ispg-202609121920260912194447CMV Verlagkhoffmann@cmv-verlag.comCMV VerlagIranian Journal of Petroleum Geologyispg2251-873882220261529HamedAmraei822202611810.66224/ispg.50496.15.29.1http://journal.ispg.ir/en/Article/50496http://journal.ispg.ir/en/Article/Download/50496http://journal.ispg.ir/en/Article/Download/50496http://journal.ispg.ir/en/Article/Download/50496http://journal.ispg.ir/en/Article/Download/50496http://journal.ispg.ir/en/Article/Download/50496http://journal.ispg.ir/en/Article/Download/50496http://journal.ispg.ir/en/Article/Download/50496• سلیمانی، ب.، ساعدی، ق.، چرچی، ع.، سالاروند، ا، 1394. بررسی ویژگی شکستگی‌ها و نوع تخلخل در مخزن با استفاده از مقاطع نازک، توصیف مغزه، نمودارهایFMI و انحراف سرعت، فصلنامه علمی علوم زمین. • Anselmetti, F.S. and Eberli, G.P., 1999. The velocity-deviation log: A tool to predict pore type and permeability trends in carbonate drill holes from sonic and porosity or density logs. AAPG bulletin, 83(3), pp.450-466. • Aghanbati,A. 2004. "Geology of Iran", Tehran, Geological Survey, First Edition. • Liu, J., Min, X., Qi, Z., Yi, J. and Zhou, W., 2024. Lithology identification using electrical imaging logging image: A case study in Jiyang Depression, China. Journal of Applied Geophysics, 230, p.105536. • Khoshbakht, F., Rasaie, M.R., Shekarifard, A., 2016. Investigating Induction Log Response in the Presence of Natural Fractures. Journal of Petroleum Science and Engineering 145, 357-69. Rezaei, M. H. Chehrazi, A. 2010. "Principles of implementation and interpretation of well surveyors", Second Edition, Tehran University Press. • Motiei, E. 1993. "Geology of Iran, Zagros stratigraphy", Tehran, Geological Survey, First Edition. • Romiani, F., Saberi, M. H., Riahi, M. A. (2022). 'Investigation of fractures and in situ stresses using Formation Micro Imaging (FMI) in south-western Iranian hydrocarbon field', Advanced Applied Geology, 12(2), pp. 276-290. doi: 10.22055/aag.2021.36382.2194 • Yosefi, B., Emami Meybodi, S.M.R., Sharahi, S.Y., Sedaghatnia, M., 2019. The pattern and effect of Stylolites and Stylomotels in permeability and micro porosity of carbonate rocks. Applied Sedimenttology 7, 97-108. SakinehArefifardNoshinMoradi LirkashasiThomasAlgeoJonathan SchuethLeiZhang8222026194010.66224/ispg.50998.15.29.19http://journal.ispg.ir/en/Article/50998http://journal.ispg.ir/en/Article/Download/50998http://journal.ispg.ir/en/Article/Download/50998http://journal.ispg.ir/en/Article/Download/50998http://journal.ispg.ir/en/Article/Download/50998http://journal.ispg.ir/en/Article/Download/50998http://journal.ispg.ir/en/Article/Download/50998http://journal.ispg.ir/en/Article/Download/50998- ALAVI, M., 2004, Regional stratigraphy of the Zagros fold-thrust belt of Iran and its proforeland evolution: American Journal of Sciences, 304, 1-20. - ARENILLAS, I., ARZ, J.A. and GILABERT, V., 2018, Blooms of aberrant planktic foraminifera across the K/Pg boundary in the Western Tethys: Causes and evolutionary implications: Paleobiology, 44(3), 460-489. - ARTHUR, M.A., SCHLANGER, S.T. and JENKYNS, H.C., 1987. The Cenomanian-Turonian Oceanic Anoxic Event, II. Palaeoceanographic controls on organic-matter production and preservation: Geological Society, London, Special Publications, 26(1), 401-420. - BOLLI, H.M., SAUNDERS, J. B. and PERCH-NIELSEN, K., 1985, Plankton stratigraphy, Vol. I., Cambridge University Press, Cambridge, 87-154. - CARON, D.A., MICHAELS, A.F., SWANBERG, N.R. and HOWSE, F.A., 1995, Primary productivity by symbiont-bearing planktonic sarcodines (Acantharia, Radiolaria, Foraminifera) in surface waters near Bermuda: Journal of Plankton Research, 17(1), 103-129. - CHANG, B., HUANG, J., ALGEO, T.J., PANCOST, R.D., WAN, X., XUE, Y., JIA, J., WANG, Z., HU, J., WANG, J. and WANGg, S., 2022, Episodic massive release of methane during the mid-Cretaceous greenhouse: GSA Bulletin, 134(11-12), 2958-2970. - CHOARENZA, A.A., FARNSWORTH, A., MANNION, P.D., LUNT, D.J., VALDES, P.J., MORGAN, J.V. and ALLISON, P.A., 2020, Asteroid impact, not volcanism, caused the end-Cretaceous dinosaur extinction: Proceedings of the National Academy of Sciences, 117(29), 17084-17093.ZeinabAlizadehBahmanSoleimaniBehzadKhani8222026416610.66224/ispg.51469.15.29.41http://journal.ispg.ir/en/Article/51469http://journal.ispg.ir/en/Article/Download/51469http://journal.ispg.ir/en/Article/Download/51469http://journal.ispg.ir/en/Article/Download/51469http://journal.ispg.ir/en/Article/Download/51469http://journal.ispg.ir/en/Article/Download/51469http://journal.ispg.ir/en/Article/Download/51469http://journal.ispg.ir/en/Article/Download/51469[1]ABRAMS, M., 2005, Significance of hydrocarbon seepage relative to petroleum generation and entrapment. Mar Pet Geol., 22:457–477 [2]AL-SHAIB, Z., CAIRNS, J., and PUCKETTE, J., 1994, Hydrocarbon-induced diagenetic aureoles (HIDA): Indicators of deeper, leaky reservoirs. APGE Bulletin, 10, 24-48. [3]AMINZADEH, F., BERGE, T., and CONNOLLY, D., 2013, Hydrocarbon Seepage from Source to Surface: Geophysical Developments Series No. 16, publ. jointly by AAPG and SEG, 253 p. [4]ARMSTRONG, F.E., and HEEMSTRA, R, J., 1973: Radiation halos and hydrocarbon reservoirs, a review. US Bureau of Mines, Information Circular 8579. [5]ASADZADEH, S., & DE SOUZA FILHO, C. R., 2019. Characterization of microseepage-induced diagenetic changes in the Upper-Red Formation, Qom region, Iran. Part I: Outcrop, geochemical, and remote sensing studies. Marine and Petroleum Geology, 104149. doi:10.1016/j.marpetgeo.2019.1041 [6]ASADZADEH, S., and DE SOUZA FILHO, C.R., 2017, Spectral remote sensing for onshore seepage characterization; a critical overview. Earth Sci Rev., 168:48–72. [7]BAUM, M., SCHMITT, M., WAGNER, M., WESTERLAGE, C., 2008, Geochemicaland microbiological surface investigation in northern Germanyindicates interesting hydrocarbon potential. Oil Gas Euro Magaz 34(1):10. https:// www. scopus.com/ record/ display.uri? eid=2- s2.0-41149 15090 8& origin= inward [8]BELL, H., CAMILLONE, N., ABRAM, K., ANN BRUNS, M., YERGEAU, E., ST-ARNAUD, M., 2021, Hydrocarbon substrate richness impacts microbial abundance, microbiome composition, and hydrocarbon loss Terrence. Applied Soil Ecology, 165, 104015 https://doi.org/10.1016/j.apsoil.2021.104015. [9]BERNARD, B.B., BROOKS, J.M., SACKETT, W.M., 1978, Light hydrocarbons in recent Texas continental shelf and slope sediments. J. Geophys. Res. Oceans, 83 (C8), 4053-4061. [10]BHUYAN, S., PHUKAN, A., YADAV, M., JYOTI GIRI, S., BEGUM, S., DAS, S., KABYASHREE, K., PRIYADARSHANI, P., SARKAR, S., JAYSWAL, A., KUMAR, A., MANDAL, M., KUMAR RAY, S., 2023, Microliter spotting and micro-colony observation: A rapid and simple approach for counting bacterial colony forming units. Journal of Microbiological Methods, 207, 106707. https://doi.org/10.1016/j.mimet.2023.106707. [11] Blankinship, L.A., 2022, BI302 Clinical Microbiology Lab Manual. North Alabama Digital Press at Collier Library, 80p. [12] BOYLE, R.W., and GARRETT, R.G., 1970. Geochemical prospecting - a review of its status and future. Earth-Sci. Rev., 6: 51--75. [13]BRAY, E.E., 1956a. Geochemical exploration methods. U.S. Pat., 2,742,575. [14]BRAY, E.E., 1956b. Method of geochemical prospecting. U.S. Pat., 2,773,991. [15]CHEN, S., ZHAO, Y., ZHAO, L., LIU, Y., ZHOU, C., 2017. Hydrocarbon microseepage detection by altered minerals mapping from airborne hyper-spectral data in Xifeng Oilield, China. J Earth Sci 28:656–665. https://doi.org/10.1007/s12583-015-0604-1. [16]CHILINGAR, G.V., and KARIM, M., 1962. Gaseous survey methods in exploration and prospecting for oil and gas: a review. Alberta Soc. Pet. Geol. J., 10: 610--617. [17]CLARK, J.R., RENO, N.V., TOMPKINS, R., 2003. Mapping of reservoirs and subsurface structures using selective analysis of the surface chemistry of soil particles. 