Automated spooling control system using stochastic inference
A system and method that is configured to automatically control a spooling of a drum of a deployment unit used in hydrocarbon recovery operations. The method may comprise obtaining data related to a sensor and measurements system connected to the deployment unit. Processing the data obtained by the sensor and measurements system in a processing unit that makes a stochastic inference. Controlling an auto spooling of the drum of the deployment unit through an auto-spooling controller connected to the deployment unit based upon the stochastic inference.
1. A system for automated spooling of a deployment unit, comprising:
a sensor and measurement system configured to measure a drum rotation, an elongated member length, an elongated member speed, a spooling pressure, an elongated member guide angle, an axle angle and a tension in an elongated member of the deployment unit;
a data driven system identification system configured to accept and process data related to winch parameters, spooling guide parameters, truck parameters, and site parameters;
a spooling guide interface configured to receive and process the measurements from the sensor and measurement system;
a stochastic inference system configured to receive the processed measurements from the spooling guide interface to calculate an elongated member position, a layer direction, a fleet angle, and a radius; and
an auto-spooling controller connected to the deployment unit and the data driven system identification system, wherein the auto-spooling controller is configured to interface with the stochastic inference system and control the deployment unit, and the auto-spooling controller is configured to control actions of the deployment unit based upon a processing of data from the sensor and measurement system, the stochastic inference system, the spooling guide interface, and the data driven system identification system.
2. The system according to claim 1 , further comprising:
an orchestration system connected to the deployment unit and configured to alter at least one function of the deployment unit; and
an anomaly detection and health monitoring system connected to the auto-spooling controller, wherein the anomaly detection and health monitoring system is configured to identify an anomaly and send data to the orchestration system.
3. The system according to claim 2 , wherein the orchestration system is further configured to vary at least one mechanical function of the deployment unit based upon a health monitoring command generated by the anomaly detection and health monitoring system.
4. The system according to claim 3 , wherein the varying of at least one mechanical function of the deployment unit is through at least one of an actional insight and a failure preventative correction message.
5. The system according to claim 1 , wherein the sensor and measurement system includes a computer vision system.
6. The system according to claim 2 , wherein the anomaly detection and health monitoring system is configured with a computer vision system.
7. The system according to claim 6 , further comprising a Bayesian inference system within the anomaly detection and health monitoring system.
8. The system according to claim 7 , further comprising an arm angle controller.
9. The system according to claim 8 , wherein the arm angle controller is configured with at least one of a feedforward friction observer, a pulse width modulation system and an active disturbance rejection system.