[1] Kang Y., Zhu R., Liu K., Zhang J., Zhang S., "Detrital and authigenic clay minerals in shales: A review on their identification and applications", Heliyon 10 (2024) e39239.
[2] Ali Khoudja S.A. Chellat S., Hacini M., "
Petrography and authigenic chlorite in the Siegenian reservoir rocks, Berkine Basin, eastern Algerian Sahara", Arabian Journal Geoscience 13 (16) (2020)
https://doi.org/10.1007/s12517-020-05759-z.
[3] Wilson M.D., Pittman E.D., "Authigenic clays in sandstones: Recognition and influence on reservoir properties and paleo-environmental analysis", Journal of Sedimentology
Petrology 47 (1977) 3-31.
[4]
Naderizadeh, Z.,
Hossein Khademi, H.,
Ayoubi, S.,
Zolfi Bavariani, M., "
Distribution of palygorskite and associated clay minerals in the Cenozoic rocks of the Bushehr Province", Crystallography and Mineralogy of Iran 31(3) (2023) 523-536. (in persian).
[5] Do Campo M., Bauluz B., del Papa C., "
Evidence of cyclic climatic changes recorded in clay mineral assemblages from a continental Paleocene-Eocene sequence, northwestern Argentina", Sedimentary Geology 368 (2018) 44–57,
https://doi.org/10.1016/j.sedgeo.2018.03.007.
[6] Nasiri Y., Moussavi-Harami R., Mahboubi A, Bayet-Goll A., "Deep Marine Trace Fossil Assemblages and their Palaeo- Environmental Significance from the Paleocene Amiran Formation in SW Lorestan", Geosciences journal (Stratigraphy & Sedimentology) 22 (86) (2012) 229-244. Doi: 10.22071/gsj.2012.54091. (in persian).
[7] Nasiri Y., Mahboubi A, Moussavi-Harami R, Khazaei A.R., Yousefi B., "Reconstruction of The sedimentary environment of siliciclastic – carbonate sediments of Amiran Formation (Upper Cretaceous – Paleocene) in SW Lorestan", Iranian Journal of Geology 27 (2013) 74-55. (in persian).
[8] Bayet-Goll A., Neto De Carvalho C., Mahboubi A, Moussavi-Harami R, Nasiri Y., "Depositional environments and ichnology of the deep-marine succession of the Amiran Formation (upper Maastrichtian–Paleocene), Lurestan Province, Zagros Fold– Thrust Belt, Iran", Palaeogeography, Palaeoclimatology, Palaeoecology 401 (2014) 13–42.
[9] Nasiri Y., Taghdisi Nikbakht S., Sedaghatnia M., Moussavi-Harami R., Mahboubi A., "Analysis of diagenesis systems of carbonate units of Amiran Formation (Upper Maastrichtian-Paleocene) based on petrographic and elemental geochemistry studies, Folded Zagros, south-western Lorestan", Applied Sedimentology (2024) Doi: 10.22084/psj.2024.29865.1452. (in persian)
[10] Alavi M., "Regional stratigraphy of the Zagros fold-thrust belt of Iran and its proforeland evolution", American Journal of Science 304 (2004) 1-20.
[11] Moore D.M., Reynolds R.C., "X-ray diffraction and Identification and Analysis of Clay Minerals", Oxford University Press, New York, (1997) 378 p.
[12] Kunze C.W., "Pretreatment for mineralogical analysis", in: Methods of soil analysis, Black C.A et al, American Society of Agronomy mc (1965) pp 568-577.
[13] Tucker M.E., "Sedimentary Petrology". 3rd edition, Blackwell Science Ltd (2001) 262 p.
[14] McMahon P.B., Chapelle F.H., Falls W.F., Bradley P.M., "Role of microbial processes in linking sandstone diagenesis with organic rich clays", Journal of Sedimentary Petrology (1992) 62: 1–10.
[15] Wunderlin C.A., Collo G., Ezpeleta M., "
Authigenic and detrital clay minerals as indicators of paleoenvironmental and postdepositional evolution in a
Cretaceous–Cenozoic succession from Argentine Central Andes", Sedimentary Geology 437 (2022) 106179,
https://doi.org/10.1016/j.sedgeo.2022.106179.
[16] Rafiei M., Lohr S., Baldermann A., "
Quantitative petrographic differentiation of detrital vs diagenetic clay minerals in marine sedimentary sequences: implications for the rise of biotic soils", Precambrian Research 350 (2020) 16,
https://doi.org/10.1016/j.precamres.2020.105948.
[17] Worden R.H., Griffiths J., Wooldridge L.J., Chlorite in sandstones, Earth Science Review 204 (2020) 103105, https://doi.org/10.1016/j.
earscirev.2020.103105.
