Material Hilang Sirkulasi Berbahan Dasar Serat

Purnomo  Sidi

doi:10.37525/mz/2020-1/248

Authors

Purnomo Sidi PEM Akamigas

DOI:

https://doi.org/10.37525/mz/2020-1/248

Keywords:

hilang sirkulasi, lumpur pemboran, serat alami, rekah alami, bahan hilang sirkulasi

Abstract

Hilang sirkulasi merupakan masalah yang dapat terjadi pada saat operasi pemboran. Hilang sirkulasi dapat terjadi ketika fluida pemboran bertekanan bersirkulasi melewati lapisan high permeable dan ataupun lapisan rekah. Material hilang sirkulasi (LCM) ditambahkan ke dalam fluida pemboran untuk menanggulangi hilang sirkulasi, dapat berupa tipe serat, granular dan atau flaky. Bahan hilang sirkulasi tipe serat alami dipilih untuk membantu penanganan hilang sirkulasi yang timbul dengan cara membentuk mud cake, menutup zona loss dan dianggap ramah lingkungan.

References

Almagro, S.P.B., Frates, C., Garand, J., and Meyer, A., 2014. Sealing fractures: Advances in lost circulation control treatments. Schlumberger Oilfield Review 2014, 26(3), pp. 4-13.

Alsabagh, A.M., Abdou, M.I., Ahmed, H.E., Khalil, A.A., Aboulrous, A.A., 2015. Evaluation of some natural water-insoluble cellulosic material as lost circulation control additives in water-based drilling fluid. Egyptian Journal of Petroleum, 24(4), pp. 461-468.

Alsaba, M., Nygaard, R., Saasen, A., and Nes, O. M., 2014. Lost circulation materials capability of sealing wide fractures. Society of Petroleum Engineers. doi:10.2118/170285-MS.

Annis, M.R. and Smith, M.V., 1996. Drilling Fluids Technology. 1st edn. Texas: Exxon Company.

Burts Jr, B.D., 1997. Lost Circulation Material with Rice Fraction. USA, Patent No. 5,599,776.

Caskey, B.C., 1985. Lost circulation technology workshop, October 9-10, 1984 (No. SAND-85-0109; CONF-8410281-Summ.). Sandia National Labs., Albuquerque, NM (USA).

Droger, N., K., Todd., L., Ellis, C., Salih, O., Silko, N., Bermudez, R., 2014. Degradable fibre pill for lost circulation in fractured reservoir sections. Society of Petroleum Engineers, doi:10.2118/168024-MS.

Hossain, M.E. and Wajheeuddin, M., 2016. The use of grass as an environmentally friendly additive in water-based drilling fluids. Petroleum Science, 13(2), p. 292–303.

Ismail, I., Mohd Nor, A. B., Hamid, F. M. and Ismail, A. R., 2014. The Impact of Durian Rind in Water-based Mud in Combating Lost Circulation. Jurnal Teknologi (Sciences & Engineering), 74(1), p. 51–56.

Jain, B., Mesa, A. M., Kalbani, S. A., Meyer, A. W., Aghbari, S., Al-Salti, A., Al-Sharji, H. H., 2013. Successful implementation of engineered fibre based loss circulation control solution to effectively cure losses while drilling. Society of Petroleum Engineers, doi:10.2118/166529-MS.

Kefi, S., Lee, J. C., Shindgikar, N. D., Brunet-Cambus, C., Vidick, B., and Diaz, N. I., 2010. Optimizing in four steps composite lost circulation pills without knowing loss zone width. Society of Petroleum Engineers, doi:10.2118/133735-MS.

Kulkarni, S., Kumar, A., Savari, S., Jamison, D. E., 2012. Novel rheological tool to determine lost circulation materials (LCM) plugging performance. Society of Petroleum Engineers, doi:10.2118/150726-MS.

Kumar, A., Savari, S., Whitfill, D.L., Jamison, D.E., 2014. Wellbore strengthening: A method to evaluate lost circulation materials-investigation of effective wellbore strengthening applications. Society of Petroleum Engineers, doi:10.2118/167977-MS.

Lummus, J.L. and Ryals, J.N., 1971. Preventing loss of drilling fluid to drilled formations. USA, Patent No. 3,629,102.

MacQuoid, M. and Skodack, D., 2004. Method for using coconut coir as a lost circulation material for well drilling. USA, Patent No. US 2004/0129460 A1.

Mahto, V. and Sharma, V. P., 2004. Rheological study of a water-based oil well drilling fluid. Journal of Petroleum Science and Engineering, 45(1-2), pp. 123–128.

Messier, E. and Morgan, D. S.R., 2003. Controlling cement tops through use of fibre-based slurries reduces drilling costs. Petroleum Society of Canada, pp. 15-19.

Nayberg, T. M., 1987. Laboratory study of lost circulation materials for use in both oil-based and water-based drilling muds. Society of petroleum engineers, doi:10.2118/14723-PA.

Nestle, A. C., 1948. Drilling fluid. USA, Patent No. 2,601,050.

Okon, A.N., Udoh, F.D., Bassey, P.G., 2014. Evaluation of rice husk as fluid loss control additive in water-based drilling fluid. Society of Petroleum Engineers, doi:10.2118/172379-MS.

Olatunde, A.O., Usman, M.A., Olafadehan, O.A., Adeosun, T.A. and Ufot, O.E., 2012. Improvement of rheological properties of drilling fluid using locally based materials. Petroleum & Coal, 54(1).

Priening, P., Ali, M., Jaffery, M., Salazar, J., Jain, B., 2008. Advanced engineered fibre technology- A novel solution to cure lost circulation during drilling: Pakistan case history. Society of Petroleum Engineers, doi:10.2118/114069-MS.

Purnomosidi. 2018. PhD Thesis. Investigating the suitability of biomass Eichhornia crassipes as a lost circulation material in water-based drilling muds. University of Aberdeen.

Salmachi, A., Talemi, P., Tooski, Z. Y., 2016. Psyllium husk in water-based drilling fluids: An environmentally friendly viscosity and filtration agent. Society of Petroleum Engineers, doi:10.2118/183308-MS.

Silent, R. A., 1936. Circulation Losses. American Petroleum Institute, pp. 60-66.

Taufik, M., Panjaitan, R.A., Djambek, A., 2011. Fibrous organic cellulose application to combat seepage losses in fractured limestone formations, offshore east Kalimantan, Indonesia. Society of Petroleum Engineers, doi:10.2118/145763-MS.

Verret, R., Robinson, B., Cowan, J., Fader, P., Looney, M., 2000. Use of micronized cellulose fibers to protect producing formations. society of petroleum engineers, doi:10.2118/58794-MS.

White, R. J., 1956. Lost-circulation materials and their evaluation. American Petroleum Institute, pp. 352-359.