CN114304012A - High-density aquaculture method - Google Patents

High-density aquaculture method Download PDF

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CN114304012A
CN114304012A CN202210030205.9A CN202210030205A CN114304012A CN 114304012 A CN114304012 A CN 114304012A CN 202210030205 A CN202210030205 A CN 202210030205A CN 114304012 A CN114304012 A CN 114304012A
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framework
sand
net
fish
outer framework
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CN114304012B (en
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徐宾
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Zhanjiang Yuzhenglong Biotechnology Co ltd
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A40/00Adaptation technologies in agriculture, forestry, livestock or agroalimentary production
    • Y02A40/80Adaptation technologies in agriculture, forestry, livestock or agroalimentary production in fisheries management
    • Y02A40/81Aquaculture, e.g. of fish

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Abstract

The invention belongs to the field of aquaculture, in particular to a high-density aquaculture method, which reduces the occurrence of the situation that sand pollutes water in a culture pond by timely cleaning impurities of the sand in the culture pond, improves the living environment of snails, reduces the probability of infection diseases of the snails, ensures that the water in the culture pond flows into an inner framework from bottom to top through the up-and-down movement of the inner framework to fulfill the aim of 'disturbing' a sand layer in the inner framework from bottom to top, and impurities such as excrement and urine wrapped in the sand layer can be adsorbed by an adsorption net at the bottom of the outer framework, meanwhile, the outer framework can separate a feed from the sand layer, meanwhile, a place for feeding the snails is separated from the sand layer, and the residual residues of the feed are left at the upper and later stages of the outer framework and can be directly separated from the culture pond along with the outer framework, so that the feed residues are prevented from polluting the sand layer, and simultaneously, personnel can take out the feed residues, therefore, after the snails are fed each time, the sand layer can be cleaned to a certain degree, and the good environment for the snails to live in is ensured.

Description

High-density aquaculture method
Technical Field
The invention belongs to the field of agricultural cultivation, and particularly relates to a high-density aquaculture method.
Background
In aquaculture, snails have increasingly broad culture prospects due to delicious, crisp and refreshing meat quality, for example, snails (such as Babylonia and the like) need to be cultured in a culture pond at high density in actual production, sand is laid on the bottom of the culture pond, the snail is usually hidden in the sand, when eating, the snail climbs out of the sand to eat, as the feces and food residues of the snails can remain in the sand in the culture pond for a long time, the impurities hidden in the sand can go moldy and further influence the water quality of the culture pond to directly influence the growth of the snails and even cause the death of the snails, the existing method for preventing sand from deteriorating by periodically pumping water in the culture pond and then replacing the sand wastes time and labor, meanwhile, the water in the culture pond is cut off every time, the snails are collected in a centralized mode, and then the snails are released and drained, which is completely similar to the situation that the snails are replaced by a new living environment, so that the cost of snail culture is increased, and the emergency reaction of the snails is easily caused; moreover raise personnel and often regularly put into feed material (dead fish) in breeding the pond at the in-process, when the feed material falls into behind the bottom of the pool large batch spiral shell and climbs on the feed material and eat, the residue of feed material after the food finishes often can be stayed and need personnel to clear up alone in breeding the pond.
Disclosure of Invention
In order to solve the problems in the prior art, the invention provides a high-density aquaculture method which is used for solving the problem that sand at the bottom of a culture pond is easily polluted in the culture process.
In order to achieve the purpose, the invention adopts the following technical scheme: a high-density aquaculture method comprising the steps of:
fixing the bottom of the partition plate on the upper part of the spring to ensure that the limiting groove is matched and corresponding to the sliding block, and forming a culture chamber between the interior of the partition plate and the inner side wall of the culture pond;
paving sand in the partition plate, and enabling the height of the sand to be smaller than that of the partition plate;
injecting water into the culture pond to form a water layer, wherein the height of the water layer is larger than that of the baffle when the baffle is static;
dead fishes are fixed on the leather strip net through the limiting strips, so that the fishes can be conveniently collected through the outer framework directly at the later stage;
the supporting plate is placed in alignment with the clamping groove, so that the height of the water layer is greater than that of the upper end face of the outer framework, and meanwhile, the bottom of the adsorption net is abutted to a sand layer in the culture room;
the snails enter the leather strip net through the adsorption net under the attraction of the fish and feed the fish fixed in the leather strip net by shuttling in the feeding gap;
after the fish in the leather strip net finishes eating, the fishbone is limited and fixed on the leather strip net by the limiting strip;
the support frame is opposite to the two sides of the support frame, and forces in the C direction and the D direction are simultaneously applied, the forces in the C direction and the D direction are both vertically downward, the support frame moves downward under the action of the forces in the C direction and the D direction and drives the framework to move downward, and the framework further pushes the spring downward to enable the spring to deform;
the force in the direction C and the force in the direction D are cancelled, and the inner framework and the outer framework move upwards to reset under the action of the springs;
during the reciprocating motion of the lower framework and the outer framework, water at the bottom of the lower framework surges, water flow continuously surges upwards along the through holes and through sand in the partition plate, impurities wrapped in the sand also float upwards along with the surge of the water flow, and the impurities are finally adsorbed by the adsorption net;
the outer framework is separated from the inner framework, the outer framework is taken out of the culture pond, and fishbones and other impurities in the outer framework are cleaned.
