Stimulation using fiber-derived information and fracturing modeling

1. A method for performing a fracturing operation in a subterranean formation of a field, comprising:

determining a maximum achievable performance metric for the fracturing operation using a fracturing model;

obtaining, during the fracturing operation, distributed optical fiber data from downhole optical fiber sensors of a treatment well in the subterranean formation, wherein the distributed optical fiber data comprise vibration measurement data and temperature measurement data;

determining, during the fracturing operation and based on the distributed optical fiber data indicating vibration spikes and a cooling effect, an active perforation location and an inactive perforation location from a plurality of pre-determined perforation locations of the treatment well;

generating, during the fracturing operation and based at least on the active perforation local, a revised fracturing model for the subterranean formation;

performing, during the fracturing operation and based on the revised fracturing model, modeling of the fracturing operation to generate a performance metric;

deciding, during the fracturing operation, to formulate a diversion pill operation for activation of the inactive perforation location based on a comparison of the performance metric to the maximum achievable performance metric;

generating, during the fracturing operation and based at least on the active perforation location, the inactive perforation location and the diversion pill operation, a projected fracturing model for the subterranean formation;

performing, during the fracturing operation, based on the projected fracturing model, modeling of the fracturing operation to generate a projected performance metric; and

deciding, during the fracturing operation, to perform the diversion pill operation based on a comparison of the projected performance metric and one or more of the performance metric and the maximum achievable performance metric.

2. The method of claim 1 , further comprising:

determining, based at least on the distributed optical fiber data, a micro-seismic event location of the fracturing operation.

3. The method of claim 2 , further comprising:

obtaining, during the fracturing operation, monitoring well data from at least one downhole sensor of a monitoring well in the subterranean formation, wherein determining the micro-seismic event location is further based on the monitoring well data.

4. The method of claim 3 , wherein the monitoring well data comprise distributed acoustic data and distributed temperature data.

5. The method of claim 1 , further comprising:

injecting, during a first stage of the fracturing operation, fluid into the subterranean formation, wherein generating the projected performance metric is within a pre-determined time period from injecting the fluid during the first stage;

generating, subsequent to the first stage, a control signal based on the projected performance metric; and

performing a second stage, subsequent to the first stage, of the fracturing operation based on the control signal.

6. The method of claim 1 , wherein the fracturing model comprises a single-well template, a discrete fracture network and a three-dimensional mechanical earth model.

7. A system comprising:

a computer processor;

memory storing instructions executed by the computer processor, wherein the instructions comprise functionality to:

determine a maximum achievable performance metric for a fracturing operation using a fracturing model;

obtain, during the fracturing operation, distributed optical fiber data from downhole optical fiber sensors of a treatment well in the subterranean formation, wherein the distributed optical fiber data comprise vibration measurement data and temperature measurement data;

determine, during the fracturing operation and based on the distributed optical fiber data indicating vibration spikes and a cooling effect, an active perforation location and an inactive perforation location from a plurality of pre-determined perforation locations of the treatment well;

generate, during the fracturing operation and based at least on the active perforation local, a revised fracturing model for the subterranean formation;

perform, during the fracturing operation and based on the revised fracturing model, modeling of the fracturing operation to generate a performance metric;

decide, during the fracturing operation, to formulate a diversion pill operation for activation of the inactive perforation location based on a comparison of the performance metric to the maximum achievable performance metric;

generate, during the fracturing operation and based at least on the active perforation location, the inactive perforation location and the diversion pill operation, a projected fracturing model for the subterranean formation;

perform, during the fracturing operation, based on the projected fracturing model, modeling of the fracturing operation to generate a projected performance metric; and

decide, during the fracturing operation, to perform the diversion pill operation based on a comparison of the projected performance metric and one or more of the performance metric and the maximum achievable performance metric.

8. The system of claim 7 , wherein the fracturing model comprises a single-well template, a discrete fracture network and a three-dimensional mechanical earth model.

9. One or more non-transitory computer-readable storage media that comprise program code executable by a computing system to:

determine a maximum achievable performance metric for a fracturing operation using a fracturing model;

obtain, during the fracturing operation, distributed optical fiber data from downhole optical fiber sensors of a treatment well in the subterranean formation, wherein the distributed optical fiber data comprise vibration measurement data and temperature measurement data;

determine, during the fracturing operation and based on the distributed optical fiber data indicating vibration spikes and a cooling effect, an active perforation location and an inactive perforation location from a plurality of pre-determined perforation locations of the treatment well;

generate, during the fracturing operation and based at least on the active perforation local, a revised fracturing model for the subterranean formation;

perform, during the fracturing operation and based on the revised fracturing model, modeling of the fracturing operation to generate a performance metric;

decide, during the fracturing operation, to formulate a diversion pill operation for activation of the inactive perforation location based on a comparison of the performance metric to the maximum achievable performance metric;

generate, during the fracturing operation and based at least on the active perforation location, the inactive perforation location and the diversion pill operation, a projected fracturing model for the subterranean formation;

perform, during the fracturing operation, based on the projected fracturing model, modeling of the fracturing operation to generate a projected performance metric; and

decide, during the fracturing operation, to perform the diversion pill operation based on a comparison of the projected performance metric and one or more of the performance metric and the maximum achievable performance metric.

10. The one or more non-transitory computer-readable storage media of claim 9 , wherein the fracturing model comprises a single-well template, a discrete fracture network and a three-dimensional mechanical earth model.