An aquatic ecosystem landscape system

Abstract

The utility model relates to ecological landscape system technical field discloses a kind of aquatic ecological landscape system, and the system includes box, water quality monitoring equipment, filter system, air intake system and control device, box includes first box and second box, at least one side wall of first box is light-transmitting side wall;Water quality monitoring equipment is equipped in box, and the monitoring end of water quality monitoring equipment is located in first box to monitor the water quality in first box;Filter system and air intake system are set in second box, and the water inlet of filter system is communicated with the water outlet of first box by control valve, and the water outlet of filter system is communicated with the water inlet of first box by drive pump;The air outlet of air intake system is communicated with the air inlet of first box.

Description

Technical Field

[0001] This utility model relates to the field of ecological landscape system technology, specifically to a water ecological landscape system. Background Technology

[0002] With economic development, people's needs for spiritual and cultural life have become more diversified. Water ecological landscape systems have become widely used facilities in homes, offices, and entertainment venues.

[0003] In related technologies, aquatic ecosystem systems require owners to manually test water quality and change the water regularly using specialized monitoring tools. This process is cumbersome and makes it impossible to monitor water quality changes in real time. If water quality problems are not detected and addressed promptly, aquatic organisms may become sick or even die, affecting the aesthetic appeal and the overall aquarium experience.

[0004] Therefore, a water ecological landscape system capable of real-time monitoring of water quality is needed. Utility Model Content

[0005] In view of this, the present invention provides a water ecological landscape system to achieve automatic monitoring and improvement of water quality.

[0006] In a first aspect, this utility model provides a water ecological landscape system, a box, including a first box and a second box, the first box being used to store water and aquatic organisms, and at least one side wall of the first box being a light-transmitting side wall. A water quality monitoring device is installed inside the first box, and at least the monitoring end of the water quality monitoring device is located inside the first box to monitor the water quality inside the first box, wherein the water quality monitoring device includes a quantum dot spectral sensor and a dissolved oxygen sensor; A filtration system is installed inside the second chamber. The inlet of the filtration system is connected to the outlet of the first chamber through a control valve. The outlet of the filtration system is connected to the inlet of the first chamber through a drive pump. An air intake system is installed inside the second housing, and the air outlet of the air intake system is connected to the air inlet of the first housing. The control device is located inside the second housing and is connected to the air intake system, the filtration system and the water quality monitoring equipment via signal connection.

[0007] In this embodiment, the aquatic landscape system includes a first tank and a second tank, with at least one side of the first tank being a light-transmitting surface. A water quality monitoring device is installed within the aquatic landscape system, with its monitoring end located inside the first tank to monitor the water quality. An air intake system and a filtration system are both located inside the second tank. Through this aquatic landscape system, water quality in the first tank can be monitored, and based on the monitoring results, the water in the first tank can be aerated and / or filtered through the air intake and filtration systems in the second tank, thereby achieving automatic water quality monitoring and improvement.

[0008] In some optional embodiments, a light-emitting element connected to the control device is provided on the end face of the light-transmitting sidewall, and a quantum dot light-emitting pattern area is provided on the outer surface of the light-transmitting sidewall. The quantum dot light-emitting pattern area emits light after being illuminated by the light-emitting element.

[0009] In one optional embodiment, the housing is provided with a sensing device that is signal-connected to the control device. When the sensing device detects an object within a set range, it outputs a sensing signal to the control device. Upon receiving the sensing signal, the control device controls the light-emitting element to emit light.

[0010] In this embodiment, the above-mentioned water ecological landscape system can emit electrical signals only when an object is detected near the water ecological landscape system, which can reduce energy consumption compared to continuous light emission.

[0011] In one alternative embodiment, the light-emitting element is in the form of a strip; and / or, the light-emitting element is an ultraviolet lamp.

[0012] In one alternative embodiment, the inner surface of the light-transmitting sidewall is covered with an ultraviolet filter film and / or a reflective film.

