18 results about "Hatchery" patented technology

The invention provides a deep learning-based young poultry male and female identification method and system, and belongs to the field of image processing and artificial intelligence. The method comprises the following steps: acquiring a young poultry image, and preprocessing the acquired image; inputting the pre-processed young poultry image into a trained multi-target task recognition model, and performing multi-target detection and multi-target tracking on the young poultry in the image; based on a multi-target detection and tracking result, a detection branch of the multi-target task identification model is utilized to output a young poultry positioning frame, a classification branch is utilized to extract feather speed feature information and feather color feature information of young poultry in the positioning frame, and gender classification is performed based on the feather speed feature information and the feather color feature information. Outputting the gender probability of the young poultry; and summarizing and deciding the multi-frame recognition results of the same young poultry, and outputting a final sex determination result. The method can realize lossless, high-speed and high-precision identification, is high in universality, and can replace manpower to meet the requirements of a large-scale hatchery.

The utility model relates to an aquatic fry incubator, aim at solving the technical problem of inconveniently cleaning the incubation tank in the incubator and inconveniently pouring water at present, including the hatchery box body, the box cover and the fry releasing structure, the box cover rotation is connected in the hatchery box body flip cover department, the fry releasing structure is arranged in the hatchery box body fry -rearing area, the fry releasing structure includes end handle A, end handle B, hatchery groove A and hatchery groove B, end handle A is worn in one end hole in the hatchery box body top, end handle B is worn in the other end hole in the hatchery box body top, a plurality of hatchery groove A is sequentially arranged in the end handle A inner end, a plurality of hatchery groove B is sequentially arranged in the end handle B inner end, a plurality of hatchery groove A and a plurality of hatchery groove B staggered insertion, the utility model has the hatchery groove A and hatchery groove B combination in the hatchery box body and hatchery groove A and hatchery groove B can be separated and drawn out, and the advantage that conveniently cleaning is carried out outside.

The utility model belongs to the aquaculture technical field, concretely relates to a pufferfish trapping device suitable for the cabin breeding mode of a breeding work ship, which is installed on the inner wall of the breeding cabin of the breeding work ship and comprises a trapping cage, a lifting device for realizing the lifting movement of the trapping cage along the inner wall of the breeding cabin, a fish-attracting lamp installed on the net cover of the trapping cage, and a fake bait assembly capable of rotating in the trapping cage. The utility model is suitable for the specific scene environment of the breeding cabin of the breeding work ship, can efficiently trap the pufferfish in the breeding cabin through the double trapping means of light and fake bait, reduces the damage of the pufferfish to the large yellow croakers in the breeding cabin, and ensures the safety of the breeding environment.

The present utility model relates to a process for producing feed for saline-tolerant tilapia (Oreochromis niloticus) fry and fingerlings using a β-cyclodextrin-encapsulated lemongrass essential oil-based feed additive. The utility model addresses the technical problem of incorporating volatile antimicrobial essential oils into aquaculture feed while maintaining their stability, uniform distribution, and compatibility with conventional feed pellet manufacturing. The process comprises preparing a dry feed mixture, combining the encapsulated feed additive with a binding agent, gradually incorporating the resulting liquid mixture into the dry feed mixture, pelletizing, drying, and storing the feed pellets. The process produces nutritionally balanced feed containing uniformly distributed encapsulated lemongrass essential oil with improved stability and handling characteristics. The disclosed process is particularly useful for producing feed for hatchery and nursery culture of saline-tolerant tilapia fry and fingerlings as a practical alternative to conventional antibiotic-based feed production.

The application belongs to the technical field of deep-sea aquaculture equipment, and relates to a fish grading and compartmenting system and method suitable for a cabin culture mode of an aquaculture work ship, which comprises two adjacent aquaculture cabins and further comprises: a fish conveying passage assembly for connecting the upper parts of the two aquaculture cabins; one of the aquaculture cabins is divided into a compartmenting area and a fish gathering grading area in the longitudinal direction; a compartmenting assembly is arranged in the compartmenting area, and the compartmenting assembly is used for conveying the graded fish of a fish gathering grading assembly to the other aquaculture cabin through the fish conveying passage assembly; a fish gathering grading assembly is arranged in the fish gathering grading area, and the fish gathering grading assembly is used for grading the fish in the aquaculture cabin and gathering the graded fish to the compartmenting assembly. The application is suitable for the cabin culture environment of an aquaculture work ship, can effectively realize the grading and compartmenting operation of fish, and has the characteristics of high feasibility and small labor intensity.

