In an apparatus for raising chickens from hatchlings including a barn having a floor and walls there is provided a plurality of rows of feed stations arranged at spaced positions across the floor each with a feed supply line connected along the row for dispensing feed to each of the feed stations and a plurality of rows of water supply stations each with a water supply line connected along the row for dispensing water to each of the water supply stations where rows of stations are connected to a lift system for raising the stations from the floor. A first strip of biodegradable paper sheet is unrolled along the floor of the barn underneath the row of feed stations and a second strip of biodegradable paper sheet unrolled along the floor of the barn underneath the row of water supply stations where the biodegradable paper is colored with a color selected to be attractive to hatchlings, typically red.

A top-fill hummingbird feeder includes a liquid container with a liquid opening at a lower end. A feeding basin is positioned below the liquid container for containing nectar accessed by birds. A sealing mechanism includes a valve responsive to a nectar level in the feeding basin for opening and closing the liquid opening.

A top-fill hummingbird feeder includes a liquid container with a liquid opening at a lower end. A feeding basin is positioned below the liquid container for containing nectar accessed by birds. A sealing mechanism includes a valve responsive to a nectar level in the feeding basin for opening and closing the liquid opening.

A poultry and livestock feeding and monitoring system is provided. The system mainly includes a feeding management unit, a mobile monitoring unit, and a remote monitoring unit. A plurality of control parameters and schedules are set up by the mobile monitoring unit or the remote monitoring unit for driving the feeding management unit to work. Thus various operations including water quality monitoring, drinking water supply, drinking water recovery, and measurement of weight of poultry and livestock, etc. are carried out according to the schedules being set. Therefore, the amount of water consumed by the poultry and livestock and weight of the poultry and livestock can be understood accurately. A warning is issued when the poultry and livestock drink insufficient amount of water. Thereby healthy growth of the poultry and livestock is ensured.

A poultry and livestock feeding and monitoring system is provided. The system mainly includes a feeding management unit, a mobile monitoring unit, and a remote monitoring unit. A plurality of control parameters and schedules are set up by the mobile monitoring unit or the remote monitoring unit for driving the feeding management unit to work. Thus various operations including water quality monitoring, drinking water supply, drinking water recovery, and measurement of weight of poultry and livestock, etc. are carried out according to the schedules being set. Therefore, the amount of water consumed by the poultry and livestock and weight of the poultry and livestock can be understood accurately. A warning is issued when the poultry and livestock drink insufficient amount of water. Thereby healthy growth of the poultry and livestock is ensured.

A top-fill hummingbird feeder is provided having a liquid container with a liquid flow opening at a lower end and a removable cap at an upper end, a feeding basin positioned below the liquid container, and a valve or sealing mechanism associated with the liquid flow opening and the feeding basin. The feeding basin includes an upwardly extending cylindrical well that receives the lower end of the liquid container, and the valve or sealing mechanism includes a float valve associated with the well. The feeding basin is filled by gravity feed of the liquid in the container through the liquid flow opening when the sealing mechanism is open. When the feeding basin reaches a full position, the liquid nectar raises the float valve which, in turn, acts to close the liquid flow opening.

A top-fill hummingbird feeder is provided having a liquid container with a liquid flow opening at a lower end and a removable cap at an upper end, a feeding basin positioned below the liquid container, and a valve or sealing mechanism associated with the liquid flow opening and the feeding basin. The feeding basin includes an upwardly extending cylindrical well that receives the lower end of the liquid container, and the valve or sealing mechanism includes a float valve associated with the well. The feeding basin is filled by gravity feed of the liquid in the container through the liquid flow opening when the sealing mechanism is open. When the feeding basin reaches a full position, the liquid nectar raises the float valve which, in turn, acts to close the liquid flow opening.

A top-fill hummingbird feeder is provided having a liquid container with a liquid flow opening at a lower end and a removable cap at an upper end, a feeding basin positioned below the liquid container, and a sealing mechanism associated with the liquid flow opening and the feeding basin. The sealing mechanism includes a bottle seal assembly configured for removable coupling with a base of the feeding basin, and a float valve captured by said bottle seal assembly to prevent rotation thereof while allowing the float valve to move upwardly and downwardly with changing nectar levels in the feeding basin. The feeding basin is filled by gravity feed of the liquid in the container through the liquid flow opening when the sealing mechanism is open. When the feeding basin reaches a full position, the liquid nectar raises the float valve which, in turn, acts to close the liquid flow opening.

A top-fill hummingbird feeder is provided having a liquid container with a liquid flow opening at a lower end and a removable cap at an upper end, a feeding basin positioned below the liquid container, and a sealing mechanism associated with the liquid flow opening and the feeding basin. The sealing mechanism includes a bottle seal assembly configured for removable coupling with a base of the feeding basin, and a float valve captured by said bottle seal assembly to prevent rotation thereof while allowing the float valve to move upwardly and downwardly with changing nectar levels in the feeding basin. The feeding basin is filled by gravity feed of the liquid in the container through the liquid flow opening when the sealing mechanism is open. When the feeding basin reaches a full position, the liquid nectar raises the float valve which, in turn, acts to close the liquid flow opening.

The automatic bird cage is a bird housing provided with at least two containers that the user can control wirelessly via a mobile application, and the user will also control a wiper placed at the ground of the cage for cleaning. The system is also supported with a camera that displays the bird actions inside the cage, and to monitor the food level.