed 24 hours.

[0165] Day 9: Start the automatic feeding and discharging mechanism to transport the dried insect excrement and black soldier fly larvae from the equipment, completing the entire breeding process and starting up the equipment. Then, repeat the above steps to achieve automatic breeding of black soldier fly larvae.

[0166] Compared to the method of feeding all the materials for the next 8 days into the equipment at once, it has the following advantages:

[0167] (1) The equipment of this utility model adopts zoned breeding, which can accurately control the breeding environment and improve the nutrient conversion efficiency;

[0168] (2) At the same time, the amount of poultry and livestock manure required by black soldier fly larvae in the first four days is much greater than that required in the last four days. Therefore, compared with feeding once, the above-mentioned breeding method shortens the time of poultry and livestock manure in the breeding system by half, which can effectively reduce problems such as hardening, mold and odor caused by excessive feed input at one time.

[0169] (3) The newly collected animal manure should be processed in a timely manner every day to avoid the accumulation of animal manure outside, which would occupy a large area and pollute the environment.

[0170] The structure of this embodiment integrates the early-stage breeding section, the later-stage breeding section, and the air-drying section into one device, which has high integration and a small footprint.

[0171] Example 5

[0172] The partitioned continuous aquaculture systems described in Examples 3-5 all have sealed structures, which are suitable for fields where insect feed has an odor, such as poultry and livestock waste and manure, kitchen waste and other raw materials, and require deodorization treatment or exhaust gas collection and treatment.

[0173] If there is no odor in the feed or during the breeding process, a zonal continuous breeding system can be used to set up ventilation ducts on one side of the breeding area to improve ventilation efficiency. The ducts can be set on the air inlet side and use positive pressure ventilation, or they can be set on the air outlet side and use negative pressure ventilation.

[0174] If the breeding area is tropical and there is no waste gas requiring treatment during the breeding process, a zoned continuous breeding system can be used where neither side of the breeding area has ventilation ducts. In this case, natural ventilation is sufficient for insect breeding, with ventilation holes remaining as air passages. The environmental control system is set according to the actual situation. Generally, in this case, the materials at different breeding stages will evaporate due to the hot air, resulting in a moisture content unsuitable for insect breeding. In this case, spray pipes can be installed in each or several breeding areas, connected to relevant valves and water sources to adjust the moisture content of the materials.

[0175] In this case, sealing mechanisms are generally not required at the bottom and top of the frame, or a sealing cover can be installed at the bottom of the frame. The sealing cover does not come into contact with the breathable conveyor belt for sealing, and its main function is to prevent materials from falling off during the breeding process.

[0176] like Figure 25 As shown, a zoned continuous aquaculture system consists of a twelve-layer, four-zone zoned continuous aquaculture structure and a frame. The structure of each zoned continuous aquaculture structure is determined according to the aquaculture conditions, and differences in the structure of each zoned continuous aquaculture structure are allowed. In this embodiment, the composition and structure of each aquaculture layer are the same. Figure 16 The structure will not be described in detail.

[0177] In this embodiment, ventilation ducts are installed on both sides of the primary to tertiary aquaculture zones. Each ventilation duct consists of several sub-ventilation ducts connected together on both sides of each aquaculture zone. Air valves are installed on the top and bottom ventilation ducts.

[0178] No ventilation ducts are installed on either side of the fourth-level breeding area; natural ventilation or overall environmental ventilation is used instead.

[0179] The bottom and top of the aquaculture frame can be equipped with aquaculture sealing mechanisms as needed, generally aquaculture sealing plate or aquaculture sealing cover. In this embodiment, the bottom is set with an aquaculture sealing cover to seal the lower part of the breathable conveyor belt. No aquaculture sealing mechanism is set at the top.

[0180] like Figure 26 As shown, a zoned continuous aquaculture system consists of a twelve-layer, eight-zone zoned continuous aquaculture structure and a frame. The structure of each zoned continuous aquaculture structure is determined according to the aquaculture conditions, and differences in the structure of each zoned continuous aquaculture structure are allowed. In this embodiment, the composition and structure of each aquaculture layer are the same. Figure 17 The structure will not be described in detail.

[0181] No ventilation ducts are installed on either side of each breeding area; natural ventilation or overall environmental ventilation is used instead.

[0182] The bottom and top of the aquaculture frame can be equipped with aquaculture sealing mechanisms as needed, generally aquaculture sealing plate or aquaculture sealing cover. In this embodiment, the bottom is set with an aquaculture sealing cover to seal the lower part of the breathable conveyor belt. No aquaculture sealing mechanism is set at the top.

[0183] The above structure is suitable for aquaculture in places where hot air maintains a constant temperature all year round.

[0184] The above structures all adopt a mode with ventilation ducts on both sides or no ventilation ducts on either side. A mode with a single ventilation duct can also be adopted as needed. This can be done by removing one ventilation duct from the existing double-sided ventilation duct. No further details will be provided.

[0185] The operation process of the above-mentioned equipment is basically the same as that of Example 4, and will not be described in detail again.

