The present disclosure provides an intelligent pet monitoring method for a robot. A mutual position relationship between a pet and a robot is determined according to wireless communication between a wireless signal device on the pet and the robot, and then a grid position corresponding to the pet in a grid map constructed by the robot is determined according to the mutual position relationship. Daily activities of the pet may also be regular, to a certain extent, under the influence of a biological clock of the pet, so that big data generated by the grid positions of the pet at different time points is finally recorded to construct the pet daily activity model, and the daily activity trajectory of the pet may be predicted according to the pet daily activity model.

Described herein is an animal handling device in the form of a cattle crush with automated headbail capture, back bar operation and positional sensing along with methods of use thereof. The crush and method offer automation for functions that in the art have been largely manual and inherently labour intensive, physical and even potentially dangerous for the operator and/or animal.

The present invention relates to a pesticidal control device that includes at least one pesticidal active ingredient, cellulose fibers, and a polymer or polymer matrix. The combination of the cellulose fibers with the polymer allows for a higher loading of liquid pesticidal active ingredients within the pesticidal control device, maintains the active ingredient within the control device during transportation, storage and handling, and provides higher efficacy or control of pests during treatment. The pesticidal control device may be an ear tag, collar, or bee strip.

A device (1) to tag an animal is disclosed. The device comprises a female (20) including a case (21) with a thorough hole (22), a male (40) to be coupled to the female (20) and including a stem (41) with a tip portion (60); the female (20) includes tamperproof fastening means (23) adapted to block the tip portion (60) in the thorough hole (22) and wherein, after coupling the male (40) with the female (20), the hole (22) is closed by the tip (60), the tip becomes part of the female (20) and the stem (41) moves in the case (21).

A farm system comprising a plurality of smart tags which are each configured to be worn by an animal, a transmitter and receiver unit for wireless communication with the smart tag, one control unit which is communicatively connected to the transmitter and receiver unit and a farm unit which can be controlled by the control unit. Each smart tag comprises at least one sensor and is configured for wirelessly transmitting information obtained by one of the sensors to the transmitter and receiver unit, wherein the transmitter and receiver unit is configured for supplying the received information to the control unit and wherein the control unit is configured for processing the received information and, at least on the basis of this processed information, controlling at least a farm unit and/or generating a report signal for indicating to a user of the system that an activity is to be carried out.

A feeding station for at least one animal, said feeding station comprising: at least one supply hopper having a food product; a food dispensing unit having means for dispensing controlled portions of said food product; a weigh hopper for receiving said food product from said food dispensing unit; a hemi-circular disc-shaped feeding platform for receiving said food product from said weigh hopper; a hemi-frustoconical sweeping member rotatable on a top surface of said hemi-circular disc-shaped feeding platform to remove unconsumed food product off said feeding platform after a feeding event.

The automatically detachable collar pendant system is structured so that when the system receives a signal, one end of the collar is released from the rest of the collar body, thereby unfastening the collar and allowing the collar to fall off of a target animal. The “signal” may comprise a magnetic or induction heat signal. In the preferred embodiment, the signal is received (and the collar is unfastened) when the target animal feeds at a specially-equipped bait station.

A smart cage includes radiofrequency transceivers and tags attached to laboratory animals. The tags include sensors to detect monitorable conditions of the laboratory animals. The sensors include working electrodes, counter electrodes, reference electrodes, and potentiostats. The top surface of the electrodes is coated with ionophores or enzymes which detect the monitorable conditions of the laboratory animals.

A system for monitoring ruminant animal foraging that utilizes a piezoelectric film sensor in communication with a computer processor to record and characterize jaw movement data for the foraging ruminant animal. The processor applies pattern algorithms to categorize the jaw movement data so that the jaw movements are categorized as at least chewing, biting, ruminating, and/or idling.

An agricultural exchange system includes a smart chute for isolating a live animal. The live animal can be weighed, photographed, and identified while in the smart chute. A subscriber unit receives measured data and transmits the data to a centralized server. The centralized server stores measured data and identification data as part of a product data card for the live animal. The centralized server provides the data as needed to potential buyers directly or through a service provider. Potential buyers may access the data in real time to obtain detailed information on a live animal prior to purchase.