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Multi-phase reaction engineering and specifically process intensification procedures provide visibly high percentages of lesser energy consumption rate and chemical production costs from both bulk and distributed feedstock. By terminal intensification process, the potential of shale gas for enhancing multiphase reaction engineering technologies also allows significant reduction in the carbon footprint excreted through energy generation fuels and chemical sources. In this research, the flow through various porous domains is investigated as it is of significant concern in many natural and developed zones. This research article enlists a porous medium case study w.r.t to the diameter variations and challenges in multi-phase flow modeling (mfm) for accessing efficient energy resources, analyze latest methods available in the engineering science for acquiring effective and better results by converting energy resources into fuels, chemicals and synthetic concoctions. At the end, this research work concludes with the results of showing enhanced performance rates in porous medium by defining the diameter range over porosity limit and it found to be maximum at 0.4 and -0.6 for 0.3 and 0.8 of porosity limit respectively.

Trends in Complex Multiphase Flow Modeling for Effective Fuel Energy Acquisition