Rotating jetting device and associated methods to enhance oil and gas recovery

Abstract

Disclosed are a method, device and/or a system of rotating jetting device and associated methods to enhance oil and gas recovery. In one aspect, a jetting device includes a motor gearbox inside the jetting device, a central processing system coupled to the motor gearbox, a transducer assembly coupled with the motor gearbox and the central processing system, and a top assembly. The top assembly is electromechanically coupled with the motor gearbox, the transducer assembly, and the central processing system and causes the jetting device to rotate based on the set of instructions received from the central processing system.

What is claimed is: 
     
         1 . A jetting device, comprising:
 a motor gearbox inside the jetting device to cause the jetting device to rotate based on a set of instructions;   a central processing system coupled to the motor gearbox;   a transducer assembly coupled with the motor gearbox and the central processing system; and   a top assembly to electromechanically couple with the motor gearbox, the transducer assembly, and the central processing system and to cause the jetting device to rotate based on the set of instructions received from the central processing system.   
     
     
         2 . The jetting device of  claim 1 :
 wherein a rotation of the jetting device is controlled precisely to a nearest one degree while the jetting device is still at a target depth in a wellbore based on a programming of the central processing system through at least one a command from an above ground computing system communicated to the jetting device while still inserted in the wellbore and a pre-programmed script automatically executed while the jetting device is inside the wellbore.   
     
     
         3 . The jetting device of  claim 2 :
 wherein the pre-programmed script is automatically overridden utilizing a pressure pulse technology in which a pressure signal is transmitted to the jetting device while it is downhole in the wellbore at the target depth to cause the jetting device to rotate.   
     
     
         4 . The jetting device of  claim 2 :
 wherein the jetting device to automatically align to a pre-made casing exit in the wellbore at the target depth to reach a formation encompassing the wellbore.   
     
     
         5 . The jetting device of  claim 4 :
 wherein a pumping liquid is passed using a jetting hose having a nozzle through the pre-made casing exit to cause the jetting hose to cut up to a 100 meter lateral tunnel perpendicular to the wellbore using the nozzle.   
     
     
         6 . The jetting device of  claim 5 :
 wherein the jetting device to automatically rotate to the next casing exit while at the target depth and to cut up to eight lateral tunnels at the target depth through additional pre-made casing exits at the target depth.   
     
     
         7 . The jetting device of  claim 2 :
 wherein the rotation of the jetting device is programmed wirelessly from the above ground computing system through a wireless network between the jetting device and the above ground computing system,   wherein at least one of a temperature data and a pressure data is captured using the transducer assembly at the target depth, and   wherein the temperature data and the pressure data is at least one stored locally on a storage device of the central processing unit and wirelessly communicated to the above ground computing system.   
     
     
         8 . A method, comprising:
 programming a rotation of a jetting device using a central processing system coupled with the jetting device through at least one a command from an above ground computing system communicated to the jetting device while the jetting device is still inserted in a wellbore and a pre-programmed script automatically executed while the jetting device is inside the wellbore;   causing a motor gearbox inside the jetting device to induce the rotation of the jetting device while the jetting device is downhole in the wellbore based on the programming of the rotation of the jetting device using a processor and a memory of the central processing system coupled with the jetting device through at least one of the command from the above ground computing system communicated to the jetting device while the jetting device is still inserted in the wellbore and the preprogrammed script automatically executed while the jetting device is inside the wellbore, and
 wherein the programming is controlling precisely to a nearest one degree while the jetting device is still at a target depth in the wellbore. 
   
     
     
         9 . The method of  claim 8  further comprising:
 automatically overriding the preprogrammed script utilizing a pressure pulse technology in which a pressure signal is transmitted to the jetting device while it is downhole in the wellbore at the target depth to cause the jetting device to rotate. 
 
     
     
         10 . The method of  claim 8  further comprising:
 automatically aligning the jetting device to a pre-made casing exit in the wellbore at the target depth to reach a formation encompassing the wellbore. 
 
     
     
         11 . The method of  claim 10  further comprising:
 channeling a pumping liquid using a jetting hose having a nozzle through the pre-made casing exit to cause the jetting hose to cut up to a 100 meter lateral tunnel perpendicular to the wellbore using the nozzle. 
 
     
     
         12 . The method of  claim 11 :
 automatically rotating the jetting device to the next casing exit while at the target depth and to cut up any number of lateral tunnels at the target depth through additional pre-made casing exits at the target depth.   
     
     
         13 . The method of  claim 8  further comprising:
 capturing at least one of a temperature data and a pressure data using a transducer assembly at the target depth; 
 programming wirelessly the rotation of the jetting device from the above ground computing system through a wireless network between the jetting device and the above ground computing system; and 
 communicating the temperature data and the pressure data to at least one of the central processing unit and the above ground computing system through at least one of the central computing system after the jetting device is removed from the wellbore, and in real time through the wireless network communicating directly to the above ground computing system. 
 
     
     
         14 . A jetting device, comprising:
 a motor gearbox inside the jetting device to cause the jetting device to rotate based on a set of instructions while inside a wellbore at a target depth;   a central processing system coupled to the motor gearbox;   a transducer assembly coupled with the motor gearbox and the central processing system to capture at least one of a temperature data and a pressure data at the target depth inside the wellbore; and   a top assembly to electromechanically couple with the motor gearbox, the transducer assembly, and the central processing system and to cause the jetting device to rotate based on the set of instructions received from the central processing system.   
     
     
         15 . The jetting device of  claim 14 ,
 wherein a rotation of the jetting device is controlled precisely to a nearest one degree while the jetting device is still at the target depth in the wellbore based on a programming of the central processing system through at least one a command from an above ground computing system communicated to the jetting device while still inserted in the wellbore and a pre-programmed script automatically executed while the jetting device is inside the wellbore.   
     
     
         16 . The jetting device of  claim 15 :
 wherein the pre-programmed script is automatically overridden utilizing a pressure pulse technology in which a pressure signal is transmitted to the jetting device while it is downhole in the wellbore at the target depth to cause the jetting device to rotate.   
     
     
         17 . The jetting device of  claim 15 :
 wherein the jetting device to automatically align to a pre-made casing exit in the wellbore at the target depth to reach a formation encompassing the wellbore.   
     
     
         18 . The jetting device of  claim 17 :
 wherein a pumping liquid is passed using a jetting hose having a nozzle through the pre-made casing exit to cause the jetting hose to cut up to a 100 meter lateral tunnel perpendicular to the wellbore using the nozzle.   
     
     
         19 . The jetting device of  claim 18 :
 wherein the jetting device to automatically rotate to the next casing exit while at the target depth and to cut up to eight lateral tunnels at the target depth through additional pre-made casing exits at the target depth.   
     
     
         20 . The jetting device of  claim 15 :
 wherein the rotation of the jetting device is programmed wirelessly from the above ground computing system through a wireless network between the jetting device and the above ground computing system, and   wherein the temperature data and the pressure data is at least one stored locally on a storage device of the central processing unit and wirelessly communicated to the above ground computing system.