Developing a flow control system for a well

1. A method of developing a flow control system for use in a well, comprising:

using a multi-level approach to develop the flow control system, wherein the multi-level approach comprises:

setting goals for the flow control system;

according to the goals set, specifying an overall design of the flow control system; and

based on the specified overall design for the flow control system, simulating, by a computer, operation of the flow control system, wherein setting the goals is performed at a first level of the multi-level approach, wherein specifying the overall design for the flow control system is performed at a second level of the multi-level approach, and wherein simulating the operation of the flow control system is performed at a third level of the multi-level approach, wherein performing the third level of the multi-level approach further comprises receiving well parameters and retrieving a reservoir model according to the well parameters, and wherein simulating the operation is based on the retrieved reservoir model.

2. The method of claim 1 , wherein simulating the operation of the flow control system comprises specifying a target flow profile in the well and identifying a design specification of the flow control system based on the overall design to achieve the target flow profile.

3. The method of claim 1 , wherein simulating the operation of the flow control system comprises specifying a design specification of the flow control system based on the overall design and identifying a flow profile in the well that is achieved by the flow control system according to the specified design specification.

4. The method of claim 1 , further comprising:

selecting one of a forward problem and an inverse problem for performing the simulating;

wherein in response to selection of the forward problem, simulating the operation of the flow control system comprises specifying a design specification of the flow control system based on the overall design and identifying a flow profile in the well that is achieved by the flow control system according to the specified design specification; and

wherein in response to selection of the inverse problem, simulating the operation of the flow control system comprises specifying a target flow profile in the well and identify a design specification of the flow control system based on the overall design to achieve the target flow profile.

5. The method of claim 1 , wherein setting the goals comprises specifying an application for the flow control system, specifying compatibility of the flow control system with other devices of a completion system in which the flow control system is to be incorporated, and specifying a working envelope for the flow control system.

6. The method of claim 1 , wherein specifying the overall design comprises:

determining one or more of the following factors: whether the flow control system needs to be adjustable; whether sand control is needed; and whether the flow control system needs to be reactive to changing conditions in the well, and

wherein the overall design is specified in response to determining the one or more factors.

7. The method of claim 1 , further comprising:

determining whether simulation of the flow control system is part of a transient process; and

repeating the simulation after a time interval in response to determining that the simulation is part of a transient process.

8. A method of developing a flow control system for use in a well, comprising:

specifying an overall design of the flow control system according to preset goals;

selecting one of a forward problem and an inverse problem;

in response to the selecting, simulating, by a computer, operation of the flow control system in the well in one of two different manners according to which of the forward problem and the inverse problem is selected;

receiving well parameters obtained using a logging technique; and

selecting a reservoir model based on retrieved well parameters;

wherein the simulating is according to the selected reservoir model.

9. The method of claim 8 , wherein, if the forward problem is selected, simulating the operation of the flow control system comprises specifying a design specification for the flow control system, and identifying a flow profile in the well based on the simulating, and

wherein, if the inverse problem is selected, simulating the operation of the flow control system comprises specifying a flow profile for the well and identifying a design specification of the flow control system based on simulating the operation of the flow control system for the specified flow profile.

10. The method of claim 9 , wherein the identified flow profile or specified flow profile specifies flow rates and pressure drops in respective zones of the well.

11. The method of claim 8 , wherein specifying the overall design of the flow control system comprises specifying the overall design of the flow control system that is based on determining whether the flow control system needs to be adjustable, determining whether sand control is needed, and determining whether the flow control system has to be reactive to changing well conditions.

12. The method of claim 11 , wherein specifying the overall design of the flow control system is further based on determining whether erosion resistance is desirable, a target reliability of the flow control system, and the target manufacturability of the flow control system.

13. The method of claim 8 , further comprising:

detecting whether the well parameters have changed; and

in response to detecting the change in well parameters, repeating the simulating.

14. The method of claim 13 , wherein detecting that the well parameters have changed is based on feedback data provided by one of a test job and an actual job in the well.

15. The method of claim 8 , wherein the flow control system comprises plural flow control devices.

16. The method of claim 1 , wherein the flow control system comprises plural flow control devices.