88th Annual Meeting of AAPG (Extended Abstract), Salt Lake City, May 11-14. [18]CLARKE, R.H., and CLEVERLY, R.W., 1991. Petroleum seepage and postaccumulation migration. Geol Soc Lond Spec Publ 59(1):265–271. [19]COLLINS, A.G., 1975, Chapter 10. Geochemical Methods of Exploration for Petroleum and Natural Gas. (1975). In: Geochemistry of Oilfield Waters, 307–341. http/doi:10.1016/s0376-7361(08)70203-6. [20]COOPER, M., 2007. Structural style and hydrocarbon prospectivity in fold and thrust belts: a global review. In: RIES, A. C., BUTLER, R. W. H. & GRAHAM, R. H. (eds) Deformation of the Continental Crust: The Legacy of Mike Coward. Geological Society [London] Special Publication, 272, 447–472. [21]COSTANZO-ÁLVAREZ, V., MENDOZA, J., ALDANA, M., JACOME, M., DÍAZ, M., RAMIREZ, K., and AMON, C.H., 2022. Comparing direct numerical modeling predictions with field evidence for methane vertical microseepage in two geological settings. Front. Earth Sci. 10:940799. http/doi: 10.3389/feart.2022.940799. [22]DAS, N., BHUYAN, B., PANDEY, P., 2022, Correlation of soil microbiome with crude oil contamination drives detection of hydrocarbon degrading genes which are independent to quantity and type of contaminants. Environmental Research, 215, 114185 https://doi.org/10.1016/j.envres.2022.114185. [23]DAVIS, J. B., 1967, Petroleum microbiology: Elsevier Publishing Company, p. 197–245. 604 pp. [24]DAY, J. W., CLARK, H. C., CHANG, C., HUNTER, R., & NORMAN, C. R., 2020. Life Cycle of Oil and Gas Fields in the Mississippi River Delta: A Review. Water, 12(5), 1492. https://doi.org/10.3390/w12051492. [25]DE ALEMAR BARBERES, G., 2018, unconventional methods for unconventional plays surface geochemical prospecting for hydrocarbon exploration at South Portuguese Zone. Ph.D. Thesis in Geology – Geological Resources and Environment, FCTUC (Faculdade De Ciencias E technologia) Universidade de Coimbra, 283p. [26]DECELLES, P. G. & GILES, K. N., 1996. Foreland basin systems. Basin Research, 8, 105–125. [27]DELGADO-RODRÍGUEZ, O., FLORES-HERNÁNDEZ, D., AMEZCUA-ALLIERI, M.A., ROSAS-MOLINA, A., MARÍN-CÓRDOVA, S., SHEVNIN, V., 2014, Joint interpretation of geoelectrical and volatile organic compounds data: a case study in a hydrocarbons contaminated urban site. Geofísica Internacional, 53 (2): 183-198. https://doi.org/10.1016/S0016-7169(14)71499-0. [28]DEGOYLER, E., 1940. Future position of petroleum geology in the oil industry. Bull. Am. Assoc. Pet. Geol., 24: 1389--1399. [29]DING, L., WU, Y., LIU, X., LIU, F., and MEI, H., 2017, Application of microbial geochemical exploration technology in identifying hydrocarbon potential of stratigraphic traps in Junggar Basin, China. AIMS Geosciences, 3 (4): 576-589. DOI: 10.3934/geosci.2017.4.576. [30]DONOVAN, T. J., ROBERTS, A.A., and DALZIEL, M.C., 1981, Epigenetic zoning in surface and near-surface rocks resulting from seepage-induced redox gradients, Velma oil field, Oklahoma: a synopsis: Oklahoma City Geological Society Shale Shaker, 32(3), 1–7. [31]DUCHSCHERER JR, W., 1982. Geochemical exploration for hydrocarbons—No new tricks, but an old dog. AAPG Bulletin, 66(2), pp.243-243. [32]DUCHSCHERER, W. JR., 1980. Geochemical methods of prospecting for hydrocarbons. Oil Gas J., 1, 194-208. [33]DUNN, C.E., HAIDL, F.M., YEAGER, J.R., DORVAL, D., LARSON, B., 1998. Surface geochemical patterns derived from selective leaching of soils over a deep Ordovician oil pool Bromehead, southeastern Saskatchewan. In CHRISTOPHER, J.E., GILBOY, C.F., PATTERSON, D.F, BEND, S. L. (Eds.), Eighth International Williston Basin Symposium: Saskatchewan Geological Society Publication 13, pp. 254 – 265. [34]GARAIN, S., MITRA, D. & DAS, P., 2019, Detection of hydrocarbon microseepage-induced anomalies by spectral enhancements of Landsat 7 ETM+ images in part of Assam–Arakan Fold Belt, India. J Petrol Explor Prod Technol 9, 2573–2582 (2019). https://doi.org/10.1007/s13202-019-00747-w. [35]GARAIN, S., MITRA, D., & DAS, P., 2021. Mapping hydrocarbon microseepage prospect areas by integrated studies of ASTER processing, geochemistry and geophysical surveys in Assam-Arakan Fold Belt, NE India. International Journal of Applied Earth Observation and Geoinformation, 102, 102432. doi:10.1016/j.jag.2021.102432. [36]Ghosh, S., Adsul, T. and Varma, A.K., 2023. Organic matter and mineralogical acumens in CO2 sequestration. Green Sustainable Process for Chemical and Environmental Engineering and Science, pp.561-594. [37]GOLDMAN, E., and GREEN, L.H., 2008, Practical handbook of microbiology, Second Edition (Google eBook) (2nd edition). USA: CRC Press, Taylor and Francis Group. p. 864. [38]HARBERT, W., JONES, V. T., IZZO, J., & ANDERSON, T. H., 2006, Analysis of light hydrocarbons in soil gases, Lost River region, West Virginia: Relation to stratigraphy and geological structures. AAPG Bulletin, 90(5), 715–734. http/doi:10.1306/10170505030. [39] Heuser, E., Becker, K., Idelevich, E. A., 2023, Evaluation of an Automated System for the Counting of Microbial Colonies. Microbiology Spectrum. 11 (4): e00673-23. doi:10.1128/spectrum.00673-23. [40]HORVITZ, L., 1939. On geochemical prospecting. Geophysics, 4: 210--225. [41]HORVITZ, L., 1954. Near surface hydrocarbons and petroleum accumulation at depth. Min. Eng., 1205-1209.#3 [42]HORVITZ, L., 1959. Geochemical prospecting for petroleum. 20th lnt. Geol. Congr., Symposium de ExploraeiSn Geoquimrca, 2: 303--319. [43]HORVITZ, L., 1969. Hydrocarbon geochemical prospecting after 30 years. In: W.B. Heroy (Editor), Unconventional Methods in Exploration for Petroleum and Natural Gas. Southern Methodist University Press, Dallas, Texas, pp. 205--215. [44]HORVITZ, L., 1972. Vegetation and geochemical prospecting for petroleum. Bull. Am.Aasoc. Pet. Geol., 56: 925--940. [45]HOSSEINI, A., SABERI, M.H. & ZARENEZHAD, B., 2022, Significance of petroleum seepages in hydrocarbon exploration-case study of Khourian Desert, Central Iran. J Petrol Explor Prod Technol 12, 1649–1663. https://doi.org/10.1007/s13202-021-01440-7. [46]HOSSEINPOUR, M., 2020. Relationship between hydrocarbon micro-seepages and structures by detection of altered minerals using ASTER remote sensing data in the West of Coastal Fars, Zagros, Iran. Arabian Journal of Geosciences, 13(13). http/doi:10.1007/s12517-020-05568-4. [47]JIA, W., CHENG, L., TAN, Q., LIU, Y., DOU, J., YANG, K., YANG, Q., WANG, S., LI, J., NIU, G., ZHENG, L., and DING, A., 2023, Response of the soil microbial community to petroleum hydrocarbon stress shows a threshold effect: research on aged realistic contaminated fields. Front. Microbiol. 14:1188229. doi: 10.3389/fmicb.2023.1188229. [48]JONES, V.T., and DROZD, R.J., 1983. Prediction of oil or gas potential by near-surface geochemistry. Am. Assoc. Pet. Geol. Bull. 67, 932e952.#3 [49]JONES, V.T., MATTHEWS, M.D., RICHERS, D.M., 2000. Light hydrocarbons for petroleum and gas prospecting. In: HALE, M. (Ed.), Handbook of exploration geochemistry, vol. 7. Elsevier Science Publishers, pp. 133-212. http/doi:10.1016/s0168-6275 (00)80029-x. [50]KARIM, M.F., 1964. Some geochemical methods of prospecting and exploration for oil and gas. Ph.D. Thesis, University of Southern California, University Microfilms Inc. [51]KARTSEV, А. А., TABASARANSKIY, Z. А., SUBBOTA, M. I., AND MOGILEVSKIY, G.A., 1954, Geochemical methods of prospecting and exploration of oil and gas fields edition of mineral resourses and fuel literature (Мoscow) p 430. [52]KEBEDE, G., TAFESE, T., ABDA, E.M., KAMARAJ, M., and ASSEFA, F., 2021, Factors influencing the bacterial bioremediation of hydrocarbon contaminants in the Soil: Mechanisms and impacts. Hindawi Journal of Chemistry 2021, Article ID 9823362, 17 pages https://doi.org/10.1155/2021/9823362. [53]KENDALL, J., VERGÉS, J., KOSHNAW, R., & LOUTERBACH, M., 2019, Petroleum tectonic comparison of fold-thrust belts: the Sevier of the western US, the Pyrenees of Spain, the Zagros of Iraq and Iran, and the Beni Sub Andean of Bolivia. Geological Society, London, Special Publications, SP490–2018–102. http/doi:10.1144/sp490-2018-102. [54]KENNICUTT, M.C., 2017. Oil and Gas Seeps in the Gulf of Mexico. In: WARD, C. (Eds) Habitats and biota of the Gulf of Mexico: Before the deepwater horizon oil spill. Springer, New York, NY. https://doi.org/10.1007/978-1-4939-3447-8_5. [55]KLUSMAN, R.W., and SAEED, M.A., 1996, Comparison of Light Hydrocarbon Microseepage Mechanisms. Doi: https://doi.org/10.1306/M66606C12. In: Hydrocarbon Migration and Its Near-Surface Expression, SCHUMACHER, D., AND ABRAMS, M.A., (Eds). American Association of Petroleum Geologists. 