10 results about "Shrimp farming" patented technology

This invention belongs to the field of shrimp farming technology and discloses an AIoT-driven ecological coupling method for whole-field flat-culture of fruit and shrimp. The method divides the fruit and flower crop planting area into multiple flat-culture units and establishes unit relationships. Under basic flat-culture management conditions, crop impact data, shallow water environment data, bottom load data, and shrimp activity data are collected to establish historical baseline states for each flat-culture unit. During the flat-culture process, current data is collected to form plant impact state, shallow water environment state, bottom load state, and shrimp response state, and a current ecological state chain is constructed. Based on the comparison results between the current ecological state chain and the historical baseline state, abnormal relationships are identified, and target flat-culture units, associated flat-culture units, and dominant abnormal links are determined. A local zonal control scheme is generated and executed. After control, a retested ecological state chain is formed, and recovery conditions are determined, dominant abnormal links are corrected, or the control level is increased accordingly.

This invention relates to the field of shrimp aeration and oxygenation technology, and discloses a self-sinking rubber tube for aeration and oxygenation in small-scale shrimp farming. The tube includes an air distribution pipe, an oxygenation pump, and a liquid delivery pump. The air distribution pipe has evenly distributed air holes, and one end of the air distribution pipe has an air guide pipe. It also includes an aeration pipe located outside the air distribution pipe, with a spiral blade fixedly installed inside. The spiral blade is fitted to the outer wall of the air distribution pipe. The aeration pipe has aeration holes arranged in a nine-hole spiral pattern, with the upper and lower layers of holes staggered by approximately 1 cm. The holes are arranged in three rows at a central angle of 60°. The aeration pipe has two layers: the inner layer is made of PVC material, which has good elasticity and shrinkage, while the outer layer is made of PP material, which has a smooth surface, making it difficult for algae and dirt to adhere, reducing the risk of blockage. Furthermore, its specific gravity is greater than water, allowing it to sink in water without the need for additional weights, making the arrangement convenient for management.

Provided are a multifunctional apparatus for intensive shrimp farming, an intensive shrimp pond using the apparatus, and a method for operating the pond. The multifunctional apparatus of the present invention includes a water flow generator, a feeder unit, a gas dissolving unit, a sensor, and a controller for operating the entire apparatus. The intensive shrimp pond of the present invention contains at least one multifunctional apparatus and has a reasonable operating method that uses algae and microorganisms to keep the DO concentration in the pond always high and to stabilize the pH value in the pond at an optimal threshold.

This invention relates to a method for spring breeding of broodstock larvae of Procambarus clarkii in rice-vegetable rotation fields, belonging to the field of broodstock larvae breeding. The invention utilizes a rice-crayfish-vegetable crop rotation system, setting up artificial burrows, rainproof black antioxidant plastic film, field drainage ditches, fishing nets and basket traps, and broodstock removal and temporary holding facilities at different stages of broodstock reproduction. By rotating vegetables in winter and spring, the rice paddies are drained and moisturized, achieving the goal of spring breeding of broodstock larvae in rice-vegetable rotation fields. This invention fully utilizes the characteristics of rice, water spinach, and crayfish farming, delaying the emergence time of broodstock larvae, increasing broodstock yield and collection efficiency, and increasing broodstock larvae production. It enables seamless integration of broodstock larvae supply with crayfish farming in the cold regions of Northeast China, promoting the rapid development of the crayfish industry in northern my country and achieving increased production and efficiency. Furthermore, this method can increase the planting area of ​​water spinach in farmland, improve soil, and solve the problem of long-term waterlogging and siltation in the soil.

This invention relates to the field of intelligent cloud platform application technology for salt field shrimp farming, and discloses a cloud platform application system for intelligent salt field shrimp farming, including an edge data acquisition unit, an edge preprocessing unit, a cloud-side storage unit, a dedicated salt field shrimp analysis unit, an automatic control unit, and a full-chain traceability unit. The edge data acquisition unit collects multi-dimensional data such as water environment, diseases, feeding, and video from high-salinity ponds. The edge preprocessing unit performs data noise reduction, downsampling, caching, and breakpoint resumption locally. The cloud-side storage unit uses a cold and hot layered architecture to store all data. This platform solves the problems of poor adaptability to high-salinity environments, high false alarm rates, and insufficient analysis accuracy of general farming platforms through a dedicated data acquisition, analysis, and control system for salt field shrimp. It can reduce farming losses, has full-chain traceability capabilities, support product premiums, and has low deployment costs, adapting to different farming scenarios from individual farmers to large-scale bases.

Provided are a multi-function device for intensive shrimp farming, intensive shrimp ponds using this device and method for operating this pond. The multi-function device of the present invention comprises: water flow generator; feeder unit; gas dissolving unit; sensor and control operating the entire device. The intensive shrimp pond of the present invention comprises at least one multi-function device and has a reasonable operating method that uses algae and microorganisms to keep the dissolved oxygen (DO) concentration in the pond always high and the pH in the pond stable at an optimal threshold.

This utility model discloses a crayfish temporary holding device, solving the problem of large space requirements and inconvenient management in existing crayfish farming. The utility model includes several stackable temporary holding boxes, an installation mechanism inside each box, a detachable shielding mechanism on the installation mechanism, a detachable top cover on the box, a rotatable feeding mechanism for feeding and observing the crayfish, and a connecting mechanism on and connected to each box for connecting adjacent boxes. Ventilation holes are evenly distributed on the box and top cover, and the connecting mechanism has an inlet and an outlet. This utility model's temporary holding device consists of multiple independent boxes that can be stacked or used individually, thus reducing the installation space required for crayfish temporary holding. The shielding mechanism is detachably installed on the installation mechanism, providing a climbing and sheltering area for the crayfish.

This invention belongs to the field of shrimp farming technology, specifically relating to a method for raising Litopenaeus vannamei larvae using bioflocs. The method includes the following steps: (1) preparing raceway-shaped bioflocs; (2) preparing functional bioflocs; and (3) raising mysids and larvae; and raising adult larvae. This invention provides an effective method for raising Litopenaeus vannamei larvae without the use of antibiotics, solving the problem of antibiotic abuse during the larval stage, and is of great significance for promoting the green and healthy development of the shrimp larval industry.

The present invention relates to an intensive photoheterotrophic culture process in high salinity for crustaceans, specifically white shrimp Litopenaeus vannamei. The system allows for better production control by reducing water exchange and discharges into the environment, thus controlling the introduction of harmful agents (pathogens, toxins, predators) and enabling shrimp farming in extreme (desert) regions, where the salinity of the culture system increases significantly due to temperature, solar radiation, and winds, and where there is a lack of fresh water.

This utility model provides an aerator for crayfish farming; belonging to the field of crayfish farming; its key technical features include an aeration mechanism, which includes a hollow box, a float plate fixedly connected to the bottom of the hollow box, an aeration pump fixedly connected to the inner top wall of the hollow box, an air inlet pipe fixedly connected to the input end of the aeration pump, the air inlet pipe penetrating the top of the hollow box, a distribution pipe fixedly connected to the output end of the aeration pump, the distribution pipe being fixedly connected to the hollow box, and multiple connecting pipes fixedly connected in a circular array on the outer side of the distribution pipe, with a rotary joint fixedly connected to the end of each group of connecting pipes away from the distribution pipe; this utility model aims to provide an aerator for crayfish farming, thereby improving the service life of the entire aerator.