Planning of the industrial and hydrogeological research at the final stage of hydrocarbon deposits development
DOI:
https://doi.org/10.26565/2410-7360-2017-46-05Keywords:
water flooding of wells, water factor, the minimum required flow rate of gasAbstract
Formulation of the problem. The article focuses on monitoring the wells operation at the final stages of hydrocarbon deposits development. It is known that at the final stages of the field development wells operation is characterized by a number of complications associated with the depletion of the reservoir energy and flooding with stratal waters. According to the program "20/20" gas production in JSC "Ukrgasvydobuvannia " is expected to increase to 20 billion m3 per year. One way to achieve this goal is to intensify the production on the operating fields. Consequently, flooding of the wells is likely to aggravate. However, there has been a mismatch between quantitative and qualitative indicators of industrial and hydrogeological studies of the wells. Control measurements of the water factor at the wellhead do not fix the fluid flow, and the samples selected by the field geological service are reservoir water.
The purpose of the article. To determine the causes of the indicated differences in the conditions of wells operation and the results of industrial and hydrogeological research in Yuliyivske field in 2016.
Methods. The author s own achievements as well as the research results of domestic and foreign investigators made the methodical basis for the article.
Results. In 2016 we operated wells No. 57, 61, 73, 77 without the signs of water flooding in Yuliyivske field. Well No.7 began flooding from April, and by the end of the year it had acquired an intensive character. Analysis of the opearational water usage of well No.50 showed that it began flooding. The degree of water flooding is found to be not heavy, further increase in the flow rate of formation water is not expected. The data, especially industrial ones (gas flow rate and water factor) suggest possible start of wells No. 60 and 63 flooding. In 2017 they will be the priority for industrial and hydrogeological studies. Wells No. 56 and 83 are operating in the field conditions of non-intensive income and outcome of stratal waters.
Scientific novelty and practical significance. It has been found out that among the twelve wells which were controlled on water flooding, only two meet the conditions of passing liquid to the surface. Considering this fact, it has been proposed to divide field wells into two groups before the beginning of industrial and hydrogeological studies. In the first group it is advisable to carry out hydrogeochemical control of associated water composition only. The second group includes the wells where it is appropriate to carry out control measurements of water factor in the estuary.
References
Svitlitskiy, V.M. (2014). Do pitannya pIdvischennya produktivnostI naftogazovih sverdlovin [About increasing oil and gas wells flow]. Oil & gas industry of Ukraine, 1, 12-17.
Kachmar, Yu.D., SvItlitskiy, V.M., Sinyuk, B.B., YaremIychuk, R.S. (2004). IntensifIkatsIya priplivIv vuglevodnIv u sverdlovinu [The intensification of inflow of hydrocarbons into the well]. Lviv: Center of Europe, 352.
Sosnok, A. (2016). O vnedrenii tekhnologii gidrorazryva plasta v «Belorusnefti» [On the introduction of the technology of hydraulic fracturing of the formation in "Belorusneft"]. Bulletin of Belneftekhim, 7(126), 46-51.
Doroshenko, V. M., Doroshenko, S.V. (2015). Rozvitok metodIv obmezhennya priplivu plastovih vod u sverdlovinu v umovah piznoyi stadiyi rozrobki rodovisch [Development of methods of the restriction of the formation waters inflow into well on the late stage of fields development]. Oil & gas industry of Ukraine, 5, 34-38.
Boyko, V.S., Boyko, R.V., Keba, L.M., SemInskiy, O.V. ed. (2006). Obvodnennya gazovih I naftovih sverdlovin [Hydration gas and oil wells]. Kiev, International economic foundation, 1, 792.
Pravila razrabotki gazovyh i gazokondensatnyh mestorozhdenij [Rules for the development of gas and gas condensate fields]. (1971). Moscow: Nedra, 104.
Dyachuk N.S., Uhrynovs'kyy A.V. (2009). Kontrol' za obvodnennyam hazovykh i hazokondensatnykh pokladiv i sverdlovyn). [Control of flooding and gas condensate reservoirs and wells]. Prospecting and development of oil and gas fields, 4 (33), 104-109.
Zorkin, L.M., Akulinchev B.P. ed (1997). Tehnologiya gazopromyislovyih gidrogeologicheskih issledovaniy [Technology of gas hydrogeological research]. Moscow, Nedra, 300.
