TW201902346A - Aquatic products farming device capable of breeding a large amount of aquatic products in an area without river - Google Patents

Abstract

The subject of the present invention is to provide an aquatic products farming device, which is capable of generating a water flow in breeding water with small power and breeding a large amount of aquatic products at high density. To solve the problem, a flow generating device is configured in a fish tank for enabling breeding water to circulate in the fish tank, wherein the flow generating device provides a minimum water level raise for the fish tank and generates a planar water flow on the breeding water by the raised water level for circulation.

Description

Aquaculture equipment

The invention relates to an aquaculture device for raising the water level of the feeding water at the starting point by using the lifting force of the feeding water caused by the starting device arranged in the circulating waterway of the breeding pond, and the whole of the breeding tank is flat. Circulating water flow.

A culture apparatus for generating a circulating water flow in a culture pond is described, for example, in Patent Document 1.

Advance Technical Literature Patent Literature Patent Literature 1: Japanese Patent Laid-Open Publication No. 2013-255449

Disclosure of the Invention Problems to be Solved by the Invention In the invention described in Patent Document 1, a water flow of circulating water is generated by supplying water by a pump. However, it takes a lot of power to pump water out. SUMMARY OF THE INVENTION It is an object of the present invention to provide an aquaculture apparatus for separating a water arranged in a circulatory aquarium, and by hoisting the water level of the rearing water at the front of the partition, thereby generating a circulating water flow as a whole in the fish tank.

Means for Solving the Problems In order to solve the above problems, the present invention adopts the following means.

(1) An aquaculture device is constructed as follows: a portion of a fish tank that is long after the first fishpond and the second fish tank are disposed on the right and left sides of the partition wall, and is formed by a barrier net. In the purification unit of the purification device, the rearing water can be circulated through the purification unit from the second fish culture tank to the first fish culture tank; and the sedimentation basin is provided on the bottom surface of the groove at the rear end of the second fish culture tank. A drainage hole having a plug at the bottom of the sedimentation basin is connected to the sewer; in the front part of the sedimentation basin, a groove between the pair of barrier nets disposed front and rear is provided with a groove occupying the groove width to block the flow of water before and after The wall is disposed in the groove from the water to the bottom surface of the groove, and the air supply port of the air supply pipe extending from the external air supply device is disposed on the groove wall of the front portion of the barrier wall, and is ejected by the bubble. The rearing water flows to the front of the second fish tank, and the fresh water flows from the front part of the second fish tank to the front part of the first fish tank, and the rearing is carried out. Water back to the second fish tank The overall cycle.

(2) In the aquaculture apparatus according to the above (1), the bottom surface of the rear groove of the barrier net in the front part of the second fish tank is provided with a plurality of sedimentation basins at the bottom of the sedimentation basin. The drain hole is provided with a plug, and an opening and closing door that can be opened and closed is provided from a purifying device that is partitioned in the purifying portion at the front portion of the barrier net to a water passage that connects the first fish tank and the second fish tank.

(3) In the aquaculture device according to (1) or (2), the oxygen pipe extending from the oxygen tank is connected to the air supply pipe of the air supply device so that oxygen can be injected and oxygen can be stopped.

Effect of the Invention According to the present invention, the following effects can be achieved.

In the invention described in the above (1), the purification unit in which the purification device is installed is provided in the front portion of the fish tank which is partitioned to the left and right sides of the partition wall, and is disposed at the bottom of the partition wall of the partition wall of the second fish tank. There are a plurality of sedimentation basins occupying a width, so that larger fish manure or residual bait flowing in the water of the fish tank will be deposited in the sedimentation basin; a flow device with minimal water level rise is provided by The rising water level causes a flat flow of water in the rearing water, thus minimizing the power energy. Further, the flow device is formed from the bottom of the groove formed at the bottom of the fish tank, and the compressed air is discharged into the rearing water by the air supply pipe, and when the compressed air rises as a bubble at the front portion of the barrier wall, the air bubble is used The water surface of the rearing water is raised to increase the water level to generate a flat water flow like a tsunami, so that the rearing water becomes a circulating water that can bypass the entire fish tank with less power. Oxygen in the air which becomes a bubble in the rearing water can be dissolved in the rearing water to increase the oxygen concentration in the rearing water. Further, since carbon dioxide vaporized on the water surface can be removed, the apparatus for removing carbon dioxide can be omitted.

