SYSTEMS AND METHODS FOR DETECTING MOISTURE LEAKS OR MOISTURE INGRESS

1 . An industrial probe comprising:

a frame portion having an elongated shape;

a first sensor having an outer nonconductive surface supporting a plurality of electrical contacts;

a cooling portion having at least one conduit configured to cool said first sensor to a cooling temperature;

a heating portion having at least one conduit configured to heat said first sensor to a heating temperature;

wherein said first sensor is located proximate to a first terminal end of said frame portion;

wherein said heating temperature is greater than said cooling temperature; and

wherein said first sensor is repeatedly cycled between said cooling temperature and said heating temperature.

2 . The industrial probe of claim 1 , wherein said heating temperature is approximately 350 degrees Fahrenheit or higher and said cooling temperature is within a range between approximately 250 degrees Fahrenheit and approximately 285 degrees Fahrenheit.

3 . The industrial probe of claim 2 , wherein said first sensor is further configured to be cooled to a test temperature, said test temperature being approximately 240 degrees Fahrenheit.

4 . The industrial probe of claim 1 , wherein said cooling portion further comprises an inlet and an outlet, each being located proximate to a second terminal end of said frame portion and each having a ball valve configured to be normally closed.

5 . The industrial probe of claim 4 , further comprising a source of cooling air and a source of heating air, wherein said source of cooling air and said source of heating air are each located remotely from said frame portion.

6 . The industrial probe of claim 1 , further comprising a mechanical deflector that is configured to protect said first sensor from impacts.

7 . The industrial probe of claim 6 , wherein said mechanical deflector includes a plurality of open sections that are each configured to allow said first sensor to come into contact with a gas in an environment proximate to said first sensor.

8 . The industrial probe of claim 1 , further comprising a second sensor, said second sensor being located downstream of said outlet and being capable of detecting the presence of sulfur trioxide within said cooling air.

9 . The industrial probe of claim 1 , wherein said frame portion is substantially cylindrical in form.

10 . The industrial probe of claim 9 , wherein said frame portion is generally smooth on its exterior.

11 . The industrial probe of claim 1 , further comprising wiring connected to each electrical contact of said plurality of electrical contacts, and wherein said wiring is positioned to extend through a gland that is located proximate to said second terminal end of said frame portion.

12 . The industrial probe of claim 1 , wherein said industrial probe is configured to prevent the transmission of an unwanted gas through said industrial probe in the event that said unwanted gas enters said industrial probe at said first terminal end of said frame portion.

13 . The industrial probe of claim 1 , wherein said heating temperature is below a process temperature of a sulfur trioxide stream monitored by said probe and said cooling temperature is above the dew point of sulfur trioxide in said sulfur trioxide stream.

14 . The industrial probe of claim 13 , wherein said first sensor is further configured to be cooled to a test temperature, said test temperature being cooler than said dew point of said sulfur trioxide in said sulfur trioxide stream.

15 . The industrial probe of claim 1 , wherein said first sensor is further configured to be cooled to a test temperature, said test temperature being cooler than said cooling temperature.

16 . The industrial probe of claim 1 , wherein said heating portion is a sulfur trioxide stream monitored by said probe.

17 . A method for detecting moisture ingress into a sulfur trioxide stream, the method comprising:

providing an industrial probe, said industrial probe comprising:

a first sensor having an outer nonconductive surface supporting a plurality of electrical contacts;

a cooling portion having at least one conduit configured to cool said first sensor to a cooling temperature; and

a heating portion having at least one conduit configured to heat said first sensor to a heating temperature;

cooling said first sensor to a cooling temperature;

heating said first sensor to a heating temperature, said heating temperature being greater than said cooling temperature;

monitoring a current flow between said plurality of electrical contacts; and

indicating moisture ingress if said current is greater at said cooling temperature than at said heating temperature.

18 . The method of claim 17 , wherein said heating temperature is below a process temperature of said sulfur trioxide stream and said cooling temperature is above the dew point of sulfur trioxide in said sulfur trioxide stream.

19 . The method of claim 18 , further comprising a step of cooling said first sensor to a test temperature, said test temperature being cooler than said dew point of said sulfur trioxide in said sulfur trioxide stream.

20 . The method of claim 17 , wherein said heating temperature is approximately 350 degrees Fahrenheit or higher and said cooling temperature is within a range between approximately 250 degrees Fahrenheit and approximately 285 degrees Fahrenheit.