Kanevskaya, R.D. (1999). Matematicheskoe modelirovanie razrabotki mestorozhdeniy nefti i gaza s primeneniem gidravlicheskogo razryiva plasta [Mathematical modeling of the development of oil and gas fields using hydraulic fracturing]. Moscow, Nedra, 212.
Stroganov, A.M., Iskrin, A.Yu., Kamenskiy, A.V., Stroganov, M.A., Usov, S.V. (2013). K voprosu ogranicheniy vodopritokov v neftyanoy skvazhine posle provedeniya GRP [On Controlling the Water Inflow to Oil Wells After Hydro–fracturing]. Oil.Gas.Nîvàtion, 7(174), 18-26.
Sarancha, A.V., Fedorov, V.V., Mitrofanov, D.A., Zotova, O.P. (2015). Effektivnost provedeniya gidravlicheskogo razryiva plasta na vyingapurovskom mestorozhdenii [Efficiency of hydraulic fracturing at Vyngapur deposit]. Basic research, 2-12, 2581-2584.
Lea, J., Nickens, H., Wells, M. (2008). Jekspluatacija obvodnjajushhihsja gazovyh skvazhin. Tehnologicheskie reshenija po udaleniju zhidkosti iz skvazhin [Operation of water-flooded gas wells. Technological solutions for removing fluid from wells]. Moscow, «Premium Engineering Ltd», 384.
Boyko, V.S., Ivanov, S.I., Burachok, O.V. (2004). Komp yuterna metodyka optymizatsiyi roboty obvodnenykh hazovykh sverdlovyn na osnovi vykorystannya danykh pro debit hazu [Computer optimization technique of flooded wells on the basis of data on the flow rate of gas]. Prospecting and development of oil and gas fields, 2(11), 60-63.
Kondrat, R.M., Kondrat, O.R., Marchuk, Yu.V., Khomyn, I.I. (2007). Pidvyshchennya produktyvnosti nyz'kodebitnykh obvodnenykh hazovykh i hazokondensatnykh sverdlovyn [Increasing productivity of low debit flooded gas and gas condensate wells]. Prospecting and development of oil and gas fields, 3(24), 14-17.
Bulka, S.V., Sobol', V.V., Stetsyuk, S.M., Vakulenko, N.S. (2010). Otsinka stiykoyi roboty hazokondensatnykh sverdlovyn na prykladi Bil's'koho rodovyshcha [Assessment of sustainable condensate wells for example Bielsk field]. Problems of gas industry development in Ukraine, XXXVIII, 151-155.
Volovets'kyy, V.B., Kotsaba, V.I., D'omin, A.V. (2016). Sposoby rehulyuvannya roboty hazokondensatnykh sverdlovyn v umovakh periodychnoyi ekspluatatsiyi [Methods for regulation of gas condensate wells in conditions of periodic operation]. Problems of gas industry development in Ukraine, XLIV, 131-136.
Valeev, A.F., Solovev, N.A., Shuer, A.G. (2013). Kontseptsiya sovershenstvovaniya tehnologicheskih rezhimov rabotyi sistemyi «plast-skvazhina-shleyf» v usloviyah obvodneniya gazovyih skvazhin i sposob eyo realizatsii [The concept of improving the technological operating modes of the "reservoir-well-trail" system in conditions of watering gas wells and the way of its realization]. Electronic scientific journal "Oil and gas business", 4, 136-149.
Lupsheev, V.A., Vasyanovich, M.M., Tsiku, Yu.K. (2013). Odin iz sposobov prodleniya bezvodnogo perioda ekspluatatsii dobyivayuschih skvazhin [One way to extend the anhydrous period of operation of production wells]. International research journal, 7(14), 5, 117-121.
Boyko ,V.S., Kondrat, R.M., Yaremiychuk, R.S. ed. (1996). Dovidnyk z naftohazovoyi spravy [Handbook of oil and gas business]. Lviv, 620.
Samoilov, V.V. (2014). Promyslovo-hidroheolohichni doslidzhennya – skladova kontrolyu za rozrobkoyu hazokondensatnykh rodovyshch [Industrial-hydrogeological study – component control over development gas-condensate field]. Visnyk of Karazin Kharkiv National University, 1098, 46-48.
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