According to the invention of the above aspect (2), in the groove bottom surface of the rear portion of the barrier net in the front portion of the second fish tank, a plurality of sedimentation basins are disposed in the width of the full tank, so that the dust in the second fish tank can be as early as possible. The recovery of the sedimentation basin can reduce the burden on the purification device of the purification section.

In the invention according to the above (3), in the purification unit in which the purification device is disposed between the second fish tank and the first fish tank, the water passages are branched and set long, and the feed water is passed through the purification device. The circulation to the fish tank can be arranged in a place far away from the land. Moreover, the water path to the purification unit can be closed, and the cleaning of the purification device can be facilitated.

An embodiment of the present invention will be described with reference to the drawings. 1 is a plan view of the aquaculture device 1 of the present invention, in which the elongated first fish tank 2A and the second fishpond 2B juxtaposed to the first fish tank 2A are provided by the partition wall 5 disposed in the middle. The front portion of the first aquarium 2A and the rear portion of the second aquarium 2B are in a communicating state by the return water passage 5A of the partition wall 5. The rear portion of the second fish tank 2B is provided with a flow device 3 that fills the groove width. The flow device 3 ejects bubbles 8 from below in the front and rear barrier nets 3E and 3D, so that the water directly above rises and the water flow occurs. .

A plurality of sedimentation basins 4A, 4A occupying the groove width are juxtaposed in the rear portion of the rear barrier mesh 3D. The purification unit 4F is partitioned by the barrier nets 3E and 9 which are disposed in the same manner in the rear portion of the first fish tank 2A and the front portion of the second fish tank 2B.

When the flow device 3 is operated, the rearing water generates a flat water flow in the entire width of the second fish tank 2B, and the flowing rearing water passes through the purification device 4 of the purification unit 4F from the second fish tank 2B, and enters the first fish tank 2A. Go further to the 2nd fish tank 2B and cycle through the whole. The water depth of the rearing water is, for example, about 150 cm, but can be adjusted to increase or decrease depending on the size or quantity of the fish.

The aquaculture apparatus 1 shown in Fig. 1 has, for example, a length of 55 m and a width of 11 m, and the first fish tank 2A and the second fish tank 2B which are arranged side by side are separated by a partition wall 5. A part of the partition wall 5 protrudes from the purification portion 4F and is in contact with the wall surface of the purification device 4, and a part thereof is formed as a water return passage 5A having an openable and closable opening and closing door 5B so as not to pass through the purification device 4. Feed water 5B reflux. The purification device 4 in the purification unit 4F having a length of, for example, approximately 17 m is disposed so as to be sandwiched between the first fish tank 2A and the second fish tank 2B.

As in the longitudinal section of the line II-II of Fig. 1 shown in Fig. 2, the hoisting device 3 forms a deep groove having a long groove width direction, for example, more than 2 m, at the front end portion of the groove bottom of the first fish culture tank 2. In the groove 3A, in the middle of the groove 3A, the barrier wall 3B for blocking the water before and after the water is applied from the water surface to the vicinity of the bottom of the groove 3A, and the partition wall 3C is plural in the groove width direction. The area plan (five divisions in Figure 1) is used to efficiently generate water flow. The partition wall 3C may not be formed if it is not necessary.

As a result, as shown in FIG. 2, the rearing water in the first aquarium 2A enters the groove 3A having a long groove width direction, and passes under the barrier rib 3B to reach the upper portion of the groove 3A, and enters. The second fish tank 2B. As shown in Fig. 2, the groove bottom 2C which is the upper surface of the edge before and after the groove 3A is provided with a pair of front and rear barrier nets 3D and 3E which restrict the reciprocation of the fish to the water.

As shown in Fig. 1 and Fig. 2, an air supply pipe 7 extending from the air supply device 6 is disposed in front of the lower edge of the barrier wall 3B of the groove 3A, and an air discharge port 7A that is open upward is provided at an upper portion thereof. As long as the air vents 7A can discharge the air bubbles 8, the number or shape thereof is not limited.

When the compressed air is sent from the air supply device 6, the air bubbles 8 rise violently from the air discharge port 7A, and the water is raised directly above the water. The brooding water is moved horizontally in front of the second aquarium 2B to generate a water flow, and passes through the purification device 4 of the purification unit 4F, and enters the first aquarium 2A, and circulates toward the entire second fish tank 2B.

