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A submersible pump assembly (100) for removing a production inhibiting fluid (102) from a well (110) and method for use of the same is disclosed. The submersible pump assembly (100) includes a composite coiled tubing (120) and a submersible pump (112) coupled to the tubing (120) that is disposed wit

A submersible pump assembly (100) for removing a production inhibiting fluid (102) from a well (110) and method for use of the same is disclosed. The submersible pump assembly (100) includes a composite coiled tubing (120) and a submersible pump (112) coupled to the tubing (120) that is disposed within a fluid accumulation zone (104) of the well (110). The tubing (120) defines a fluid communication path substantially from the fluid accumulation zone (104) to the surface. The submersible pump (112) includes a port (114) for intaking production inhibiting fluid (102). The tubing (120) includes a composite layer in which energy conductors are integrally positioned. The energy conductors provide power to the submersible pump (112) such that the production inhibiting fluid (102) may be pumped from the fluid accumulation zone (104) to the surface via the fluid communication path of the tubing (120).

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What is claimed is: 1. A submergible pump assembly for removing a production inhibiting fluid from a well, comprising: a tubing defining a fluid communication path substantially from a fluid accumulation zone in the well to the surface; a submergible pump coupled to the tubing and disposed within t

What is claimed is: 1. A submergible pump assembly for removing a production inhibiting fluid from a well, comprising: a tubing defining a fluid communication path substantially from a fluid accumulation zone in the well to the surface; a submergible pump coupled to the tubing and disposed within the fluid accumulation zone, the submergible pump having a production inhibiting fluid intake port that intakes production inhibiting fluid; and a plurality of sensors including a first sensor and a second sensor, the first sensor positioned nearer the surface than the second sensor, wherein the plurality of sensors are used to sense a presence of the production inhibiting fluid. 2. The submergible pump assembly as recited in claim 1 wherein the submergible pump further comprises an electrical motor. 3. The submergible pump assembly as recited in claim 1 wherein the tubing further comprises a plurality of composite layers, a substantially impermeable material lining an inner surface of the innermost composite layer forming a pressure chamber and an energy conductor integrally positioned between two of the plurality of composite layers. 4. The submergible pump assembly as recited in claim 3 wherein the energy conductor further comprises a power line. 5. The submergible pump assembly as recited in claim 3 wherein the energy conductor further comprises a communication line. 6. The submergible pump assembly as recited in claim 1 wherein the first and second sensors control the operational state of the submergible pump. 7. The submergible pump assembly as recited in claim 1 wherein the first and second sensors are chosen from the group consisting of density sensors, conductivity sensors, pressure sensors and temperature sensors. 8. The submergible pump assembly as recited in claim 1 wherein the first and second sensors communicate with the surface by way of a communication line embedded in the tubing. 9. The submergible pump assembly as recited in claim 1 wherein the first and second sensors are integrally positioned on the submergible pump. 10. The submergible pump assembly as recited in claim 1 wherein the first sensor is integrally positioned on the tubing and the second sensor is integrally positioned on the submergible pump. 11. The submergible pump assembly as recited in claim 1 wherein the submergible pump commences operation when the first sensor detects the presence of the production inhibiting fluid and wherein the submergible pump ceases operation when the second sensor no longer detects the presence of the production inhibiting fluid. 12. The submergible pump assembly as recited in claim 1 further comprising additional sensors positioned between the first and second sensors that identify the level of the production inhibiting fluid between the first and second sensors. 13. The submergible pump assembly as recited in claim 1 wherein the submergible pump pumps between about 1 and 10 gallons per minute. 14. The submergible pump assembly as recited in claim 1 wherein the submergible pump further comprises a multi-speed pump. 15. The submergible pump assembly as recited in claim 1 wherein the submergible pump further comprises a pump chosen from the group consisting of centrifugal pumps and positive displacement pumps. 16. The submergible pump assembly as recited in claim 1 wherein the submergible pump further comprises a multi-stage pump. 17. A submergible pump assembly for removing a production inhibiting fluid from a well, comprising: a composite coiled tubular defining a fluid communication path substantially from a fluid accumulation zone in the well to the surface, the composite coiled tubular having a plurality of composite layers and an energy conductor integrally positioned between two of the plurality of composite layers; a submergible pump coupled to the composite coiled tubular and disposed within the fluid accumulation zone, the submergible pump receiving power from the energy conductor; and first and second sensors in communication with the submergible pump, the first and second sensors controlling the operational state of the submergible pump based upon the presence of the production inhibiting fluid. 18. The submergible pump assembly as recited in claim 17 wherein the first sensor is positioned nearer the surface than the second sensor. 19. The submergible pump assembly as recited in claim 17 wherein the first and second sensors are chosen from the group consisting of density sensors, conductivity sensors, pressure sensors and temperature sensors. 20. The submergible pump assembly as recited in claim 17 wherein the first and second sensors communicate with the surface by way of a communication line embedded between two of the plurality of composite layers in the composite coiled tubular. 21. The submergible pump assembly as recited in claim 17 wherein the first and second sensors are integrally positioned on the submergible pump. 22. The submergible pump assembly as recited in claim 17 wherein the first sensor is integrally positioned on the composite coiled tubular and the second sensor is integrally positioned on the submergible pump. 23. The submergible pump assembly as recited in claim 17 wherein the submergible pump commences operation when the first sensor detects the presence of the production inhibiting fluid and wherein the submergible pump ceases operation when the second sensor no longer detects the presence of the production inhibiting fluid. 24. The submergible pump assembly as recited in claim 17 further comprising additional sensors positioned between the first and second sensor that identify the level of the production inhibiting fluid between the first and second sensors. 25. The submergible pump assembly as recited in claim 17 wherein the submergible pump pumps between about 1 and 10 gallons per minute. 