The high-density snail culturing method further comprises the following steps: place the fish on the leather strip net, remove spacing to the position department that is close to fish upper portion, then pull spacing with the couple of spacing and pass the feed clearance and realize the fixed of spacing position, and then be fixed in the leather strip net with the fish through spacing, be fixed in the leather strip net through spacing with the fish.
An inner framework and an outer framework are further arranged in the culture pond, and the outer framework is arranged on the upper portion of the inner framework.
Further interior framework bottom passes through spring and breed pond fixed connection, and interior framework can be dismantled with outer framework and be connected, and outer framework bottom is fixed and is adsorbed the net.
Compared with the prior art, the invention has the beneficial effects that: the invention reduces the occurrence of the situation that sand pollutes the water in the culture pond, improves the living environment of the snails, reduces the probability of infection diseases of the snails, through the up-and-down movement of the inner frame, the water in the culture pond is enabled to flow into the inner frame from the bottom to the top so as to achieve the purpose of 'disturbing' the sand layer in the inner frame from the bottom to the top, impurities such as feces and the like wrapped in the sand layer can be adsorbed by the adsorption net at the bottom of the outer framework, meanwhile, the outer framework can separate the fed materials from the sand layer, meanwhile, the place where the snails eat is separated from the sand layer, and the residual residues of the feeding materials are left on the outer framework in the upper and later period and can be directly separated and taken out from the culture pond along with the outer framework, so that the feeding material residues are prevented from polluting the sand layer, meanwhile, the residue of the feed is convenient for taking out by personnel, and thus the sand bed can be cleaned to a certain extent after the snails are fed every time, thereby ensuring the good environment for the snails to live in.
Drawings
FIG. 1 is a schematic diagram of the present invention.
FIG. 2 is a first schematic view of the structure of the culture pond of the present invention.
FIG. 3 is a schematic view of the structure of a culture pond of the present invention.
FIG. 4 is a schematic view of the inner frame structure of the present invention.
Fig. 5 is a schematic diagram of the structure at a in fig. 4.
FIG. 6 is a schematic view of the combination of the inner frame and the culture pond of the present invention.
FIG. 7 is a schematic view of the outer frame structure of the present invention.
FIG. 8 is a schematic view of the combination of the outer frame and the inner frame of the present invention.
Fig. 9 is a schematic diagram of the structure at B in fig. 8.
FIG. 10 is a schematic view of the structure of the adsorption net of the present invention.
Detailed Description
A high density aquaculture method as shown in figures 1-10 comprising the steps of:
the bottom of the partition 21 is fixed on the upper part of the spring 4 to ensure that the limit groove 52 is matched and corresponding to the slide block 53, at the moment, a culture room 24 is formed between the inner part of the partition 21 and the inner side wall of the culture pond 1,
the sand is spread in the partition 21 so that the height of the sand is smaller than the partition 21.
Injecting water into the culture pond 1 to form a water layer, wherein the height of the water layer is larger than that of the baffle 23 when the baffle is static;
the fish is placed on the skin strip net 33, the limiting strips 35 are moved to the position close to the upper part of the fish, then the limiting strips 35 are pulled to enable the hooks 352 of the limiting strips 35 to penetrate through the feeding gap 333 to fix the position of the limiting strips 35, the fish is fixed on the skin strip net 33 through the limiting strips 35 and fixed on the skin strip net 33 through the limiting strips 35, the fish is prevented from shifting in the feeding process of the Babylonia, meanwhile, the fed fish residues are limited and fixed, the fish residues such as fishbones and the like are prevented from scattering in the culture pond to be unfavorable for collection,
dead fish are fixed on the leather strip net 33 through the limiting strips 35, so that the fish can be conveniently collected through the outer framework 3 in the later period;
the supporting plate 32 is aligned with the clamping groove 22 and is placed in, so that the height of the water layer is greater than that of the upper end surface of the outer framework 3, and meanwhile, the bottom of the adsorption net 6 is pressed into the sand layer in the culture room 24;
the snails enter the skin strip net 33 through the adsorption net 6 under the attraction of the fish and feed the fish fixed in the skin strip net 33 by shuttling in the feeding gap 333;
after the fish in the leather strip net 33 finishes eating, the fishbone is limited and fixed on the leather strip net 33 by the limiting strip 35;
as shown in fig. 1, the support frame 31 is opposite to the two sides of the support frame 31, and the forces in the directions C and D are both vertical downward, the support frame 31 moves downward under the action of the forces in the directions C and D and drives the frame 2 to move downward, and the frame 2 presses the spring 4 downward to deform the spring 4;
the force in the directions of C and D is cancelled, and the inner framework 2 and the outer framework 3 move upwards to reset under the action of the spring 4; at this time, the inner framework 2 stably runs under the action of the limiting assembly 5.