[18] Khormali F., Abtahi A., Owliaie H.R., "Late Mesozoic- Cenozoic clay of southern Iran and their palaeoclimatic implications", Clay Minerals 40 (2005) 191-203.
[19] Vail P.R., Mitchem R.M., Thmpson S., "Seismic stratigraphy and global change of sea-level. In: C. E. Payton (Ed.), Seismic stratigraphy-applications to hydrocarbon exploration", American Association of Petroleum Geologist, Memoir 26 (1977) 83-97.
[20] Trombetta M.C., Guadagnin F., Kumaira S., Caron F., Gonçalves G., "Composition and diagenesis of Neoproterozoic Guaritas Group sandstones in the Minas do Camaquã fault zone, Camaquã Basin", Journal of South American Earth Sciences, (2019) .
https:// oi.org/10.1016/j.jsames.2018.12.003.
[21] Oliveira R.S., Truckenbrodt W., "Provenance and diagenesis of Guamá Sandstone, northeastern Pará, Brazil: A Silurian link between the Amazonas and Parnaíba basins", Journal of South American Earth Sciences 90 (2019) 265-281.
[22] Zhang H., Peng J., Lin X., Li B., Xia Q., "Diagenesis and its controlling factors of Lower Donghetang Formation tight sandstone reservoir in Bachu area, Tarim Basin, China", Geosciences Journal 22 (2) (2018) 327- 336.
[23] Xie W.D., Chen S., Vandeginste V., "
Review of the effect of diagenetic evolution of shale reservoir on the pore structure and adsorption capacity of clay minerals", Energy & Fuels 36 (9) (2022) 4728–4745,
https://doi.org/10.1021/acs.energyfuels.2c00675.
[24] Zhu H., Huang C., Ju Y., "
Multi-scale multi-dimensional characterization of clay-hosted pore networks of shale using FIBSEM, TEM, and X-ray microtomography: implications for methane storage and migration", Apply Clay Science 213 (2021) 106239,
https://doi.org/10.1016/j.clay.2021.106239.
[25] Worden R.H., Morad S., "Clay minerals in sandstones: Controls on formation,
distribution and evolution, in Worden, R.H. and Morad, S. (Eds.), Clay Mineral Cements
in Sandstones", International Association of Sedimentologists, Special Publication, 34 (2003)
3–41.
[26] El-ghalia M.A.K., Morada S., Mansurbega H., Cajae M.A., Siratd M., Ogle N., "Diagenetic alterations related to marine transgression and regression in fluvial and shallow marine sandstones of the Triassic Buntsandstein and Keuper sequence, the Paris Basin, France", Marine and Petroleum Geology 26 (2009) 289–309.
[27] Han S., Lӧhr S.C., Abbott A.N., "
Authigenic clay mineral evidence for restricted, evaporitic conditions during the emergence of the Ediacaran Doushantuo
Biota", Communications Earth & Environment 3 (1) (2022) 165,
https://doi.org/10.1038/s43247-022-00495-6.
[28] Boles J.R., Franks S.G., "Clay diagenesis in Wilcox sandstone of southwest Texas: implications of smectite diagenesis on sandstone cementation", Journal of Sedimentary Petrology, 49 (1979) 55-70.
[29] Curtis C.D., Hughes C.R., Whiteman J.A., Whittle C.K., "Compositional variation within some sedimentary chlorites and some comments on their origin", Mineralogical Magazine, 49 (1985) 375-386.
[30] Karim A., Pe-piper G., & Piper D.J.W., "Controls on diagenesis of Lower Cretaceous reservoir sandstones in the western Sable Subbasin, offshore Nova Scotia", Sedimentary Geology, 224 (2010) 65-83.
[31] Muhammad Wafid A.N., Heri Hermiyanto Z, Hermawan W., & Ronaldo I., "Clay Mineral Characteristics of the Damar Formation in the Southern Part of the Coastal Area of Semarang and Kendal, Central Java", Jurnal Geologi dan Sumberdaya Mineral, 26(3), (2025) 197-210.
[32] Zhao X., Zhang Y., & Liu Q., "Potassium ion roles in illite interlayer bonding and diagenetic
transformations", Applied Clay Science, 214 (2023) 106557.
[33] Singh A., Verma S., & Kumar, P., "Clay mineralogical evolution in marine sediments: Focus on kaolinite-smectite associations", Marine Geology, 447 (2022) 106714
[34] Rigby S.P., & Himona E., "Methods of Pore Structural Characterisation of Sedimentary Rocks and Their Constituent Minerals", Minerals, 14(8) (2024) 756.
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