[1] Hubbert M. K. & Willis D. G. (1957): Mechanics of Hydraulic Fracturing. SPE 4597 Vol. 20. 6 Oct. L.A.
[2] Sampath, M., Perera, A., Ranjith, G., (2018): Theoretical overview of hydraulic fracturing break-down pressure. Journal of Natural Gas Science and Engineering. Vol. 58, P.: 251-265.
[3] Kiss A, Fruhwirth R., Pongratz R., Maerr R. (2018): Formation Breakdown Pressure Prediction with Artificial Neural Networks. SPE paper191391-18IHFT-MS.18 Oct. Muscat.
[4] AlTammar, Sharma M., (2018): Effect of Borehole Pressurization Scheme on Breakdown Pressure. Journal of Rock Mechanics and Rock Engineering. Vol. 52, Iss. 8, P.: 2709-2715.
[5] Cheng Y., Zhang Y., Yu Z., Hu Z., (2021): Experimental & Numerical Studies on HF Characteristics With Different Injection Rates in Granite Geothermal. Energy Science & Engineering. Vol. 9, Iss. 1, P.:142-168.
[6] Bergsaker A., Røyne A., Ougier J., F. Renard, (2016): The effect of fluid composition, salinity, and acidity on subcritical crack growth in calcite crystals. J. Geophysical Research: Solid Earth, Vol. 121, P.: 1631–1651.
[7] Israelachvili J, (2011): Intermolecular and surface forces. Academic Press, New York City.
[8] Gutierrez M, Høeg K., (2000): The Effect of Fluid Content on the Mechanical Behaviour of Fractures in Chalk. Journal of Rock Mechanics and Rock Engineering. Vol. 33, Iss. 2, P.: 93–117.
[9] Risnes, R., (2001): Deformation and Yield in High Porosity Outcrop Chalk. Physics and Chemistry of the Earth, Part A: Solid Earth and Geodesy. Vol. 26, Iss. 1–2, P.: 53-57.
[10] Rostom, F., A. Røyne, D. K. Dysthe, and F. Renard (2013), Effect of fluid salinity on subcritical crack propagation in calcite. Journal of Tectonophysics, Vol. 583, P.: 68-75.
[11] Mahani H., Levy K. A., Berg S., Bartels W., Nasralla R., Rossen W., (2015): Insights into the Mechanism of Wettability Alteration by Low-Salinity Flooding (LSF) in Carbonates. Energy Fuels, Vol. 29, Iss. 3, P.: 1352–1367.
[12] Megawati M., Hiorth A., Madland M. V., (2013): The impact of surface charge on the mechanical behavior of high-porosity chalk. Rock Mech. Rock Eng. Vol. 46, Iss. 5, P.:1073–1090.
[13] Sachdeva J., Nermoen A., Reidar I., Korsnes, Madland V., (2020): Effect of Initial Wettability on Rock Mechanics and Oil Recovery: Comparative Study on Outcrop Chalks. Transport in Porous Media, Vol. 133, P: 85-117.
[14] Strand, S., Høgnesen, E.J., Austad, T., (2006b): Wettability Alteration of Carbonates—Effects of Potential Determining Ions (Ca2+ and SO42-) and Temperature. Colloids and Surfaces A: Physicochemical and Engineering Aspects, Vol. 275, Iss. 1–3, 1, P.: 1-10.
[15] Meireles L., Storebø E., Welch M., Fabricius I., (2021): Water weakening of soft and stiff outcrop chalk induced by electrical double layer disjoining pressure. International Journal of Rock Mechanics and Mining Sciences, Vol. 141, ISSN 1365-1609.
[16] Alshakhs M.J., Kovscek A.R., (2015): Understanding the Role of Brine Ionic Comp. on Oil Recovery by Assessment of Wettability from Colloidal Forces. Adv Colloid Interface Sci. Vol. 233, Epub, P.: 126-138.
[17] Zoback M., (2010-2007): Reservoir Geomechanics. ISBN-978-0-521-77069-9. Page 65-69.
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