[0013] In this embodiment, an ultraviolet filter film and / or a reflective film are provided on the inner side of the light-transmitting sidewall to prevent the light emitted by the light source from affecting the organisms in the aquatic ecological landscape system.

[0014] In one optional embodiment, the aquatic landscape system further includes a power supply device, which is electrically connected to the control device, the control valve, the drive pump, and the air intake system.

[0015] In this embodiment, a power supply device can be provided to power the control device, control valve, drive pump and air intake system to maintain the normal operation of the water ecological landscape system.

[0016] In one alternative implementation, the power supply device includes a solar panel and an energy storage unit: The solar energy unit is located on the upper part of the first housing and is used to receive solar energy and convert the solar energy into electrical energy to be sent to the energy storage unit; the energy storage unit is used to store the electrical energy sent by the solar energy unit.

[0017] In this embodiment, the battery device in the water ecological landscape system includes a solar energy unit and an energy storage unit. The solar energy unit can receive solar energy and convert it into electrical energy for storage, which can improve energy utilization efficiency.

[0018] In one optional embodiment, the filtration system includes a microbial carrier unit, the inlet of which is connected to the outlet of the first housing, and the outlet of which forms the outlet of the filtration system.

[0019] In this embodiment, the filtration system includes a microbial carrier unit, which can increase the attachment area of ​​microorganisms and improve the water purification efficiency within the aquatic landscape system.

[0020] In one optional embodiment, the filtration system further includes a filter screen unit located between the microbial carrier unit and the first housing, with the outlet of the filter screen unit connected to the inlet of the microbial carrier unit, and the inlet of the filter screen unit forming the water inlet of the filtration system.

[0021] In this embodiment, filtering impurities through a filter screen can reduce the filtration burden on the microbial carrier unit.

[0022] In one optional embodiment, the water ecological landscape system further includes a heating device for heating the water in the first tank, the heating device being signal-connected to the control device, and the water quality monitoring device further includes a temperature sensor for monitoring the water temperature in the first tank.

[0023] In this embodiment, a heating module and a temperature sensor are installed in the aquatic landscape system, which can monitor the water temperature in the aquatic landscape system in real time and make adaptive adjustments to the water temperature based on the water temperature in the aquatic landscape system, thereby maintaining the health of the organisms in the aquatic landscape system. Attached Figure Description

[0024] To more clearly illustrate the specific embodiments of this utility model or the technical solutions in the prior art, the drawings used in the description of the specific embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0025] Figure 1 This is a schematic diagram of a water ecological landscape system according to an embodiment of the present utility model; Figure 2 This is a schematic diagram of a water ecological landscape system according to an embodiment of the present utility model.

[0026] Explanation of reference numerals in the attached figures: 1-First chamber; 2-Second chamber; 3-Monitoring end of water quality monitoring equipment; 4-Air intake system; 5-Filtration system; 6-Sensing device; 7-Quantum dot luminescent graphic area; 8-Light emitting element; 9-Solar unit; 10-Heating equipment; 11-Control device; 12-Water pump; 13-Valve; 14-Filter unit; 15-Microbial carrier unit; 16-Energy storage unit. Detailed Implementation

[0027] The technical solution of this utility model will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0028] In the description of this utility model, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicating the orientation or positional relationship, are based on the orientation or positional relationship shown in the accompanying drawings and are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0029] In the description of this utility model, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can also refer to the internal connection of two components; and they can refer to a wireless connection or a wired connection. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0030] Furthermore, the technical features involved in the different embodiments of this utility model described below can be combined with each other as long as they do not conflict with each other.

