TWM642005U - Structure of systemic aquarium - Google Patents

Abstract

A system aquarium structure, which includes a tank body, the tank system is divided into an overflow tank and a culture tank, the partition between the overflow tank and the culture tank is provided with a strip overflow port, the culture tank The tank system divides a plurality of breeding areas horizontally, and the rear of the breeding area is divided into a filtering area and a feeding area. In the filtering area, an elevated filter with a water pump can be placed, and the water pump can be placed towards the The feeding area draws water, so that the impurities in the feeding area flow towards the filter area with the water circulation, and sink on the filter material on the elevated filter, and the water with impurities is drained from the filter of the breeding tank The holes flow out to keep the water quality in the breeding area clean.

Description

System Aquarium Structure

This creation is about a system aquarium structure, which is a system aquarium structure that can keep the water quality in the breeding area clean.

Generally, fish are raised in aquariums. Suitable water quality is the most basic condition to ensure the health of fish. The living environment of farmed fish not only needs to have water, but also must establish probiotic colonies in the water to create an aquatic ecological environment to make fish live more moist. .

Take guppies as an example. Although guppies are easy to survive and have strong tolerance, they can survive in clean water, and they can also survive in sewage environment and salt water environment, but we must also pay attention to the limit, such as excessive salinity, water quality, etc. If it's too bad, the guppy will die.

It can be seen that the control of water quality is very important. At the same time, if the water quality is too dirty, it will inevitably affect the viewing effect. Such a problem is very important, and an improvement plan is urgently needed.

Therefore, this case proposes a system aquarium structure, which improves the water quality in the aquarium through the circulation of water flow, and at the same time discharges the waste water. In addition to maintaining the water quality in the aquarium, it also maintains the clear visibility in the aquarium. Therefore, this creation should be an optimal solution.

The aquarium structure of the creative system comprises a cylinder body separated by a first glass partition Out of an overflow tank and a culture tank, the first glass partition has a strip overflow port, the culture tank is divided into a plurality of cultivation areas by a plurality of second glass partitions, each cultivation area A filtering area and a feeding area are distinguished front and rear through a third glass partition, wherein the tank bottom of the overflow tank has an overflow drain hole, and the tank bottom of each filter area of the breeding tank is It has a filter drainage hole; a heater is placed in the overflow tank to increase the water temperature in the overflow tank and simultaneously heat the culture tank through the first glass partition; The elevated filter is placed in the filtering area, the surface of the elevated filter has a plurality of filter holes, and one or more filter materials are placed on the surface of the elevated filter; a water pump is erected on the On the surface of the elevated filter, the water pump is connected with an air pipe, and the water pump is used to pump water toward the feeding area, so that the impurities in the feeding area flow toward the filter area with the water flow and sink On the filter material on the elevated filter, the water flow with impurities flows out from the filter drainage hole; and a feeder is a frame, the feeder is floating on the feeding area, and a The feed system floats within the frame of the feeder.

More specifically, the water level of the culture tank is higher than the position of the strip-shaped overflow port, and the water system inside the culture tank flows to the strip-shaped overflow port and flows into the overflow tank.

More specifically, the overflow drain hole is connected with an overflow drain pipe, one end of the overflow drain pipe is located inside the overflow cylinder, and the other end of the overflow drain pipe is located outside the overflow cylinder; the filter The drainage hole is connected with a filter drainage pipe, one end of the filter drainage pipe is located inside the culture tank, and the other end of the filter drain pipe is located outside the culture tank.

More specifically, the height of one end of the overflow drain pipe located inside the overflow tank is used to define the drainage water level of the overflow tank.

More specifically, the other end of the overflow drain pipe outside the overflow tank is connected to a drain valve or a connecting pipe to control the drainage of the overflow tank.

More specifically, the other end of the filter drainage pipe located outside the culture tank is connected to a drain valve or a connecting pipe to control the drainage of the culture tank.

More specifically, there is a distance between the bottom of the elevated filter and the bottom of the culture tank, so that the water flow with impurities can pass through the filter holes of the elevated filter and flow downwards. This filter drains out.

More specifically, said any two cylinder systems are placed up and down, the overflow drain pipe and the filter drain pipe located in the upper cylinder body are facing the overflow cylinder of the lower cylinder body, and the overflow cylinder located in the upper cylinder body The internal water flow and the internal water flow of the breeding tank pass through the overflow drain pipe and the filter drain pipe, so that the internal water flow of the overflow tank of the upper tank body and the internal water flow of the culture tank are discharged towards the overflow tank of the lower tank body.

More specifically, the height of the third glass partition is lower than that of the first glass partition.

