The invention relates to an airtight poultry house and an intelligent monitoring automatic control system thereof that collects large data related to growth factor correlation. The intelligent monitoring automatic control system includes: at least one detection module disposed in a processing unit for generating a farming area data according to the airtight state of at least one poultry farming area; at least one control module disposed in the processing unit, wherein each of the at least one control module is provided with a processing unit automatic control rule, and each of the at least one control module is used to automatically control the desired airtight state for the farming environment according to the processing unit automatic control rule and the farming area data and to put the at least one poultry farming area in a negative pressure state; and a database storing the farming area data.

The frames of the Inlets have endcaps and profiles that allow an inlet to be made to different lengths to provide an inlet of a size to provide the proper amount of air needed. Each inlet also has fully insulated blades, sides, and center profiles. The components are preferably foam filled with insulation and have an insulated foam insert on the endcaps together with a center pull so that only a single pull line is needed to operate the inlet.

Disclosed is a transportation container blower for mortality prevention and welfare during livestock transportation, comprising: a body connected to a transportation means and having a space in which livestock is accommodated therein and a first blowing port formed at each of lower portions of both sides thereof to be opened; a blowing path installed at an upper end of the body to be long in a longitudinal direction thereof and having a second blowing port which is in communication with an inside of the body and formed at a lower end or a side surface thereof; and a blowing means installed at the body and connected to the blowing path.

Disclosed is a pet carer. The present invention includes a base, a container located on the base, the container having a space for receiving a pet therein, an entrance for the pet to enter/exit the space, and a discharge hole provided therein to discharge air, a door selectively opening/closing the entrance, a door drive device provided to the base to drive the door, a compressor supplying the air to the discharge hole, a filter unit located under the container to filter off dirt separated from the pet, and a suction fan located under the container to suck air into the filter unit.

A system includes a container to enclose vehicles within a chamber, an enclosed structure to house a canine to perform odor detection, and an air duct positioned therebetween. The container includes a first door, a second door, and a raised floor. The raised floor includes a first ramp leading to the first door, a second ramp leading to the second door, and sets of vent ducts defined between an outer wall and a top wall of the raised floor, the sets of vent ducts to direct air flow upwardly into the chamber of the container. The air duct includes a proximal end located proximate to an opening within the top wall of the container, a distal end fed through the enclosed structure to a canine-sniffing location, and one or more fan to pull air out of the chamber and deliver the air to the canine-sniffing location within the enclosed structure.

The ecosystem for methane conversion and emissions reduction disclosed herein presents a low-cost solution to the global methane accumulation problem. Ruminants generate gases as part of their digestive process, including methane, and the negative effects of methane in our atmosphere are well known. Many attempts are underway to use diet modifiers to lessen the amount of methane created and therefore minimize the effect. The presented invention takes a different approach. A methane converter is used in conjunction with a closed system to first transform the methane into the less damaging CO.sub.2 and then to use the CO.sub.2 for feeding algae growth. Methane at concentration levels in the enclosed habitat are maintained low to minimize the possibility of explosion, and the conversion from methane to CO.sub.2 is triggered by heating the low concentration methane with a heated surface or small flame.

Kinetic energy devices, such as fans or blowers, are selected or controlled to attain a determined optimal overall average airflow for a volume within a livestock building to satisfy one or more predetermined livestock production objectives.

The present disclosure provides methods and apparatus to support transport of a pet in a self-contained expandable carrier. In some examples, the carrier may be worn by a user to support the pet in a proximate location. A pet carrier which may be worn may provide comfort to pet owners while they travel.

A device and method for detecting and recording animal behavior is provided. The device includes an enclosure having first and second chambers, each of the chambers having exterior panels formed of an opaque material, at least one image capture device disposed in each of the first and second chambers, the at least one image capture device arranged to capture behavior data of one or more freely roaming rodents, and a first container insertable into one of the first and second containers and positioned below a respective image capture device, the container having one or more corrals into which one or more rodents are housed during testing, the container being formed of a transparent material. In some embodiments, the first container is formed of a red transparent material, the one or more rodents being unable to see through the red transparent material.

An air control system 20 and associated methods including a flexible duct 30 having air exit holes 40, 42 and a flexible liner 50, 60 sheet within the duct 30 and extending longitudinally along the duct, the liner 50 sheet having opposite longitudinal edges 52, 54 connected to the duct 30 along the longitudinal length of the duct 30, the liner 50 sheet being permeable in one aspect and regulating air flow through the exit holes 40, 42 when the sheet is pressed against the portion of the duct having the exit holes. The duct 30 may also have multiple liner sheets 50, 60 arranged end-to-end and/or layered in various duct segments such that the different liners may be independently controlled to regulate the outflow of air from the duct as desired. The duct having a liner which closes or inhibits air flow from the exit holes may also be rotated to accommodate use of a single duct for different seasons and where the internal liner adjusts to assist with the downward control of air flow based on alignment of various perforations with the different exits holes.