[0031] While related technologies include water ecological landscape systems with features such as circulating water drainage, water treatment, circulating water supply, aeration, temperature control, and lighting, numerous problems exist. These include inaccurate water quality monitoring, a lack of intelligent environmental control, temperature control that cannot precisely adapt to the habits of organisms, cumbersome maintenance and management relying on regular manual inspections, limited aesthetic appeal, and monotonous lighting. These issues restrict the expansion of water ecological landscape systems, and also lead to high energy consumption, frequent equipment failures, and increased operating and maintenance costs.

[0032] Therefore, in order to reduce energy consumption and improve the aesthetic appeal of aquatic landscape systems, it is necessary to further enhance the technological level and intelligence of these systems.

[0033] In view of this, the present invention proposes a water ecological landscape system. Figure 1 This is a schematic diagram of a water ecological landscape system according to an embodiment of the present invention. The water ecological landscape system includes a housing, water quality monitoring equipment, a filtration system 5, an air intake system 4, and a control device.

[0034] The container includes a first container 1 and a second container 2. The first container 1 is used to store water and aquatic organisms, and at least one side wall of the first container 1 is a light-transmitting side wall; wherein the first container 1 is located above the second container.

[0035] The water quality monitoring equipment is installed inside the container, and at least the monitoring end 3 of the water quality monitoring equipment is located inside the first container to monitor the water quality inside the first container. The water quality monitoring equipment includes a quantum dot spectral sensor and a dissolved oxygen sensor.

[0036] The filtration system 5 is installed inside the second box. The inlet of the filtration system is connected to the outlet of the first box through a control valve. The outlet of the filtration system is connected to the inlet of the first box through a drive pump.

[0037] The air intake system 4 is located inside the second housing, and the air outlet of the air intake system is connected to the air inlet of the first housing.

[0038] The control device is located inside the second housing and is connected to the air intake system, the filtration system, and the water quality monitoring equipment via signal connection.

[0039] The control device is configured to control the start / stop and / or operating intensity of the control valve, drive pump, and intake system based on monitoring data from the quantum dot spectral sensor and dissolved oxygen sensor.

[0040] At least one side of the first enclosure 1 is a light-transmitting surface, used to display the ecological scenes within the aquatic landscape system. In specific implementations, all sides of the first enclosure 1 can be light-transmitting surfaces to display the organisms within the aquatic landscape system from all angles.

[0041] Among them, one end of the monitoring end 3 of the water quality monitoring equipment extends into the water in the first tank, which can monitor the water quality in the tank. Specifically, it can collect water quality parameters such as pH, dissolved oxygen content, and ammonia nitrogen content in the water in real time.

[0042] The air intake system 4 is located in the second housing and is connected to the first housing 1. During operation, it can transmit air to the first housing. In specific implementations, it can disperse the air into tiny bubbles and release them into the water to increase the dissolved oxygen in the water.

[0043] The filtration system 5 is located in the second chamber and is connected to the first chamber 1, and can filter the water in the first chamber 1. Specifically, the filtration system 5 can filter large particulate impurities, microorganisms, etc. in the water.

[0044] In some optional implementations, the working state of the air intake system 4 can be controlled based on the dissolved oxygen content data collected by the monitoring terminal 3 of the water quality monitoring equipment. When the dissolved oxygen content in the water is detected to be lower than the preset lower limit of normal, the air intake system 4 is automatically started to aerate the water; when the dissolved oxygen content reaches or exceeds the preset upper limit of normal, the air intake system 4 is controlled to stop working.

[0045] In some alternative implementations, the working status of the filtration components can be controlled based on water quality parameters such as turbidity collected by the monitoring terminal 3 of the water quality monitoring equipment.

[0046] In this embodiment, the aquatic landscape system includes a first tank and a second tank, with at least one sidewall of the first tank being a light-transmitting sidewall. A water quality monitoring device is installed within the aquatic landscape system, including a monitoring terminal 3. The system also includes an air intake system 4 and a filtration system 5. The monitoring terminal 3 is located within the first tank to monitor the water quality. The air outlet of the air intake system 4 is connected to the air inlet of the first tank. The water inlet of the filtration system is connected to the water outlet of the first tank via a control valve, and the water outlet of the filtration system is connected to the water inlet of the first tank via a drive pump. Through this aquatic landscape system, water quality monitoring can be performed on the water within the first tank, and the system can aerate or filter the water based on the monitoring results, achieving automatic monitoring and improvement of the water quality within the tank.