During the reciprocating motion of the lower framework 2 and the outer framework 3, water at the bottom of the lower framework 2 surges, water flows upwards along the through holes 211 and through sand in the partition plate 21, impurities wrapped in the sand float upwards along with the surging of the water flows, and the impurities are finally adsorbed by the adsorption net 6, so that the effect of cleaning the sand can be achieved, and the sand pollution is avoided;
the outer framework 3 is separated from the inner framework 2, the outer framework 3 is taken out from the culture pond 1, and fishbones and other impurities in the outer framework 3 are cleaned.
Wherein an inner framework 2 and an outer framework 3 are arranged in the culture pond 1, and the outer framework 3 is arranged at the upper part of the inner framework 2; the bottom of a concrete inner framework 2 is fixedly connected with a culture pond 1 through a spring 4, the inner framework 2 is detachably connected with an outer framework 3, an adsorption net 6 is fixed at the bottom of the outer framework 3, water is injected into the culture pond 1, sand is paved in the inner framework 2 to be used as a main resting place for Babylonia orientalis, when Babylonia orientalis needs to be fed, feed of Babylonia orientalis such as dead fish and dead crabs can be fixed on the outer framework 3, then the outer framework 3 is placed in alignment with the inner framework 2, so that Babylonia orientalis of the inner framework 2 can enter the outer framework 3 to be fed, food residues such as fishbone and the like after feeding are left on the outer framework 3, the inner framework 2 and the outer framework 3 can be pressed when the outer framework 3 is taken out, because the inner framework 2 can be lifted and descended relative to the culture pond 1, the water in the culture pond 1 can be stirred by utilizing the up-down movement of the inner framework 2, therefore, impurities such as eastern snail excrement or scattered food residues and the like wrapped in sand in the inner framework 2 are prevented from being raised by utilizing the 'upwelling' of water flow at the bottom of the inner framework 2, so that the influence on water quality caused by the middle and later period mildewing and deterioration of the sand in which the impurities are hidden in the inner framework 2 is avoided, a large part of the 'upwelling' impurities are 'adsorbed' by the adsorption net 6 at the bottom of the outer framework 3, and finally the outer framework 3 is separated from the inner framework 2, so that the double functions of feeding and 'impurity' capturing are realized in the installation and disassembly processes of the outer framework 3.
As shown in fig. 2, the upper part of the culture pond 1 is open, the inner box 1 comprises a first side wall 11, a second side wall 12, a third side wall 13, a fourth side wall 14 and a bottom wall 15, the first side wall 11, the second side wall 12, the third side wall 13 and the fourth side wall 14 are vertically and fixedly connected end to end, and the bottom wall 15 is fixed at the bottom of the first side wall 11, the second side wall 12, the third side wall 13 and the fourth side wall 14;
a sewage discharge groove 151 is arranged in the middle of the bottom wall 15, the transverse section of the sewage discharge groove 151 is ︶ -shaped, and the sewage discharge groove 151 extends from one end to the other end of the bottom wall 15; the drain tank 151 is used to drain impurities out of the culture pond 1 during the final cleaning process.
The number of the springs 4 is six, one end of each spring 4 is fixedly connected with the bottom of the culture pond 1, and the other end of each spring 4 is fixedly connected with the bottom of the inner framework 2. A gap 41 is arranged between the spring 4 and the inner framework 2, the spring 4 is used for providing certain restoring force for the inner framework 2, so that the inner framework 2 can enable water in the gap 41 at the bottom of the inner framework 2 to generate upward 'surge' in the up-and-down restoring movement, the 'surge' water finally passes through the inner framework 2 to enter a sand layer in the inner framework 2, impurities such as excrement and the like which are 'hidden' in the sand layer float upwards under the disturbance of water flow, and finally the impurities are captured by the adsorption net 6.
