13 results about "Macrophyte" patented technology

The present application belongs to the technical field of environmental monitoring, and discloses a kind of analysis method of total carbon lateral transport flux of mangrove ecosystem.The analysis method provided by the present application establishes monitoring target area at the connection of mangrove tidal ditch and adjacent water body and obtains corresponding hydrological parameters and chemical parameters at regular time, to realize the monitoring of lateral transport flux of non-large plant detritus carbon, while collecting large plant detritus samples and measuring the amount of large plant detritus carbon, to realize the monitoring of lateral transport flux of large plant detritus carbon, by quantifying the lateral transport of different forms of carbon and performing weighted operation, so that the obtained total carbon lateral transport flux of mangrove ecosystem has higher accuracy and certainty, can well realize long-time sequence full-form continuous observation of carbon lateral transport of mangrove ecosystem, and has good application prospect.

In known systems that symbiotically combine plant and fish cultivation, the upper planting container (02) is rigidly connected to the lower water container (03), so that only the entire system (01) can be rotated. Bending forces from the plants can cause instability. In the invention, the planting container (02) and water container (03) are rotatably mounted on top of each other by means of a rotary bearing (46), so that the planting container (02) can be rotated independently of the water container (03). Furthermore, a support plate (31) is connected to a base tray (08) on the planting container (02) via a support device (11), so that any forces occurring are transferred into the base tray (08). A water circulation between the water container (03) and the planting container (02) is created via an inlet device (19), whereby the inlet device (19) does not rotate with the planting container (02).The water container (02) is mounted on support legs (16) and can also be rotated independently via casters (17). This allows for optimal, separate alignment of the plant container (02) and water container (03) according to functional and aesthetic considerations. A variety of additional components, also serving functional and aesthetic purposes, can be optionally installed. The aquaponic growing system (01) is particularly suitable for home use, where a single large plant is cultivated. With scaling, it can also be used for private food production.

The present invention discloses a modular treatment system and its operational method that enables recovering reuse-quality water from grey water discharged from individual houses and apartments. The present invention serves as a replacement for the existing soak pits where the grey water is disposed of without any treatment, leading to contamination of water environment. The invention integrates anaerobic and aerobic biofilms on natural fibre and various macrophytes to treat greywater effectively. It is particularly suitable for household and community-level applications, offering a sustainable solution to reduce freshwater consumption and mitigate water pollution.

The present application relates to the field of environmental management technology, and discloses a kind of emergent aquatic plant-sediment microbial fuel cell synchronous remediation water body method, comprising the following steps: S1, constructs emergent aquatic plant-SMFC coupling system, emergent aquatic plant-SMFC coupling system includes emergent aquatic plant and SMFC, SMFC includes anode electrode, modified cathode electrode and external resistance;Emergent aquatic plant is planted around anode electrode, so that anode electrode is contacted with bottom mud;S2, preparation modified cathode electrode, and the catalytic activity of cathode electrode is enhanced by electrochemical oxidation modification;S3, domestication electric active microorganism, emergent aquatic plant-SMFC coupling system is placed in room temperature domestication, and the electricity generation capacity of anode electrode is improved by introducing bottom mud rich in organic matter or exogenous inoculation microorganism;S4, start and run system, and the concentration change of chlorophyll a, ammonia nitrogen, total nitrogen and total phosphorus in water body is monitored in real time.The present application provides a kind of green, economic and efficient algal bloom water remediation technology, and is suitable for the ecological management of algal bloom water.

The invention discloses a gridding identification method for a large-water-surface submerged plant preferential recovery area. A lake and a reservoir are divided into a plurality of grid units; performing simulation calculation through a lake and reservoir two-dimensional hydrodynamic model to obtain gridding distribution of the flow velocity of a lake and reservoir water body; utilizing a remote sensing inversion model to obtain grid distribution of lake and reservoir water depth, suspended matter concentration and euphotic layer depth; the method comprises the following steps: for each grid of a lake and a reservoir, respectively calculating the product of index values of flow velocity, water depth, suspended matter concentration and euphotic layer depth parameters as a recoverability index of the submerged plants, dividing the difficulty levels of the restoration of the submerged plants in the grids based on the recoverability index, and identifying a preferential restoration area according to the order of the restoration difficulty levels. According to the method, remote sensing inversion and hydrodynamic simulation technologies are fused, the submerged plant preferential recovery areas of large water surfaces such as lakes and reservoirs can be rapidly and finely identified in a low-cost and large-range mode, the success rate of submerged plant recovery is increased, and the recovery cost of a water ecosystem is saved.

The invention relates to a submerged plant carbon sink measuring and calculating method based on space remote sensing and morphological modeling. The method comprises the following steps: performing remote sensing image acquisition and preprocessing operation on a target water body area; submerged plant image recognition training is carried out, and a submerged plant area in the image is recognized; performing classification modeling and three-dimensional volume estimation on the submerged plants; calculating the biomass of each type of submerged plants according to the three-dimensional volumes calculated by the different types of submerged plants, and carrying out weighted average summary according to the proportion or absolute value of the distribution area of the biomass to form the total biomass of the region; and calculating the annual net carbon sink capacity of the submerged plant ecosystem based on the regional total biomass in combination with the plant carbon content coefficient and the litter carbon release parameter. According to the method, a calculation process with parameter adaptability and feedback optimization capability is constructed through remote sensing information identification, typical plant morphology classification, structural parameter estimation and carbon flux deduction, and quantitative estimation and dynamic evaluation of the carbon sequestration capability of the submerged plants are realized.

