KR100317054B1 - An aquarium for live fish - Google Patents

Abstract

The present invention relates to a live fish aquarium, the aquarium is formed at the top of the tank and a predetermined installation space is formed on the lower side of the tank, ozone droplet generator is installed in each corner of the tank and the installation of the aquarium body An ozone generator installed in the space and connected to each of the ozone droplet generators, and a rotation induction member fixed to the respective corner portions of the tank so as to surround the ozone droplet generators to impart rotational force to the water of the tank in one direction; A centrifugal separator installed in the middle of the installation space and separating various foreign substances contained in the water discharged to the lower part of the tank using centrifugal force, and installed at the outlet side of the centrifugal separator and discharged from the centrifugal separator. At least one filter for repurifying water from which foreign matter has been removed, and A water temperature adjusting device installed at a predetermined portion of the tooth space and appropriately controlling the temperature of the water passing through the filter and connected to the ozone droplet through a generator, and installed at a predetermined portion of the water tank to decompose the residual warm zone in the water; It consists of at least one ultraviolet lamp for ozone decomposition.

According to the present invention as described above, the water in the tank is always kept clean and contains only an appropriate amount of ozone in the water, greatly contributes to cost reduction for the maintenance and maintenance of the aquarium, and also separate parts are built inside the tank. To increase the space utilization and keep the appearance beautiful.

Description

An aquarium for live fish}

The present invention relates to a live fish aquarium, and more particularly, to keep the water in the tank clean at all times and to include only an appropriate amount of ozone in the water, and contributes greatly to the cost reduction for the maintenance and maintenance of the aquarium, and also to the inside of the tank The present invention relates to a live fish aquarium that prevents the construction of separate parts to increase space utilization and maintain a beautiful appearance.

Normally, a live fish aquarium should be supplied with a suitable amount of oxygen and clean, suitable water temperature for the live fish to survive for a long time. According to a conventional live fish aquarium according to the prior art, oxygen is supplied from a bubble generator connected to an air pump, water is forcedly circulated using a pump, and a filter is used to filter out various kinds of dirt contained in the water or live fish aquarium at regular intervals. It is a method of exchanging all the water.

However, the live fish aquarium according to the prior art has a disadvantage in that the supply efficiency of oxygen is low because it is not sufficiently dissolved in water due to the size of the bubbles generated by the bubble generator, and in order to overcome the disadvantages, several bubbles Since the generator must be installed, not only the production cost is increased, but also there are many problems in the after-care.

In addition, the inside of the live fish aquarium is equipped with a separate filtration device, but to filter out various foreign matter contained in the water, but it is not able to filter out the foreign matter of the fine size, the transparency of the water falls, various foreign matter on the bottom surface of the live aquarium Staying in the deposited state had to be cleaned periodically.

In order to alleviate such drawbacks of the prior art, a new type of live fish aquarium is known from Korean Patent Publication No. 19922.

Looking at the structural features of the live fish aquarium, the bottom of the aquarium tank concave in the center and the drainage inclined plate and a plurality of perforated perforated plate is installed, and the main surface of the inclined plate to the ultraviolet light and bubble supply pipe In the tank, a U-shaped water supply pipe with a nozzle connected to the ozone supply pipe is installed at the end, a bubble supply port is placed at the bottom, and a foam filter with a filter body formed at the side and bottom is installed. In the upper part of the body, the central part is formed with a convex backflow prevention plate and a filter stand, and the filter is placed on the top of the filter stand, and the ultraviolet light and the fluorescent lamp are attached to the front and left and right sides of the tank. The inside of the aquarium body is connected to the pressure filter, the end of the float collecting pipe and the drain port as a hose, the pressure filter, the pump Connect the heater and the cooler in series, connect the cooler and the water supply end as hoses, connect one hose of the ozone generator to the air pump, the other hose to the ozone supply pipe, and one hose of the air pump to the bubble supply port. The other hose is connected to both ends of the bubble supply pipe.

However, the live fish aquarium according to the prior art, while trying to purify the water of the tank using ozone and ultraviolet light, but only serves to sterilize the water of the tank, chlorine, organic matter and There was a limit to keeping the water in the tank clean because it was impossible to decompose organic matters, and even if the ozone was dissolved in the water, no measures could be taken. And, the life of the ozone generator is shortened, there was a problem to bear a huge cost for maintenance and repair.

In addition, by installing a series of parts including a foam filter in the center of the tank to damage the aesthetics, can not accommodate a large amount of fish in the tank, there are a number of problems such as reducing the space for the fish.

