System and method for reducing deionized water consumption
A system and method are provided for reducing DI water consumption by delivering the DI water at an elevated processing temperature when demanded. The DI water is passed through a heater for heating the DI water to a processing temperature in a single pass. The DI water is circulated through a recirculation loop, including the heater, until demanded. The DI water is monitored for contaminants and bubbles or voids. Detected contaminants or voids are discharged through vents of the system. Turbulence or biocides can be introduced into the recirculated DI water for inhibiting biological contamination.
1. A method for reducing deionized water consumption by delivering the deionized water at an elevated processing temperature, comprising the steps of:
providing a heater adapted to heat the deionized water to a predetermined processing temperature in a single pass;
passing the deionized water through the heater;
directing the heated deionized water to an end user when demanded; and
directing the heated deionized water through a recirculation loop including the heater when the deionized water is not demanded by the end user,
wherein said recirculation loop excludes a storage tank.
2. The method of claim 1 , including the step of monitoring the deionized water for contaminates.
3. The method of claim 2 , including the step of discharging at least a portion of the deionized water when contaminates are detected.
4. The method of claim 2 , including the step of providing a resistivity sensor for monitoring the deionized water for contaminates.
5. The method of claim 1 , including the step of monitoring recirculated deionized water for bubbles.
6. The method of claim 5 , including the step of venting the bubbles from the recirculated deionized water.
7. The method of claim 6 , including the step of introducing additional deionized water through the heater and into the recirculated deionized water to replace the vented bubbles.
8. The method of claim 1 , including the step of altering the path of the recirculated deionized water.
9. The method of claim 1 , including the step of introducing a gas into the deionized water.
10. The method of claim 9 , including the step of introducing a biocidal gas into the deionized water.
11. The method of claim 9 , including the step of introducing a pressurized gas to create turbulence in the deionized water for inhibiting biological contamination.
12. A method for reducing deionized water consumption by delivering the deionized water at an elevated processing temperature, comprising the steps of:
providing a heater adapted to heat the deionized water to a predetermined processing temperature in a single pass;
passing the deionized water through the heater;
directing the heated deionized water to an end user when demanded;
directing the heated deionized water through a recirculation loop including the heater when the deionized water is not demanded by the end user;
monitoring the deionized water for contaminates and discharging at least a portion of the deionized water when contaminates are detected; and
monitoring the recirculated deionized water for bubbles and venting the bubbles from the recirculated deionized water.
13. The method of claim 12 , including the step of providing a resistivity sensor for monitoring the deionized water for contaminates.
14. The method of claim 12 , including the step of introducing additional deionized water through the heater and into the recirculated deionized water to replace the vented bubbles.
15. The method of claim 12 , including the step of altering the path of the recirculated deionized water.
16. The method of claim 12 , including the step of introducing a gas into the deionized water.
17. The method of claim 16 , including the step of introducing a biocidal gas into the deionized water.
18. The method of claim 16 , including the step of introducing a pressurized gas to create turbulence in the deionized water for inhibiting biological contamination.
19. A method for reducing deionized water consumption by delivering the deionized water at an elevated processing temperature, comprising the steps of:
providing a heater adapted to heat the deionized water to a predetermined processing temperature in a single pass;
passing the deionized water through the heater;
directing the heated deionized water to an end user when demanded;
directing the heated deionized water through a recirculation loop including the heater when the deionized water is not demanded by the end user;
monitoring the deionized water for contaminates; and
discharging at least a portion of the deionized water from the recirculation loop when contaminates are detected.
20. The method of claim 19 , including the step of providing a resistivity sensor for monitoring the deionized water for contaminates.
21. A method for reducing deionized water consumption by delivering the deionized water at an elevated processing temperature, comprising the steps of:
providing a heater adapted to heat the deionized water to a predetermined processing temperature in a single pass;
passing the deionized water through the heater;
directing the heated deionized water to an end user when demanded;
directing the heated deionized water through a recirculation loop including the heater when the deionized water is not demanded by the end user;
monitoring recirculated deionized water for bubbles; and
venting the bubbles from the recirculated deionized water.
22. The method of claim 21 , including the step of introducing additional deionized water through the heater and into the recirculated deionized water to replace the vented bubbles.