66, 157-168. [56]KROEPELIN, H., 1975. Geochemical prospecting. Proc. 7th World Petroleum Congress, 1B: 37--57. [57]LAUBMEYER, G., 1933. A new geophysical prospecting method, especially for deposits of hydrocarbons. Petroleum, 29: 1-4. [58]LINK, W.K., 1952. Significance of oil and gas seeps in world oil exploration. Bull. Am.Assoc. Pet. Geol., 36 (8): 1505-1540. [59]MACGREGOR, D.S., 1993, Relationships between seepage, tectonics and subsurface petroleum reserves. Mar Pet Geol 10(6):606–619. [60]MAGOON, L. B. & DOW, W. G., 1994. The petroleum system. In: Magoon, L. B. & Dow, W. G. (eds) The Petroleum System-From Source to Trap. American Association of Petroleum Geologists Memoir, 60, 3-24. [61]MARTÍNEZ-GÓMEZ, H.M., and JARAMILLO J.M.M., 2017, Magnetic and radiometric signatures in soils above hydrocarbon accumulations, Toqui-Toqui and Mana fields, Tolima, Colombia. Adapted from extended abstract based on oral presentation given at AAPG International Conference and Exhibition, Barcelona Spain, April 3-6, 2016. [62] MATTHEWS, M. D., 1996, Importance of sampling design and density in target recognition, in D. Schumacher and M. A. Abrams, eds., Hydrocarbon Migration and Its Near-Surface Expression: AAPG Memoir 66, p. 243–253. [63]MIQUELETTO, P.B., ANDREOTE, F.D., DIAS, A.C.F., FERREIRA, J.C., DOS SANTOS, NETO, E.V., DE OLIVEIRA, V.M., 2011, Cultivation-independent methodsapplied to the microbial prospection of oil and gas in soil from asedimentary basin in Brazil. AMB Express 1(1):1–16. https:// doi.org/ 10. 1186/ 2191- 0855-1- 35. [64]MORSE, J.G., and ZINKE, R., 1995, The origin of radiometric anomalies in petroleum basins – A proposed mechanism. Oil & Gas Journal, 36-38. [65]MOTOJIMA, K., 1975, Geochemical prospecting for petroleum and natural gas deposits. Reg. Min. Res. Dev. Cent., Advis. Text No. 9, March. [66]OEHLER, D.Z., and STERNBERG, B.K., 1984, Seepage-induced anomalies, "false" anomalies, and implications for electrical prospecting. AAPG Bulletin, 68, 1121-1145. [67] OGISO-TANAKA, E., SHIMADA, D., OGAWA, A., ISHIYAMA, G., OKUMURA, K.I., HOSAKA, K., ISHII, C., NAM, K.-O., HOSHINO, M., NOMURA, S., KAKIZOE, S., NAKAMURA, Y., NISHIUMI, I., ITO, M. A., KITAYAMA, T., TANAKA, N., HOSOYA, T., & JINBO, U., 2025, DNA Specimen Preservation Using DESS and DNA Extraction in Museum Collections. Biology, 14(6): 730. https://doi.org/10.3390/biology14060730. [68]PHILP, R. P., & CRISP, P. T., 1982, Surface geochemical methods used for oil and gas prospecting- a review. Journal of Geochemical Exploration, 17(1), 1–34. http/doi:10.1016/0375-6742 (82)90017-6. [69]PIRSON, S.J., 1940. Critical survey of recent developments in geochemical prospecting. Bull. Am. Assoc. Pet. Geol., 24: 1464-1474. [70]PIRSON, S.J., 1969, Geological, geophysical, and geochemical modification of sediments in the environments of oil fields: Southern Methodist University Press, Dallas, Texas, p. 159-186. [71]PIXLER, B.O., 1969, Formation evaluation by analysis of hydrocarbon ratios. Jour. Petroleum Technology, 21, 665-670. [72]PRABAHARAN, S., and SUBRAMANI, T., 2016, Identification of hydrocarbon micro-seeps based on mineral alteration in a par of Cauvery basin, South India, using Hyperion data. Indian Journal of Geo Marine Sciences, 45, 1138-1147. [73]PRICE, L.C., 1986, A critical overview and proposed working model of surface geochemical exploration: Southern Methodist University Press, Dallas, Texas, p. 245-304. [74]PUTIKOV, O.F., WEN, B., 2000. Geoelectrochemistry and stream dispersion. In: Hale, M. (Ed.), Geochemical remote sensing of the subsurface, Handbook of exploration geochemistry 7. Amsterdam, Elsevier, pp. 17 – 79. [75]RASHEED, M.A., KALPANA, M.S., PRASANNA, M.V., LAKSHMI, M., MADHAVI, T., TIWARI, D.M., PATIL, D.J., DAYAL, A.M., RAJU, S.V., 2012b, Geomicrobial and light gaseous hydrocarbon anomalies in the near surface soils of Deccan Syneclise Basin, India: implications to hydrocarbon resource potential. J Petrol Sci Eng 84:33–41. https://doi.org/10.1016/j.petrol.2012.01.010 . [76]RASHEED, M.A., LAKSHMI, M., KALPANA, M.S., PATIL, D.J., DAYAL, A.M., 2017, Recognition of hydrocarbon microseepage using microbial and adsorbed soil gas indicators in the petroliferous region of Krishna–Godavari Basin, India. Curr. Sci., 112(3):560. https://www.jstor.org/ stable/ 24912 439. [77]RASHEED, M.A., LAKSHMI, M., RAO, P.L.S., PATIL, D.J., DAYAL, A.M., SUDARSHAN, V., 2012a, Relevance of pentane-and hexane-utilizing bacterial indicators for inding hydrocarbon microseepage: a study from Jamnagar Sub-basin, Saurashtra, Gujarat, India. Natural Resour. Res., 21(4):427–441. https:// doi.org/ 10. 1007/ s11053- 012- 9189-x. [78]RASHEED, M.A., LAKSHMI, M., SRINU, D., DAYAL, A.M., 2011, Bacteria as indicators for inding oil and gas reservoirs: a case study of the Bikaner-Nagaur Basin, Rajasthan, India. Petrol. Sci., 8(3):264–268. https:// doi.org/ 10. 1007/ s12182- 011- 0143-z. [79]RASHEED, M.A., PRASANNA, M.V., KUMAR, T.S., PATIL, D.J., DAYAL, A.M., 2008, Geo-microbial prospecting method for hydrocarbon exploration in Vengannapalli village, Cuddapah Basin, India. Curr. Sci., 361–366 https:// www.jstor.org/ stable/ 24102 760. [80]RASHEED, M.A., PRASANNA, M.V., LAKSHMI, M., MADHAVI, T., KALPANA, M.S., PATIL, D.J., DAYAL, A.M., 2012c. Geo-microbial prospecting studies of surface sediments from petroliferous region of the Mehsana Block, North Cambay Basin. J Geol Soc India 80(2):267–275. https:// doi.org/ 10. 1007/ s12594- 012- 0137-5. [81] RASHEED, M.A., SRINIVASA RAO, P.L., ANNAPURNA, B., HASAN, S.Z., 2015, Implication of Soil Gas Method for Prospecting of Hydrocarbon Microseepage. International Journal of Petroleum and Petrochemical Engineering (IJPPE), 1 (1): 31-41. [82]RICHERS, D.M., JONES, V.T., MATTHEWS, M.D., MACIOLEK, J., PIRKLE, R.J., SIDLE, W.C., 1986, The 1983 Landsat soil-gas geochemical survey of Patrick Draw area, Sweetwater County, Wyoming. AAPG Bull 70(7): 869–887. [83]ROSAIRE, E.E., 1940, Symposium on geochemical exploration. Geochemical prospecting for petroleum. Bull. Am. Assoc. Pet. Geol., 24: 1400-1433. [84]ROURE, F. & SASSI, W. 1995, Kinematics of deformation and petroleum system appraisal in Neogene foreland fold-and-thrust belts. Petroleum Geoscience, 1, 253-269. DOI: 10.1144/petgeo.1.3.253. [85]SAATSAZ, M., and REZAEI, A., 2023, The technology, management, and culture of water in ancient Iran from prehistoric times to the Islamic Golden Age. Humanities and Social Sciences Communications 10(1). DOI: 10.1057/s41599-023-01617-x. [86]SADEGHIZADEH, Z., MOJTAHEDZADEH, S.H., ANSARI, A.H., MORSHEDI, A.H., 2022, Investigation of geochemical anomalies associated with oilfields using matching magnetometric data and satellite images, case study: Moghan plain. Advanced Applied geology, 12 (3), 468-488. DOI: 10.22055/aag.2021.33089.2109. [87]SATISH KUMAR, T., DAYAL, A. M., & SUDARSHAN, V., 2014. Surface geochemical data evaluation and integration with geophysical observations for hydrocarbon prospecting, Tapti graben, Deccan Syneclise, India. Geoscience Frontiers, 5(3), 419–428. doi:10.1016/j.gsf.2013.08.003. [88]SAUNDERS, D.F., BURSON, K.R., BROWN, J.J., THOMPSON, C.K., 1993. Combined geological and surface geochemical mathods discovered Agaritta and Brady Creek fields, Concho Country, Texas. AAPG Bull. 77, 1219-1240. [89]SCHUMACHER, D, 1996, Hydrocarbon-induced alteration of soils and sediments, in: SCHUMACHER, D., and ABRAMS, M.A., (Eds.), Hydrocarbon migration and its near surface expression: AAPG Memoir 66, 71–89. [90]SCHUMACHER, D., D. C. HITZMAN, J. TUCKER, AND B. ROUNDTREE, 1997, Applying high-resolution surface geochemistry to assess reservoir compartmentalization and monitor hydrocarbon drainage, in R. J. Kruizenga, and M. W. Downey, eds., Applications of Emerging Technologies: Unconventional Methods in Exploration for Oil and Gas V: Dallas, Texas, Southern Methodist Univ. Press, p. 309–322. [91]SCHUMACHER, D., 2017, Surface geochemical exploration after 100 years: Lessons learned and what more must be done. Adapted from poster presentation given at AAPG 2017 Annual Convention and Exhibition, Houston, Texas, United States, April 2-5, 2017. [92]SCHUMACHER, D., and ABRAMS, M.A., (Eds.), 1996, Hydrocarbon Migration and Its Near-Surface Expression: AAPG Memoir 66, 445 p. [93]SECHMAN, H., 2012. Detailed compositional analysis of hydrocarbons in soil gases above multi-horizon petroleum deposits - a case study from western Poland. APPL. GEOCHEM. 