Schematic of the actual failure cross-sectional area. by Hong Zhang (25820)

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Schematic for measuring <i>D</i> and <i>D</i>′ values. by Hong Zhang (25820)

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Specimen <i>D</i> ranges at different allowable relative deviations (<i>w</i>₂, in %). by Hong Zhang (25820)

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Histogram of the area factorψ. by Hong Zhang (25820)

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Statistical results for <i>I</i>_s, Δ<i>D</i>, and <i>α</i> after outlier removal. by Hong Zhang (25820)

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Point load strength apparatus: (a) before modification; (b) after modification. by Hong Zhang (25820)

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Schematic of calculation for the point load strength. by Hong Zhang (25820)

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Statistical parameters from three calculation methods. by Hong Zhang (25820)

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Histograms of <i>I</i>_s and Δ<i>D.</i> by Hong Zhang (25820)

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Dimensions and test results for compressive and tensile strength specimens. by Hong Zhang (25820)

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Raw dataset Fig. 6. by Hong Zhang (25820)

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The Date. by Chengyuan Hao (21615653)

“…Secondly, the daily minimum and maximum temperatures increased significantly, which were 0.395°C/10a and 0.200°C/10a respectively<b>—</b>less than the national mean. …”

Mann-Kendall test for the mean temperature index. by Chengyuan Hao (21615653)

“…Secondly, the daily minimum and maximum temperatures increased significantly, which were 0.395°C/10a and 0.200°C/10a respectively<b>—</b>less than the national mean. …”

Variation curve of the extreme temperature index. by Chengyuan Hao (21615653)

“…Secondly, the daily minimum and maximum temperatures increased significantly, which were 0.395°C/10a and 0.200°C/10a respectively<b>—</b>less than the national mean. …”

Fluctuation trend of the mean temperature index. by Chengyuan Hao (21615653)

“…Secondly, the daily minimum and maximum temperatures increased significantly, which were 0.395°C/10a and 0.200°C/10a respectively<b>—</b>less than the national mean. …”

Variation curve of the mean temperature index. by Chengyuan Hao (21615653)

“…Secondly, the daily minimum and maximum temperatures increased significantly, which were 0.395°C/10a and 0.200°C/10a respectively<b>—</b>less than the national mean. …”

Hydrate-Based Gas Storage Made Greener: Methane Hydrate Formation Enhancement with a Low-Toxicity Promoter by Katipot Inkong (7979942)

“…The results indicate that the presence of SDS and amino acids reduces the induction time and slightly enhances the hydrate formation rate. Moreover, SDS significantly improves the final gas uptake, resembling the hydrate formation observed with THF. …”

Hydrate-Based Gas Storage Made Greener: Methane Hydrate Formation Enhancement with a Low-Toxicity Promoter by Katipot Inkong (7979942)

“…The results indicate that the presence of SDS and amino acids reduces the induction time and slightly enhances the hydrate formation rate. Moreover, SDS significantly improves the final gas uptake, resembling the hydrate formation observed with THF. …”

Hydrate-Based Gas Storage Made Greener: Methane Hydrate Formation Enhancement with a Low-Toxicity Promoter by Katipot Inkong (7979942)

“…The results indicate that the presence of SDS and amino acids reduces the induction time and slightly enhances the hydrate formation rate. Moreover, SDS significantly improves the final gas uptake, resembling the hydrate formation observed with THF. …”

Hydrate-Based Gas Storage Made Greener: Methane Hydrate Formation Enhancement with a Low-Toxicity Promoter by Katipot Inkong (7979942)

“…The results indicate that the presence of SDS and amino acids reduces the induction time and slightly enhances the hydrate formation rate. Moreover, SDS significantly improves the final gas uptake, resembling the hydrate formation observed with THF. …”