Fish culture and reproduction system capable of simulating marine environment
By designing a fish breeding and reproduction system that simulates the marine environment, including multiple filter structures and light simulation mechanisms, the problem of difficulty in simulating the marine environment and incomplete filtration of traditional systems is solved, and efficient filtration of water bodies and promotion of fish reproduction is achieved.
Patent Information
- Application Number
- CN202411825983.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-12
- Publication Date
- 2025-03-07
AI Technical Summary
Traditional marine fish breeding and reproduction systems are difficult to accurately simulate the complex and changeable conditions of the marine environment, and the filtration system cannot efficiently remove harmful substances, odors and colors in the water, affecting the reproductive behavior of fish.
A fish breeding and breeding system that simulates the marine environment is designed, including a transparent glass breeding tank, a light simulator, an oxygenation mechanism, a wave simulator, a constant temperature heating mechanism and a multi-channel filtering structure. The multi-channel filter structure adopts a microbial filter cartridge, an activated carbon filter cartridge and a wire mesh cartridge, and achieves multiple filtration and extrusion effects of water through the filter press assembly and the primary and secondary filter press assembly.
It realizes the efficient filtration and continuous cleanliness of the water body of the breeding tank, reduces the clogging of the filter cotton, extends the service life of the filter cotton, and simulates the complex lighting and water quality conditions in the marine environment, promoting the healthy reproduction of fish.
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Figure CN119563584A_ABST
Abstract
Description
Technical Field
[0001] The invention specifically relates to the technical field of fish breeding and reproduction, and in particular to a fish breeding and reproduction system that simulates a marine environment. Background Art
[0002] Since the marine environment includes many factors, such as water temperature, which varies with seasons, ocean currents, depth and other factors, and salinity, which also changes due to sea location, freshwater injection and other conditions, traditional marine fish breeding systems are often unable to accurately simulate the complex and changeable conditions of the marine environment. Moreover, the cleanliness of the ocean is also very important for fish reproduction. If there are too many impurities such as fish bait and fish feces in the water, it will cause a certain stimulation to the fish eggs and is not conducive to the fish's gonadal development and reproductive behaviors such as ovulation and fertilization.
[0003] In the existing simulated marine environment aquaculture and breeding systems, the filter material type of the filtration system is single or the amount of filter material is insufficient to effectively filter out the remaining bait and excrement in the water, making it difficult to effectively remove harmful substances, odors and colors in the water. Some filtration systems even only use simple filter cotton, which cannot effectively treat substances such as ammonia nitrogen, and the filter cotton replacement cycle is relatively frequent. Summary of the invention
[0004] To this end, the present invention proposes a fish breeding and reproduction system suitable for simulating a marine environment to solve the problems raised in the above background technology.
[0005] To achieve the above object, the present invention provides the following technical solution: a fish breeding and reproduction system simulating an ocean environment, comprising:
[0006] A host, on which a breeding tank is integrally fixed, and the breeding tank is made of transparent glass material, and the host is provided with a temperature display and a health index display;
[0007] A light simulation mechanism, which is fixedly mounted on the top surface of the breeding tank;
[0008] An oxygenation mechanism installed in the breeding tank;
[0009] A wave-making simulation mechanism is provided in plurality and evenly installed on any inner wall of the breeding tank;
[0010] There are four constant temperature heating mechanisms, which are respectively installed on the four end corner walls of the breeding tank;
[0011] And a monitoring mechanism, which can monitor the temperature of the aquaculture water body in real time and transmit the temperature information of the aquaculture water body to a temperature display, and the monitoring mechanism can also monitor the salinity, pH value, water turbidity and water wave amplitude of the aquaculture water body in real time, and transmit the data to a health index display.
[0012] Further, preferably, the lighting simulation mechanism consists of a moon simulation light lamp and a sun simulation light lamp, wherein the moon simulation light lamp uses cold light with adjustable lighting intensity, and the sun simulation light lamp uses warm light with adjustable lighting intensity.
