Based on the theory of steady-state flow, Xiong et al. (2012) used the concept of pseudo-pressure to obtain the deliverability equation for predicting the performance of fractured vertical well in low-permeability gas reservoirs.
The incorporation of sodium 2-acrylamido-2-methylpropane sulphonic acid (NaAMPS) moieties into polyacrylamide (PAAm) can further improve the performance of fracturing fluids by addressing some compatibility issues related to the use of PHPAAm, e.g., the sensitivity to water salinity.
Thus, it is not simply the existence of an unequal flow split but the fact that the higher flow goes preferentially to the fracture with more channeling that accounts for the poorer performance of two fracture reservoirs compared with single fracture reservoirs.
The sensitivity analysis of primary parameters such as fluid viscosity, natural fracture distribution, fracture intersection angle, and differential stresses is implemented to provide a better insight into the performance of hydraulic fracturing jobs in naturally fractured reservoirs.
Based on the multilevel feature of a fractal fracture, FFM provides a convenient and effective method to calibrate the CRV in a monitoring area, demarcating the main fracture or fracture network for understanding the performance of hydraulic fracturing, including the monitoring events and the production.
This paper compares performance of induced fracture based on average values.
For better studying the performance of the fracture networks, analytical and numerical methods are applied.
The performance of ductile fracture criteria often depends on the accuracy of material constants identification.
That unpropped area can then close during production, damaging the performance of the fracture.
The biomechanical performance of internal fracture fixation depends on several factors.