Accordingly, it is an object of the present invention to provide a live fish aquarium in which the water in the tank is always kept clean and can contain only an appropriate amount of ozone in the water.

Another object of the present invention is to provide a live fish aquarium that can greatly contribute to cost reduction for maintenance and maintenance of the aquarium.

Another object of the present invention is to prevent the separate parts built up inside the tank, and to receive all the parts to the invisible portion of the aquarium body to make the aesthetics more beautiful, and to make full use of the internal space of the tank To provide an aquarium.

1 is a perspective view showing the overall configuration of a live fish aquarium according to the present invention.

Figure 2 is a partial cutaway front cross-sectional view showing the configuration of a live fish aquarium according to the present invention.

3 is a cross-sectional view taken along the line AA of FIG.

Figure 4 is a block for explaining the flow of ozone and water in the live fish aquarium according to the present invention

Rock too.

Figure 5 is a longitudinal sectional view showing a centrifugal separator of a live fish aquarium according to the present invention.

6 and 7 shows the water temperature control device of the live fish aquarium according to the present invention,

6 is a partially cutaway perspective view.

7 is a longitudinal cross-sectional view.

Figure 8 is a partially cutaway perspective view of the float collecting means of the live fish aquarium according to the present invention.

9 is a view showing a process of applying a rotational force to the water of the tank according to the present invention

Part A enlarged view of.

<Explanation of symbols for the main parts of the drawings>

10: aquarium body 11: tank

12: installation space 20: ozone droplet generator

21: ozone generator 23: rotation induction member

24: opening 30: centrifugal separator

31 cyclone member 32 centrifugal housing

33: centrifugal drum 34: drive motor

35: foreign matter separating member 36: foreign matter container

41: activated carbon filter 42: ammonia removal filter

70: water temperature control device 71: thermoelectric module

76: DC high voltage generator 77: water temperature detection sensor

80: float removal means 81: float removal plate

82: activated carbon gun 83: drain hole

84: support 85,86,87: UV lamp for ozone decomposition

In order to achieve the above object of the present invention, an aquarium body is formed on the top of the tank and a predetermined installation space is formed on the lower side of the tank, an ozone droplet generator installed on each corner of the tank, and the aquarium body. An ozone generator installed in an installation space of the ozone water generator and connected to each of the ozone water droplet generators, and fixed to wrap each ozone water droplet generator at each corner of the water tank to provide rotational force to the water of the water tank in one direction. And a centrifugal separator installed in the middle of the installation space and separating various foreign substances contained in the water discharged to the bottom of the tank using centrifugal force, and installed at the outlet side of the centrifugal separator from the centrifugal separator. At least one filter for repurifying water from which debris has been removed, and And a water temperature control device installed at a predetermined portion of the installation space and appropriately controlling the temperature of water passing through the filter and connected to the ozone droplet through a generator, and installed at a predetermined portion of the water tank to decompose the residual warm zone in the water. There is provided a live fish aquarium comprising at least one ultraviolet lamp for ozone decomposition.

The centrifugal separator may be a conical cyclone member installed to communicate with a through hole formed in a bottom plate of a water tank, a centrifugal housing connected to a lower portion of the cyclone member, and may be rotated in a horizontal direction inside the centrifugal housing. A centrifugal drum having a conical shape and supported to communicate with the water guide member, a drive motor transmitting a rotational force of the centrifugal drum, and a centrifugal drum connected between the centrifugal drum and the drive motor. It is characterized in that it comprises a foreign material separating member for separating and collecting the remaining foreign matter, and a foreign material container installed to communicate with the foreign material separating member to discharge the water separated from the foreign material through the centrifugal separation housing again.

The water temperature control device includes a drain pipe through which water passes, a thermoelectric module installed at predetermined portions of the drain pipe, and having a cold heat part and a heat part respectively formed at both sides thereof, a DC high voltage generator for applying a DC high voltage to the thermoelectric module, and the water tank. It is configured to include a water temperature sensor installed in a predetermined portion to transfer the signal according to the water temperature to the DC high voltage generator.

The inner surface of the tank further includes a float removing plate which is fixed in a horizontal direction to a predetermined portion of the inner surface of the tank, and floats collecting means including an activated carbon cloth mounted on the float removing plate, the float removing plate at the bottom It is provided with a support portion formed with a plurality of drain holes penetrating up and down, characterized in that provided with a separation prevention wall along the outer surface of the support portion.

According to the present invention, the water in the tank is always kept clean and contains only an appropriate amount of ozone in the water, and contributes greatly to the cost reduction for the maintenance and maintenance of the aquarium, and also a separate part is built inside the tank It can be prevented to increase space utilization and keep the appearance beautiful.