[0047] This utility model proposes a water ecological landscape system. Figure 2This is a schematic diagram of a water ecological landscape system according to an embodiment of the present invention. The water ecological landscape system includes a first box 1 and a second box 2. At least one side wall of the first box 1 is a light-transmitting surface. The water ecological landscape system is equipped with a water quality monitoring device, an air intake system 4, and a filtration system 5. The monitoring end 3 of the water quality monitoring device is located inside the first box to monitor the water quality inside the first box 1. The air intake system 4 is located inside the second box 2, and the air outlet of the air intake system is connected to the air inlet of the first box. The filtration system 5 is located inside the second box 2, and the water inlet of the filtration system is connected to the water outlet of the first box through a control valve. The water outlet of the filtration system is connected to the water inlet of the first box through a drive pump.

[0048] Optionally, in this embodiment, a light-emitting element 8 connected to the control device is provided on the end face of the light-transmitting sidewall, and a quantum dot light-emitting pattern area 7 is provided on the outer surface of the light-transmitting sidewall. The quantum dot light-emitting pattern area 7 emits light after being illuminated by the light-emitting element 8. It can be provided only on the upper end face, or it can be provided on all four end faces. The light emitted by the light-emitting element 8 enters the quantum dot light-emitting pattern area 7 through transmission, scattering, reflection, and refraction of the light-transmitting sidewall.

[0049] The housing is equipped with a sensor that is connected to the control device. When the sensor detects an object within a set range, it outputs a sensor signal to the control device. Upon receiving the sensor signal, the control device controls the light-emitting element to emit light.

[0050] In this embodiment, the light-emitting element 8 is strip-shaped; and / or, the light-emitting element 8 is a UV light strip. Optionally, the light-emitting element 8 can be set at the top of the aquatic ecological landscape system, emitting UV light to the quantum dot luminescent graphic area 7. The quantum dot luminescent graphic area 7 can display data, symbols, patterns, text, etc. The placement and luminous intensity of the light-emitting element 8 can be determined according to actual conditions. The luminous intensity can be set to both excite the quantum dot luminescent graphic area 7 to emit light and not cause harm to aquatic organisms or humans. In a practical application, the first housing 1 is a cuboid structure with four translucent sidewalls (e.g., made of glass). If the light-emitting element 8 is a UV light strip, four UV light strips are set at the top of the four translucent sidewalls. The light propagates within the four translucent sidewalls and illuminates the quantum dot luminescent graphic area 7, stimulating the quantum dot luminescent graphic area 7 to emit light and display text and / or patterns of different colors. For example, it can display "Welcome," "Please change the water," etc.

[0051] The quantum dot luminescent graphic area 7 can be a quantum dot film, which can be printed using a suitable method depending on the actual situation and then pasted onto the first box 1 of the aquatic ecological landscape system to absorb the emitted light from the luminescent element 8, thus displaying various colors. The display content of the quantum dot luminescent graphic area 7 can be set by the user, such as a welcome message or a logo.

[0052] The sensing device 6 can be an infrared detector or other sensor capable of detecting a human body or object. When the sensing device 6 is a quantum dot infrared detector, it can detect the infrared rays emitted by a nearby person, thereby activating the light-emitting element 8 to automatically turn on and illuminate the quantum dot luminous graphic area 7, causing the quantum dot luminous graphic area 7 to display content.

[0053] In a practical application, the sensing device 6 is located in the upper left corner of the light-transmitting surface of the first housing 1. It is an infrared detector with a diameter of 1 cm and a length of 10 cm. It can detect whether guests are approaching the aquatic landscape system. If guests are approaching, it reports the situation and activates the light-emitting element 8.