27, 2130-2147. [94]SECHMAN, H., DZIENIEWICZ, M., LISZKA, B., 2012. Soil gas composition above gas deposits and perspective structures of the Carpathian Foredeep, SE Poland. Appl. Geochem. 27 (1), 197-210. [95]Sechman, H., Guzy, P., Kaszuba, P., Wojas, A., Machowski, G., Twaróg, A., & Maślanka, A., 2020,. Direct and indirect surface geochemical methods in petroleum exploration: a case study from eastern part of the Polish Outer Carpathians. Int J Earth Sci (Geol Rundsch) 109, 1853–1867. https://doi.org/10.1007/s00531-020-01876-y. [96]SEVERNE, B. C., LANGFORD, G.D., and FULLAGAR, P.K., 1991, Surface geochemical exploration in Australia: case histories from the Eromanga and Canning Basins. APGE Bulleting, 7, 88-115. [97]SKOLOV, V.A., 1959, Geochemical methods of prospecting for oil and gas deposits. IZD. Akad.Nauk SSR. Moscow. [98]SOBOLEV, I. S., BREDIKHIN, N. P., BRATEC, T., FALK, A. Y., TOLKACHEV, O. S., RIKHVANOV, L. P., & TISHIN, P. A., 2018. Chemical diagenesis in near-surface zone above oil fields in geochemical exploration. Applied Geochemistry, 95, 33–44. doi:10.1016/j.apgeochem.2018.05.0. [99]SOKOLOV, V, A., GEODEKYAN, A.A., GRIGORYEV, G.G., KREMS, A.YA., STROGANOV, V.A., ZORKIN, L.M., ZEIDDSON, M.I., and VAINBAUM, S.JA., 1970. The new methods of gas surveys, gas investigations of wells and some practical results. Can. Inst. Min. Metall., 11: 538--543. [100]SOKOLOV, V.A., 1933. New prospecting method for petroleum and gas. Technika, February Bull. NGRI No. 1. [101]SOKOLOV, V.A., ALEXEYEV, F.A., BARS, E.A., GEODEKYAN, A.A., MOGILEVSKY, G.A., YUROVSKY, Y.M. AND YASENEV, B.P., 1959. Investigations into direct oil detection methods. Proc. 5th World Petroleum Congress. Section 1, 667-687. [102]TEDESCO, S.A., 1995, Surface geochemistry in petroleum exploration: New York, Chapman and Hall, Inc., 206 p. [103]TEDESCO, S.A., 2012, Surface geochemistry in petroleum exploration. Springer, Cham. [104]THRASHER, J., FLEET, A.J., HAY, S.J., HOVLAND, M., and DÜPPENBECKER, S., 1996. Understanding geology as the key to using seepage in exploration: the spectrum of seepage styles. In: D. SCHUMACHER, M.A. ABRAMS (Eds.), Hydrocarbon migration and its near surface effects, 66, AAPG Memoir, 223-242. [105]TWARÓG, A., STARZEC, K., SECHMAN, H., SCHNABEL, W., 2024, Surface geochemistry as a key to understanding the petroleum system in regions of complex geology - Polish Outer Carpathians. Marine and Petroleum Geology, 170, 107155. https://doi.org/10.1016/j.marpetgeo.2024.107155. [106]VAN DER MEER, F., VAN DIJK, P., VAN DER WERFF, H., and YANG, H., 2002, Remote sensing and petroleum seepage: a review and case study. Terra Nova, 14 (1), 1-17. [107]VARJANI, S.J., 2017, Microbial degradation of petroleum hydrocarbon. Biores Technol 223:277–286. https:// doi.org/ 10. 1016/j. biortec2016. 10. 037. [108]VERBANAC, B., and DUNIA, P., 1982, Hydrocarbon ratios in gas mixtures as indices of reservoir saturation and producing capacity: Geologija I Geofizika, 33, 185-192. [109]WAGNER, M., WAGNER, M., PISKE, J., and SMIT, R., 2002. Case histories of microbial prospection for oil and gas, onshore and offshore in northwest Europe. Surface exploration case histories: Applications of geochemistry, magnetics, and remote sensing. AAPG Studies in Geology, 48, 453-479. https://doi.org/10.1306/St48794C19. [110]WALKER, S., KEYSER, H., and DURHAM, D., 2018, Airborne gamma ray surveying in hydrocarbon exploration. GeoConvention, Calgary, Canada, May 7-11, 2018. [111]WHITTENBURY, R., PHILLIPS, K.C., WILKINSON, J.F., 1970. Enrichment, isolation and some properties of methane-utilizing bacteria. Microbiology 61(2):205–218.https://doi.org/10.1099/00221287-61-2-205. [112]WILLIAMS, J.C., MOUSSEAU, R.J., and WEISMANN, T.J., 1981, Correlation of well gas analyses with hydrocarbon seep data: American Chem. Soc. National Meeting, Atlanta, GA. March. [113]YANG, H., MEER, F.V.D., ZHANG, J., KROONENBERG, S.B., 2000, Direct detection of onshore hydrocarbon microseepages by remote sensing techniques. Remote Sens. Rev., 18(1):1–18. https://doi.org/10. 1080/02757250009532381. [114]YANG, J.L., WANG, M.S., CHENG, A.C., PAN, K.C., LI, C.F., & DENG, S.X., 2008. A simple and rapid method for extracting bacterial DNA from intestinal microflora for ERIC-PCR detection. World Journal of Gastroenterology, 14(18), 2872. doi:10.3748/wjg.14.2872. [115]YEATES, C., GILLINGS, M. R., DAVISON, A. D., ALTAVILLA, N., & VEAL, D. A., 1998. Methods for microbial DNA extraction from soil for PCR amplification. Biological Procedures Online, 1(1), 40–47. http/doi:10.1251/bpo6 . [116]YUAN, Z., ZHANG, Y., ZHAO, Q., JIANG, H., LIU, Y., LUO, Z., LI, X., WANG, S., LI, B., PAN, G., 2009. New progress of microbial prospecting of oil and gas in China: Taking the Satellite Oilield in Daqing as anexample. Sci China Ser D Earth Sci., 52(1):152–158. https:// doi.org/ 10. 1007/ s11430- 009- 5016-6. [117] ZAJIC, E., and SUPPLISSON, B., 1972, Emulsification and degradation of ‘Bunker C’ fuel oilby microorganisms. Biotechnology and Bioengineering, 14: 331-343. [118]ZHONG, G., ZHAO, J., ZHAO, Z., ZHANG, K., YU, J., SHANG, C., TU, G., & FENG, C., 2024, Acid-extracted hydrocarbon anomalies and significance in the Chaoshan Depression of the Northern South China Sea. Journal of Marine Science and Engineering, 12(6), 909. https://doi.org/10.3390/jmse12060909. [119]ZHOU, Q., XU, X., XU, H., ZHENG, G., PI, W., JIANG, Y., XU, X., LI, Y., WANG, J., 2020. Surface microbial geochemistry of the Beihanzhuang Oil field, northern Jiangsu, China. J Petrol Sci Eng., 191:107140. https:// doi.org/ 10. 1016/j. petrol. 2020. 107140.BabakSamani8222026677910.66224/ispg.51767.15.29.67http://journal.ispg.ir/en/Article/51767http://journal.ispg.ir/en/Article/Download/51767http://journal.ispg.ir/en/Article/Download/51767http://journal.ispg.ir/en/Article/Download/51767http://journal.ispg.ir/en/Article/Download/51767http://journal.ispg.ir/en/Article/Download/51767http://journal.ispg.ir/en/Article/Download/51767http://journal.ispg.ir/en/Article/Download/51767[1] ALAVI, M., 2007. Structures of the zagros fold-thrust belt in Iran. American Journal of Science, 307, 1064–1095.[2] ANGELIER, J., 1984. Tectonic analysis of fault slip data sets. Journal of Geophysics Researches, 89, 5835–5848.[3] BEAR, G., BEYTH, M., RECHES, Z., 1994. Dike emplaced into fractured basement, Timna Igneous Complex, Israel. Journal of Geophysics Researches, 99, 24039–24051.[4] BERBERIAN, M., 1995. Master ‘blind’ thrust faults hidden under the Zagros folds: active basement tectonics and surface morphotectonics. Tectonophysics, 241, 193–224.[5] BERBERIAN, M., KING, G.C.P., 1981. Towards a paleogeography and tectonic evolution of Iran. Canadian Journal of Earth Sciences, 18, 210–265.[6] BLANCE, E.J.P., ALLEN, M.B., INGER, S., HASSANI, H., 2003. Structural styles in the Zagros Simple Folded Zone, Iran. Journal of the Geological Society, 160, 401–412. doi:10.1144/0016-764902-110.[7] BORDENAVE, M. L., HEGRE, J. A., 2005. The influence of tectonics on the entrapment of oil in the Dezful Embayment, Zagros Foldbelt, Iran. Journal of Petroleum Geology, 28(4), 339–368.