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A method and apparatus useful for fracturing subterranean formations with ultra high fluid pressure. The apparatus is capable of producing isolated pressure in a formation surrounding a primary wellbore, sufficient pressure is included within the formation for creating a fracture at the edge of the

A method and apparatus useful for fracturing subterranean formations with ultra high fluid pressure. The apparatus is capable of producing isolated pressure in a formation surrounding a primary wellbore, sufficient pressure is included within the formation for creating a fracture at the edge of the perforation. The apparatus is comprised of a motor, pump, and nozzle, where the entire apparatus can be disposed within the borehole. The apparatus can be conveyed within the borehole via wireline, coil tubing, slickline, or other tubing. Alternatively, a drill bit can be included for creating the perforation just prior to the fracturing procedure.

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What is claimed is: 1. A method of introducing a fluid into a subterranean formation comprising: deploying a pressurizing system within a wellbore on a wireline, wherein the pressurizing system comprises a housing, motor in the housing, a pump in the housing and coupled to the motor; sealing a regi

What is claimed is: 1. A method of introducing a fluid into a subterranean formation comprising: deploying a pressurizing system within a wellbore on a wireline, wherein the pressurizing system comprises a housing, motor in the housing, a pump in the housing and coupled to the motor; sealing a region of the wellbore; driving the pump by actuating the motor; pressurizing wellbore fluid within the wellbore with the pump; discharging the pressurized fluid into the sealed region of the wellbore; and pressurizing the sealed region of the wellbore with the discharge of pressurized fluid to fracture the subterranean formation. 2. The method of claim 1, wherein the pump pressurizes the fluid to at least about 1400 kilograms per square centimeter. 3. The method of claim 1, wherein the pump pressurizes the fluid to at least about 3515 kilograms per square centimeter. 4. The method of claim 1 wherein said pressurizing system further comprises an articulated arm in fluid communication with said pump, the articulated arm selectively extendable from within the housing. 5. The method of claim 4 further comprising actuating said pump with said motor, producing said pressurized fluid with said pump, and directing said pressurized fluid from said pump to said articulated arm. 6. The method of claim 5 further comprising forming a nozzle in fluid communication with said articulated arm adapted to form a pressurized fluid jet with the fluid received from said articulated arm. 7. The method of claim 6 further comprising inserting said arm into a lateral well section and directing said fluid jet exiting said nozzle within the lateral section. 8. The method of claim 1 wherein said zone is within a lateral wellbore. 9. The method of claim 1 further comprising anchoring said fluid pumping system within said wellbore. 10. The method of claim 1 wherein said zone is within a vertical wellbore. 11. A well fracturing system comprising: a housing disposable in the well; a wireline attached to the housing; a seal selectively set between the housing and the well, so that when the seal is set a sealed region is defined in the well; an electric motor in the housing; and a pump connected to the motor, the pump comprising; an inlet in fluid communication with wellbore fluid in the well; and a discharge in fluid communication with the sealed region and at a pressure at least as great as the pressure for fracturing a subterranean formation. 12. The well fracturing system of claim 11, further comprising an arm extendable from the system and into subterranean formation lateral to the wellbore and a nozzle in the arm having an inlet in fluid communication with said pressure source. 13. The well fracturing system of claim 11, further comprising an intensifier. 14. The well fracturing system of claim 11, wherein the pump discharge pressure is at least about 1400 kilograms per square centimeter to at least about 3515 kilograms per square centimeter. 15. The well fracturing system of claim 11, wherein the pump discharge pressure is at least about 3515 kilograms per square centimeter. 16. The well fracturing system of claim 11 further comprising an accumulator in fluid communication with the pump discharge. 17. A method of creating a fracture within a wellbore comprising: (a) providing a fracturing system comprising, a housing, an electric motor in the housing, a pump in the housing and coupled to the motor, a fluid inlet and outlet on the pump; (b) disposing the fracturing system within the wellbore on a wireline; (c) pressurizing fluid in the wellbore by driving the pump with the motor, receiving fluid in the wellbore at the pump inlet, pressurizing the fluid to a pressure sufficient to fracture a subterranean formation, and discharging pressurized fluid from the pump outlet; (d) storing said pressurized fluid in an accumulator; (e) discharging said stored pressurized fluid from the accumulator into the wellbore; and (f) fracturing a formation adjacent the wellbore with the pressurized fluid. 18. The method of claim 17 further comprising repeating steps (c)-(f). 19. The method of claim 17, wherein said fracturing system further comprises an articulated arm in fluid communication with said accumulator. 20. The method of claim 17, further comprising pressurizing said fluid to an ultrahigh pressure. 21. The method of claim 17 further comprising pressurizing fluid with said fluid pressurizing system to a pressure from about 1400 kilograms per square centimeter to at least about 3515 kilograms per square centimeter. 22. The method of claim 17 further comprising pressurizing fluid with said fluid pressurizing system to a pressure of at least about 3515 kilograms per square centimeter.