The present invention relates to a heat stress resisting technology for transport of live fish. Display screens are arranged in a transport case on the four side surfaces and the top surface, a plurality of transparent interlayer trays are arranged in the fish tank from the bottom to the top, a plurality of small through holes are formed in the interlayer trays, an oxygen generator is arranged in the transport case, an oxygen content meter is arranged in a pipeline of the oxygen generator, a refrigeration system is arranged in the transport case on one side surface, an air exchange pipe is arranged in the fish tank, the air exchange pipe extends out of the transport case, a second solenoid valve is arranged in the air exchange pipe. The present invention makes fish have no swimming activity and lack of response to external stimuli.

The present invention discloses a recirculating aquaculture system (RAS) and method for shrimp culture through SBR wastewater treatment. The RAS includes a control cabinet, culture tanks, a clean water tank, a clean water filling pipeline, a drainage pipeline, a buried activated sludge tank and a solid-liquid separation mechanism. The solid-liquid separation mechanism comprises a sludge pump, an input pipe, a plate and frame type filter press and a liquid output pipe. An input end of the sludge pump is immersed in sewage of the buried activated sludge tank; and a clean water output end of the plate and frame type filter press is connected with the buried activated sludge tank through the liquid output pipe.

Provided are compositions, methods, and solutions for generating aqueous glucomannan solutions with hydrogen compositions greater than 100 parts per billion. Said glucomannan solutions have application in nutritional, therapeutic, and energy fields.

A fish tank air hose channel apparatus for channeling and hiding air hoses includes a triangular top housing having a hose aperture extending through a pair of back walls. A pair of clips is coupled to the top housing is configured to engage a rim of a fish tank. A top end of a shaft is coupled to a bottom wall of the top housing around a shaft aperture extending therethrough. A bottom end of the shaft is coupled around an entry aperture extending through a rear face of a base. The base has a plurality of exit apertures extending through a front face to the entry aperture. The apparatus is configured to receive a plurality of air hoses fed through the hose aperture, into the shaft aperture, through the shaft, into the entry aperture of the base and out the plurality of exit apertures.

An energy efficient aquaculture system combining mixed-cell and raceway configurations. The system comprises a raceway tank, a raceway channel, a first water purification subsystem, and a second water purification subsystem. The system may include one or more of a hatching subsystem, a nursery subsystem, a feeding subsystem, a finishing subsystem, and a fish pumping system for transfer of fish between raceway tanks. A method of growing fish for commercial production using the aquaculture system is also provided.

A protein skimmer cap is provided. A protein skimmer cap for attachment to a protein skimmer, the cap preventing outward spray of aquarium waste, comprising a surrounding member enclosing a center member and an end member. The center member is affixed to the center of the surrounding member and the end member is affixed to the center member. A method of employing the protein skimmer cap to prevent outward spray of aquarium waste from protein skimmer, comprising applying the end member of the protein skimmer cap onto a protein skimmer collection cup such that one or more air vents remain unblocked and the surrounding member encloses all of the one or more air vents.

A vivaria assembly for separating aquatic animals and plants from terrestrial animals and plants includes a container and a set of panels. The panels are engaged to the container and positioned in an interior space defined by the container. Each panel extends from a bottom to proximate to a top of the container so that the container and the panels define a plurality of compartments within the interior space. The panels and at least a portion of a wall of the container are substantially transparent. A plurality of cutouts is positioned in the container so that each compartment has at least one cutout permitting access to the compartment. A respective habitat element and at least one of an animal and a plant can be inserted into each compartment to create a respective vivarium within the compartment.

A foldable aquaponics, and greenhouse container system and method, includes an insulated shipping container having foldable insulated roof panel disposed thereover; a foldable glazing on a sun facing side at an angle to maximize winter sunlight attached to the roof panel; a foldable floor panel attached to the container with a foldable vent panel attached thereto connecting to the glazing; foldable side panels attached to sides of the container, glazing and roof panel; a plant growing under the glazing; a mushroom growing area within the container having an integrated water wall thermal mass and disposed between the plant and mushroom growing areas; a fish tank within the container; and a natural air ventilation system within the container under the roof panel to provide CO2 and O2 gas exchange between the mushroom growing area and the plant growing area.

An oxygen generation device having a compressed air supply device, air cooling coil, a fan, pneumatic valve system, a housing, at least one media insert, an on-off switch, a printed circuit board, and a touch screen. The pneumatic valve system includes an air inlet port, a first air outlet port connected to the inlet of the first media insert, a second air outlet port connected to the inlet of the second media insert. The air inlet port receives compressed air from the compressed air supply device and alternatingly provides the compressed air to one of the first media insert and the second media insert. The lower housing includes check valve ball moveable between the first position and the second position and alternatingly controlling a flow of compressed air through the first media insert and the second media insert.

An aquaculture system including a fish holding unit which is fluidly connected to a water recirculation conduit, a water treatment unit, a water inlet, and a feed storage unit. The system further includes a feed loading section. When feed is added into the system at the feed loading section it is transported to the fish holding unit. In another aspect the invention relates to a method of transporting a feed in a recirculated aquaculture system.