Hereinafter, a live fish aquarium according to the present invention will be described according to the embodiment shown in the drawings.

1 is an external perspective view showing the overall configuration of a live fish aquarium according to the present invention, Figure 2 is a partial cutaway front sectional view showing a configuration of a live fish aquarium according to the present invention, Figure 3 is a cross-sectional view taken along line A-A of FIG. Figure 4 is a block diagram for explaining the flow of ozone and water in the live fish aquarium according to the present invention.

As shown in the drawing, the live fish aquarium according to the present invention includes an aquarium body 10 having a tank 11 formed at an upper portion thereof, and a predetermined installation space 12 formed at a lower side of the tank 11, and the tank. An ozone droplet generator 20 that is installed and installed at each corner of the corner 11 and an ozone generator installed in the installation space 12 of the aquarium body 10 and connected to communicate with the ozone droplet generator 20, respectively ( 21 and the rotational force providing means for fixing the ozone droplet generator 20 to each corner of the water tank 11 to impart rotational force to the water of the water tank 11 in one direction, and the installation space 12. And a centrifugal separator 30 for separating various foreign substances contained in the water discharged to the lower part of the water tank 11 by using centrifugal force, and an outlet side of the centrifugal separator 30. Discharged from the centrifugal separator 30 Activated carbon filter 41 and ammonia removal filter 42 for purifying the water from which foreign substances have been removed, and are installed in a predetermined portion of the installation space 12 and pass through the activated carbon filter 41 and the ammonia removal filter 42. A water temperature control device 70 using a thermoelectric element connected to the ozone chamber through the generator 20 and appropriately controlling the temperature of the water, and attached to the inner wall of the water tank 11 to collect the floating floating on the water surface Float means for collecting means 80 is included.

The tank bottom plate 13 partitioning the installation space 12 and the water tank 11 of the aquarium body 10 is preferably formed to be inclined toward the center, the through-hole communicating with the centrifugal separator 30 in the center thereof. 14 is formed.

The ozone generator 21 is connected to a separate compressor 22, and the compressor 22 is connected to each ozone droplet generator 20 and a member such as a hose, so that the ozone generator 21 is generated. It is configured to supply the ozone to the ozone droplet generator 20.

The ozone droplet generator 20 is preferably formed of a soft silicon material having pores with a fine size on its surface. However, the present invention is not limited thereto, and any structure may be used as long as it effectively generates ozone droplets. In addition, the ozone generator 21 may adopt any form having excellent ozone generating efficiency.

The rotation force applying means, as shown in Figure 9, is composed of a rotation induction member 23 is fixed in the form surrounding the generator 20, the ozone drip in each corner portion of the water tank (11).

The rotation induction member 23 is preferably rounded with the same curvature at a predetermined interval from the ozone droplet generator 20, and each rotation induction member 23 has the same direction and forms an opening 24 on one side. By inducing the flow of water through the opening 24, the rotational force is applied to the water of the water tank 11 as a whole.

As shown in FIG. 5, the centrifugal separator 30 has a conical cyclone member 31 installed to communicate with the through hole 14 of the tank bottom plate 13, and a lower portion of the cyclone member 31. A centrifugal drum 32 connected to and installed in the centrifugal housing 32 and a conical centrifugal drum which is rotatably supported inside the centrifugal housing 32 and connected to communicate with the water guide member 31. 33, the drive motor 34 which transmits the rotational force of the centrifugal drum 33, and is connected between the centrifugal drum 33 and the drive motor 34, the remaining of the centrifugal drum 33 The foreign matter separating member 35 for separating and collecting the foreign matter, and the foreign matter collecting member 36 installed to communicate with the foreign matter separating member 35 to collect the foreign matter.

The foreign matter container 36 is formed with a handle (36a), it is to periodically discard the foreign matter.

The cyclone member 31 serves to gather to the center through the through hole 14 formed in the center of the water tank 11 by the rotation of the water by the rotation guide member (23).

Fine pores are formed on the surfaces of the centrifugal drum 33 and the foreign matter separating member 35, respectively, and the micropores of the foreign matter separating member 35 are slightly larger than those of the centrifugal drum 33. The foreign matter of relatively large particles contained in the water introduced into the centrifugal drum 33 does not pass through the micropores of the centrifugal drum 33 and is directed to the foreign matter separating member 35 by centrifugal force, while the water is centrifuged. It is configured to be discharged to the centrifugal housing 31 through the micro-pores of the drum 33, the foreign matter to the foreign matter separating member 35 is configured to be collected into the foreign matter container 36 through the fine pores relatively large diameter. It is.