A limiting component 5 is arranged between the inner framework 2 and the culture pond 1, and one side of the inner framework 2 is connected with the culture pond 1 through the limiting component 5; the limiting assembly 5 is used for ensuring the stability of the inner framework 2 in the up-and-down moving process.
Referring to fig. 2, 4 and 5, the limiting assembly 5 includes a limiting strip 51, a limiting groove 52 and a sliding block 53, the limiting strip 51 is vertically fixed on one side of the inner frame 21, the main body of the limiting strip 51 is a long strip structure, the limiting groove 52 is formed in the limiting strip 51, the cross section of the limiting groove 52 is n-shaped, the limiting groove 52 extends from the upper end of the limiting strip 51 to the lower end of the limiting strip 51, the sliding block 53 is correspondingly matched with the limiting groove 52, and one side of the sliding block 53 is fixedly connected with the side wall of the culture pond 1. The presence of the limiting assembly 5 avoids the inner frame 2 from tilting under the action of the downward pressure on both sides, and simultaneously ensures that the inner frame 2 can stably move upwards under the action of the bottom spring 4.
Referring to fig. 4, the inner frame 2 includes a partition plate 21, a clamping groove 22 and a baffle plate 23, the cross section of the partition plate 21 is in an inverted pi shape, two sides of the partition plate 21 are open, the length of the partition plate 21 is slightly smaller than that of the culture pond 1, when the partition plate 21 is placed in the culture pond 1, a culture chamber 24 is formed between the inside of the partition plate 21 and the inner side wall of the culture pond 1, the dongfeng snail mainly lives in the region where the culture chamber 24 is located, partition plate flanges 212 are arranged on the upper portions of two sides of the partition plate 21, the partition plate flanges 212 extend from one end to the other end of the partition plate 21, the clamping groove 22 is formed in the partition plate flanges 212, the clamping groove 22 is in the inverted pi shape, the clamping groove 22 extends from one end to the other end of the partition plate flanges 212, the baffle plate 23 is vertically fixed on one side of the partition plate flanges 212, the baffle plate 23 is in a rectangular plate-shaped structure, and the baffle plate 23 extends from one end to the other end of the partition plate flanges 212; the depth of the engaging groove 22 is smaller than that of the partition 21, and the engaging groove 22 serves as an insertion groove for the outer frame 3 in the later stage, and serves to fix the outer frame 3.
Sand is covered in the clapboard 21 to form a sand layer (not shown), the height of the sand layer is less than that of the clapboard 21, through holes 211 are uniformly arranged at the bottom of the clapboard 21 in a through way, the through holes 211 are circular holes, and the sizes of the through holes 211 can be selected according to actual requirements;
the outer framework 3 comprises a support frame 31, support plates 32, a leather strip net 33, a limiting support 34 and a limiting strip 35, the support frame 31 is of a flat structure, a window 311 is formed in the support frame 31 in a penetrating mode, the window 311 is of a rectangular structure, the leather strip net 33 is fixed in the window 311, the support plates 32 are fixed on two sides of the bottom of the support frame 31, the support plates 32 are of rectangular structures, the support plates 32 can be inserted into the clamping grooves 22 in a matched mode, the limiting support 34 is fixed on the upper portion of the support frame 31, and the limiting strip 35 is installed on the limiting support 34; the degree of depth that highly is greater than draw-in groove 22 of backup pad 32, draw-in groove 22's the degree of depth is less than baffle 21 simultaneously and when outer framework 3 is fixed in draw-in groove 22 like this, backup pad 32 has certain distance apart from the sand bed in the baffle 21, even when framework 3 piles up including like this when framework 2 upper portion, the dongfeng snail still has relatively sufficient living space, the dongfeng snail of also being convenient for like this simultaneously climbs along adsorbing net 6 and is also convenient for the diffusion of sand under the disturbance of air current in later stage breed room 24 and then adsorbed by adsorbing net 6.
Referring to fig. 8 and 9, the net 33 is composed of a transverse rubber strip 331 and a longitudinal rubber strip 332, the transverse rubber strip 331 and the longitudinal rubber strip 332 are arranged perpendicularly across each other, and a feeding gap 333 is arranged between the transverse rubber strip 331 and the longitudinal rubber strip 332. The feeding gap 333 is convenient for the eastern snail to shuttle from, and the elastic structures of the transverse rubber strip 331 and the longitudinal rubber strip 332 are convenient for the limit strip 35 to "wrap" the fish and other feeds placed in the limit strip 35 in the later period, and the limit strip 35 can also be fixed by itself through the feeding gap 333.