[0054] The aquatic landscape system includes a first housing 1 and a second housing 2. At least one side of the first housing 1 is a light-transmitting surface, and a light-emitting element 8 and a quantum dot light-emitting pattern area 7 are arranged on the light-transmitting surface. When a sensing device 6 installed inside the aquatic landscape system detects an object approaching the system, it transmits an electrical signal to the light-emitting element 8, so that the quantum dot light-emitting pattern area 7 receives the light emitted by the light-emitting element 8. With the above-described aquatic landscape system, an electrical signal is emitted only when an object is detected approaching the system, which reduces energy consumption compared to continuous light emission.

[0055] In some alternative embodiments, the light-emitting element 8 is disposed at the top or bottom of the light-transmitting surface, and the light-emitting element 8 is strip-shaped; the quantum dot light-emitting pattern area 7 is disposed on the side of the first housing 1.

[0056] In cases where the main organisms in the aquatic landscape system are aquatic plants, the light-emitting element 8 can be installed on top, and the light-emitting parameters of the light-emitting element 8 are determined according to the type of organisms in the aquatic landscape system.

[0057] In aquatic ecosystems where fish are the primary organisms, the luminous element 8 can be installed at the bottom to improve the visibility of the fish. The luminous parameters of the luminous element 8 can be set according to the color of the fish.

[0058] In some alternative implementations, the light-emitting element 8 may also be installed at the top and bottom of the light-transmitting surface.

[0059] In some alternative implementations, the light-emitting element 8 is an ultraviolet lamp; the quantum dot light-emitting pattern area 7 is a quantum dot display film.

[0060] In some alternative embodiments, the inner surface of the light-transmitting sidewall is covered with an ultraviolet filter film and / or a reflective film.

[0061] The ultraviolet (UV) filter membrane can absorb UV light emitted from the aquatic ecosystem, preventing harm to fish. This UV filter membrane can be a quantum dot filter membrane.

[0062] In some optional embodiments, a reflective film can also be provided on the inner side of the light-transmitting surface. The reflective film can reflect the light emitted by the light-emitting element 8 as much as possible onto the quantum dot luminescent pattern area 7, and can prevent ultraviolet rays from shining into the water of the aquatic ecosystem, thus protecting the organisms in the aquatic ecosystem while highlighting the content displayed in the quantum dot luminescent pattern area 7. The reflective film and the ultraviolet filter film can use existing film layers, such as transparent films that allow visible light to pass through. When the ultraviolet filter film is added, the measured ultraviolet light level of the quantum dot luminescent pattern area 7 is 17.9 μW, which is comparable to the ultraviolet level of an indoor environment under normal sunlight.

[0063] Reflective and ultraviolet filter films can also be installed on the opposite side of the light-transmitting surface to reduce the amount of ultraviolet radiation that organisms in the aquatic ecosystem are exposed to, thereby increasing their lifespan.

[0064] In some alternative implementations, the aquatic landscape system also includes power supply equipment, which is electrically connected to control devices, control valves, drive pumps, and an air intake system to provide power to the electrical components.

[0065] Optional, the power supply equipment includes solar panel 9 and energy storage unit 16: The solar energy unit 9 is located on the upper part of the first housing 1 and is used to receive solar energy and convert it into electrical energy to be sent to the energy storage unit 16. Energy storage unit 16 is used to store electrical energy transmitted by solar unit 9.

[0066] Optionally, the power supply equipment also includes a power supply unit, the power supply plug of which is used to connect to an external power source. The power supply unit is used to convert the voltage value provided by the external power source to power various devices in the water ecological landscape system and / or charge the energy storage unit in the water ecological landscape system.

[0067] The power supply equipment also includes battery devices, which can be quantum dot solar cells.