[8] FAGHIH, A., DEHGHAN M., SOBHANI S.S., 2023. Study of deformation pattern and kinematic characteristics in the Gelmandeh metamorphic complex, Saghand region, Central Iran. Advanced Applied Geology, 12(4), 617–634.[9] FALCON, N.L., 1974. Problems of the relationship between surface structures and deep displacements illustrated by the Zagros range. Geological Society of London. Special Publication, 3, 9–22.[10] FERGOSSON, C., NUTMAN, A., MOHAJJEL, M., BENNETT, V.C., 2016. The Sanandaj–Sirjan Zone in the Neo-Tethyan suture, western Iran: Zircon U–Pb evidence of late Paleozoic rifting of northern Gondwana and mid-Jurassic orogenesis. Gondwana Research, 58, 216–238.[11] FOSSEN, H., 2016. Structural geology (2nd ed.). Cambridge University Press[12] JOLLY, R.J.H., SANDERSON, D.J., 1997. A Mohr circle reconstruction for the opening of a pre-existing fracture. Journal of Structural Geology, 19, 887–892.[13] KESHAVARZ, S., FAGHIH, A., ASADI, S., SOLEIMANI, M., ZAREI, S., 2024. PT conditions of deformation of the Gol-e-Gohar shear zone, SW Iran: Insights from analysis of quartz c-axis fabrics, recrystallization mechanisms and syndeformational fluid inclusions. Journal of Asian Earth Sciences, 262, 106010.[14] KRUHL, J.H., 1998. Reply: prism- and basal-plane parallel subgrain boundaries in quartz: a microstructural geothermobarometer. Journal of Metamorphic Geology, 16, 142–146.[15] LAW, R.D., 1990. Crystallographic fabrics. A selective review of their applications to research in structural geology. In: Knipe, R.J., Rutter, E.H. (Eds.), Deformation Mechanisms, Rheology and Tectonics. Geological Society of London, Special Publication No. 54, pp. 335–52.[16] LAW, R.D., SEARLE, M.P., SIMPSON, R.L., 2004. Strain, deformation temperatures and vorticity of flow at the top of the Greater Himalayan Slab, Everest Massif. Tibet. Journal of Geological Society, London, 161, 305–320.[17] MCKEAGNEY, C.J., BOULTER, C.A., JOLLY, R.J.H., FOSTER, R.P., 2004. 3D Mohr Circle analysis of vein opening, Indrama lode-gold deposit, Zimbabwe: implication for exploration. Journal of Structural Geology, 26, 1275–1291.[18] MCQUARRIE, N., 2004. Crustal scale geometry of the Zagros fold–thrust belt, Iran. Journal of Structural Geology, 26, 519–535.[19] MOHAJJEL, M., FERGUSSON, C.L., 2000. Dextral transpression in Late Cretaceous continental collision, Sanandaj–Sirjan Zone, western Iran. Journal of Structural Geology, 22, 1125–1139.[20] NÜCHTER, J.A., STÖCKHERT, B., 2008. Coupled stress and pore fluid pressure changes in the middle crust: Vein record of coseismic loading and postseismic stress relaxation. Tectonics, 27, 1–23.[21] OTSUBO, M., MIYAKAWA, A., KAWASAKI, R., SATO, K., YAMAGUCHI, A., KIMURA, A., 2016. Variations in stress and driving pore fluid pressure ratio using vein orientations along megasplay faults: Example from the Nobeoka Thrust, Southwest Japan. Island Arc, 25, 421–432.[22] SADEGHI, S., YASSAGHI, A., 2016. Spatial evolution of Zagros collision zone in Kurdistan, NW Iran: Constraints on Arabia–Eurasia oblique convergence. Solid Earth, 7, 659–672. doi:10.5194/se-7-659-2016.[23] SAEDI, G., SOLEIMANI, B., SAMANI, B., ARZANI, A., 2022. The interaction between faults and in-situ stress on the kinematic and subsurface natural fracture of Aghajari oilfield in southwest of Iran. Journal of Petroleum Science and Engineering, 208, 109567.[24] SAMANI, B., 2017. Deformation flow analysis and symmetry of Goushti shear zone, Sanandaj-Sirjan metamorphic belt, Iran. Geopersia, 7, 117-130.[25] SARKARINEJAD, K., AZIZI, A., 2008. Slip partitioning and inclined dextral transpression along the Zagros Thrust System, Iran. Journal of Structural Geology, 30, 116–136.[26] SARKARINEJAD, K., KESHAVARZ, S., FAFGIH, A., SAMANI, B., 2017. Kinematic analysis of rock flow and deformation temperature of the Sirjan thrust sheet, Zagros Orogen, Iran. Geological Magazine, 154, 147–165.[27] SCHWARZHANS, W., Bosold, A., JULAPOUR, A., ASHRAFZADEH, A.R., EHSANI, S.M., 2025. The structural geology of the High Central Zagros revisited (Iran) Available to Purchase. Petroleum Geoscience (2005) 11 (3): 225–238.[28] SEMBRONI, A., Riccardo REITANO, A., FACCENNA, C., CALLIERI, P, 2024. The geologic configuration of the Zagros Fold and Thrust Belt: an overview. Mediterranean Geoscience Reviews, 6:61–86[29] SEPEHR, M., COSGROVE, J., MOINEI, M., 2006. The impact of cover rock rheology on the style of folding in the Zagros fold-thrust belt. Tectonophysics, 427(1-4), 265-281.[30] STOCKLIN, J., 1968. Structural history and tectonics of Iran, a review, A. A. P. G. Bull., 52(7), 1229-1258.[31] TAKIN, M., 1972. Iranian geology and continental drift in the Middle East. Nature, 235, 147-150.[32] TALEBIAN, M., JACKSON, J., 2004. A reappraisal of earthquake focal mechanisms and active shortening in the Zagros mountains of Iran. Geophysics, 156, 506–526.[33] WILSON, C.J.L., ROBINSON, J.A., DUGDALE, A.L., 2008. Quartz vein fabrics coupled to elevated fluid pressures in the Stawell gold deposit, south-eastern Australia. Mineralium Deposita, 44(2):245-263.[34] ZAMANI, B.G, 2023. Geodynamics and tectonic stress model for the Zagros fold–thrust belt and classification of tectonic stress regimes. Marine and Petroleum Geology, 155, 1-17.MohammadGoodarzi8222026809810.66224/ispg.52832.15.29.80http://journal.ispg.ir/en/Article/52832http://journal.ispg.ir/en/Article/Download/52832http://journal.ispg.ir/en/Article/Download/52832http://journal.ispg.ir/en/Article/Download/52832http://journal.ispg.ir/en/Article/Download/52832http://journal.ispg.ir/en/Article/Download/52832http://journal.ispg.ir/en/Article/Download/52832http://journal.ispg.ir/en/Article/Download/52832آقانباتی.، ع، 1385، زمین شناسی ایران: سازمان زمین شناسی و اکتشافات معدنی کشور، 586.آورجانی، ش.، محبوبی، ا.ا.، موسوی حرمی، ر،1390، ريز رخساره، محيط هاي رسوبي و چينه نگاري سكانسي رسوبات اُليگو ميوسن (سازند آسماري) در ميدان نفتي كوپال، فروافتادگي دزفول مركزي: فصلنامه زمين شناسي ايران، سال پنجم، شماره نوزدهم، صفحات 45-60.آورجانی، ش.، موسوی حرمی، ر.، محبوبی، ا.ا.، رحیم پور بناب، ح.، امیری بختیار، ح، 1390، چینه نگاری سکانسی و بررسی کیفیت مخزنی سازند آسماری در فروافتادگی دزفول شمالی (میدان¬های نفتی هفتکل، کوپال و مارون)، حوضه زاگرس، جنوب غرب ایران: رساله دکتری، دانشگاه فردوسی مشهد، خرداد 1394، 354 صفحه.آورجانی، ش.، همت، م.، سبکرو، م.، صادقی، ر.، طاهری، م.ر، 1391، توصیف مغزه¬ها، چینه نگاری زیستی، رخساره¬ها و محیط رسوبی، چینه نگاری سکانسی و دیاژنز سازند آسماری در میدان نفتی مارون: گزارش شماره پ- 7489. شرکت ملی نفت مناطق نفت خیز جنوب، 85 صفحه، گزارش منتشر نشده. آورجانی، ش.، موسوی حرمی، ر.، محبوبی، ا.، ح.، امیری بختیار، ح، 1390، چینه¬نگاری چرخه¬ای و تطابق مخزنی رسوبات اُلیگو-میوسن (سازند آسماری) در میدان نفتی مارون، حوضة زاگرس: مجله زمین شناسی نفت ایران، سال سوم ، شماره 4، صفحات 23- 37.خلیلی، ا.، وزیری مقدم، ح.، آرین، م.، صیرفیان، ع، 1400، بررسی سیکلواستراتیگرافی مخزن آسماری در میادین نفتی کرنج، پرنج و پارسی: مجله زمین شناسی نفت ایران، سال 10، شماره 20، پاییز و زمستان 1399، ص 1- 16.رحمانی، ع.، غبیشاوی، ع، 1389، سکانس استراتیگرافی سازند آسماری در میدان نفتی لب سفید(جنوب غرب ایران): چهاردهمین انجمن همایش زمین شناسی ایران و بیست و هشتمین گردهمایی علوم زمین، دانشگاه ارومیه.رحمانی، ع، 1391، آشنايي با نرم افزار سيکلولاگ و کاربردهاي آن در صنعت نفت(مطالعات چينه نگاري سکانسي)، مطالعـه مـوردي مخـزن آسماري ميدان نفتي پارسي (چاه شماره 19): شرکت ملي مناطق نفت خيز جنوب.عظام پناه، ی.د.، گودرزی، م.، ریز رخساره¬ها، محیط¬های رسوبی و اجتماعات کربناته سازند آسماری در برش تنگ گجستان، 1403، پژوهش¬های چینه نگاری و رسوب شناسی، سال 41، شماره 98، صفحات 59- 78. غبیشاوی، ع.، رحمانی، ع، 1385، سکانس استراتیگرافی سازندهای سروک و ایلام در میدان نفتی آب تیمور(چاه شماره 14)گزارش شماره پ- 5918، شرکت ملی نفت مناطق نفت خیز جنوب، 67 صفحه، گزارش منتشر نشده. غبیشاوی، ع.، رحمانی، ع، 1389، مطالعه محیط رسوبی و سکانس استراتیگرافی مخزن بنگستان در میدان نفتی رگ سفید(چاه شماره 14)گزارش شماره پ- 6966، شرکت ملی نفت مناطق نفت خیز جنوب، 42 صفحه، گزارش منتشر نشده.غبیشاوی، ع.، شب افروز، ر.ا، 1389، تطابق چینه شناسی در چاه مورد مورد مطالعه مخزن بنگستان میدان نفتی گچساران بر اساس نرم افزار Cyclolog ، گزارش داخلی شرکت ملی نفت مناطق نفت خیز جنوب، 13 صفحه، منتشر نشده. گودرزی، م.