[0013] Further, as a preference, a filtering mechanism, a water turbidity meter, a submerged tank and a circulating pump are provided in the main engine, wherein the submerged tank is connected to the breeding tank, the outlet of the submerged tank is connected to the inlet of the circulating pump, the outlet of the circulating pump is connected to the inlet of the water turbidity meter by a second hose, the outlet of the water turbidity meter is connected to the filtering mechanism by a first hose, and the water filtered by the filtering mechanism flows into the breeding tank.
[0014] Further, preferably, the filtering mechanism comprises:
[0015] A cylinder shell, the bottom port of which is sealed with a lower sealing seat, and the top port of the cylinder shell is sealed with a gland;
[0016] A filter press assembly, which is coaxially arranged in the cylinder shell and clamped between the lower sealing seat and the gland;
[0017] A filter cartridge, which is provided with three layers, and all of them are coaxially arranged in the cartridge shell and are all arranged outside the filter press assembly;
[0018] And a water outlet pipe, one end of which is connected to the breeding tank by a hose three, and the other end of the water outlet pipe is connected to the annular cavity formed between the filter cartridge located at the outermost periphery and the cartridge shell.
[0019] Further, as a preference, the three layers of filter cartridges are sequentially arranged from the inside to the outside as a microbial filter cartridge, an activated carbon filter cartridge and a wire mesh protective cartridge.
[0020] Further, preferably, the filter press assembly comprises:
[0021] A filter press cartridge, which is sealably mounted on the bottom surface of the gland, and an inner seal seat is sealably connected to the bottom opening of the filter press cartridge;
[0022] An inner sealing ring adapted to slide into the filter cartridge and be sealed between the gland and the inner sealing seat;
[0023] A secondary filter press assembly, which is fixed on the bottom surface of the filter press cartridge;
[0024] And a first-stage filter press assembly, which is adapted to be slidably arranged in the inner sealing ring, and the inner cavity of the inner sealing ring located above the first-stage filter press assembly is connected with a hose, one end of an internal threaded tube is fixed to the bottom surface of the first-stage filter press assembly, and the other end of the internal threaded tube is inserted into the second-stage filter press assembly and then threadedly connected to a screw rod, and the screw rod drives the forward and reverse motor in the motor seat.
[0025] Further, preferably, the secondary filter press assembly comprises:
[0026] Two spacers are provided, which are fixed on the filter cartridge and the lower sealing seat respectively, and the opposite end surfaces of the two spacers are provided with a plurality of limiting slide grooves in a circumferential array, and each of the limiting slide grooves is adapted to be slidably connected with a slider;
[0027] The number of the pressure rods is 1 / 2 of the number of the sliders, and they are arranged in a circular array between the two spacers, and the two ends of each of the pressure rods are respectively connected to the corresponding sliders, and at least one end of the inclined rod with the same inclination can be rotatably mounted on the side wall of each of the pressure rods, and the other end of each of the inclined rods can be rotatably connected to the side wall of the internally threaded tube;
[0028] And a filter cotton cartridge is arranged between the two partition seats, both ends of the filter cotton cartridge are connected to the two partition seats by elastic sealing rings, and the inner wall of the filter cotton cartridge is connected to each pressure rod.
[0029] Furthermore, preferably, the inner sealing seat and the partition seat located above are both provided with a communicating flow channel.
[0030] Further, as a preference, the first-stage filter press assembly consists of a primary filter fabric, a sliding plug ring and two pressure plates, wherein the sliding plug ring is adapted to be slidably arranged in the inner sealing ring, pressure plates are fixed on the upper and lower end faces of the sliding plug ring, and each of the pressure plates is penetrated by a filter port, and the primary filter fabric is placed in the space formed by the sliding plug ring and the two pressure plates.