1: Cylinder

11: The first glass partition

111: strip overflow port

12: Overflow cylinder

121: overflow drain hole

122: Overflow drain pipe

1221: drain valve

123: heater

13: Breeding tank

131: Breeding area

1311: filter area

1312: Feeding area

132: filter drainage hole

133: filter drain

1331: drain valve

134: Overhead filter

1341: filter hole

135: filter material

136: water pump

1361: Inhalation tube

137: Feeder

1371: Feed

14: Second glass partition

15: The third glass partition

2: support frame

[Fig. 1A] is a schematic diagram of the three-dimensional structure of the aquarium of the creative system.

[Picture 1B] is a schematic structural diagram of the top view of the tank body of the aquarium structure of the creative system.

[Picture 2] is a schematic diagram of the installation of the drainage pipe and elevated filter of the aquarium structure of the creative system.

[Fig. 3] is the first implementation schematic diagram of the aquarium structure of the creation system.

[Fig. 4A] is the second implementation schematic diagram of the aquarium structure of the creation system.

[Fig. 4B] is the second implementation schematic diagram of the aquarium structure of the creation system.

[Fig. 5] is the third implementation diagram of the aquarium structure of the creation system.

Other technical contents, features and functions of this creation will be clearly presented in the following detailed description of preferred embodiments with reference to the drawings.

Please refer to Figures 1A~1B, which are the three-dimensional schematic diagram of the aquarium structure and the three-dimensional schematic diagram of the aquarium structure of the creative system. As shown in the figure, the aquarium structure of the system includes a cylinder 1, which is composed of a first The glass partition 11 separates an overflow tank 12 and a cultivation tank 13, the first glass partition 11 is provided with a strip overflow port 111, and the cultivation tank 13 is divided horizontally by a plurality of second glass partitions 14. A plurality of breeding areas 131 are provided, and a filtering area 1311 and a feeding area 1312 are divided into front and rear through a third glass partition 15 in each breeding area 131 .

The height of the third glass partition 15 is lower than that of the first glass partition 11 .

The tank bottom of the overflow tank 12 all has an overflow drain hole 121 , and the tank bottom of each filter area 1311 of the culture tank 13 all has a filter drain hole 132 .

As shown in Figure 2, the overflow drain hole 121 is connected with an overflow drain pipe 122, one end of the overflow drain pipe 122 is located inside the overflow cylinder 12, and the other end of the overflow drain pipe 122 is located in the overflow cylinder 12. Flow cylinder 12 outside.

The height of one end of the overflow drain pipe 122 located inside the overflow tank 12 is used to define the drainage water level of the overflow tank 12 .

The other end of the overflow drain pipe 122 outside the overflow cylinder 12 is connected to a drain valve 1221 or a connecting pipe for controlling the drainage of the overflow cylinder 12 .

The filter drain hole 132 is connected with a filter drain pipe 133, one end of the filter drain pipe 133 is located in the filter area 1311 of the cultivation tank 13, and the other end of the filter drain pipe 133 is located outside the culture tank 13.

Wherein the other end of the filter drainage pipe 133 outside the culture tank 13 is connected to a drain valve 1331 or a connecting pipe to control the drainage of the culture tank 13.

The elevated filter 134 is placed in the filtering area 1311 , and the surface of the elevated filter 134 has a plurality of filter holes 1341 , and one or more filter materials 135 are placed on the surface of the elevated filter 134 .

The bottom of the elevated filter 134 is a distance from the bottom of the cultivation tank 13, so that the water flow with impurities can pass through the filter hole 1341 of the elevated filter 134, and then filter down through the filter hole 1341. The drain pipe 133 flows out.

The heater 123 is placed in the overflow tank 12 to increase the temperature of the water in the overflow tank and to simultaneously heat the culture tank 13 through the first glass partition 11 .

As shown in Fig. 3, in order to prevent the water inside the culture tank 13 from overflowing, when the water level of the culture tank 13 is higher than the position of the strip overflow port 111, the water system inside the culture tank 13 flows toward the strip overflow port 111. The overflow port 111 flows into the overflow cylinder 12 .

As shown in Fig. 4A, the feeder 137 is floating on the water surface of the feeding area 1312, the feeder 137 is a frame, and the feeder 137 is floating with feed 1371 within the frame.

As shown in Figures 4A and 4B, a water pump 136 is erected on the surface of the elevated filter 134, and the water pump 136 is connected with an air pipe 1361, and the water pump 136 is used to pump water towards the feeding area 1312. Water, so that the impurities in the feeding area 1312 flow towards the filter area 1311 along with the water circulation, and sink on the filter material 135 on the elevated filter 134, wherein the water flow with impurities is passed through the filter drain pipe 133 is discharged outward.

The waste water inside the culture tank 13 is discharged to the overflow tank 12 through the strip overflow port 111, so that the water pumping cycle of the water pump 136 can be used to keep the water quality of the culture tank 13 clear and clean. It will be helpful for viewing.