Referring to fig. 7, the limiting bracket 34 includes two bracket bases 341 and a shaft 342, the bracket bases 341 are fixed at the edge of the bracket frame 31, the bracket bases 341 are located at one side of the window 311, and the shaft 342 is fixedly disposed between the bracket bases 341; the shaft 342 is in the shape of a round bar, and the length of the shaft 342 is slightly longer than that of the window 311.
Refer to fig. 7, 9, spacing strip 35 main part is rectangular form, spacing strip 35 chooses for use elastic rubber to constitute, spacing strip 35 quantity is a plurality of, round hole 351 is seted up to spacing strip 35 one end, spacing strip 35 overlaps on axostylus axostyle 342 through round hole 351, spacing strip 35 can move on axostylus axostyle 342 promptly, spacing strip 35 can move at the position of leather strap net 33 according to the fodder thing like this, thereby it is fixed to select the most suitable position to carry out "tightening" through the fodder thing of spacing strip 35 on with leather strap net 33, the spacing strip 35 other end sets up couple 352, couple 352 chooses for use plastic materials, thereby couple 352 can pass the fixed of eating clearance 333 realization spacing strip 35 position.
The leather-strip net 33 covers the adsorption net 6 in a projection mode towards the direction of the adsorption net 6, the adsorption net 6 is located in the partition plate 21, the adsorption net 6 comprises a net frame 61 and a sticky net 62, the main body of the net frame 61 is of a plate-shaped structure, the cross section of the net frame 61 is in a shape, the sticky net 62 is fixed in the net frame 61, the sticky net 62 is made of cotton cloth or linen, fine impurities are easily adsorbed by the cotton cloth or linen, on one hand, floating impurities in the culture room 24 are adsorbed by the adsorption net 6, on the other hand, the bottom of the adsorption net 6 can be in contact with a sand layer in the culture room 24, and at the moment, Babylonia hidden in sand can climb upwards along the adsorption net 6 to enter the leather-strip net 33 to feed the feed.

Claims (4)

1. A high-density aquaculture method, characterized by comprising the steps of:
fixing the bottom of the partition plate on the upper part of the spring to ensure that the limiting groove is matched and corresponding to the sliding block, and forming a culture chamber between the interior of the partition plate and the inner side wall of the culture pond;
paving sand in the partition plate, and enabling the height of the sand to be smaller than that of the partition plate;
injecting water into the culture pond to form a water layer, wherein the height of the water layer is larger than that of the baffle when the baffle is static;
dead fishes are fixed on the leather strip net through the limiting strips, so that the fishes can be conveniently collected through the outer framework directly at the later stage;
the supporting plate is placed in alignment with the clamping groove, so that the height of the water layer is greater than that of the upper end face of the outer framework, and meanwhile, the bottom of the adsorption net is abutted to a sand layer in the culture room;
the snails enter the leather strip net through the adsorption net under the attraction of the fish and feed the fish fixed in the leather strip net by shuttling in the feeding gap;
after the fish in the leather strip net finishes eating, the fishbone is limited and fixed on the leather strip net by the limiting strip;
the support frame is opposite to the two sides of the support frame, and forces in the C direction and the D direction are simultaneously applied, the forces in the C direction and the D direction are both vertically downward, the support frame moves downward under the action of the forces in the C direction and the D direction and drives the framework to move downward, and the framework further pushes the spring downward to enable the spring to deform;
the force in the direction C and the force in the direction D are cancelled, and the inner framework and the outer framework move upwards to reset under the action of the springs;
during the reciprocating motion of the lower framework and the outer framework, water at the bottom of the lower framework surges, water flow continuously surges upwards along the through holes and through sand in the partition plate, impurities wrapped in the sand also float upwards along with the surge of the water flow, and the impurities are finally adsorbed by the adsorption net;
the outer framework is separated from the inner framework, the outer framework is taken out of the culture pond, and fishbones and other impurities in the outer framework are cleaned.
2. A high density aquaculture method according to claim 1 further comprising the steps of: place the fish on the leather strip net, remove spacing to the position department that is close to fish upper portion, then pull spacing with the couple of spacing and pass the feed clearance and realize the fixed of spacing position, and then be fixed in the leather strip net with the fish through spacing, be fixed in the leather strip net through spacing with the fish.
3. The method of claim 2, wherein the inner frame and the outer frame are disposed in the pond, and the outer frame is disposed on the inner frame.
4. A method for high density aquaculture according to any of claims 1-3 wherein the bottom of the inner frame is fixedly connected to the aquaculture pond by means of springs, the inner frame is detachably connected to the outer frame, and the bottom of the outer frame is fixed to the adsorption net.
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