[0031] The present invention adopts the above technology and has the following beneficial effects compared with the existing technology: the present invention is provided with a filtering mechanism, which adopts a multi-pass filtering structure and has a certain high efficiency in filtering the water in the breeding tank. When the forward and reverse motors drive the screw to rotate counterclockwise, under the limiting effect of each pressure rod, the internal threaded tube and the screw cooperate with the thread to rotate, and move upward along a straight line, and pull the inclined rod to increase its inclination. However, when the length of the inclined rod remains unchanged, each pressure rod moves toward the direction of the internal threaded tube to compensate for the inclination requirement of the inclined rod, and the squeezing effect is achieved by reducing the volume of the filter cotton cylinder, so as to perform a second pressure filtration on the water in the breeding tank, and the squeezing effect can speed up the filtration speed, and can avoid the clogging of the filter cotton through the pressurization effect, so as to continuously ensure the cleanliness of the water in the breeding tank;
[0032] Moreover, when the internal threaded tube moves upward, it drives the first-stage filter press assembly to push upward to push and filter out the newly entered water, so that larger particles of impurities in the water remain in the inner sealing ring, thereby reducing the physical filtration burden of the filter cotton cartridge and extending the service life of the filter cotton cartridge. BRIEF DESCRIPTION OF THE DRAWINGS
[0033] Figure 1 It is a partial dialysis diagram of a fish breeding system simulating a marine environment;
[0034] Figure 2 A schematic diagram of the internal structure of a host in a fish breeding system simulating an ocean environment;
[0035] Figure 3 A schematic diagram of the internal structure of a filtration mechanism in a fish breeding and reproduction system simulating a marine environment;
[0036] Figure 4 A structural cross-sectional view of a filtering mechanism in a fish breeding system simulating a marine environment;
[0037] Figure 5 for Figure 4 A magnified schematic diagram of part A;
[0038] Figure 6 for Figure 4 Schematic diagram of the enlarged portion B.
[0039] In the figure: 1. Moon simulation light; 2. Sun simulation light; 3. Oxygenation mechanism; 4. Wave-making simulation mechanism; 5. Main engine; 6. Health index display; 7. Temperature display; 8. Monitoring mechanism; 9. Constant temperature heating mechanism; 10. Filter mechanism; 11. Hose 1; 12. Hose 2; 13. Water turbidity meter; 14. Submerged tank; 101. Gland; 102. Activated carbon filter cartridge; 103. Wire mesh protective tube; 104. Micro Biofilter cartridge; 105, filter press assembly; 106, cartridge shell; 107, water outlet pipe; 108, motor seat; 109, inner sealing ring; 110, internal threaded pipe; 111, inclined rod; 112, screw; 113, pressure plate; 114, primary filter fabric; 115, plug ring; 116, flow channel; 117, inner sealing seat; 118, spacer seat; 119, slider; 120, elastic sealing ring; 121, filter cartridge; 122, pressure rod. DETAILED DESCRIPTION
[0040] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0041] Example: Please refer to the attached Figure 1-6 The present invention provides a technical solution: a fish breeding and reproduction system simulating an ocean environment, comprising:
[0042] A host 5, on which a breeding tank is integrally fixed, and the breeding tank is made of transparent glass material, which is convenient for observing fish activity phenomena and breeding conditions. The host 5 is provided with a temperature display 7 and a health index display 6;
[0043] A light simulation mechanism, which is fixedly installed on the top surface of the breeding tank;
[0044] An oxygenation mechanism 3, which is installed in the breeding tank;
[0045] A wave-making simulation mechanism 4, which is provided in plurality and evenly installed on any inner wall of the breeding tank;
[0046] Constant temperature heating mechanisms 9, of which four are provided and are respectively installed on the four end corner walls of the breeding tank;
[0047] And a monitoring mechanism 8, which can monitor the temperature of the aquaculture water body in real time, and transmit the temperature information of the aquaculture water body to the temperature display 7, and the monitoring mechanism 8 can also monitor the salinity, pH value, water turbidity and water wave amplitude of the aquaculture water body in real time, and transmit the data to the health index display 6.
[0048] In this embodiment, the illumination simulation mechanism is composed of a moon simulating light lamp 1 and a sun simulating light lamp 2, wherein the moon simulating light lamp 1 uses cold light with adjustable illumination intensity, and the sun simulating light lamp 2 uses warm light with adjustable illumination intensity;
[0049] Specifically, according to the changes in natural lighting, the light intensity of the moon simulation light lamp 1 and the sun simulation light lamp 2 is adjusted to provide suitable lighting requirements for marine fish.
