8 results about "Detritus" patented technology

This utility model relates to a fountain structure for ecological restoration of eutrophication in a landscape lake, including a water inlet tank. A filter screen is installed on the inner wall of the water inlet tank. Multiple water inlets are opened on the outer surface of the water inlet tank, and multiple water inlets are opened on the upper surface of the water inlet tank. A protective box is installed on the upper surface of the water inlet tank, and a first motor is installed on the inner bottom wall of the protective box. This utility model, through a dual composite water inlet structure of water inlets and water inlets, combined with the filter screen installed on the inner wall, can intercept large particles of debris such as aquatic plants and large-diameter organic debris, avoiding the problem of device clogging. The first motor drives the rotating rod and stirring rod to rotate at high speed, and the resulting vortex can disperse algae clusters and fine organic debris in the water inlet tank, preventing them from depositing at the bottom of the water inlet tank to form an anaerobic sediment layer. This design avoids secondary pollution and also prevents deposited debris from being carried into the subsequent biological treatment stage by the water flow, ensuring the stability of the microbial degradation environment.

The present application relates to a microfossil extraction system based on fluid control, comprising an extraction system body, a maintenance assembly is clamped on the top of the extraction system body, and a dredging assembly is fixedly connected to one side of the extraction system body; the maintenance assembly comprises a top cover and a threaded rod, the top cover is clamped on the top of the extraction system body, and the threaded rod is threadedly connected to one side of the extraction system body. The microfossil extraction system based on fluid control, the dredging assembly can remove the blockage such as sample debris and clay deposits at the fluid pipeline and discharge port in the device, avoid the decrease of fluid flow rate caused by blockage, prevent the target microfossil from being stranded and damaged at the blockage, ensure the stability of fluid circulation in the extraction process, ensure the smooth discharge of waste residues, reduce manual intervention in dredging operation, reduce operation strength, avoid local wear of the system caused by blockage, improve the smoothness and reliability of system operation, and provide protection for efficient microfossil extraction.

The application discloses a kind of basin deep brine lithium ore exploration methods.The present application relates to the technical field of geological exploration.The present application comprises the following steps: S1, real-time take circulating mud sample in the process of drilling, the drilling mud liquid of sampling is placed for a period of time to obtain clear liquid sample, and the clear liquid is chemically analyzed lithium content;S2, according to the sampling depth, the sampled detritus sandstone core is recorded and described, and the porosity of the detritus rock is observed in the field or tested in the laboratory;S3, according to the lithium content of mud clear liquid and the porosity of detritus rock, the lithium content of brine in the formation detritus rock pore is calculated, and the lithium content of pore water is equal to the lithium content of mud clear liquid divided by the porosity of detritus rock;S4, whether there is brine lithium ore is judged according to the lithium content calculated in step S3.The present application is a kind of basin deep brine lithium ore exploration method, which is low in cost, simple and effective.

This invention discloses a method for classifying and naming foraminiferous mixed sedimentary rocks, comprising the following steps: S1, identifying and classifying the rock composition to obtain initial values ​​for the content of three types of components, including terrigenous clastic components, low-energy / chemical carbonate components, and biogenic calcareous components; the low-energy / chemical carbonate components include mud, and the biogenic calcareous components include foraminifera; S2, identifying, classifying, and statistically analyzing the infilling components of foraminifera to obtain statistical data on the infilling components and calculating the foraminifera infilling rate; S3, based on the initial values ​​of the three types of components, combined with the statistical data on the infilling components and the foraminifera infilling rate, calculating the final values ​​of the content of the three types of components; S4, based on the final values ​​of the content of the three types of components, using a pre-established triangular diagram with the three types of components as endmembers, determining the final classification and naming of the rock. This invention improves the method for classifying and naming foraminiferous mixed sedimentary rocks by optimizing the component classification and introducing foraminiferal infilling component parameters.

A method for depth determination of drilled cuttings is disclosed. Tracers are injected and transported downhole along the mud flow (204, 205) and adhere to cuttings. Cuttings impregnated with tracers are detected at the surface (108) based on molecular weight, emission wavelength or radio frequency features used to encode the tracers. When a specific batch of tracers is released into the mud, the identification code identifies the depth of the drill bit. In addition to mud properties, flow rate, drilled volume and rate of penetration, formation characteristics and well specifications, detection data is transmitted to and analyzed by a tracer analysis and control engine (202). The tracer analysis and control engine (202) controls an internet of things controller (203) that adjusts parameters of a tracer injection pump (206) to enable intelligent controlled release, thereby optimizing the depth characterization process.

The application discloses a method for judging a real favorable reservoir of a super-thick bioclastic limestone reservoir, and the method comprises the following steps: based on core granularity, seismic data and gamma logging curves, the reservoir is divided into multiple third-order sequences, and a favorable development layer section in the reservoir is determined in each third-order sequence; based on rock structure and rock particle types in the favorable development layer section, a favorable sedimentary facies is determined in the favorable development layer section; based on dissolution strength and cementation strength of the favorable sedimentary facies, a favorable diagenetic facies is determined in the favorable sedimentary facies; based on pore throat structure, pore throat types and pore types of the favorable diagenetic facies, a favorable rock physical facies is determined in the favorable diagenetic facies; based on deep lateral resistivity curves of production wells of the reservoir, a theoretical favorable reservoir is determined in the favorable rock physical facies; and based on production logging data, whether the theoretical favorable reservoir is a real favorable reservoir is judged. The technical scheme provided by the application can improve the accuracy of real favorable reservoir judgment.

This invention relates to the field of aquaculture water treatment technology and discloses a recirculating water treatment system for hatching fish larvae, including at least one hatching module and a treatment module. The hatching module includes a hatching container, and the interior of the hatching container is provided with an overflow area, a hatching area, and a water distribution area from top to bottom. The treatment module includes at least one multi-stage purifier for treating the wastewater generated during the hatching process. This invention adopts a dual-path sewage discharge mode with continuous upper overflow to discharge floating sludge and concentrated bottom conical surface to discharge sediment. The overflow area discharges low-turbidity surface water, and the water distribution area discharges high-turbidity sediment wastewater. The two sewage paths are uniformly discharged into the multi-stage purifier for unified purification and treatment. The multi-stage purifier adopts a three-stage treatment process: external inlet and internal outlet filter cartridge fine filtration + microfiltration layer secondary filtration + biological packing chamber biochemical degradation, which can efficiently remove suspended solids, uneaten feed, and debris, and simultaneously degrade toxic substances such as ammonia nitrogen and nitrite.

The present application relates to a kind of test device and method of analog clastic flow deposition submarine fan, device includes support seat, water tank, stirring tank, circulating water supply component, laser scanning equipment and camera etc..Water tank is arranged in support seat, and one end of water tank is provided with continental shelf simulation platform;Turbidity meter, flowmeter and water level gauge are respectively arranged in water tank;Stirring tank is arranged above the continental shelf simulation platform, for accurate proportioning turbidity current;Circulating water supply component includes water pipe and water pump;Laser scanning equipment is arranged at the top of support seat, for real-time acquisition of the data of configuration change in the process that clastic flow forms submarine fan.Laboratory device angle is close to natural geological condition gradient, can realize accurate monitoring of turbidity current and clastic flow flow process;By adding camera, realize test whole process visual recording, cooperate with laser scanning equipment, both can capture dynamic process and obtain accurate configuration data and water body parameter, guarantee the integrity, reliability and relevance of test data.