An (aqua)terrarium, in particular for ectothermic animals, has a container serving as living space. The (aqua)terrarium is provided with a climate control device that comprises a flow machine, in particular a fan, and an electrothermal converter, in particular a Peltier element. It is provided that the climate control device sucks in air from the container, conditions the sucked-in air by guiding it along a first side of the electrothermal converter, and conveys the conditioned air back into the container.

The present application is directed to an environmental control system for an agricultural animal housing facility. This system includes a plurality of air handling systems configured to deliver supply air to an agricultural animal housing facility, wherein each air handling system is configured to receive a portion of fresh air and a portion of recirculated internal air, and wherein each air handling system is configured to mix the fresh air and internal air and provide the resultant mixture to the agricultural animal housing facility as supply air. The plurality of air handling systems are configured to regulate a proportion of fresh air to internal air in response to an internal temperature of the agricultural animal housing facility.

An animal house climate control system uses a method for operating a baffle of an air inlet of an animal house with a motor using timed inlet control. The method includes performing a calibration sequence to calculate opening velocity and opening inertia values and closing velocity and closing inertia values. The method also includes moving the baffle from an initial position to a final position by calculating a calculated power on time for the motor using the opening inertia or closing inertia values. The method can also include calculating a real position error value by comparing the calculated on time for the motor and a measured on time for the motor and using the real position error value to calculate adjusted opening and closing velocity values.

An arrangement for measuring the body temperature of a bird comprises: (a) an enclosure having at least one aperture configured for receiving a bird's head thereinto at least in a partial manner; (b) at least one receptacle mounted within the enclosure; at least one receptacle accommodating an attractor; (c) at least one remote sensing instrument configured for acquire thermal reading and calculating bird's temperatures. The remote sensor instrument and the receptacle accommodating the attractor are mutually disposed such that at least the bird's head is within a field of view of the remote sensor instrument.

An aviary arrangement for poultry includes a first and a second aviary row, and a bridge which connects the first and the second aviary rows, wherein each of the aviary rows has a service tier, a nest tier and a resting tier, each having an inclined animal roosting floor, and a manure conveying device arranged therebelow, wherein the resting tier is arranged above the nest tier and the service tier is arranged below the nest tier, and the nest tier has a nest and an egg conveying device, and wherein the bridge is arranged above the manure conveying device of the service tier and has a bridge floor for receiving litter. A manure conveying device is arranged below an inclined animal roosting floor, wherein the animal roosting floor comprises an inclined integrated air duct arranged below the animal roosting floor and above the manure conveying device.

A transportable combination pet carrier and pet bed that can be dually used for travel or in the home. The case includes a pet bed that is located within the case, allowing for the pet to recline on the pet bed. The case may also include: 1) a sufficient amount of breathable and porous material, such that the pet does not suffocate when contained in the case, including when the case is fully closed and secured for transport; and 2) soft internal siding.

This invention claims Individually Ventilated Caging system (IVC system) for small animals comprising a Ventilation Unit (1) comprising an initial supply chamber (12) for taking external air inside the system for filtering and supplying to the cages in IVC system and an exhaust chamber (22) for exhausting the used air collected from the cages in the IVC system; the supply chamber and the exhaust chamber provided with filter/s (13),(14), (17), (18) for the incoming or outgoing/exhausting air; wherein the IVC system is characterized by devices additional to the filters for disinfecting incoming air and/or disinfecting out-going air exhausted from the cages. The additional devices comprise (a) UVC light (15), and/or (b) one or more electrostatic air filter/s and/or (3) an ionizer on supply and or exhaust side.

Disclosed is a self-adaptive precise ventilation system for a livestock and poultry house. The system comprises an air pipe, an adjusting assembly, a camera shooting assembly, air flow test pieces and a controller; the air pipe and the air flow test pieces are all arranged above fence areas, the camera shooting assembly is installed on one side of each of the air flow test pieces, and the adjusting assembly is connected together with the air pipe through connecting ropes; a plurality of air supply outlets are formed in the air pipe, and each air supply outlet is provided with a valve; and the camera shooting assembly monitors the air flow conditions in the livestock and poultry house and the information of in-fence areas, and transmits the them to the controller so as to determine the opening degrees and the orientations of the air supply outlets and realize precise air supply.

A cage assembly can have at least one enclosure. Each enclosure can have a floor defining a floor area having a major dimension and a cover having a bottom surface. A spacing between the bottom surface of the cover and the floor can define a cage height. At least one sidewall can extend between the floor and the cover. A ratio of the cage height to the major dimension of the floor area of each enclosure of the at least one enclosure can be at least 0.70.

A tiered, modular agriculture system includes a livestock module at ambient ground level and a second module having a second interior microclimate elevated with respect to the livestock module. The second module receives air from the livestock module by way of a noncorrodible, graduated slope, heat collection duct. Each module has an interior microclimate.