[0050] In this embodiment, a filtering mechanism 10, a water turbidity meter 13, a submerged tank 14 and a circulating pump are arranged in the main unit 5, wherein the submerged tank 14 is connected to the breeding tank, the outlet of the submerged tank 14 is connected to the inlet of the circulating pump, the outlet of the circulating pump is connected to the inlet of the water turbidity meter 13 by a hose 2 12, the outlet of the water turbidity meter 13 is connected to the filtering mechanism 10 by a hose 1 11, and the water filtered by the filtering mechanism 10 flows into the breeding tank;
[0051] Specifically, since granular impurities such as bait and fish feces generally sink to the bottom of the breeding tank, the submerged tank 14 is connected to the bottom of the breeding tank, and the water containing impurities at the bottom of the breeding tank naturally sinks into the submerged tank. However, if the submerged tank 14 is full, the water in the breeding tank cannot flow into the submerged tank 14.
[0052] In this embodiment, the filtering mechanism 10 includes:
[0053] The bottom port of the cylinder shell 106 is sealed with a lower sealing seat, and the top port of the cylinder shell 106 is sealed with a gland 101;
[0054] The filter press assembly 105 is coaxially disposed in the cylinder shell 106 and clamped between the lower sealing seat and the pressure cover 101;
[0055] The filter cartridge is provided with three layers, and all of them are coaxially arranged in the cartridge housing 106 and arranged outside the filter press assembly 105;
[0056] And a water outlet pipe 107, one end of which is connected to the breeding tank through a hose 3, and the other end of the water outlet pipe 107 is connected to an annular cavity formed between a filter cartridge located at the outermost periphery and the cartridge shell 106.
[0057] In this embodiment, the three-layer filter cartridge is sequentially arranged from the inside to the outside as a microbial filter cartridge 104, an activated carbon filter cartridge 102, and a wire mesh protective cartridge 103;
[0058] Specifically, the microbial filter cartridge 104 uses ceramic rings, biochemical balls, etc. This layer mainly provides a place for beneficial microorganisms such as nitrifying bacteria to attach. These bacteria can decompose harmful substances such as ammonia nitrogen in the water and convert them into relatively harmless substances, providing healthy waters for fish reproduction;
[0059] The activated carbon filter cartridge 102 is mainly used to absorb pigments, odors and other residual chemicals in water.
[0060] In this embodiment, the filter press assembly 105 includes:
[0061] The filter press cartridge is sealed and mounted on the bottom surface of the gland 101, and the bottom opening of the filter press cartridge is sealed and connected with an inner sealing seat 117;
[0062] The inner sealing ring 109 is adapted to slide into the filter press and is sealed between the gland 101 and the inner sealing seat 117;
[0063] A secondary filter press assembly, which is fixed on the bottom surface of the filter press cartridge;
[0064] And a first-stage filter press assembly, which is adapted to be slidably arranged in an inner sealing ring 109, and the inner cavity of the inner sealing ring 109 located above the first-stage filter press assembly is connected to a hose 11, and one end of an internal threaded tube 110 is fixed to the bottom surface of the first-stage filter press assembly, and the other end of the internal threaded tube 110 is inserted into the second-stage filter press assembly and then threadedly connected to a screw 112, and the screw 112 drives the forward and reverse motor in the motor seat 108.