، وحیدی نیا، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، مطالعات چینه شناسی و فسیل شناسی بخش فوقانی سازند پابده و بخش زیرین سازند آسماری با تاکید بر مرز بین دو سازند در میدان نفتی مارون با استفاده از مطالعات چینه نگاری و نرم افزار سیکلولاگ: پایان نامه کارشناسی ارشد، 328 ص.گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، مقایسه مرز آشکوب¬های بخش بالایی سازند پابده و بخش زیرین سازند آسماری در چاه A میدان نفتی مارون با سطوح مرزی NB و PB با استفاده از نرم افزار سیکلولاگ: پنجمین همایش انجمن رسوب شناسی ایران، اسفند 1398.گودرزی، م.، وحیدی نیا، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، زیست چینه¬نگاری، ریز رخساره¬ها و محیط رسوبگذاری سازند آسماری در یکی از چاه¬های میدان نفتی مارون و مقایسه آن با سایر نواحی زاگرس. نشریه علمی پژوهشی رخساره¬های رسوبی، جلد 12، شماره 2، 1398. گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، دیرینه¬شناسی و محیط¬های رسوبی بخش بالایی سازند پابده و بخش زیرین سازند آسماری در چاه¬های A و B میدان نفتی مارون، شمال¬ شرق اهواز: نشریه علمی پژوهشی رسوب شناسی کاربردی، دوره 7، شماره 13، بهار و تابستان 1398.گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر.، عظام پناه، ی.ا، 1399، ریزرخساره¬ها، دیرینه بوم شناسی، اجتماعات کربناته و بررسی سطوح مرزی NB ، PB با مرز آشکوب¬های سازند آسماری با استفاده از نرم افزار سیکلولاگ در یکی از چاه¬های میدان نفتی مارون: نشریه علمی پژوهشی رسوب شناسی کاربردی دوره 8، شماره 15 ، بهار و تابستان 1399.گودرزی و همکاران، 1403گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر.، صداقت نیا.، م، 1404 دیرینه بوم شناسی نهشته های ائوسن بالایی- شاتین (سازندهای پابده و آسماری) در میدان نفتی مارون، جنوب غرب ایران، مجله یافته¬های نوین زمین شناسی کاربردی، دور 19، شماره 38، پاییز و زمستان 1404. گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر.، صداقت نیا.، م، 1404 بررسی سیکل های رسوبی و انطباق با مرزهای زیستی – زمانی ائوسن پسین – الیگوسن، سازندهای پابده و آسماری در میدان نفتی مارون، جنوب غرب ایران، مجله زمین شناسی نفت ایران، سال چهاردم، شماره 28، پاییز و زمستان 1403. صفحات 80-95.مطیعی، ه، 1372، چینه¬شناسی زاگرس: از انتشارات طرح تدوین کتاب زمین¬شناسی ایران، 536.نیسی، ع.، قادری، ع.، غبیشاوی، ع.، الله کرم پور دیل، م، 1396، زيست چینه¬نگاري، بررسي ريزرخساره¬ها و چينه¬نگاري سکانسي سازند آسماري به کمک نرم افزار سيکلولاگ در ميدان نفتي قلعه نار، حوضه زاگرس: نشریه علمی پژوهشی زمین شناسی نفت ایران، سال ششم، شماره 12، ص 22- 44.ALAVI, M., 2004, Regional stratigraphy of the Zagros fold-thrust belt of Iran and its proforeland evolution. American Journal of Science, 304: 1–20.DE JONG, M., SMITH, D., DJIN NIO, S., HARDY, N .,2006, Subsurface correlation of the Triassic of the UK southern central graben: new look at an old problem. 24: 103-109. EMBRY, A., 2009, Practical Sequence Stratigraphy, Canadian Society of Petroleum Geologists’ monthly magazine, The Reservoir, between May 2008 and September 2009.GRADSTEIN, F., OGG, J,. SMITH, A., 2004, A Geological Time Scale 2004: Cambridge, U.K, Cambridge University Press, p. 589.Hilgen F., Schwarzacher W., Strasser A., 2004. Concept and Definitions in Cyclostratigraphy (Second Report of Cyclostratigraphy Working Group). In: Cyclostratigraphy: Approaches and Case Histories. SEPM (Society for Sedimentary Geology): 303-305. JONG, M.G.G. DE, NIO, S.D., SMITH, D.G., BOHM,A.R., 2007, Subsurface correlation in the Upper Carboniferous of the Anglo-Dutch Basin using the climate stratigraphic approach. First Break, 25,LAURSEN 7, G.V, MONIBI, S., ALLEN, T.L., PICKARD, N.A.H., HOSSEINEY, A., VINCENT, B., December 2007, 49-59. HAMON, Y., VAN BUCHEM, F.S.H., MOALLEMI, A., DRIULLION, G., 2009, The Asmari Formation revisited: Changed stratigraphic allocation and new biozonation, First international petroleum conference & exhibition, Shiraz, Iran.NIO, S. D., BROUWER, J. H., SMITH, D., DE JONG, M., BOHM, A. R., 2005, Spectral trend attribute analysis: applications in the stratigraphic analysis of wireline logs. First break, 23(4).‏ : 71-75.NIO, S. D., A. R. BOHM, H. H. BROUWER, M.G.G., DE JONG., D. G. SMITH., 2006, Climate stratigraphy, principles and applications in subsurface correlation. EAGE short course series, 1: 130 P.NIO, S. D., BOHM, A. R., BROUWER, J. H., DE JONG, M. G. G., SMITH, D. G., (2014), Climate stratigraphy: Principles and applications in subsurface correlation. Earthdoc. PERLMUTTER, M.A., MATTEWS, M.D., 1990, Global cyclostratigraphy – a model. In Cross, T. (Ed) Quantitative, Dynamic Stratigraphy, Prentice Hall, 233-260.PERLMUTTER, M.A., RADOVICH, B.J., MATTEEWS, M.D., KENDAL, C.G.St.C., 1998, The impact of high frequency sedimentation cycles on stratigraphic interpretation. In Gradstein, F., Sandvik, K.O. and Milton, N.J. (Eds) Sequence Stratigraphy, Concepts and Applications, Elsevier, 141-170PIRYAEI, A.R., DAVIES, R.B, 2024, Petroleum geology of the cenozeoic succession in the Zagros of SW Iran: a sequence stratigraphic Approch Journal of Petroleum Geology, Vol.47(3): pp 235-290.STRASSER A., HILGEN F.J., HILGEN P.H. 2006. Cyclostratigraphy, concepts, definitiond and applications, Newletters on Stratigraphy Journal, 42 (2): 75-114.VAN BUCHEM F.S.P., ALLAN T.L., LAUREN G.V., LOTFPOUR , M., MOALLEMI, A., MONIBI, S., MOTIEI, H., PICKARD, N.A.H., TAHMASABI, A.R., VEDRENNE, V., VINCENT , B., 2010, Regional stratigraphic architecture and reservoir types of the Oligo-Miocene deposits in the Dezful Embayment (Asmari and Pabdeh formations) SW Iran. Geological Society, London, Special Publications, 329: 219–263.MohammadGoodarziMostafaSedaqgatneia82220269912210.66224/ispg.53116.15.29.99http://journal.ispg.ir/en/Article/53116http://journal.ispg.ir/en/Article/Download/53116http://journal.ispg.ir/en/Article/Download/53116http://journal.ispg.ir/en/Article/Download/53116http://journal.ispg.ir/en/Article/Download/53116http://journal.ispg.ir/en/Article/Download/53116http://journal.ispg.ir/en/Article/Download/53116http://journal.ispg.ir/en/Article/Download/53116آقانباتی.، ع، 1385، زمین شناسی ایران: سازمان زمین شناسی و اکتشافات معدنی کشور، 586.گودرزی، م.، وحیدی نیا، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، مطالعات چینه شناسی و فسیل شناسی بخش فوقانی سازند پابده و بخش زیرین سازند آسماری با تاکید بر مرز بین دو سازند در میدان نفتی مارون با استفاده از مطالعات چینه نگاری و نرم افزار سیکلولاگ: پایان نامه کارشناسی ارشد، 328 ص.گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، مقایسه مرز آشکوب¬های بخش بالایی سازند پابده و بخش زیرین سازند آسماری در چاه A میدان نفتی مارون با سطوح مرزی NB و PB با استفاده از نرم افزار سیکلولاگ: پنجمین همایش انجمن رسوب شناسی ایران، اسفند 1398.گودرزی، م.، وحیدی نیا، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، زیست چینه¬نگاری، ریز رخساره¬ها و محیط رسوبگذاری سازند آسماری در یکی از چاه¬های میدان نفتی مارون و مقایسه آن با سایر نواحی زاگرس. نشریه علمی پژوهشی رخساره¬های رسوبی، جلد 12، شماره 2، 1398. گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، 1398، دیرینه¬شناسی و محیط¬های رسوبی بخش بالایی سازند پابده و بخش زیرین سازند آسماری در چاه¬های A و B میدان نفتی مارون، شمال¬ شرق اهواز: نشریه علمی پژوهشی رسوب شناسی کاربردی، دوره 7، شماره 13، بهار و تابستان 1398.گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر.، عظام پناه، ی.ا، 1399، ریزرخساره¬ها، دیرینه بوم شناسی، اجتماعات کربناته و بررسی سطوح مرزی NB ، PB با مرز آشکوب¬های سازند آسماری با استفاده از نرم افزار سیکلولاگ در یکی از چاه¬های میدان نفتی مارون: نشریه علمی پژوهشی رسوب شناسی کاربردی دوره 8، شماره 15 ، بهار و تابستان 1399.گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، صداقت نیا، م. 1404، دیرینه بوم شناسی نهشته¬های ائوسن بالایی – شاتین(سازندهای پابده و آسماری) در میدان نفتی مارون، یافته¬های نوین زمین شناسی کاربردی، دوره 19، شماره 38، پاییز و زمستان 1404. گودرزی، م.، امیری بختیار، ح.، نورایی نژاد، م.ر، صداقت نیا، م. 1404، بررسی سیکل¬های رسوبی و انطباق با مرزهای زیستی-زمانی ائوسن پسین- الیگوسن، سازندهای پابده و آسماری در میدان نفتی مارون، جنوب غرب ایران، نشریه علمی - پژوهشی زمین شناسی نفت ایران، سال چهاردهم، شماره28، پائیزوزمستان1403ص80-95. مطیعی، ه، 1372، چینه¬شناسی زاگرس: از انتشارات طرح تدوین کتاب زمین¬شناسی ایران، 536.