Methods, systems, and apparatus, including computer programs encoded on computer-storage media, for controlling an aquaculture feeding system are described. In some implementations, a method includes determining, using a feeding system controller, that a feeding system has transitioned from a first state to a second state, and based on the transition from the first to the second state providing, using the feeding system controller, instructions to a dosing system to set a feed rate of the dosing system, and providing, using the feeding system controller, instructions to a blower operatively coupled to the dosing system to set a flow rate of the blower.

Embodiments of a controlled odor emission system and device include an odor presentation port tube and an odor tray securely retained against a platform, a valve housing securable to the platform adjacent the tray, a valve secured within the valve housing and an actuator for moving the valve. By controlling movement of the valve, precise amounts of an odor can be dispensed under programmatic control for training animals. Further, a system incorporating a central control unit and a reward dispenser in communication with an odor emission device to facilitate animal training.

A feeding device includes a base, a storage barrel, a hopper, a blocking door and a ratchet turning wheel. The storage barrel is disposed above the base, and a collecting passage is extended from the bottom of the storage barrel. A discharge port is disposed on the collecting passage. The hopper is accommodated in the collecting passage. The blocking door shields the discharge port. The ratchet turning wheel is installed on the base and disposed below the hopper. The ratchet turning wheel includes a wheel and ratchet teeth arranged annularly on the periphery of the wheel. An outer periphery of the ratchet teeth abuts against the hopper to push the hopper to move up or down. The wheel is extended with a lever to open the blocking door. Therefore, the feed may be filled in the collecting channel, and the feeding device has the effect of quantitative feeding.

A feeding system for feeding animals, in particular cows, at a feeding place feed from a feed supply including at least one autonomous feeding device having a container for accommodating a batch of feed from the feed supply. The autonomous feeding takes feed held in the container to the feeding place and dispenses it. The feeding system further includes a feed-quantity measuring device for repeatedly measuring a feed-quantity value for the quantity of feed for consumption by the animals at the feeding place, and a control system which receives feed-quantity values from the feed-quantity measuring device measured different measurement instants. The control system stores a plurality of the feed-quantity values in a memory. The control system calculates at least one value of a feed variable at at least one point in time after the last measurement instant, on the basis of the feed-quantity values stored in the memory.

This present invention relates to a novel automated and timer-based livestock, game, animal or bird feeding station. The feeding station is configured to connect to a software application installed in a handheld electronic device or to a wireless communication remote through a wireless communication channel. The feeding station includes a timer configured to a timer value and a frequency at which the station dispenses the feed/corn. The feeding station also provides an alert to the software application indicating low volume of feed in the feeding station and an audible alert for livestock to indicate that a feed is ready. A central storage can replenish the feed in the storage area of a plurality of feeding stations.

The present invention provides a self-serve, automated feed dispenser comprising a storage bin for the bulk free flowing particulate material; a conveying unit for conveying the bulk free flowing particulate material from the storage bin to an outlet; a user interface for selecting amount of said bulk free flowing material to be dispensed and optionally a means to input payment; and operation control means for operating the conveying unit in accordance with input from said user interface.

A feeding device includes a base, a storage barrel, a hopper, a blocking door and a ratchet turning wheel. The storage barrel is disposed above the base, and a collecting passage is extended from the bottom of the storage barrel. A discharge port is disposed on the collecting passage. The hopper is accommodated in the collecting passage. The blocking door shields the discharge port. The ratchet turning wheel is installed on the base and disposed below the hopper. The ratchet turning wheel includes a wheel and ratchet teeth arranged annularly on the periphery of the wheel. An outer periphery of the ratchet teeth abuts against the hopper to push the hopper to move up or down. The wheel is extended with a lever to open the blocking door. Therefore, the feed may be filled in the collecting channel, and the feeding device has the effect of quantitative feeding.

Features are described for a pellet dispenser. The pellet dispenser be implemented as a complex molded unit to fit within the home cage of laboratory animals (e.g., hanging from a wall of the cage or inside a food hopper of the cage). The pellet dispenser may be contained within the cage or otherwise attached to the cage so as not to take up additional floor space in the cage which should be allocated for the small laboratory animal. The pellets may be gravity or screw drive fed towards an ejector port. At prescribed times during the day, a prescribed number of pellets may be ejected into the animal cage. Additional components of the pellet dispenser include an ejector (e.g., a linear actuator) and pellet hopper.

A feeding apparatus includes an inner compartment having a first opening; and an outer compartment having a second opening. At least one of the inner compartment and the outer compartment is configured to be movable relative to the other one of the inner compartment and the outer compartment from a first position in which the first opening is out of alignment with the second opening to a second position in which the first opening is aligned with the second opening.

Embodiments of a controlled odor emission system and device include an odor presentation port tube and an odor tray securely retained against a platform, a valve housing securable to the platform adjacent the tray, a valve secured within the valve housing and an actuator for moving the valve. By controlling movement of the valve, precise amounts of an odor can be dispensed under programmatic control for training animals. Further, a system incorporating a central control unit and a reward dispenser in communication with an odor emission device to facilitate animal training.