Two part condenser for varying the rate of condensing and related method

1. A condenser, comprising:

a first component having a first heat transfer element with a plurality of coils in communication with a first component inlet port and a first component outlet port configured to allow a fluid to pass through said coils of said first heat transfer element, said first component having a tube surrounding said coils of said first heat transfer element, wherein said first heat transfer element is configured to cool gas present in said tube to cause condensation; and

a second component having a second heat transfer element with a plurality of coils in communication with a second component inlet port and a second component outlet port configured to allow a fluid to pass through said coils of said second heat transfer element;

wherein said first component and said second component are releasably attachable to one another such that when attached at least some of said coils of said second heat transfer element are positioned in a passageway defined by said coils of said first heat transfer element such that both said first and second heat transfer elements are configured to cool gas present in said tube to cause condensation, and when detached at least some of said coils of said second heat transfer element are capable of being removed from said passageway defined by said coils of said first heat transfer element.

2. The condenser as in claim 1 , wherein said second component has a connecting cap with internal threads that are configured to engage external threads located on said first component in order to effect attachment of said first and second components.

3. The condenser as in claim 1 , wherein said second heat transfer element has a linear segment located in a passageway defined by said coils of said second heat transfer element, and wherein said second heat transfer element has a tip disposed between and placing said linear segment and said coils of said second heat transfer element into communication with one another.

4. The condenser as in claim 1 , wherein said second component has a tube that is placed into communication with said tube of said first component when said first and second components are attached to one another.

5. The condenser as in claim 1 , wherein:

said first component is configured to cool gas present in said tube to cause condensation when unattached to said second component; and

wherein said second component is configured to operate as a coldfinger type condenser when unattached to said first component.

6. The condenser as in claim 1 , wherein:

said first component has a female fitting located on one end thereof;

wherein said second component has a male fitting that surrounds at least a portion of said second heat transfer element; and

wherein said female fitting and said male fitting engage one another when said first and second components are attached.

7. The heat transfer apparatus as in claim 1 , wherein:

said first component has a tube that surrounds at least a portion of said first heat transfer element;

wherein said second component has a tube that is placed into communication with said tube of said first component when said first and second components are attached to one another;

wherein said tubes of said first and second components are configured to allow the third fluid to pass through when said first and second components are attached to one another.

8. A heat transfer apparatus for effecting heat transfer with a third fluid, comprising:

a first component having a first heat transfer element with a first component inlet port and a first component outlet port configured to allow a first fluid to pass through said first heat transfer element, wherein said first component has a body configured to receive and allow to pass through a third fluid for heat transfer with said first heat transfer element; and

a second component having a second heat transfer element with a second component inlet port and a second component outlet port configured to allow a second fluid to pass through said second heat transfer element;

wherein said first and second components are releasably attachable with one another and are configured such that when attached said first and second heat transfer elements both act to effect heat transfer with the third fluid, and are configured such that when detached said first heat transfer element is capable of effecting heat transfer with the third fluid passing through said body.

9. The heat transfer apparatus as in claim 8 , wherein:

the first and second fluids are water, and wherein the third fluid is a gas mixture;

wherein the first fluid is in isolation from the second fluid when passing through said first heat transfer element between said first component inlet port and said first component outlet port.

10. The heat transfer apparatus as in claim 8 , wherein:

said body has a tube and wherein said first heat transfer member has a plurality of coils located in said tube that define a passageway;

wherein said second heat transfer member has a plurality of coils that are disposed in said passageway formed by said coils of said first heat transfer member when said first and second components are attached to one another.

11. The heat transfer apparatus as in claim 8 , wherein said first and second components are rendered releasably attachable with one another by way of a connection that includes a connecting cap on said second component with internal threads that are configured to engage external threads located on said first component.

12. The heat transfer apparatus as in claim 8 , wherein the third fluid includes steam and wherein said first and second heat transfer elements cool the third fluid so as to condense steam from the third fluid.

13. The heat transfer apparatus as in claim 8 , wherein:

said first component has a female fitting located on one end thereof;

wherein said second component has a male fitting that surrounds at least a portion of said second heat transfer element; and

wherein said female fitting and said male fitting engage one another when said first and second components are attached.

14. A method of varying the heat transfer rate of a heat transfer apparatus, comprising the steps of:

providing a first component with a first heat transfer element having a first component inlet port and a first component outlet port configured to allow a first fluid to pass through said first heat transfer element;

providing a second component with a second heat transfer element having a second component inlet port and a second component outlet port configured to allow a second fluid to pass through said second heat transfer element;

attaching said first and second components to one another;

transferring a first fluid through said first heat transfer element and transferring a second fluid through said second heat transfer element such that said first and second heat transfer elements render a combined heat transfer rate;

removing said first and second components from one another such that said first and second heat transfer elements do not render the combined heat transfer rate; and

transferring a first fluid through said first heat transfer element such that said first heat transfer element renders a first heat transfer rate.

15. The method as in claim 14 , wherein:

said first heat transfer element has a plurality of coils that define a passageway;

wherein said second heat transfer element has a plurality of coils; and

wherein said attaching step includes positioning at least some of said coils of said second heat transfer element into said passageway defined by said coils of said first heat transfer element.

16. The method as in claim 14 , wherein:

said first component has a female fitting;

wherein said second component has a male fitting; and

wherein said attaching step includes inserting said male fitting of said second component into said female fitting of said first component.

17. The method as in claim 14 , wherein:

said second component has a connecting cap;

wherein said attaching step includes engaging internal threading on said connecting cap with external threading on said first component; and

wherein said removing step includes disengaging said internal threading on said connecting cap from said external threading on said first component.

18. The method as in claim 14 , wherein:

said first component has a tube;

wherein said second component has a tube; and

wherein said attaching step includes placing said tube of said first component into communication with said tube of said second component.

19. The method as in claim 14 , further comprising the steps of:

introducing a third fluid into said first component when said first and second components are attached to one another; and

cooling said third fluid by said first and second heat transfer elements wherein said first and second fluids are cooler than said third fluid such that condensate is formed.

20. The method as in claim 14 , wherein:

said first component has a tube, a male fitting, and a connecting cap with internal threading;

wherein said second component has a tube and a female fitting with external threading thereon; and

wherein said attaching step includes inserting said male fitting into said female fitting and engaging said internal threading on said connecting cap with said external threading on said first component so as to attach said first and second components to one another and place said tube of said first component into communication with said tube of said second component.