[0068] The battery device can power the light-emitting element 8 and the sensing device 6 to improve energy utilization efficiency.

[0069] The energy storage unit 16 can smooth out the fluctuations in solar energy output to improve the stability of voltage within the water ecosystem landscape system.

[0070] In practice, solar panels can also be placed on the side of the water ecological landscape system near the windows to improve energy absorption rate.

[0071] In some alternative implementations, the aquatic landscape system also includes a feed inlet for feeding the first tank 1.

[0072] The feed inlet can be configured according to the feeding preferences of the organisms within the aquatic ecosystem to optimize their feeding behavior. The feed inlet can be an interface for an automatic feeder or a manual feeding opening.

[0073] In some alternatives, a filter screen can be installed at the feed inlet to prevent small fish from escaping and to avoid the entry of external pollutants.

[0074] In a practical application, the feed inlet is opened once every 24 hours, and the feeding time is 30 seconds.

[0075] In some alternative embodiments, the filtration system 5 includes a microbial carrier unit 15, which is connected to the outlet of the first housing 1, and the outlet of the microbial carrier unit 15 forms the outlet of the filtration system.

[0076] The type of microbial carrier unit 15 can be selected according to the type of organisms in the aquatic ecological landscape system. Water in the first tank 1 can enter the microbial carrier unit 15 through the outlet to purify the water in the first tank 1. After the microbial carrier unit 15 completes the purification, the purified water is pumped back to the first tank 1 by the water pump 12.

[0077] In some optional embodiments, the filtration system 5 further includes a filter unit 14 located between the microbial carrier unit 15 and the first housing 1, for filtering target suspended solids in the water within the first housing 1; wherein the outlet of the filter unit 14 is connected to the inlet of the microbial carrier unit 15, and the inlet of the filter unit 14 forms the water inlet of the filtration system 5.

[0078] In the process of filtering water in the first chamber 1, the water first passes through the filter screen unit 14 to filter out solid impurities in the water before entering the microbial carrier unit 15, which can reduce the filtration burden of the microbial carrier unit 15.

[0079] In practice, the number and specifications of the filters in the filter unit 14 can be determined according to the actual situation.

[0080] In some optional implementations, the water quality monitoring equipment in the first housing 1 can detect the water quality in the water ecological landscape system online. When the COD (Chemical Oxygen Demand) value exceeds the threshold, the drainage pump and the water injection pump can be turned on. The water in the water ecological landscape system flows through the filter unit 14 and the microbial carrier unit 15 for water purification. After the water is purified, the purified water is pumped into the first housing 1 of the water ecological landscape system through the water inlet by the water pump 12.

[0081] In some optional implementations, a monitoring terminal 3 of a water quality monitoring device is installed inside the first housing 1, which can detect the DO (Dissolved Oxygen) of the water ecological landscape system online. When the DO value is lower than the threshold, the system opens the air intake system 4, and air enters the water ecological landscape system through the air intake system 4.

[0082] In some optional embodiments, in this application embodiment, a mounting portion is provided on the side wall of the housing, and the water quality monitoring equipment is fixed to the mounting portion. The water quality monitoring equipment is connected to the mounting portion via a mounting structure, which includes a cylinder and a fixing structure. The cylinder includes an inner cavity suitable for accommodating the water quality monitoring equipment and a flow-through structure connecting the inner cavity of the cylinder to the outside. A gap exists between the inner wall of the cylinder and the edge of the water quality monitoring equipment. The fixing structure is disposed on the outer wall of the cylinder and is suitable for fixing the cylinder to the mounting portion, thereby fixing the water quality monitoring equipment to the mounting portion. The flow-through structure facilitates water exchange between the water in the inner cavity of the cylinder and the external water. The gap between the inner wall of the cylinder and the water quality monitoring equipment allows the water quality monitoring equipment to float according to the water level in the inner cavity of the cylinder, ensuring sufficient contact between the water quality monitoring equipment and the water.