[0186] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A zoned continuous aquaculture facility, characterized in that: This includes an automated material handling system, aquaculture layers, and an environmental control system. The aquaculture layer includes side panels and at least three isolation doors. The side panels are located on both sides of the automatic material loading and unloading mechanism, and isolation doors are located at both ends of the side panels. The side panels, isolation doors, and automatic material loading and unloading mechanism are in contact and sealed to form an aquaculture space. The breeding space is divided into at least two breeding areas, each of which is equipped with an environmental control mechanism, and at least one of the breeding areas is equipped with a material loosening mechanism; at least one of the breeding areas is equipped with isolation doors at both ends.

2. The partitioned continuous culture mechanism according to claim 1, characterized in that: The area of ​​different breeding areas is determined according to the breeding situation, and differences in the area of ​​different breeding areas are allowed.

3. The partitioned continuous culture mechanism according to claim 1, wherein: The environmental control mechanism includes one or more of the following: ventilation mechanism, temperature control mechanism, humidity control mechanism, light control mechanism, dissolved oxygen control mechanism, and nutrient supplementation mechanism.

4. A zoned continuous aquaculture facility according to claim 1, characterized in that: The material loosening mechanism includes a fixed rod and several plowshares or rake teeth mounted on the fixed rod; Alternatively, the material loosening mechanism may include an inclined scraper that is in contact with or slightly above the upper surface of the automatic material feeding and discharging mechanism. Alternatively, the material loosening mechanism may be a turning and throwing mechanism.

5. The partitioned continuous culture mechanism according to claim 1, wherein: The automatic material feeding and discharging mechanism includes a roller, a breathable conveyor belt, and a sealing support mechanism at both ends. The breathable conveyor belt is mounted on the roller, and the sealing support mechanism is located at both ends of the breathable conveyor belt.

6. The partitioned continuous culture mechanism according to claim 5, wherein: The automatic material feeding and discharging mechanism also includes a breathable support mechanism, which is disposed between the breathable conveyor belts.

7. The partitioned continuous culture mechanism according to claim 6, characterized in that: The breathable support mechanism consists of several support rollers or breathable support plates.

8. A partitioned continuous culture mechanism according to any one of claims 5 to 7, wherein: The automatic material feeding and discharging mechanism further includes at least one of a scraper and a baffle bar; The scraper is disposed at one or both ends of the breathable conveyor belt; The baffle strip is installed at one or both ends of the breathable conveyor belt, and the baffle strip is installed at the junction of the breathable conveyor belt and the roller.

9. A zoned continuous aquaculture facility according to claim 1, characterized in that: The side panel is a single integral structure or composed of several separate structures, including an upper frame, a ventilation panel, a lower frame, and an elastic arc-shaped base plate that are installed together in sequence. The ventilation panel is provided with air vents.

10. The partitioned continuous culture mechanism according to claim 9, wherein: The upper end of the ventilation plate at the air inlet is provided with a first air guide plate, the width of which is smaller than the breeding space.

11. The partitioned continuous culture mechanism according to claim 9, wherein: A second air guide plate is provided at the upper end of the ventilation plate at the air inlet end. One end of the second air guide plate is movably connected to the upper end of the ventilation plate at the air inlet end, and the other end of the second air guide plate is movably connected to the upper end of the ventilation plate at the air outlet end. The second air guide plate is movable on one side of the air inlet end so that it is positioned above or below the air vent.

12. A partitioned continuous culture mechanism according to any one of claims 9-11, characterized in that: The side panel also includes a ventilation duct, which is installed together with the upper frame and the lower frame.

13. The partitioned continuous culture mechanism according to claim 1, wherein: The isolation door can be a manual door or an automatic door.

14. A partitioned continuous culture system, characterized by: The system includes a frame and several layers of the partitioned continuous aquaculture facility as described in any one of claims 1-13. The partitioned continuous aquaculture facility is mounted on the frame. The structure of each layer of the partitioned continuous aquaculture facility is determined according to the aquaculture conditions, and differences in the structure of each layer of the partitioned continuous aquaculture facility are allowed.

15. The system of claim 14, wherein: The partitioned continuous aquaculture facility is equipped with ventilation ducts on one or both sides.

16. The system of claim 14, wherein: The frame is provided with sealing mechanisms at its bottom and / or top.

17. The system of claim 14, wherein: The breeding area is divided into an early-stage breeding section, a later-stage breeding section, and a wind-dried section. The first air guide plate is installed on the side plate of the early breeding section and the later breeding section, and the ventilation duct flows with gas that meets the breeding requirements; A second air guide plate is provided on the side plate of the air-drying tube, and the air-drying duct flows with gas that meets the air-drying requirements; The bottom of the frame is provided with a sealing cover to seal the lower part of the breathable conveyor belt. A ventilation duct is provided on the sealing cover, and gas that meets the air-drying requirements flows in the ventilation duct. A second air guide plate and air holes are provided on the sealing cover, and the second air guide plate guides the air to penetrate the breathable conveyor belt.

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