Table 2 The effect of different parameters on wettability changes in the presence of hydrogen.

From: Interfacial tension and wettability alteration during hydrogen and carbon dioxide storage in depleted gas reservoirs

References

Temperature (K)

Pressure (MPa)

Mixture(s)

Findings

Iglauer et al.122

296–343

0.1–25

H2

Increase in hydrogen wettability with all three parameters

Al-Yaseri and Jha123

323

5, 10, 15, and 20

H2

Maintaining the strong water-wet properties of basalt

Ali et al.124

323

0.1, 15, and 25

H2

Decrease water-wettability in the presence of long-chain organic acids

Hosseini et al.125

298–353

0.1–20

H2

Decrease in water wettability with pressure

increasing the contact angle of water with stearic acid concentration

increasing the contact angle with salinity and tilting plate angle

decreasing the contact angle with the temperature

Hosseini et al.126

308–343

5–20

H2

Reduction of water wettability by pressure temperature and organic acids

Al-Mukainah et al.127

323.15

0.1–6.89

H2

Reduction of contact angle with pressure

greater wettability change in shale with higher TOC

Zeng et al.130

396, 323, 343

0.1–25

H2

Insignificant effect of temperature and pressure on wettability

increase in the contact angle of water with an increase in organic acid concentration

Hashemi et al.131

303.15 and 323.15

2, 5, 7, 10

CH4 + 0 to 80% H2

No dependence between salinity, pressure, and temperature with the contact angle

Pure H2 and pure N2 and the mixture had similar wettability states (strongly water-wet)

Liu et al.128

310.15

3.5

H2

Decreased water wettability in samples containing bacteria

Hosseini et al.129

298 and 323

0.1 and 8.27

H2

Increasing the contact angle by increasing the carbon number

Increase water wettability by using nanofluids