[0083] The water quality monitoring equipment includes a quantum dot spectral probe. It can measure multiple parameters in situ with a high monitoring frequency. In some optional embodiments, the aquatic landscape system also includes a heating device 10 for heating the water in the first tank 1. The heating device 10 is signal-connected to the control device 11. The water quality monitoring equipment also includes a temperature sensor for monitoring the water temperature in the first tank.

[0084] The heating device 10 can be a heating rod, a thermostat, or a heating element. It can be placed at the bottom of the first tank 1 in the aquatic landscape system to control the water temperature within the system. When the heating device 10 is placed at the bottom of the first tank 1, it needs to be isolated by a structure such as an isolation cover to prevent aquatic organisms from directly contacting it. A water circulation channel can be provided inside the isolation cover so that water entering the cover is heated and then exits, allowing new water to enter and be heated again, thus gradually increasing the water temperature in the first tank 1. Alternatively, the heating device can be placed outside the first tank, allowing it to circulate with the water circulation within the first tank 1.

[0085] Specifically, the preset temperature of the heating device 10 can be set according to the living conditions of the organisms in the aquatic landscape system. When the water temperature in the aquatic landscape system is lower than the preset temperature, the control device 11 sends a command to start the heating device 10 to improve the water quality in the aquatic landscape system. Alternatively, a temperature probe can be installed in the first housing 1 to measure the water temperature.

[0086] The temperature sensor can detect the temperature of the water in the first tank.

[0087] In a practical application, the first enclosure 1 of the aquatic landscape system can be a glass cube filled with water, with most of its four sides transparent to allow for observation of fish. The quantum dot luminescent graphic area 7 is positioned above this translucent surface. The quantum dot luminescent graphic area 7 can display any text or pattern.

[0088] Four ultraviolet light strips, or light-emitting elements 8, are installed along the four edges of the top of the glass. A sensor 6, or infrared detector, is located in the upper left corner of the glass. When the sensor 6 detects a customer approaching the water ecological landscape system, it sends the detection information to a control device 11 hidden in the second housing 2 of the water ecological landscape system. The control device 11 then sends a command to the light-emitting elements 8 to activate them. The light emitted by the light-emitting elements 8 propagates through the glass and illuminates the quantum dot luminous graphic area 7, activating it to display preset content.

[0089] A solar energy unit 9 is installed on the top of the glass cube. The solar energy unit 9 is connected to the energy storage unit 16, which converts the collected solar energy into electrical energy and transmits it to the energy storage unit 16 for storage, thereby improving energy utilization efficiency.

[0090] A temperature sensor is installed inside the glass cube to detect the temperature of the water inside. When the detected temperature is lower than a preset temperature, it is reported to the control device 11, which then turns on the heating device 10 located at the bottom of the glass cube to raise the temperature of the water inside the glass cube, providing more comfortable conditions for aquatic life.

[0091] Three openings can be provided at the bottom of the glass cube: an air inlet, a water inlet, and a drain outlet. These three openings are used for material exchange with the equipment hidden in the second enclosure 2. The second enclosure 2 can be a wooden cube.

[0092] The equipment hidden in the second housing 2 includes: filter unit 14, microbial carrier unit 15, water pump, valve 13, air pump, energy storage battery, control device 11, and energy storage unit 16.

[0093] During the material exchange, the water quality monitoring module installed in the first tank 1 first monitors the water quality in the first tank 1. When the dissolved oxygen in the water in the first tank 1 is detected to be lower than a preset threshold, it is reported to the control device 11. The control device 11 then opens the air intake system 4 hidden in the second tank 2 to increase the dissolved oxygen in the water in the first tank 1.

