Disclosed are a pet water dispensing device, a pet drinking and eating disc, a water dispenser, and a pet food supply method. The pet water dispensing device includes a base and a water supply valve, a drinking and eating disc accommodating cavity is formed on at least one side surface of the base, the water supply valve corresponding to the drinking and eating disc accommodating cavity is disposed on the base, the water outlet end of the water supply valve communicates with the drinking and eating disc accommodating cavity, when the extension end of the valve rod of the water supply valve is configured to be driven by the pet drinking and eating disc placed at the drinking and eating disc accommodating cavity, the water supply valve is switched from a closed state to an open state.

A system for remote care of an animal includes a smart bowl that includes an open-faced container for holding a substance, a microprocessor, and a proximity sensor configured to detect the presence of a proximity tag attached to an animal.

A valve includes a housing, a first ball, a second ball, and a deflector plate. The housing defines an inner chamber and has an inlet and an outlet providing fluid communication into the inner chamber. A longitudinal axis extends between the inlet and outlet. The first ball is disposed in the inner chamber between the inlet and outlet and rests on a seat extending into the inner chamber. The second ball is disposed in the inner chamber between the first ball and outlet and rests on the first ball. The deflector plate is disposed in the inner chamber and positioned between the inlet and first ball. The first ball, second ball, and deflector plate are aligned so that their centers lie on the longitudinal axis. The deflector plate is configured to deflect gas entering through the inlet to prevent the gas from driving the first and second balls upward.

A valve includes a housing, a first ball, a second ball, and a deflector plate. The housing defines an inner chamber and has an inlet and an outlet providing fluid communication into the inner chamber. A longitudinal axis extends between the inlet and outlet. The first ball is disposed in the inner chamber between the inlet and outlet and rests on a seat extending into the inner chamber. The second ball is disposed in the inner chamber between the first ball and outlet and rests on the first ball. The deflector plate is disposed in the inner chamber and positioned between the inlet and first ball. The first ball, second ball, and deflector plate are aligned so that their centers lie on the longitudinal axis. The deflector plate is configured to deflect gas entering through the inlet to prevent the gas from driving the first and second balls upward.

A watering device for animals includes a support, which includes a watering trough intended to receive a liquid, a system for cooling the liquid, wherein the system for cooling the liquid has a thermoelectric module powered with a current and having a first contact element and a second contact element, the first contact element for cooling the liquid.

A breather cap assembly is configured to be connected to a stand-tube used in a watering system. When the watering system is in normal operation, the breather cap assembly is configured to allow for air to flow between the outside the assembly and the stand-tube. The breather cap assembly also provides for structure which acts as a baffle to minimize the introduction of foreign material from outside the breather cap assembly into the stand-tube. When the watering system is in flushing operation, the breather cap assembly is configured to seal off the stand-tube in order to minimize the possibility of water leaving the stand-tube. The breather cap assembly further also provides for structure which acts as a baffle to collect and retain a majority of any water that does leave the stand-tube during a flushing operation.

A breather cap assembly is configured to be connected to a stand-tube used in a watering system. When the watering system is in normal operation, the breather cap assembly is configured to allow for air to flow between the outside the assembly and the stand-tube. The breather cap assembly also provides for structure which acts as a baffle to minimize the introduction of foreign material from outside the breather cap assembly into the stand-tube. When the watering system is in flushing operation, the breather cap assembly is configured to seal off the stand-tube in order to minimize the possibility of water leaving the stand-tube. The breather cap assembly further also provides for structure which acts as a baffle to collect and retain a majority of any water that does leave the stand-tube during a flushing operation.

There is provided a liquid supply apparatus eliminating the need for a power supply, having relatively light weight and small footprint, and ensuring a stable liquid supply. The liquid supply apparatus includes a first support member, a second support member, a balloon having one end supported by the first support member and the other end supported by the second support member, and a casing having a constant longitudinal length. The balloon is disposed in the casing and is configured so as to be able to hold a liquid therein and discharge the liquid therefrom. When the balloon holds the liquid, the one end and the other end of the balloon are positioned in the case.

There is provided a liquid supply apparatus eliminating the need for a power supply, having relatively light weight and small footprint, and ensuring a stable liquid supply. The liquid supply apparatus includes a first support member, a second support member, a balloon having one end supported by the first support member and the other end supported by the second support member, and a casing having a constant longitudinal length. The balloon is disposed in the casing and is configured so as to be able to hold a liquid therein and discharge the liquid therefrom. When the balloon holds the liquid, the one end and the other end of the balloon are positioned in the case.

An intelligent outdoor pet feeder includes an outer shell, a bottom shell, a water storage module, a control module, a water adding module, a biological sensing module, a water volume sensing module, and a power supply module. The water storage module is disposed inside the outer shell, the biological sensing module is disposed on the outer shell, the water adding module is disposed inside the outer shell, the control module is disposed inside the outer shell, and the water volume sensing module is disposed inside the water storage module. The intelligent outdoor pet feeder identifiers the pet body by the biological sensing module, identifies a change of water volume inside the water storage device combining with the water volume sensing module, and further controls operation of adding water of the water adding module.