As shown in FIG. 6 and FIG. 7, the water temperature control device 70 uses a conventional thermoelectric module 71. When the thermoelectric module 71 applies a high voltage using the DC high voltage generator 76, one side 72 generates cooling heat and the other side 73 uses the principle of generating heat. In accordance with the signal of the water temperature sensor 77 installed in the predetermined portion of the inside of the DC high-voltage generator 76 is appropriately turned on / off to adjust the water temperature.

The thermoelectric module 71 is preferably fixed to the upper surface of the drain pipe 78 through which water passes, and the cooling fins 74 are formed on the lower surface of one side surface 72 of the thermoelectric module 71 at a predetermined interval. The other side surface 73 is provided with heat radiation fins 75 at predetermined intervals.

In addition, the float collecting means 80 is mounted on the float removing plate 81 and the float removing plate 81 fixed in a horizontal direction to a predetermined portion of the inner surface of the water tank 11, as shown in FIG. The paper is composed of activated carbon cloth 82.

The float removing plate 81 has a supporting portion 84 having a plurality of drain holes 83 penetrating up and down at a lower portion thereof, and the separation preventing wall 85 is formed along the outer surface of the supporting portion 84. Is formed, it is configured so that the activated carbon cloth 82 can be supported on the support portion 84.

On the other hand, as shown in Figure 3, on the three sides of the water tank 11, the suspended matter removing means 80 is not installed, an ultraviolet lamp for ozone decomposition for decomposing residual ozone contained in the water filled in the water tank 11 ( 85 and 86 and 87 are provided, respectively, so that the role of illuminating the inside of the water tank 11 is also combined.

The ozone decomposition ultraviolet lamps 85, 86 and 87 have a spectrum of 258 nm, and when ozone is dissolved in water, the ozone decomposing ultraviolet lamps adversely affect fish. It breaks down and prevents fish from eating excess ozone.

Reference numeral 88 in the figure shows a pump for smoothing the flow of water.

Referring to the operation of the live fish aquarium according to the present invention configured as described above are as follows.

That is, ozone and water are supplied from the ozone droplet generators 21 installed at respective corner portions of the water tank 11, and react with each other inside thereof to generate ozone in the form of droplets.

At this time, as shown in FIG. 9, the ozone-containing water is discharged from the ozone generator 21, and the ozone generator 21 is maintained in a state surrounded by the rotation induction member 23, respectively. , Water flows into the water tank 11 through the openings 24, respectively.

Therefore, as the flow of water is discharged from the ozone generator 21 as shown in FIG. 3, the water flows in a constant direction, so that the water inside the water tank 11 has a rotational force as if it were a vortex.

At this time, the rotational force of the water is not enough to affect the fish, it is a suitable rotational force to collect the various foreign matter contained in the water of the tank 11 to the center.

Thereafter, various foreign substances contained in the water of the water tank 11 are introduced into the centrifugal separator 30 of the installation space 12 through the through holes 14 formed in the bottom plate 13 of the water tank 11.

The centrifugal separator 30 is installed so that the cyclone member 31 communicates with the through hole 14 of the bottom plate 13, and serves to guide foreign matter into the through hole 14 of the water tank 11. .

As such, the water containing the foreign matter introduced into the cyclone member 31 of the centrifugal separator 30 flows into the centrifugal drum 33, and the foreign matter passes through the centrifugal drum 33, and the foreign matter passes through the centrifugal drum 33. And water is discharged through the centrifugal housing 31 directly through the micropores, and the foreign matter is directed to the foreign matter separating member 35 by centrifugal force. The foreign matter is collected into the foreign matter container 36 through the micropores of the relatively large diameter of the foreign matter separating member 35, and thus, the foreign matter stored in the foreign matter container 36 is disposed of periodically.

Thereafter, the first foreign matter filtered by the centrifugal separator 30 removes the foreign matter and ammonia while passing through the activated carbon filter 41 and the ammonia removal filter 42, and again, the water temperature control device 70. Will pass through.

The water temperature control device 70 uses a characteristic of the thermoelectric module 71 that generates cold heat on one side 72 and generates heat on the other side 73 when the DC high voltage is applied to the water tank 11. The temperature of the water can be properly maintained by the signal of the water temperature sensor 77 installed.

As such, the purified water passed through the water temperature control device 79 and the water having the appropriate water temperature are repeated to be supplied to each ozone droplet generator 20 again.