[0094] When the water quality monitoring module detects that the chemical oxygen demand (COD) of the water in the first tank 1 is lower than a preset threshold, it will report to the control device 11. The control device 11 will then open the valve 13, allowing the water in the first tank 1 to pass sequentially through the valve 13, the filter unit 14, and the microbial carrier unit 15 for purification. After purification by the microbial carrier unit 15, the water is pumped into the first tank 1 of the aquatic ecological landscape system through the inlet.

[0095] Among them, the water quality monitoring module can be a quantum dot spectrometer water quality online detection system, which will start the circulating water treatment system when poor water quality is detected in the first tank 1.

[0096] All equipment within the aquatic landscape system can be controlled by the control device 11. In some alternative implementations, the control program can be edited using LibVIEW.

[0097] Although embodiments of the present invention have been described in conjunction with the accompanying drawings, those skilled in the art can make various modifications and variations without departing from the spirit and scope of the present invention, and such modifications and variations all fall within the scope defined by the present invention.

Claims

1. An aquatic ecosystem landscape system, characterized in that, include: The container includes a first container and a second container, the first container being used to store water and aquatic organisms, and at least one side wall of the first container being a light-transmitting side wall; A water quality monitoring device is installed inside the first box, and at least the monitoring end of the water quality monitoring device is located inside the first box to monitor the water quality inside the first box, wherein the water quality monitoring device includes a quantum dot spectral sensor and a dissolved oxygen sensor; A filtration system is installed inside the second chamber. The inlet of the filtration system is connected to the outlet of the first chamber through a control valve. The outlet of the filtration system is connected to the inlet of the first chamber through a drive pump. An air intake system is installed inside the second housing, and the air outlet of the air intake system is connected to the air inlet of the first housing. The control device is located inside the second housing and is connected to the air intake system, the filtration system and the water quality monitoring equipment via signal connection.

2. The aquatic ecological landscape system according to claim 1, characterized in that, The end face of the light-transmitting sidewall is provided with a light-emitting element that is connected to the control device. The outer surface of the light-transmitting sidewall is provided with a quantum dot light-emitting pattern area. The quantum dot light-emitting pattern area emits light when illuminated by the light-emitting element.

3. The aquatic ecosystem landscape system of claim 2, wherein, The housing is equipped with a sensing device that is connected to the control device. When the sensing device detects an object within a set range, it outputs a sensing signal to the control device. After receiving the sensing signal, the control device controls the light-emitting element to emit light.

4. The aquatic ecosystem landscape system of claim 2, wherein, The light-emitting element is strip-shaped; and / or, the light-emitting element is an ultraviolet lamp.

5. The aquatic ecological landscape system according to claim 4, characterized in that, The inner surface of the light-transmitting sidewall is covered with an ultraviolet filter film and / or a reflective film.

6. The aquatic ecosystem system of claim 1, wherein, The water ecological landscape system also includes power supply equipment, which is electrically connected to the control device, the control valve, the drive pump, and the air intake system.

7. The aquatic ecosystem landscape system of claim 6, wherein, The power supply equipment includes a solar panel and an energy storage unit: The solar energy unit is located on the upper part of the first housing and is used to receive solar energy and convert the solar energy into electrical energy to be sent to the energy storage unit. The energy storage unit is used to store the electrical energy transmitted by the solar energy unit.

8. The aquatic ecological landscape system according to any one of claims 1 to 7, characterized in that, The filtration system includes a microbial carrier unit, the inlet of which is connected to the outlet of the first housing, and the outlet of which forms the outlet of the filtration system.

9. The aquatic ecosystem system of claim 8, wherein, The filtration system further includes a filter screen unit located between the microbial carrier unit and the first housing. The outlet of the filter screen unit is connected to the inlet of the microbial carrier unit, and the inlet of the filter screen unit forms the water inlet of the filtration system.

10. The aquatic landscape system according to any one of claims 1 to 7, characterized in that It also includes a heating device for heating the water in the first tank, the heating device being signal-connected to the control device, and the water quality monitoring device further includes a temperature sensor for monitoring the water temperature in the first tank.

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