The invention belongs to the technical field of riverway vegetation restoration of water conservancy projects, and particularly relates to a riverway submerged plant restoration method based on flow velocity zoning, which comprises the following steps of: measuring adaptive threshold values of fishes to flow velocity in a target riverway, including an unsuitable flow velocity lower limit Vu and a suitable flow velocity upper limit Vs; according to Vu and Vs, a rapid flow area, a transition area and a slow flow area are constructed in the river channel, the flow speed of the rapid flow area is larger than or equal to Vu, the flow speed of the slow flow area is smaller than or equal to Vs, and the flow speed ratio of the rapid flow area to the slow flow area is 1.5 times or above; fish with the body length larger than or equal to 10 cm in the river channel is removed, and the density is smaller than or equal to 0.3 fish / m < 2 >; submerged plants capable of adapting to the range that the flow speed is larger than or equal to Vs are planted in the torrent area and / or the transition area. The method has the advantages that the adaptive capacity difference of the submerged plants and the fishes to different flow speeds is utilized, and the rapid flow area-transition area-slow flow area is built, so that conditions are created for the recovery of the submerged plants, the habitat diversity is increased, and the ecological biodiversity recovery of the whole riverway is facilitated.

A new Lavandula plant named ‘LAAZ0014’ particularly distinguished by dark purple-blue flowers, a very long flower spikes, dark green foliage, very abundant flowering, large sized plants with a well-branched, relatively tight and upright habit.

The utility model relates to the field of water treatment, in particular to a tail water treatment system, which comprises a culture pond and a middle filter pond, the middle filter pond comprises a sea horse tooth planting pond and a mangrove forest planting pond, and the culture pond is sequentially communicated with the sea horse tooth planting pond and the mangrove forest planting pond. According to tail water and waste water generated by the culture pond, nitrogen and phosphorus elements in the tail water are absorbed through the sea horse teeth in the sea horse tooth planting pond, the nitrogen and phosphorus elements and heavy metal elements are further absorbed through the large plants in the mangrove forest planting pond, and it is ensured that tail water discharge meets the index; and by adopting an ecological cycle green filtering design, the construction of water treatment equipment can be reduced, and a great deal of cost for purifying the water quality of the tail water is not needed.

The utility model relates to the technical field of garden landscapes, in particular to a spraying device with a quick release structure, which comprises a water tank, a water pump is inserted into the side surface of the water tank, a hose is mounted at the top of the water pump, a shunt pipe is glued to one end of the hose, and a butt joint component is mounted at one end of the shunt pipe. An adjusting assembly is inserted into the butt joint assembly, the flow of liquid is further adjusted by rotating an adjusting disc and adjusting the area of a fan-shaped opening in the surface of a baffle, the spraying amount of pesticide liquid in all directions can be independently adjusted, and large plants and small plants can be sprayed at the same time; the six sliding blocks are extruded to get close to the middle through the elastic force of contraction of the annular spring, the effect of clamping and fixing the connecting pipe is achieved, the clamping blocks are inserted into the clamping openings, the connecting position of the connecting pipe and the round pipe is fixed in the vertical direction, and when disassembly is needed, the connecting pipe is rotated anticlockwise, the clamping blocks are separated from the clamping openings, and the connecting pipe can be disassembled. And the adjusting assembly and the spray head can be quickly pulled out.

This application provides a method and apparatus for simulating the coupled cycling of large-scale wetland plants and biogenic elements. The method includes: acquiring three-dimensional topographic scatter data and multi-source aquatic environment ecological data of a target area, where the target area is a lake wetland; the multi-source aquatic environment ecological data includes interaction data on the seasonal growth and hydrological rhythms of aquatic and wetland plants, biogenic element absorption data during growth, and biogenic element release data after withering; based on the three-dimensional topographic scatter data and multi-source aquatic environment ecological data, constructing the simulation boundary of the target area and parameters in multiple dimensions, including hydrodynamic field, temperature field, material field, and biogeochemical field; and based on the parameters in multiple dimensions, constructing a coupled aquatic environment ecological model of biogenic element cycling based on the plant growth process. This effectively improves the accuracy and completeness of the simulation of biogenic element cycling processes in lake wetland ecosystems and enhances the prediction of biogenic element transport.

The present invention belongs to the technical field of river vegetation restoration in water conservancy projects, and specifically relates to a method for restoring submerged plants in river channels based on flow rate regulation. By measuring the adaptability thresholds Vu and Vs of tilapia to flow rate, the method dynamically regulates the amount of water replenished in combination with the hydrodynamic model MIKE, constructing a flow velocity gradient between the rapid flow area Vu and the slow flow area Vs, and utilizing the difference in flow velocity adaptability between fish and plants to achieve spatial isolation. At the same time, snakehead fish and benthic organisms are introduced to form ecological synergistic control. The advantages of the present invention are as follows: the present invention solves the problems of traditional enclosure methods hindering flood flow and the easy damage of fish prevention devices. It also constructs rapid flow areas and slow flow areas through water replenishment regulation, replacing traditional physical barrier devices, resolving the contradiction between flood flow safety and fish control, enhancing flood flow safety, and reducing maintenance costs.

The application provides a modular aquatic higher plant ecological treatment method and system for sea urchin / sea cucumber breeding tail water, and belongs to the technical field of breeding tail water treatment. The application adopts a tail water introduction-primary rough filtration-secondary ecological purification-tertiary deep purification gradient process, and the treated tail water is divided into two streams, one of which is used for breeding ponds and the other is discharged up to the standard. The application does not add chemical agents, realizes residue bait reuse and tail water circulation, is stable, efficient, low in cost, easy to maintain, suitable for large-scale breeding, and can directly reuse the treated tail water after disinfection, greatly saves seawater resources, forms a complete breeding water circulation closed loop, and has the advantages of ecology, practicability and economy, and is suitable for tail water treatment and resource utilization of various sea urchin / sea cucumber breeding modes.