مهدور، م.ر.، فارسی مدان، م.، کمالی، ز، 1394، بررسی عملکرد شگستگی¬ها و تعیین تنش برجا در سازند مخزنی آسماری میدان نفتی مارون بر اساس تفسیر نتایج نمودارهای تصویرگر: فصلنامه زمین ساخت. دوره 1، شماره 2، صفحات 14- 35. هداوند خانی، ن.، صادقی، ع.، آدابی، م . ح.، طهماسبی، ع. ر ، 1396، سنگ چینه نگاری و زیست چینه نگاری سازند پابده در برش روستای چهارده (پهنه ایذه، خوزستان): فصلنامه علوم زمین، سال بیست و هفتم، شماره 107، ص 137 – 150.Ahmad, A. H. M., and Bhat, G. M (2006) Petrofacies, provenance and diagensis of the Dhosa sandstone member ( Chari Formation ) at Ler, Kachch Sub – basin, Western, India, Journal of Asian Earth Science, 27: 857- 872.Alavi, M (2004) Regional stratigraphy of the Zagros fold-thrust belt of Iran and its proforland evolution, American Journal of Science, V. 304, 1–20.Arosi, A. H., Wilson, M. E. J (2015) Diagenesis and fracturing of a large-scale, syntectonic carbonate platform, Sedimentary Geology 326 ,109–134.Assadi A. Honarmand J. Moallemi S. A. and Abdollahie-Fard I (2016) Depositional environments and sequence stratigraphy of the Sarvak Formation in an oil field in the Abadan Plain, SW Iran. Facies. 62(4): 1-22.Assadi A. Rahimpour‐Bonab H. and Kadkhodaie‐Ilkhchi R (2018) Integrated rock typing of the grainstone facies in a sequence framework: a case from the Jurassic Arab formation in the Persian Gulf. Acta Geologica Sinica‐English Edition. 92(4): 1432-1450Borgomano J. Lanteaume C. Leonide P. Fournier F. Montaggioni L. F. and Masse J. P (2020) Quantitative carbonate sequence stratigraphy: Insights from stratigraphic forward models. AAPG Bulletin. 104(5): 1115-1142.Bathurst, R. G. C (1975) Carbonate Sediments and their Diagensis: Developments in Sedimentalogy. 2nd Edication, Elsevier, Amesterdam, 12: 658 p.Bathurst, R. G. C (1987) "Diagenetically enhanced bedding in argillaceous platform limestones: stratified cementation and selective compaction", Sedimentology, Vol. 34(5): 749-778.Biernacka, J, K. Borysiuk, and Raczynski, P (2005) Zechstein (Ca1) limestone-marl alternations from the North-Sudetic Basin Poland, depositional or diagenetic rhythms?: Geological Quarterly, v. 49, p. 1–14 Butler, I. B., Rickard, D (2000) "Framboidal pyrite formation via the oxidation of iron (II) monosulfide by hydrogensulphide", Geochimica et Cosmochimica Acta, 64, p. 2665–2672.Buxton, T. M. and Sibley, D. F (1981) Pressure solution features in a shallow buried limestone, Journal of Sedimentary Petrology, V. 51, 19–26.Dickson. J.A.D (1965) A modified staining technique for carbonate in the thin section: Nature, v: 205, p: 587.Cantrell, D. L., and Hagerty, R. M (1999) Microporosity in Arab Formation Carbonates, Saudi Arabia: GeoArabia, v. 4, p.129-154.Cooke, M. L., Simo, J. A., underwood, C. A. and Rijken, P (2006) Mechanical Stratigraphic controls on fracturepatterns within carbonates and implications for groundwater flow. Sedimentary Geol, 184: 225-239.Choquette, P.W., and James, N.P (1990) Limestones: the burial diagenetic environment. In: Mcllreath, I.A., & Morrow, D.W. (eds.), Diagenesis. Geological Association of Canada, Geoscience Canada, Reprint Series, 4: 75-111.Choquette, P. W., and Pray, L. C (1970) Geologic nomenclature and classification of porosity in sedimentary carbonates: American Association of Petroleum Geologist Bulletin, v. 54, p. 207–244.Dunham R. 1962. Classification of carbonate rocks according to depositional texture, in Ham, W.E., (ed.), Classification of carbonate rocks. AAPG Memoir 1, Tulsa, 108–121.Earler, D.V., Nothdurft, L., McNeil, M. and Moras, C.A (2018) Tracing nitrate sources using the isotopic composition of skeletal-bound organic matter from the calcareous green algae Halimeda. Coral Reefs, 37, 1003– 1011. https://doi.org/10.1007/s00338-018-01742-zEhrenberg, S.N., Pickard, N. A. H., Svana and Oxtoby, T. A (2002) Cement geochemistry of photozoan carbonate strata (Upper Carboniferous-Lower Permian), Finnmark Carbonate Platform, Brents Sea. Journal Sedimentary Research, 72, 95-115.EL – G hali, M. A. K., Tajoti, K. G., M ansorbeh, H., Ogle, N., & Kalin, R. M (2006) Origin and timing of sidrelite cementation upper Ordivisian glacogenic sandstone from the Murzuk basin, SW Libya. Marine and Petroleum Geology, 23: 459- 471.El-Saiy, A. K., and Jordan, B. R ( 2007) Diagenetic aspects of tertiary carbonates west of the Northern Oman Mountains, United Arab Emirates: Journal of Asian Earth Sciences, v. 3, p. 35–43.Flügel, E (2004) Microfacies of Carbonate Rocks: Analysis Interpretation and Application. Springer-Verlag, Berlin, 976p.Flügel, E (2010) Microfacies of Carbonate Rocks: Analysis Interpretation and Application. Springer-Verlag, Berlin, 976p Folk, R. L. and Siedlecka, A (1974) The Schizohaline environment: its sedimentary and diagenesis fabrics as exemplified by late Paleozoic rocks of Bear Island, Svalbard, Journal of Sedimentary Geology, V. 11, 1-15.Folk. R. L (1965) Some aspects of recrystallization in ancient limestones. In: Pray, L.C. and Murray, R.C. (eds.): Dolomitization and limestone diagenesis. Society of Economic Paleontologist and Mineralogists. Spec. Publ., v: 13, p: 14-48.Garcia – pichel, F (2006) Plausible mechanisms for the boring on carbonates by microbial protorophs Sedimentary Geology, 125: 29-50.Geske. A., Zorlu. J., Richter. D. K., Buhl. D., Niedermayr. A. and Immenhauser. A (2012) Impact of diagenesis and low grade metamorphosis on isotope (δ26Mg, δ13C, δ18O and 87Sr/86Sr) and elemental (Ca, Mg, Mn, Fe and Sr) signatures of Triassic sabkha dolomites, Chemical Geology, 332-333, 45-64.Goldhaber, M. B (2004) Sulfur – rich sediment, In: Mackezie F. T., (ED.), Sediments, Diagenesis and Sedimentary Rocks, Treatise on Geochemistray. Elsevier, Amsterdam, PP. 257 – 288.Gregg. J. M. and Shelton. K. L (1990) Dolomitization and Dolomite Neomorphism in the Back Reef Facies of the Bonneterre and Davis Formations (Cambrian), Southeastern Missouri. Journal of Sedimentary Research., v: 60, p: 549-562.Hassanzadeh Nemati, M., Mohseni, H., Memarian, M., Yousefi Yeganeh, B., Janbaz, M., Swennen, R (2018) Petrography and geochemical constrain of dolostones of the Shahbazan Formation in Lorestan (Iran). Carbonates and Evaporites. DOI: 10.1007/s13146-018-0449-7Humphrey. J. D (1988) Late Pleistocene mixing zone dolomitization, south-eastern Barbados, West Indies. Sedimentology., v: 35, p: 327-348. Halley, R. B. and Harris, P.M (1979) Fresh water cementation of a 1, 000 year-old oolite. Jour. Sediment. Res., v.49, pp.969–988.Heydari, E., & Wade, W (2003) Massive recrystalization of low – Mg calcite at high tempretures in hedrocarbon source rocks, Implication for organic acids as factors in diagensis. American Assocation of Petrleum Geologists Bulletin, 86: 1285 – 1303.Hollis C. Lawrence D. A. de Periere M. D. and Al Darmaki F (2017) Controls on porosity preservation within a Jurassic oolitic reservoir complex, UAE. Marine and Petroleum Geology. 