The invention relates to an island seaweed field ecological restoration method based on artificial algal reefs, and belongs to the technical field of marine ecological restoration engineering. The method aims at solving the problems that in the prior art, algae are slowly attached to and grow on natural reefs, attached larvae are disengaged due to algal reef displacement caused by wave scouring, and large prefabricated parts are difficult to hoist and position on the sea and high in risk. According to the technical scheme, the method comprises the steps that an artificial algal reef which is of a hollow structure, provided with holes in the outer vertical face and provided with connecting lug plates and bottom mounting lug plates is prepared; seaweed spores are attached to reefs and grow to a certain length in the water tank of the seedling raising field; after being transported to a target area, the algal reefs are installed in a linkage mode in a low tide period, that is, each algal reef is independently anchored to the seabed through the installation lug plates, and then the adjacent algal reefs are transversely connected through the connection lug plates and the screw rods to form an integral structure. The method is mainly used for rapid construction and ecological restoration of the sea area seaweed field around the island.

The invention relates to the technical field of aquaculture environment control, and discloses a cold region crayfish hatchery Internet of Things intelligent regulation and control system, which comprises a full-automatic hatching system, and is characterized in that the full-automatic hatching system comprises a hatching unit, an environment regulation module, an identification module, a decision module and an execution unit; the hatching unit divides the crayfish hatching farm into a plurality of groups of hatching sub-units with the same area, and the interiors of the hatching sub-units are provided with the same quantity of crayfish fertilized eggs. The execution unit regulates and controls the heater, the refrigerator, the humidifier and the dehumidifier according to control instructions (first / second / third decisions and abnormal instructions) generated by the decision module and triggers the early warning device to send early warning information to workers in an abnormal state, and an intelligent management and control system with full-process automation and manual intervention cooperation is formed. The hatching success rate and the breeding efficiency are obviously improved.

The present application belongs to the technical field of deep-sea aquaculture equipment, and relates to a kind of aquaculture factory ship cabin aquaculture and fishing system and method, comprising: net assembly;Deformable support assembly is located at the top of net assembly, its inside can be filled with medium to realize deformation and be horizontally attached to the inner wall of aquaculture cabin after deformation;Lifting assembly is used to pull the deformable support assembly to make it ascend and descend in the aquaculture cabin;Medium conveying assembly is used to fill the deformable support assembly with medium.The present application is suitable for the cabin aquaculture environment of aquaculture factory ship, and can be applied to fish of different water layers, specifications, types and life habits.No original equipment structure is damaged, and the present application has the characteristics of simple operation and high feasibility in fishing operation.The present application can be widely applied in the industry, thereby providing strong support for the steady development of subsequent intelligent fishery large-scale aquaculture factory ship projects and the mechanization, intelligentization and informatization of modern aquaculture.

The utility model relates to the technical field of sheldrake hatching equipment, and provides sheldrake net bed hatching equipment which comprises a hatching box, a plurality of rod bases and a driving lead screw are fixedly arranged on the outer surface of the hatching box, the driving lead screw is rotationally connected to the opposite faces of two of the rod bases, a plurality of guide rods are fixedly arranged on the opposite faces of the rod bases, and a motor is fixedly installed on the outer surface of the hatching box. An output shaft of the motor is fixedly connected with one end face of the driving screw rod, shelduck hatching eggs to be hatched are placed on the surfaces of the hatching net beds to be hatched, and the suction pump is started after hatching is completed; a suction pump transports water stored in a water tank upwards into a cleaning frame through a telescopic transport pipe and sprays the water to the surfaces of a plurality of hatching net beds through a communicating pipe and a plurality of high-pressure nozzles to clean the hatching net beds, a motor is turned on, an output shaft of the motor drives a driving lead screw to rotate, and under limiting and guiding of a plurality of guide rods, the hatching net beds are driven to rotate. The driving lead screw drives the cleaning frame and the high-pressure spray heads to move along the guide rods, and all positions of the surfaces of the hatching net beds are comprehensively cleaned.

The invention discloses an image monitoring method for monitoring in the incubation process of a farm. The image monitoring method comprises the following steps: acquiring an image of a monitored object by a monitoring terminal; determining, by the monitoring terminal, a type of a defect of the monitored object based on the image of the monitored object; if the monitoring terminal determines that the defect of the monitored object is the first type of defect, the monitoring terminal determines to perform first type division on the image of the monitored object; if the monitoring terminal determines that the defect of the monitored object is a second type of defect, the monitoring terminal determines to carry out second type division on the image of the monitored object; the monitoring terminal performs first-class division or second-class division on the image of the monitoring object; and the monitoring terminal sends the image of the monitored object subjected to the first class division or the second class division to the user terminal.

A pathogen reduction means is provided that implements a method of treating eggs at a poultry hatchery. The method includes placing a production quantity of poultry eggs in a placer incubator, the eggs being maintained in a plurality of egg plates. The poultry egg is removed from the placer incubator at a predetermined incubation date, such predetermined date being during approximately ninth to twelfth days of incubation. After removal of the poultry eggs from the placer incubator, the poultry eggs are subjected to an egg detection system at a predetermined date to determine which of the poultry eggs are viable and which of the poultry eggs are non-viable. The non-survivable egg is removed from the egg plate at a predetermined date. The survivable egg remaining in the egg plate after inspection by the egg detection system is incubated until incubation.

