The invention relates to a self-sustainable environment regulation system that utilizes heat energy dissipated from energy-intensive facilities, such as data centers, AI systems, and crypto-mining operations. This system is designed for use in controlled environments, including greenhouses and livestock housing, such as poultry coops for broiler and egg production. By harnessing excess heat from these facilities, the system provides effective temperature regulation for agricultural applications, promoting optimal conditions for plant growth and livestock welfare. The system comprises a closed-loop setup that integrates the heat energy with autonomous temperature control mechanisms, ensuring efficient and sustainable management of the environment.

A leg for a height adjustable brooder heating plate is provided. The leg includes an elongated body having an externally configured spiral winding extending from a top end to a bottom end of the elongated body, a cap configured at the top end of the elongated body, and a foot configured at the bottom end of the elongated body. The leg is insertable into a slot of a heating plate and is capable of sliding therethrough to adjust the height of the brooder heating plate by using a push button configured underside the heating plate and/or by rotating the leg engaged within the slot.

A leg for a height adjustable brooder heating plate is provided. The leg includes an elongated body having an externally configured spiral winding extending from a top end to a bottom end of the elongated body, a cap configured at the top end of the elongated body, and a foot configured at the bottom end of the elongated body. The leg is insertable into a slot of a heating plate and is capable of sliding therethrough to adjust the height of the brooder heating plate by using a push button configured underside the heating plate and/or by rotating the leg engaged within the slot.

A livestock cage may have a frame, a generally planar aluminum top sheet attached to the frame, a generally planar aluminum bottom sheet attached to the frame opposite the top sheet, a first and a second generally planar aluminum side sheet attached to the frame extending transverse to the top sheet and the bottom sheet, and a generally planar back sheet attached to the frame and transverse to the top sheet, the first side sheet, the second side sheet, and the bottom sheet. The top sheet, the bottom sheet, the first side sheet, the second side sheet, a front, and the back sheet define an interior volume of the cage. A plurality of livestock is within the interior of the cage.

A livestock cage may have a frame, a generally planar aluminum top sheet attached to the frame, a generally planar aluminum bottom sheet attached to the frame opposite the top sheet, a first and a second generally planar aluminum side sheet attached to the frame extending transverse to the top sheet and the bottom sheet, and a generally planar back sheet attached to the frame and transverse to the top sheet, the first side sheet, the second side sheet, and the bottom sheet. The top sheet, the bottom sheet, the first side sheet, the second side sheet, a front, and the back sheet define an interior volume of the cage. A plurality of livestock is within the interior of the cage.

The present disclosure discloses a hybrid LED lighting method and system for chicken coops. For example, a closed or semi-open chicken coop is provided with the hybrid LED lightings including white LED beads and yellow LED beads in a mixing ratio of about 1:5 to about 5:1 in a regularly alternating manner. The average light intensity on the chicken cages' underside exposed to the light of the hybrid LED lighting is about 5 to about 30 Lux. The closed chicken coop is lit by a hybrid LED lighting every day during fattening period; the semi-open chicken coop is exposed to natural light in the daytime and lit by the hybrid LED lighting at night during fattening period. Implementation of the present disclosure improves growth of chickens, increases uniformity of chickens, and improves health and resistance to epidemic diseases.

The present disclosure discloses a hybrid LED lighting method and system for chicken coops. For example, a closed or semi-open chicken coop is provided with the hybrid LED lightings including white LED beads and yellow LED beads in a mixing ratio of about 1:5 to about 5:1 in a regularly alternating manner. The average light intensity on the chicken cages' underside exposed to the light of the hybrid LED lighting is about 5 to about 30 Lux. The closed chicken coop is lit by a hybrid LED lighting every day during fattening period; the semi-open chicken coop is exposed to natural light in the daytime and lit by the hybrid LED lighting at night during fattening period. Implementation of the present disclosure improves growth of chickens, increases uniformity of chickens, and improves health and resistance to epidemic diseases.

