Fig. 2 Variables in unfractured domain in (a) MFE-FV, (b) fractured domain in MFE-DG, and (c) fracture intersection in FCFE. More

Fig. 7 Gas saturation for various grid refinements by the MFE-DG and FD methods: Example 3a; PV injection=0.66, p =110 bar. More

Fig. 9 Methane composition in gas phase for various grid refinements by the MFE-DG and FD methods: Example 3b; PV injection=0.37, p =191 bar. More

Fig. 11 Methane composition in gas phase for various grid refinements by the MFE-DG and FD methods: Example 4; PV injection=0.58. More

Fig. 13 Methane composition for various grid refinements by the MFE-DG and FD methods: Example 5a; PV injection=0.37 ( p =50 bar, T =397 K). More

Fig. 14 3D view of methane overall composition by the MFE-DG and FD methods: Example 5b; PV injection=0.37 ( p =40 bar, T =311 K). More

Fig. 15 Methane overall composition for various grid refinements by the MFE-DG and FD methods, data are extracted along the line y =2 m : Example 5b; PV injection=0.37 ( p =40 bar, T =311 K). More

Figure 2 Example 1: simulation results from MFE-DG with 256 elements. More

Figure 6 Methane composition in gas phase for various grid refinements by the MFE-DG and FD methods: Example 3, PV injection = 0.58 More

Figure 8 Methane composition in gas phase for various grid refinements by the MFE-DG and FD methods: Example 4, PV injection = 0.37 More

Figure 3 Decisions provided as input for the MFE and models that were agreed to be built at the event. Decicated models are built to address specific decisions, but organised in nested hierachy that ensures internal consistency in philosophy and approach to avoid conflicts and contradictions. Deci... More