The present invention inspects the presence or absence of a characteristic portion of an embryo in a commercial egg hatchery by a high-speed and non-invasive method, wherein the detection of the characteristic portion of the embryo is performed on the basis of: first imaging data which is obtained by capturing an image of an egg in the process of hatching from the outside at a first time point in between day 4 and day 8 after the start of hatching; and second imaging data which is obtained by capturing an image of the egg in the process of hatching from the outside at a second time point that is in between day 4 and day 8 after the start of the hatching and is after the first time point.

The present invention relates to a method for incubating a plurality of poultry eggs in a hatchery, comprising the step of controlling the heating of the plurality of poultry eggs in a multi-stage egg heating process until hatching occurs, wherein the multi-stage egg heating process comprises at least an initial incubation stage of uniformly heating the plurality of poultry eggs from physiological zero to incubation temperature during an initial incubation period of 4 to 8 days, and a subsequent main incubation period of maintaining the plurality of eggs at the incubation temperature.

The utility model relates to the technical field of aquaculture, and provides a blow-down valve for an aquatic breeding site, which comprises an inner pipe, an outer pipe and a rotating base, the outer pipe is sleeved on the inner pipe, a gap is reserved between the outer pipe and the inner pipe, the rotating base is mounted on a water outlet of the aquatic breeding site, and the rotating base comprises a rotating part and a water drainage part; the rotating part is clamped and surrounds the outer side of the drainage part, the bottom end of the outer pipe is fixed to the rotating part, and the bottom end of the inner pipe is fixed to the drainage part; when the outer pipe rotates to drive the rotating piece to rotate, the drainage piece opens and closes the drainage opening; a through hole is formed in the bottom of the outer pipe; and the outer pipe is longer than the inner pipe. Related personnel can operate the drainage part to drain water on the water surface by rotating the outer pipe, the problem that underwater drainage is inconvenient is solved, manual water level control can be replaced by height setting of the inner pipe, and manual labor is reduced.

The present utility model relates to a process for producing feed for saline-tolerant tilapia (Oreochromis niloticus) fry and fingerlings using a β-cyclodextrinencapsulated citronella (Cymbopogon nardus) essential oil-based feed additive. The utility model addresses the technical problem of uniformly applying a volatile antimicrobial feed additive onto feed pellets while preserving its stability and compatibility with conventional feed production. The process comprises preparing a liquid coating mixture by combining the encapsulated feed additive with a binding agent, applying the coating mixture onto feed pellets through thorough mixing, and drying the coated pellets under controlled ambient conditions. The process produces feed pellets with substantially uniform coating, improved adhesion, and enhanced stability of the encapsulated citronella essential oil. The disclosed process is particularly useful for producing antimicrobial feed for hatchery and nursery culture of saline-tolerant tilapia fry and fingerlings as a practical alternative to conventional antibiotic-based feed preparation.

The invention discloses a cascade neural network image classification method supporting class incremental learning, and belongs to the field of hatching egg intelligent detection, and the method comprises the following steps: S1, collecting a hatching egg candling image, and obtaining an initial two-stage data set and a new class data set; s2, constructing a cascade neural network model in which two stages of models are connected in series; s3, each level of model integrates a feature extractor, a feature expander and a recursive linear device module, and transfer learning is carried out on a self-built hatching egg data set; s4, when a category is newly added, on the basis of an analytic category incremental learning mechanism, completing new category knowledge acquisition by recursively updating the model weight, and meanwhile, retaining the original classification capability to realize efficient incremental updating of the model; and S5, preprocessing hatching egg images to be classified, inputting the images into the two-stage cascade neural network model, and outputting a hatching egg classification result. By adopting the method, the problem of insufficient fine granularity of hatching egg classification in a hatching factory is solved, and efficient and accurate classification of the hatching eggs and low-cost iteration of the model are realized.

The present invention relates to a method for high-density milkfish larval rearing comprising the steps of cleaning and chlorinating a culture tanks overnight; rinsing culture tanks and installing aeration lines and air stones; stocking a dechlorinated seawater; adding green algae (Nannochloropsis sp.) at a density of 1 X 106 cells / ml; stocking a milkfish larvae at stocking density of 60 to 120 milkfish larvae per liter; feeding the stocked milkfish larvae with rotifer, Artemia, and artificial diet; adding probiotics; partially changing the dechlorinated seawater daily; and employing flow-through system to the culture tanks between 6 PM to 8 AM starting on day 9 up to the harvest period of the milkfish larvae. By increasing larval stocking density, production capacity of the hatchery is increased, and disposal of milkfish eggs is minimized. The disclosed method improves the production cost and returns in milkfish hatchery operations without affecting the fry quality.