[0065] In this embodiment, the secondary filter press assembly includes:
[0066] Two spacers 118 are provided, which are fixed on the filter cartridge and the lower sealing seat respectively. The opposite end surfaces of the two spacers 118 are provided with a plurality of limiting slide grooves in a circumferential array, and a slider 119 is adapted to slide in each limiting slide groove;
[0067] The number of the pressure rods 122 is 1 / 2 of the number of the sliders 119, and they are arranged in a circular array between the two spacers 118, and the two ends of each pressure rod 122 are respectively connected to the corresponding slider 119, and at least one end of the inclined rod 111 with the same inclination can be rotatably mounted on the side wall of each pressure rod 122, and the other end of each inclined rod 111 can be rotatably connected to the side wall of the internal threaded tube 110;
[0068] and a cotton filter cartridge 121, which is disposed between the two partitions 118, both ends of the cotton filter cartridge 121 are connected to the two partitions 118 by elastic sealing rings 120, so that water can only be filtered out from the cotton filter cartridge 121, and the inner wall of the cotton filter cartridge 121 is connected to each pressure rod 122;
[0069] Specifically, when the forward and reverse motors drive the screw rod 112 to rotate counterclockwise, under the limiting effect of each pressure rod, the internal threaded tube and the screw rod 112 rotate in coordination with each other, and move upward in a straight line, and pull the inclined rod 111 to increase its inclination. However, when the length of the inclined rod 111 remains unchanged, each pressure rod 122 moves toward the direction of the internal threaded tube, thereby compensating for the inclination requirement of the inclined rod 111, and achieving a squeezing effect by reducing the volume of the filter cotton cylinder, thereby performing a second pressure filtration on the water body therein, and the squeezing effect can speed up the filtration speed, and can avoid the clogging of the filter cotton through the pressurization effect, thereby continuously ensuring the cleanliness of the water body in the aquaculture tank;
[0070] Moreover, when the internal threaded pipe moves upward, it drives the first-stage filter press assembly to push upward to filter out the newly entered water, so that larger particles of impurities in the water remain in the inner sealing ring, thereby reducing the physical filtration burden of the filter cotton cartridge;
[0071] When the forward and reverse motor drives the screw 112 to rotate clockwise, similarly to the above, the secondary filter press assembly and the primary filter press assembly return to their original positions.
[0072] In this embodiment, the inner sealing seat 117 and the partition seat 118 located above are both provided with a communicating flow channel 116 .
[0073] In this embodiment, the first-stage filter press assembly is composed of a primary filter fabric 114, a sliding plug ring 115 and two pressure plates 113, wherein the sliding plug ring 115 is adapted to be slidably arranged in the inner sealing ring 109, and pressure plates 113 are fixed on the upper and lower end faces of the sliding plug ring 115, and each pressure plate 113 is penetrated by a filter port, and the primary filter fabric 114 is placed in the space formed by the sliding plug ring 115 and the two pressure plates 113.
[0074] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. A fish breeding and reproduction system simulating an ocean environment, characterized in that: It includes: A host (5) on which a breeding tank is integrally fixed, and the breeding tank is made of transparent glass material, and the host (5) is provided with a temperature display (7) and a health index display (6); A light simulation mechanism, which is fixedly mounted on the top surface of the breeding tank; An oxygenation mechanism (3) installed in the breeding tank; A wave-making simulation mechanism (4), which is provided in plurality and evenly mounted on any inner wall of the breeding tank; Constant temperature heating mechanisms (9), of which four are provided and are respectively installed on the four end corner walls of the breeding tank; and a monitoring mechanism (8) capable of monitoring the temperature of the aquaculture water body in real time and transmitting the temperature information of the aquaculture water body to the temperature display (7); the monitoring mechanism (8) is also capable of monitoring the salinity, pH value, water turbidity and water wave amplitude of the aquaculture water body in real time and transmitting the data to the health index display (6).
2. The fish breeding and reproduction system simulating an ocean environment according to claim 1, characterized in that: The illumination simulation mechanism is composed of a moon simulating light lamp (1) and a sun simulating light lamp (2), wherein the moon simulating light lamp (1) uses cold light with adjustable illumination intensity, and the sun simulating light lamp (2) uses warm light with adjustable illumination intensity.
3. The fish breeding and reproduction system simulating an ocean environment according to claim 1, characterized in that: The main unit (5) is provided with a filtering mechanism (10), a water turbidity meter (13), a submerged water tank (14) and a circulating pump, wherein the submerged water tank (14) is connected to the aquaculture tank, the outlet of the submerged water tank (14) is connected to the inlet of the circulating pump, the outlet of the circulating pump is connected to the inlet of the water turbidity meter (13) by means of a second hose (12), the outlet of the water turbidity meter (13) is connected to the filtering mechanism (10) by means of a first hose (11), and the water filtered by the filtering mechanism (10) flows into the aquaculture tank.