As shown in Figure 5, a plurality of cylinders 1 can be placed up and down, wherein the overflow drain pipe 122 and the filter drain pipe 133 located in the upper cylinder 1 are facing the overflow cylinder 12 of the lower cylinder 1, and The internal water flow of the overflow cylinder 12 and the internal water flow of the breeding tank 13 located at the upper cylinder body 1 are passed through the overflow drain pipe 122 and the filter drain pipe 133, so that the internal water flow of the overflow cylinder 12 of the upper cylinder body 1 and the cultivation tank 13 The internal water flow is discharged toward the overflow cylinder 12 of the lower cylinder body 1, so if multiple cylinder bodies 1 are placed up and down, the waste water in the breeding tank 13 will be discharged to the overflow cylinder 12 below in sequence, so as to keep each breeding The water quality of cylinder 13 is clean.

The system aquarium structure provided by this creation, when compared with other conventional technologies, has the following advantages:

(1) The structure of the system aquarium in this creation improves the water quality in the aquarium through the circulation of water flow, and at the same time discharges the waste water.

(2) The system aquarium structure of this creation can maintain the water quality in the aquarium and also maintain the clear visibility in the aquarium.

This creation has been disclosed above through the above-mentioned embodiments, but it is not intended to limit this creation. Anyone who is familiar with this technical field and has common knowledge can understand the above-mentioned technical characteristics and embodiments of this creation, and in the spirit and spirit of this creation Within the scope, slight changes and modifications are not allowed, so the scope of patent protection of this creation shall be defined by the claims attached to this manual.

1: Cylinder

11: The first glass partition

111: strip overflow port

12: Overflow cylinder

122: Overflow drain pipe

1221: drain valve

123: heater

131: Breeding area

1311: filter area

1312: Feeding area

133: filter drain

1331: drain valve

134: Overhead filter

1341: filter hole

136: water pump

15: The third glass partition

Claims (9)

A system aquarium structure, comprising: a tank body, an overflow tank and a breeding tank separated by a first glass partition, the first glass partition has a strip overflow port, the breeding The tank is divided into multiple breeding areas horizontally by a plurality of second glass partitions. Each breeding area is divided into a filtering area and a feeding area through a third glass partition. The bottom of the overflow tank All have an overflow drain hole, and the tank bottom of each filter area of the culture tank has a filter drain hole; a heater is placed in the overflow tank to improve the overflow tank The temperature of the water in the tank is heated through the first glass partition simultaneously; a high filter is placed in the filter area, and the surface of the high filter has a plurality of filter holes. One or more filter materials are further arranged on the surface of the elevated filter; a water pump is erected on the surface of the elevated filter, and the water pump is connected with an air pipe, and the water pump is used to face the feeding area Feed water, so that the impurities in the feeding area flow towards the filter area with the water circulation, and sink on the filter material on the elevated filter, wherein the water flow with impurities flows out from the filter drain hole; and A feeder is a frame, the feeder is floating on the feeding area, and a feed is floating within the frame of the feeder. The system aquarium structure as described in Claim 1, wherein the water level of the aquaculture tank is higher than the position of the strip overflow, and the internal water system of the aquaculture tank flows to the strip overflow and flows into the overflow tank Inside. The system aquarium structure as described in Claim 1, wherein the overflow drain hole is connected to an overflow drain pipe, one end of the overflow drain pipe is located inside the overflow tank, and the other end of the overflow drain pipe It is located outside the overflow tank; the filter drainage hole is connected with a filter drain pipe, one end of the filter drain pipe is located inside the culture tank, and the other end of the filter drain pipe is located outside the culture tank. The system aquarium structure as described in claim 3, wherein the height of one end of the overflow drain pipe located inside the overflow tank is used to define the drainage water level of the overflow tank. The system aquarium structure as described in claim 4, wherein the other end of the overflow drain pipe outside the overflow tank is connected to a drain valve or a connecting pipe to control the drainage of the overflow tank. The system aquarium structure as described in claim 3, wherein the other end of the filter drainage pipe outside the culture tank is connected to a drain valve or a connecting pipe to control the drainage of the culture tank. The structure of the system aquarium as described in claim 3, wherein the bottom of the elevated filter has a distance from the height of the tank bottom of the culture tank, so that the water flow with impurities can pass through the elevated filter filter hole and down the filter drain. The system aquarium structure as described in claim item 3, wherein any two tank systems are placed up and down, the overflow drain pipe and the filter drain pipe located in the upper tank body are facing the overflow tank of the lower tank body, and are located in the upper tank body. The water flow inside the overflow tank of the tank and the water flow inside the breeding tank pass through the overflow drain pipe and the filter drain pipe, so that the water flow inside the overflow tank of the upper tank body and the water flow inside the breeding tank flow toward the overflow of the lower tank body cylinder discharge. The system aquarium structure as described in Claim 1, wherein the height of the third glass partition is lower than the height of the first glass partition.

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