A system for monitoring a hen house for raising hens and collecting eggs is described. The system includes a controller, a plurality of sensors for receiving sensor data of the hen house, and a plurality of actuators for performing commands. The controller includes a processor configured to execute operations of receiving the sensor data. Given sensor data and a set of predetermined rules, the present technology generates trend data. The trend data indicates a state of the hen house and an estimation of next steps needed to raise the hens and to collect hens. The present technology includes generating dashboard data for displaying the state to a user using a client device. The system further includes determining a command for respective actuators of the hen house to execute. The actuators execute the commands to enable users in non-industrial, private settings to raise hens and collect eggs.

A system for monitoring a hen house for raising hens and collecting eggs is described. The system includes a controller, a plurality of sensors for receiving sensor data of the hen house, and a plurality of actuators for performing commands. The controller includes a processor configured to execute operations of receiving the sensor data. Given sensor data and a set of predetermined rules, the present technology generates trend data. The trend data indicates a state of the hen house and an estimation of next steps needed to raise the hens and to collect hens. The present technology includes generating dashboard data for displaying the state to a user using a client device. The system further includes determining a command for respective actuators of the hen house to execute. The actuators execute the commands to enable users in non-industrial, private settings to raise hens and collect eggs.

The invention provides a light generating system (1000), wherein the light generating system (1000) is configured to generate system light (1001) having a controllable spectral power distribution and intensity, wherein in an operational mode the light generating system (1000) is configured to generate during a first time period P.sub.1, a first spectral power distribution E.sub.1, and during a second time period P.sub.2, later in time than the first period P.sub.1, a second spectral power distribution E.sub.2, wherein: (A) the controllable spectral power distribution comprises (a) a first spectral range .sub.1 having one or more wavelengths in the blue, and having a primary first spectral power SP(P.sub.1, .sub.1) during the first time period P.sub.1 and a secondary first spectral power SP(P.sub.2, .sub.1) during the second time period P.sub.2, (b) a second spectral range .sub.2 having one or more wavelengths in the green, and having a primary second spectral power SP(P.sub.1, .sub.2) during the first time period P.sub.1 and a secondary second spectral power SP(P.sub.2, .sub.2) during the second time period P.sub.2, and (c) an amber-red spectral range .sub.34 having one or more wavelengths in the amber-red, and having a primary amber-red spectral power SP(P.sub.1, .sub.34) during the first time period P.sub.1 and a secondary amber-red spectral power SP(P.sub.2, .sub.34) during the second time period P.sub.2; (B) the first spectral power distribution E.sub.1 comprises the primary first spectral power SP(P.sub.1, .sub.1), the primary second spectral power SP(P.sub.1, .sub.2), and the primary amber-red spectral power SP(P.sub.1, .sub.34); the second spectral power distribution E.sub.2 comprises the secondary first spectral power SP(P.sub.2, .sub.1), the secondary second spectral power SP(P.sub.2, .sub.2), and the secondary amber-red spectral power SP(P.sub.2, .sub.34); (C) the first period P.sub.1 is selected from of at least part of a day; the second period P.sub.2 is selected from the range of at least part of a day; (D) SP(P.sub.1, .sub.1)>0 Watt, SP(P.sub.1, .sub.2)>0 Watt, and SP(P.sub.1, .sub.34)>0 Watt; SP(P.sub.2, .sub.1>0 Watt, and SP(P.sub.2, .sub.2)>0 Watt; SP(P.sub.2, .sub.2)/SP(P.sub.2, .sub.1)<SP(P.sub.1, .sub.2)/SP(P.sub.1, .sub.1); SP(P.sub.2, .sub.34)/SP(P.sub.2, .sub.1)<SP(P.sub.1, .sub.34)/SP(P.sub.1, .sub.1); and SP(P.sub.2, .sub.34)/SP(P.sub.2, .sub.2)<SP(P.sub.1, .sub.34)/SP(P.sub.1, .sub.2).