4. The fish breeding and reproduction system simulating an ocean environment according to claim 3, characterized in that: The filtering mechanism (10) comprises: A cylindrical shell (106), the bottom port of which is sealed with a lower sealing seat, and the top port of the cylindrical shell (106) is sealed with a gland (101); A filter press assembly (105), which is coaxially arranged in the cylinder shell (106) and clamped between the lower sealing seat and the gland (101); A filter cartridge, which is provided with three layers, and all of which are coaxially arranged in the cartridge shell (106) and are all arranged outside the filter press assembly (105); and a water outlet pipe (107), one end of which is connected to the breeding tank by a hose three, and the other end of the water outlet pipe (107) is connected to an annular cavity formed between the filter cartridge located at the outermost periphery and the cartridge shell (106).
5. The fish breeding and reproduction system simulating an ocean environment according to claim 4, characterized in that: The three layers of filter cartridges are arranged from the inside to the outside in sequence as a microbial filter cartridge (104), an activated carbon filter cartridge (102), and a wire mesh protective cartridge (103).
6. The fish breeding and reproduction system simulating an ocean environment according to claim 4, characterized in that: The filter press assembly (105) comprises: A filter press cartridge, which is sealably mounted on the bottom surface of the gland (101), and an inner sealing seat (117) is sealably connected to the bottom opening of the filter press cartridge; An inner sealing ring (109) adapted to slide into the filter press cartridge and be sealingly connected between the gland (101) and the inner sealing seat (117); A secondary filter press assembly, which is fixed on the bottom surface of the filter press cartridge; And a first-stage filter press assembly, which is adapted to be slidably arranged in the inner sealing ring (109), and the inner cavity of the inner sealing ring (109) located above the first-stage filter press assembly is connected to the hose 1 (11), one end of an internal threaded tube (110) is fixed to the bottom surface of the first-stage filter press assembly, and the other end of the internal threaded tube (110) is inserted into the second-stage filter press assembly and then threadedly connected to a screw (112), and the screw (112) drives the forward and reverse motor in the motor base (108).
7. The fish breeding and reproduction system simulating an ocean environment according to claim 6, characterized in that: The secondary filter press assembly comprises: Two spacers (118) are provided and are fixed on the filter cartridge and the lower sealing seat respectively. The two spacers (118) have a plurality of limiting sliding grooves arranged in a circumferential array on opposite end surfaces thereof, and a sliding block (119) is adapted to be slidably connected in each limiting sliding groove. The number of the pressure rods (122) is 1 / 2 of the number of the sliders (119), and the pressure rods (122) are arranged in a circular array between the two spacers (118), and the two ends of each pressure rod (122) are respectively connected to the corresponding slider (119), and at least one end of an inclined rod (111) with the same inclination is rotatably mounted on the side wall of each pressure rod (122), and the other end of each inclined rod (111) is rotatably connected to the side wall of the internally threaded tube (110); and a cotton filter cartridge (121) disposed between the two partition seats (118); both ends of the cotton filter cartridge (121) are connected to the two partition seats (118) by elastic sealing rings (120); and the inner wall of the cotton filter cartridge (121) is connected to each pressure rod (122).
8. The fish breeding and reproduction system simulating an ocean environment according to claim 7, characterized in that: The inner sealing seat (117) and the partition seat (118) located above are both provided with a communicating flow channel (116).
9. The fish breeding and reproduction system simulating an ocean environment according to claim 8, characterized in that: The primary filter press assembly is composed of a primary filter fabric (114), a sliding plug ring (115), and two pressing plates (113), wherein the sliding plug ring (115) is slidably arranged in the inner sealing ring (109), pressing plates (113) are fixed on the upper and lower end surfaces of the sliding plug ring (115), and each of the pressing plates (113) is penetrated by a filter port, and the primary filter fabric (114) is placed in the space formed by the sliding plug ring (115) and the two pressing plates (113).