88: 888-906.Kasih, G. A. A., Chiba, S., Yamagata, Y., Shimizu, Y., & Haraguchi, K (2008) Modelling early diagensis of sediment in Ago Bay, Japan, A comparison of steady satae and dynamic calculation. Ecological Modelling, 215: 40-54.Krause, S., Liebetrau, V., L€oscher, C., B€ohm, F., Gorb, S., Eisenhauer, A. and Treude, T (2018) Marine ammonification and carbonic anhydrase activity induce rapid calcium carbonate precipitation. Geochim. Cosmochim. Acta, 243, 116–132.James, N. P. and Choquette, P. W (1990b) Limestone — the sea floor diagenetic environment. In: McIlreath, I., Morrow, D. (Eds.), Diagenesis, Geological Association of Canada Reprint Series 4, 13–34..James, N. P. and Jones, B., 2015, Origin of Carbonate Sedimentary Rocks, Wiley, American Geophysical Union, 464.James, N. P. and Jones, B (2015) Origin of Carbonate Sedimentary Rocks, Wiley, American Geophysical Union, 464 p.James, G.A. and Wynd, J.G (1965) Stratigraphic nomenclature of Iranian Oil Consortium, Agreement Area, American Association of Petroleum Geologists Bulletin, 49(12), 2182-2245.LAURSEN, G.V, MONIBI, S., ALLEN, T.L., PICKARD, N.A.H., HOSSEINEY, A., VINCENT, B., HAMON, Y., VAN BUCHEM, F.S.H., MOALLEMI, A., DRIULLION, G., 2009, The Asmari Formation revisited: Changed stratigraphic allocation and new biozonation, First international petroleum conference & exhibition, Shiraz, Iran.Land. L. S (1985) The origin of massive dolomite: Journal of Geological Education, v: 33, p: 112-125Land. L. S (1991) Dolomitization of the Hope Gate Formation (north Jamaica) by seawater: reassessment of mixing zone dolomite. In: Taylor, H. P., O’Neil, J. R., Kaplan, I. R. (Eds.), Stable Isotope Geochemistry: A Tribute to Samuel Epstein, Geochemical Society, Special Publications, 3: 121-133Longman, M. W (1980) Carbonate diagenetic textures from nearsurfacediagenetic environments. AAPG Bull., v.64., pp.461-487. Madden, R. and Wilson, M (2013) Diagenesis of a SE Asian Cenozoic carbonate platform margin and its adjacent basinal deposits, Sedimentary Geology, 286–287: 20–38.Mattes. B.W., and Mountjoy, E.M (1980) Burial dolomitisation of the Upper Devonian Miette buildup, Jasper National Park, Alberta. In: Concepts and Models of Dolomitization (Eds. D.H. Zenger, J.B. Dunham and R.L. Ethington): SEPM Spec. Publ., v: 28, p: 259–297. Messadi, A. M., B. Mardassi, J. A. Ouali, and Touir, J (2016) Sedimentology, diagenesis, clay mineralogy and sequential analysis model of Upper Paleocene evaporite-carbonate ramp succession from Tamerza area (Gafsa Basin: Southern Tunisia): Journal of African Earth Sciences, v. 118, p. 205-230.Miller. J.K. and Folk, R.L (1994) Petrographic, geochemical and structural constraints on the timing and distribution of postlithification dolomite in the Rhaetian Portoro (―Calcare nero‖) of the Portovenere Area, La Spezia, Italy. In: B.H. Purser, M.E.Moore, C.H (1989) Carbonate Diagenesis and porosity. Elsevier, Amsterdam. 338pp. Sediment. 9 No, , 26, 511pp. Black well Science Oxford Moore, C. H (2013) " Carbonate Reservoirs: Porosity Evolution and Diagenesis in a Sequence Stratigraphic Framework ", Elsevier, Amsterdam. 370 pp.Moss, S.J., Tucker, M.E (1995) " Diagenesis of Barremian-Aptian platform carbonates (the Urgonian Limestone Formation of SE France): near-surface and shallow-burial diagenesis ", Sedimentology, 42, p. 853-874.Murris, R. J (1980) Hydrocarbon habitat of the Middle East, American Association of Petroleum Geologists, Memoir 6, 765-800. Pettijohn, F. J (1975) Sedimentary Rocks. Harper& Row. New York. 628 pp. Philip J. M., and J. Gari ., (2005). Late Cretaceous heterozoan carbonates: Palaeoenvironmental setting, relationship with rudist carbonates (Provence, south-east France): Sedimentary Geology, v. 175, p. 315-337Purser, B. H., (1978). Early diagenesis and the preservation of porosity in Jurassic limestone. Journal of Petroleum Geology, 1, 83-94.Railsback, L. B (1993) Lithologic controls on morphology of pressure-dissolution surfaces (stylolites and dissolution seams) in Paleozoic carbonate rocks from the Mideastern United States. Journal of Sedimentary Research 63 (3), 513–522.Rao, C. P (1996) Modern Carbonates: Tropical, Temperate and Polar: Introduction to Sedimentology and Geeochemistry. Carbonates, Hobart ( Tasmania), 206 p.Ronchi, P., Jadoul, F., Ceriani, A., Giulio, A. D., Scotti, P., Ortenzi, A. and Massara, E. P (2011) Multistage dolomitization and distribution of dolomitized bodies in Early Jurassic carbonate platforms (Southern Alps, Italy), Sedimentology, 58: 532–565.Salifou I. A. M. Zhang H. Boukari I. O. Harouna M. and Cai, Z (2021) New vuggy porosity models-based interpretation methodology for reliable pore system characterization, Ordovician carbonate reservoirs in Tahe Oilfield, North Tarim Basin. Journal of Petroleum Science and Engineering, v (196). 63-79Sanders, D (2001) Burrow-mediated carbonate dissolution in rudist biostromes (Aurisina, Italy), implications for taphonomy in tropical, shallow subtidal carbonate environments. Palaeogeography, Palaeoclimatology, Palaeoecology, 168, 39-74.San Miguel, G., Aurell, M. and Bádenas, B (2017) Diagenetic evolution of a shallow marine Kimmeridgian carbonate ramp (Jabaloyas, NE Spain): implications for hydrocarbon reservoir quality. Arabian Journal of Geosciences, 10 (16), 376 p.Seibel, M. J., & James, N. P (2017) Diagenesis of Miocene, incised Valley – filling limestones: Provence Southern France. Sedimentary Geology. Vol. 347: 21 – 35.Smith, J. V (2000) Three – dimensional morphology and connectivity of Stylolite shape reactivated during veining. Journal of Structural Geology, 22: 59 – 64.Thomas, A. N (1948) The Asmari limestone of southwest Iran; Anglo-Iranian Oil Company Report, 706 p, unpublishedTucker, M.E. and Wright, V.P (1990) Carbonate Sedimentology: Blackwell, Oxford, 482 p.Tucker, M. E (2001) Sedimentary Petrology. 3d Edition, Blackwell, Oxford, 260 p.Van Buchem, F.S.P., Allan, T., Lausen, G.V., Lotfpour,M., Moallemi, A., Monibi, S.,Motiei, H., Pickard, N., Tahmasbi, A.R., Vedrenne, V., Vincent, B (2010) Regional stratigraphic architecture and reservoir types of the Oligo-Miocene deposits in the Dezful Embayment (Asmari and Pabdeh Formations) SW Iran, 329. Geology Society, London. Special Publication. pp. 219–263. Veizer. J (1983) Chemical diagenesis of carbonates: theory and application of trace element techniques. In Stable isotopes in sedimentary geology: Blackwell Scientific Publications, Oxford, 482p.Wanless.H.R (1979) Limestone response to stress: pressure solution and dolomitization: Jour.Sed. Petrol, v: 49, p:437-462.Warren. J. K (2000) Dolomite: occurrence, evolution and economically important association: Earth Sci Reviews., v:52, p: 1-8Westphal, H (2006) Limestone – Marl alternation as environmental archives and the role of early diagenesis: a critical review. International Journal of Science ( Geology Rundsch), 95: 947-961. Wizemann, A., Nandini, S.D., Stuhldreier, I., S_anchez- Noguera, C., Wisshak, M., Westphal, H., Rixen, T., Wild, C. and Reymond, C.E (2018) Rapid bioerosion in a tropical upwelling coral reef. PLoS One, 13, e0202887.Wynd, J.G (1965) Biofacies of the Iranian oil Consortium Agreement Area (I.O.O.C), Unpublished Report no. p. 1082, 88.Zeigler, M.A (2001) Late Permian to Holocene paleofacies evolution of the Arabian plate and its hydrocarbon occurrences. GeoArabia, 6(3): 445-504.Zenger. D.H (1983) Burial dolomitization in the Lost Burro Formation/Devonian, east central California and the significance of late diagenetic dolomitization: Geology, v:11, p:519-522.Zohdi, A., A. Moallemi, R. Moussavi-Harami, A. Mahboubi, D. K. Richter, A. Geske, A. Nickandish, and Immenhauser, A (2014) Shallow burial dolomitization of an Eocene carbonate platform, southeast Zagros Basin, Iran: GeoArabia, v.19, p.17-54.Walker, K.R., Jernigan, D.G., & Weber, L.J (1990) Petrographic criteria for the recognition of marine, syntaxial overgrowths, and their distribution in geologic time. Carbonates and Evaporites, 5 (2): 141-152.Ying R., Dakang Z., Chonglong G., Queqi Y., Rui X.,Langbo J., Yangjinfeng J., Ningcong Zh., (2017). Dolomite geochemistry of the Cambrian Longwangmiao Formation, eastern Sichuan Basin: Implication for dolomitization and reservoir prediction. Petroleum Research 2 (2017) 64e76.Zaid, S. M (2012) Provenance, diagenesis, tectonic setting and geochemistry of Rudies sandstone (lower Miocene), Warda Field, Gulf of Suez, Egypt. J. African Earth Sci. 66, 56- 71.Zhang, H., Ding, L., Wang, X., Wang, L., Wang, Q. and Xia, G (2006) Carbonate Diagenesis Controlled by Glacioeustatic Sea-Level Changes: A Case Study from the Carboniferous-Permian Boundary Section at Xikou, China. J. China Univ. Geosci. 17, 103- 114.VAN BUCHEM F.S.P., ALLAN T.L., LAUREN G.V., LOTFPOUR , M., MOALLEMI, A., MONIBI, S., MOTIEI, H., PICKARD, N.A.H., TAHMASABI, A.R., VEDRENNE, V., VINCENT , B., 2010, Regional stratigraphic architecture and reservoir types of the Oligo-Miocene deposits in the Dezful Embayment (Asmari and Pabdeh formations) SW Iran. Geological Society, London, Special Publications, 329: 219–263.