In Fig. 2, the rearing water of the groove 3A is moved to the second fish tank 2B by the hoisting device 3, whereby the rearing water of the first fish tank 2A is sucked to the bottom of the groove 3A and goes to the barrier wall 3B. The front moves and flows, and the rearing water becomes a whole.

Thereby, the feed water of the entire aquaculture tanks 2A and 2B can be efficiently circulated without separately providing a pump for circulation. The reared fish maintains healthy growth by continuously moving toward the upstream. However, if the flow rate is too fast, the aquatic product will be fatigued, so it is necessary to set the appropriate flow rate with the fish.

Further, by the air bubbles 8 ejected from the air discharge port 7A in the hoisting device 3, oxygen in the air can be made to enter the water, and the stirring of the water by the water truck or the like can be omitted.

As shown in FIG. 1, a plurality of sedimentation basins 4A, 4A which are square in plan view are adjacent to the upstream side of the barrier nets 3D, 3E and are formed side by side in the width direction of the aquarium 2. As shown in Fig. 4, the sedimentation basin 4A is formed in a funnel shape deep in the bottom of the fish tank 2. The bottom of the bottom of the sedimentation basin 4A is formed with a drain hole 4B, and a plug 4C is connected, and the drain hole 4B is connected to the bottom. Sewer not shown.

The residual bait, fish manure, and the like flow into the sedimentation basin 4A. When the amount is precipitated to a certain amount, the plug 4C is pulled out, and is deposited in a sedimentation tank through a sewer (not shown) for treatment. The opening and closing doors 2F and 2F are provided on the water passage of the purification device 4 that has reached the purification unit 4F. In these opening and closing doors 2F and 2F, a filter for collecting fine dust is occasionally mounted.

In this way, while the feed water is allowed to flow through the upper portion of the sedimentation basin 4A, the weight of the residual bait or fish manure is precipitated in the sedimentation basin 4A, and the ammonia is filtered out in the next biofilm treatment device 4D. The organic matter and the fine particles of the sedimentation pot 4A can be efficiently filtered even if the circulation of the rearing water is, for example, 200 m ³ /hr. By closing the opening and closing doors 2F, 2F, cleaning of the purification device 4 can be facilitated.

The biofilm processing apparatus 4D is provided with a filter (not shown) that is stretched and provided in a lower portion of the tank. The filter screen is densely packed with a plurality of small small filter members (not shown), and the bubbles sent from the bottom pass through the respective filters. It rises between the filter elements. The bacteria multiply and decompose on the residual bait, fish manure or the like attached to the filter. The filtered feed water is circulated from the bottom of the tank to the first aquarium 2A through the upward route.

The fresh water supply pump 10 shown in Fig. 1 is supplied to the first aquarium tank 2A through the clean water pipe 10A. Thereby, the stocking density of the aquatic product is, for example, a maximum of 100 kg of aquatic product per ton of water.

Further, when the oxygen concentration sensor 12 detects that the oxygen content in the water becomes 90% or less of oxygen saturation, the automatic controller 13 automatically operates the valve 11B of the oxygen tank 11 and passes through the oxygen tube 11A to the fish tank 2. The feed water supplies oxygen to become saturated.

In this case, the oxygen tube 11A can be coupled to the air supply tube 7 and discharged together with the air bubbles 8 toward the rearing water. This oxygen supply is important as a natural disaster and other emergency.

In addition to, for example, rainbow trout, squid, and the like, the aquatic products raised in the aquaculture apparatus 1 are also suitable for the aquatic products suitable for the place, but are not specific thereto. In addition to fresh water, the rearing water uses seawater or water containing salt close to seawater.

In the vicinity of the aquarium 2, an illumination lamp that can illuminate the water surface may be provided to assist in extending the sunshine time in autumn and winter, or to sterilize with a germicidal lamp. In the snowy area, a snow-proof roof is installed. In the place where there is no roof, it is to tighten the bird net or the shade screen of Xiayang above the fish tank 2.

Figure 5 is a plan view showing another embodiment of the aquaculture apparatus 1. The same components as those in the previous example are denoted by the same reference numerals and the description will be omitted. In this embodiment, the purification device 4 is disposed away from the fishpond 2 because of the land area relationship.