26. The submergible pump assembly as recited in claim 17 wherein the submergible pump further comprises a multi-speed pump. 27. The submergible pump assembly as recited in claim 17 wherein the submergible pump further comprises a pump chosen from the group consisting of centrifugal pumps and positive displacement pumps. 28. The submergible pump assembly as recited in claim 17 wherein the submergible pump further comprises a multi-stage pump. 29. A method f or removing a production inhibiting fluid in a fluid accumulation zone of a well comprising the steps of: coupling a submergible pump to a composite coiled tubing having an energy conductor embedded between two composite layers and defining a fluid passageway; running the submergible pump into the fluid accumulation zone of the well; providing power to the submergible pump via the energy conductor; sensing a presence of the production inhibiting fluid with a first sensor and a second sensor; and operating the submergible pump to pump the production inhibiting fluid from the fluid accumulation zone to the surface via the fluid passageway of the composite coiled tubing. 30. The method as recited in claim 29 wherein the step of operating the submergible pump further comprises the step of intaking the production inhibiting fluid through a port submerged in the production inhibiting fluid. 31. The method as recited in claim 29 wherein the step of operating the submergible pump further comprises the step of electrically operating the submergible pump to pump the production inhibiting fluid from the fluid accumulation zone to the surface via the fluid passageway of the composite coiled tubing. 32. The method as recited in claim 29 further comprising the step of controlling the operational state of the submergible pump with the first and second sensors. 33. The method as recited in claim 29 further comprising the step of selecting the first and second sensors from the group consisting of density sensors, conductivity sensors, pressure sensors and temperature sensors. 34. The method as recited in claim 29 wherein the step of operating the submergible pump further comprises commencing operation when the first sensor detects the presence of the production inhibiting fluid and ceasing operation when the second sensor no longer detects the presence of the production inhibiting fluid. 35. The method as recited in claim 29 further comprising the step of positioning additional sensors between the first and second sensor, the additional sensors identifying a level of the production inhibiting fluid between the first and second sensors. 36. The method as recited in claim 29 wherein the step of operating the submergible pump further comprises pumping between about 1 and 10 gallons per minute. 37. A method for removing a production inhibiting fluid in a fluid accumulation zone of a well comprising the steps of: coupling a submergible pump to a composite coiled tubing having an energy conductor embedded between two composite layers and defining a fluid passageway; running the submergible pump into the fluid accumulation zone of the well; providing power to the submergible pump via the energy conductor; sensing the presence of the production inhibiting fluid with first and second sensors; operating the submergible pump to pump the production inhibiting fluid from the fluid accumulation zone to the surface via the fluid passageway of the composite coiled tubing when the first sensor detects the presence of the production inhibiting fluid; and ceasing operating the submergible pump when the second sensor no longer detects the presence of the production inhibiting fluid. 38. The method as recited in claim 37 wherein the step of operating the submergible pump further comprises the step of intaking the production inhibiting fluid through a port submerged in the production inhibiting fluid. 39. The method as recited in claim 37 further comprising the step of selecting the first and second sensors from the group consisting of density sensors, conductivity sensors, pressure sensors and temperature sensors. 40. The method as recited in claim 37 further comprising the step of positioning additional sensors between the first and second sensor, the additional sensors idontify a level of the production inhibiting fluid between the first and second sensors. 41. The method as recited in claim 37 wherein the step of operating the submergible pump further comprises pumping between about 1 and 10 gallons per minute. 42. A system for removing a production inhibiting fluid from a well, comprising: a production tubing defining a fluid communication path for gas production; a production inhibiting fluid tubing disposed within the production tubing and extending into a fluid accumulation zone, the production inhibiting fluid tubing defining a fluid communication path substantially from a fluid accumulation zone in the well to the surface; a submergible pump coupled to the production inhibiting fluid tubing and disposed within the fluid accumulation zone, the submergible pump intaking production inhibiting fluid for removal from the well; and a plurality of sensors including a first sensor and a second sensor, the first sensor positioned nearer the surface than the second sensor, wherein the plurality of sensors are used to sense a presence of the production inhibiting fluid. 43. The system as recited in claim 42 wherein the first and second sensors control the operational state of the submergible pump. 44. The system as recited in claim 42 wherein the first and second sensors are chosen from the group consisting of density sensors, conductivity sensors, pressure sensors and temperature sensors. 45. The system as recited in claim 42 wherein the first and second sensors communicate with the surface by way of a communication line embedded in the production inhibiting fluid tubing. 46. A submergible pump assembly for removing a production inhibiting fluid from a well, comprising: a production tubing defining a fluid communication path for gas production; a production inhibiting fluid tubing disposed within the production tubing and extending into a fluid accumulation zone, the production inhibiting fluid tubing defining a fluid communication path substantially from the fluid accumulation zone in the well to the surface; a submergible pump coupled to the production inhibiting fluid tubing and disposed within the fluid accumulation zone, the submergible pump intaking production inhibiting fluid for removal from the well; and a plurality of sensors coupled to the production inhibiting fluid tubing and positioned nearer the surface than the submergible pump, the plurality of sensors used to sense the presence of the production inhibiting fluid. 47. The submergible pump assembly as recited in claim 46 wherein the plurality of sensors controls the operational state of the submergible pump. 48. The submergible pump assembly as recited in claim 46 wherein the plurality of sensors is selected from the group consisting of density sensors, conductivity sensors, pressure sensors and temperature sensors. 49. The submergible pump assembly as recited in claim 46 wherein the plurality of sensors communicates with the surface by way of a communication line embedded in the production inhibiting fluid tubing.