On the other hand, ozone generated by the action of the conventional ozone generator 21 is pressurized through the compressor 22, and then supplied to the ozone droplet generator 20 provided at each corner of the water tank 11, respectively.

In addition, since the float removing plate 81 is fixed to a predetermined portion of the inner surface of the live fish aquarium 11 according to the present invention as described above, and the activated carbon fabric 82 is placed on the upper surface thereof, the float floating on the water surface The filter is filtered while passing through the activated carbon cloth 82 of the float removing plate 82, and the filtered water is drained downward through the drain hole 83 of the float removing plate 82.

Live fish aquarium according to the present invention as described above is not limited to the embodiment described in the detailed description and shown in the drawings. Accordingly, various modifications may be made without departing from the spirit of the inventive concept of the claims of this invention and its dependent claims.

As described above, the live fish aquarium according to the present invention, the aquarium body is formed in the upper portion of the tank and a predetermined installation space on the lower side of the tank, ozone droplet generator is installed in each corner of the tank, An ozone generator installed in the installation space of the aquarium body and connected to each of the ozone droplet generators, and fixed to wrap each ozone droplet generator at each corner of the tank to provide rotational force to the water of the tank in one direction. A centrifugal separator installed at an intermediate portion of the rotation induction member, the installation space to separate various foreign substances contained in the water discharged to the lower part of the tank using a centrifugal force, and a centrifugal separator installed at the outlet side of the centrifugal separator. At least one to purify the dewatered water from the separator A filter in the upper phase, a water temperature control device installed at a predetermined portion of the installation space and connected to the ozone water chamber through a proper control of the temperature of water passing through the filter, and installed at a predetermined portion of the water tank. Consists of at least one ozone decomposing ultraviolet lamp to decompose the residual temperature, keeping the water in the tank clean at all times and containing only an adequate amount of ozone in the water, greatly contributing to the cost savings for the maintenance and maintenance of the aquarium. By preventing separate parts from standing inside the water tank, there is an effect of increasing space utilization and keeping the appearance beautiful.

Claims (4)

An aquarium is formed in the upper portion and the aquarium body formed with a predetermined installation space on the lower side of the tank, An ozone droplet generator installed on each corner of the tank, An ozone generator installed in the installation space of the aquarium body and connected to communicate with the ozone droplet generator, respectively; Rotation induction member is fixed to each of the corners of the water tank to form the ozone droplet generator to impart rotational force in one direction to the water of the tank, A centrifugal separator installed in the middle of the installation space and separating various foreign substances contained in the water discharged to the lower part of the tank by using centrifugal force; At least one filter installed at an outlet side of the centrifugal separator to purify water from which foreign substances discharged from the centrifugal separator are removed; A water temperature control device installed at a predetermined portion of the installation space and suitably controlling a temperature of water passing through the filter and connected to the ozone water chamber through a generator; Live fish aquarium, characterized in that it comprises a UV lamp for at least one ozone decomposition to be installed in a predetermined portion of the water tank to decompose the residual ozone in the water. The centrifugal separator according to claim 1, wherein the centrifugal separator includes a conical cyclone member installed to communicate with a through hole formed in a bottom plate of a water tank, a centrifugal housing connected to a lower portion of the cyclone member, and an inside of the centrifugal housing. A conical centrifugal drum which is rotatably supported in the lateral direction and connected to communicate with the water guide member, a drive motor that transmits rotational force of the centrifugal drum, and between the centrifugal drum and the drive motor. And a foreign material separating member connected to and installed to separate and collect the remaining foreign matters of the centrifugal drum, and a foreign material container installed to communicate with the foreign material separating member and discharging the water from which the foreign matters are separated again through the centrifugal housing. Live fish aquarium. The apparatus of claim 1, wherein the water temperature control device includes a drain pipe through which water passes, a thermoelectric module installed at a predetermined portion of the drain pipe, and having a cooling portion and a heating portion formed on both sides thereof, and a direct current high voltage applied to the thermoelectric module. Live fish aquarium, characterized in that it comprises a generator and a water temperature detection sensor is installed in a predetermined portion of the water tank to transmit a signal according to the water temperature to a high-voltage DC generator. According to claim 1, The inner surface of the tank further includes a float removal means comprising a float removal plate which is fixed in the horizontal direction to a predetermined portion of the inner surface of the tank, and activated carbon cloth mounted on the float removal plate, The float removing plate has a support portion formed with a plurality of drain holes penetrating up and down in the lower portion, live fish aquarium, characterized in that provided with a departure prevention wall along the outer surface of the support portion.