In other words, the water passage 2D is extended from the second fish tank 2B, the purification unit 4F is disposed in front of the second fish tank 2B, and the purification device 4 is disposed, and the water passage 2E connected to the self-purification device 4 is connected to the first fish tank 2A. Opening and closing doors 2F and 2F are disposed in each of the water passages 2D and 2E. Thereby, the opening and closing door 2F of the water passages 2D and 2E can be closed, and the cleaning of the purification device 4 can be facilitated.

Further, in the water passage 2D on the front side of the purification device 4 or the water passage 2E on the rear side, the same device as the hoisting device 3 may be disposed. In the above-mentioned aquaculture apparatus 1 , a plurality of places having a large land area are arranged in parallel in the state of FIG. 1 .

INDUSTRIAL APPLICABILITY Since the feed water of the aquarium can be circulated and filtered by a simple hoisting device, a large amount of aquatic products can be cultured without the flow of water from other water sources in the river.

1‧‧‧Aquaculture equipment

2‧‧‧fish tank

2A‧‧‧1st fishpontan

2B‧‧‧2nd fish tank

2C‧‧‧ bottom

2D, 2E‧‧‧ Waterway

2F‧‧‧Open and close doors

3‧‧‧Starting device

3A‧‧‧ trench

3B‧‧‧ blocking wall

3C‧‧‧Districting

3D, 3E‧‧‧ Barrier Network

4‧‧‧purification device

4A‧‧‧Precipitation basin

4B‧‧‧Drainage hole

4C‧‧‧ bolt

4D‧‧‧Biofilm treatment device

4E‧‧‧ Filter

4F‧‧‧ Purification Department

5‧‧‧ partition wall

5A‧‧‧Backwaters

5B‧‧‧Open and close doors

6‧‧‧Air supply device

7‧‧‧Air supply pipe

7A‧‧‧ venting port

8‧‧‧ bubbles

9‧‧‧Barrier network

10‧‧‧Clean water supply pump

10A‧‧‧Clean water pipe

11‧‧‧Oxygen tank

11A‧‧‧Oxygen tube

11B‧‧‧ valve

12‧‧‧Oxygen concentration sensor

13‧‧‧Automatic controller

W‧‧‧feeding water

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a plan view showing an example of an aquaculture apparatus of the present invention. Fig. 2 is an enlarged longitudinal sectional view taken along line II-II of Fig. 1; Figure 3 is a plan view of the sedimentation basin shown in Figure 1. Fig. 4 is a plan view showing another example of the aquaculture apparatus of the present invention.

Claims (3)

An aquaculture device characterized in that a purification device is formed by a barrier net in front of a fishpond that is long before the first fishpond and the second fish tank are disposed on the right and left sides of the partition wall In the purification unit, the rearing water can be circulated integrally from the second fish tank through the purification unit to the first fish tank; and the sedimentation basin is disposed on the bottom surface of the groove at the rear end of the second fish tank; a drainage hole having a plug at the bottom is connected to the sewer; in the front part of the sedimentation basin, a groove between the pair of barrier nets disposed at the front and the back is provided with a groove for occupying the groove width, and the barrier wall for blocking the water flow before and after is The water is provided in the groove from the water to the bottom surface of the groove, and the air supply port of the air supply pipe extending from the external air supply device is disposed on the groove wall in the front portion of the barrier wall, and the water is raised by the air bubble. The rearing water flows toward the front of the second fish tank, and passes through the purification unit of the purification unit from the front of the second fish tank, and then flows from the rear of the first fish tank to the front, and the feed water is returned to the front. The second fish tank And cycle through the whole. The aquaculture device of claim 1 is provided with a plurality of sedimentation basins at the bottom of the rear groove of the barrier net at the front of the second fish tank, and the drainage holes at the bottom of the sedimentation basin are provided The plug is opened and closed, and the opening and closing door that can be opened and closed is disposed from the purifying device that is partitioned in the purifying portion at the front portion of the barrier net to the water passage that connects the first fish tank and the second fish tank. The aquaculture device according to claim 1 or 2, wherein the oxygen pipe extending from the oxygen tank is connected to the air supply pipe of the air supply device in such a manner that oxygen can be injected and oxygen can be stopped.