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A method of cooling air includes a liquid coolant subsystem including a cool water source configured to hold water, an air cooling subsystem including an air chamber that contains air therein, an air conditioning apparatus including a heat exchanger of a liquid-to-air type having a heat sink in ther

A method of cooling air includes a liquid coolant subsystem including a cool water source configured to hold water, an air cooling subsystem including an air chamber that contains air therein, an air conditioning apparatus including a heat exchanger of a liquid-to-air type having a heat sink in thermal communication, a fan assembly configured to move air along the heat sink of the heat exchanger, a thermostat, a temperature sensor, and a control circuit in electronic communication with the temperature sensor and the thermostat, a plumbing subsystem including an inlet piping component in fluid communication with heat exchanger, an outlet piping component in fluid communication with the exchanger, and a solenoid valve. The control circuit may be configured to activate the fan assembly and to open the solenoid valve, allowing for the transfer heat to water from the air moved by the fan assembly.

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1. A method of cooling air contained in an air chamber using a cool water source configured to hold water having a first temperature, the method comprising the steps of: receiving a set point temperature using a thermostat;measuring a second temperature of the air contained in the air chamber using

1. A method of cooling air contained in an air chamber using a cool water source configured to hold water having a first temperature, the method comprising the steps of: receiving a set point temperature using a thermostat;measuring a second temperature of the air contained in the air chamber using a temperature sensor;comparing the set point temperature to the second temperature of the air in the air chamber using a control circuit in electrical communication with the temperature sensor and with the thermostat;detecting that the set point temperature is less than the second temperature using the control circuit;delivering, using an inlet piping component, a first volume of the water held by the cool water source to a heat exchanger of a liquid-to-air type having a tube that includes an inlet orifice, an outlet orifice, an interior surface, and an exterior surface, and having a heat sink in thermal communication with the exterior surface of the tube;passing the first volume of the water through the inlet orifice and along the interior surface of the tube of the heat exchanger, wherein the inlet piping component is in fluid communication with the inlet orifice;moving a first volume of the air contained by the air chamber along the heat sink of the heat exchanger using a fan that is operably coupled to the control circuit;transferring heat to the first volume of the water from the first volume of the air, thereby altering the first volume of the air to exhibit a first conditioned temperature that is less than the second temperature and altering the first volume of the water to exhibit a first altered temperature that is greater than the first temperature and that approximately equals the first conditioned temperature;moving the first volume of the air having the first conditioned temperature back into the air chamber;retaining at least a portion of the first volume of water from the heat exchanger with the first altered temperature in a warm water tank that is configured for warm water distribution; andexpelling the remaining first volume of water from the heat exchanger with the first altered temperature to a location different than the original cool water source. 2. The method according to claim 1 wherein the water held by the cool water source is positioned underground at a vertical depth not less than 40 feet from ground level; wherein the cool water source is one of an underground tank and an aquifer; and wherein the first temperature is less than or equal to 55 degrees Fahrenheit. 3. The method according to claim 1 wherein delivering the first volume of the water to the heat exchanger further comprises opening a solenoid valve to allow the inlet piping component to deliver the first volume of water to the heat exchanger; wherein the solenoid valve is operably coupled to the control circuit and is located on the inlet piping component upstream of the heat exchanger and downstream of the cool water source. 4. The method according to claim 3 further comprising selectively stopping the first volume of the water from passing to the solenoid valve using a shutoff valve located on the inlet piping component upstream of the solenoid valve. 5. The method according to claim 3 wherein moving the first volume of the air further comprises operating the fan; and wherein operating the fan and operating the solenoid valve, in combination, are characterized by an energy efficiency ratio not less than 45. 6. The method according to claim 3 wherein delivering the first volume of the water to the heat exchanger further comprises adjustably regulating a rate at which the first volume of the water is allowed to pass from the solenoid valve to the heat exchanger using a water flow rate valve located on the inlet piping component upstream of the heat exchanger and downstream of the solenoid valve. 7. The method according to claim 3 further comprising: measuring a third temperature of the air contained in the air chamber using the temperature sensor;comparing the set point temperature to the third temperature using the control circuit;detecting whether the third temperature is equal to or less than the set point temperature using the control circuit;closing the solenoid valve in response to a close signal received from the control circuit; andstopping the at least one fan in response to a stop signal received from the control circuit. 8. The method according to claim 1 further comprising: measuring a third temperature of the air contained in the air chamber using the temperature sensor;comparing the set point temperature to the third temperature using the control circuit;detecting whether the third temperature is greater than the set point temperature using the control circuit;passing the first volume of the water along the interior surface of the tube of the heat exchanger and through the outlet orifice;discharging, using an outlet piping component, the first volume of the water from the tube of the heat exchanger, wherein the outlet piping component is in fluid communication with the outlet orifice;delivering, using the inlet piping component, a second volume of the water held by the cool water source to the heat exchanger;passing the second volume of the water through the inlet orifice and along the interior surface of the tube of the heat exchanger;moving a second volume of the air contained by the air chamber along the heat sink of the heat exchanger using the at least one fan;transferring heat to the second volume of the water from the second volume of the air, thereby altering the second volume of the air to exhibit a second conditioned temperature that is less than the third temperature and altering the second volume of the water to exhibit a second altered temperature that is greater than the first temperature and that approximately equals the second conditioned temperature; andmoving the second volume of the air having the second conditioned temperature back into the air chamber. 9. The method according to claim 8 wherein discharging the first volume of the water further comprises delivering, using the outlet piping component, the first volume of the water to a location that is outside of the air chamber and is not in fluid communication with the cool water source. 10. The method according to claim 1 wherein at least a portion of the first volume of water with the first altered temperature is routed through a heated attic space before being retained in a warm water tank that is configured for warm water distribution.