Hydro fire mitigation system
A hydro fire mitigation system is provided that is associated with a structure. The system employs a number of sensors that detect an oncoming fire, which directs a controller to initiate fluid flow through a number of sprinklers. The system is fully autonomous and does not require municipal water or power during use.
1. A hydro fire mitigation system, comprising:
a water storage tank;
a sprinkler system interconnected to the water storage tank and having at least one sprinkler head positioned outside of a structure;
a self-contained controller in communication with the sprinkler system, the controller being operable to receive power from at least one of a municipal power source and a dedicated power source, and wherein the controller is operable to place the hydro fire mitigation system in various modes of operation without direct user-input, the modes of operation comprising a sentry or armed mode and an alarm mode;
wherein the controller is operable to sense and determine the presence of a first power source and wherein the controller is operable to activate a second power source in the event that the first power source fails;
wherein the controller comprises an output and an input;
wherein the output of the controller is in communication with and operable to provide a signal to activate a fluid flow valve, a pump, a tank fill valve, and a drain valve;
wherein the input is in communication with and operable to receive a signal from at least one of a flow switch, a temperature sensor, and a fluid level sensor;
wherein the controller is remotely operated or monitored by at least one of a mobile phone, a smart phone, and an internet connection;
at least one infrared sensor in communication with the controller; and
wherein when the at least one infrared sensor senses a predetermined event, the controller activates the alarm mode and directs the sprinkler system to expel fluid in a predetermined area and the controller provides a signal to at least one of a mobile device and a fire protection personnel.
2. The system of claim 1 , wherein the at least one sprinkler head is interconnected to a roof portion of the structure and capable of expelling fluid about the exterior of the structure.
3. The system of claim 1 , wherein the at least one infrared sensor is an infrared flame sensor, and wherein the self-contained controller is operable to place the hydro fire mitigation system into a safe mode in which the self-contained controller can periodically activate and deactivate at least one sprinkler head of the sprinkler system.
4. The system of claim 1 , further comprising a pump in fluidic communication with the water storage tank.
5. The system of claim 4 , further comprising a separate fire-retardant tank interconnected to the pump, wherein fluid exiting the pump comprises a mixture of water and fire retardant.
6. The system of claim 1 , wherein the water storage tank is interconnected to a municipal water supply, water well, or some other usable water source, wherein the water storage tank includes a water level sensor, and wherein fluid from the municipal water supply enters the water storage tank if the stored water level drops beyond a predetermined level.
7. The system of claim 1 , wherein information and data associated with the at least one infrared sensor or the sprinkler system is forwarded to a local fire department, an off-site communications device, or the structure owner's mobile communication device.
8. The system of claim 7 , wherein fire department personnel or the owner may remotely communicate with the controller to initiate fluid flow through the at least one sprinkler head, cease fluid flow through at least one sprinkler head, or fill the water storage tank.
9. A method of hydro fire mitigation, comprising:
providing a water storage tank;
providing a sprinkler system interconnected to the water storage tank and having at least one sprinkler head positioned outside of a structure;
providing a self-contained control assembly system in communication with the sprinkler system, wherein the control assembly system includes an internet interface for monitoring the control assembly system;
providing a battery-based primary power source interconnected to the control assembly system, wherein the primary power source is operable to receive power from a second power source;
wherein the control assembly system comprises an output and an input, and wherein the control assembly system is operable to place the sprinkler system in various modes of operation without direct user-input, the modes of operation comprising a sentry or armed mode and an alarm mode;
wherein the output is in communication with and operable to provide a signal to activate at least one of a fluid flow valve, a pump, a fire-retardant valve, a tank fill valve, and a drain valve;
wherein the input is in communication with and operable to receive a signal from at least one of a flow switch, a temperature sensor, and a fluid level sensor;
providing at least one sensor in communication with the input of the control assembly system;
wherein when the at least one sensor senses a predetermined event, the output of the control assembly system directs the sprinkler system to initiate, thereby expelling fluid to a predetermined area; and
wherein the control assembly system is operable to sense and determine a status of the second power source, and wherein the control assembly system is further operable to monitor a status of the first power source when the second power source fails.
10. The method of claim 9 , wherein the at least one sprinkler head is interconnected to a roof portion of the structure and is operable to expel at least one fluid about the exterior of the structure, and wherein the self-contained control assembly system is operable to place the sprinkler system into a safe mode in which at least one sprinkler head of the sprinkler system is periodically activated and deactivated.
11. The method of claim 9 , wherein the at least one sensor comprises an infrared flame sensor.
12. The method of claim 9 , further comprising a pump in fluidic communication with the water storage tank.
13. The method of claim 9 , further comprising mixing fire retardant from a fire-retardant tank with water taken from the water storage tank.
14. The method of claim 9 , further comprising monitoring a water level sensor associated with the water storage tank, and wherein water is added to the water storage tank if the stored water level drops beyond a predetermined level.
15. The method of claim 9 , further comprising forwarding information and data associated with the at least one sensor or the sprinkler system to a local fire department or a mobile communication device.
16. The method of claim 15 , further comprising remotely communicating with the control assembly system to initiate fluid flow through the at least one sprinkler head, cease fluid flow through at least one sprinkler head, or fill the water storage tank.
17. The system of claim 1 , wherein the dedicated power source comprises a battery.
18. The system of claim 17 , wherein the battery is operable to receive power from at least one of the municipal power source and a solar power source.
19. A hydro fire mitigation system, comprising:
a dedicated water storage tank in fluid communication with a municipal water supply;
a sprinkler system in fluid communication with the water storage tank and comprising a plurality of sprinkler heads;
a controller in communication with the sprinkler system, the controller being operable to receive power from at least one of a municipal power source and a dedicated power source;
a first input in communication with an infrared sensor;
a second input in communication with and operable to receive a signal from at least one of a flow switch, a temperature sensor, and a fluid level sensor;
an output in communication with and operable to provide a signal to activate a fluid flow valve, a pump, a fire-retardant valve, a tank fill valve, and a drain valve; and
wherein the controller is operable to selectively activate at least one of the plurality of sprinkler heads of the sprinkler system to expel fluid in a predetermined area based upon data received from the infrared sensor, wherein the controller is operable to deactivate the at least one of the plurality of sprinkler heads and place the hydro fire mitigation system into a safe mode in which the controller periodically activates at least one of the plurality of sprinkler heads.
20. The system of claim 19 , wherein the controller receives power from the dedicated power source and the dedicated power source comprises a battery that receives power from the municipal power source.