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Научно-технический журнал

«Onshore and offshore oil and gas well construction»

ISSN 0130-3872

Justification of optimal wells completion using autonomous inflow control devices in the development of deposits with oil rims

UDC: 622.276
DOI: -

Authors:

ZHARIKOVA N.KH.1,
SAVENOK O.V.1,
PORYVKIN P.P.1,
SHELUKHOV G.V.1

1 Empress Catherine II St. Petersburg Mining University, St. Petersburg, Russia

Keywords: specific features of developing fields with gas cap and oil rim, inflow control device, use of inflow control device when developing oil rims, calculation of development efficiency by inflow control devices, modeling of autonomous inflow control device, inflow equation for wells equipped by ICD

Annotation:

The selection of the correct well completion arrangement equipped by inflow control devices largely depends on the accurate determination of the PVT properties of formation fluids in order to establish the parameters during the manufacture of the devices themselves and the permeability distribution in the formation. An equally important aspect when determining the optimal completion layout is the quality and quantity of the initial data for developing a geological and hydrodynamic model, since the initial design is carried out using reservoir models: calculations of the efficiency of inflow control devices are sensitive to the parameters of the model itself. The authors of the article select an optimal system of developing an oil and gas condensate field by using wells equipped by autonomous inflow control devices, and comparative experimental calculations are carried out on a sector hydrodynamic model. A method for operating oil wells by conducting a nodal analysis is also proposed. The results of the experimental calculations showed that the use of inflow control devices (ICD) allows for more accurate control of the inflow in wells, reduces the cumulative production of gas and water and increases the cumulative production of oil. Extending the well operational time without an increased gas factor by selecting the optimal completion layout with ICD valves will increase the current and final oil recovery factor and reduce the gas factor.

Bibliography:

1. Izuchenie trudnoizvlekaemykh i netraditsionnykh ob"ektov soglasno printsipu "fabrika kollektora v plaste" / A.D. Alekseev, V.V. Zhukov, K.V. Strizhnev, S.A. Cherevko // Zap. Gornogo in-ta. – 2017. – T. 228. – S. 695–704. – DOI: 10.25515/PMI.2017.6.695
2. Obosnovanie primeneniya ustroystv kontrolya pritoka dlya effektivnoy razrabotki neftegazovykh zalezhey / R.F. Akhmadeev, S.P. Ayushinov, R.R. Islamov [i dr.] // Neft. khoz-vo. – 2021. – № 12. – S. 124–127. – DOI: 10.24887/0028-2448-2021-12-124-127
3. Golichenko E.Yu., Semenov A.M. Otsenka effektivnosti ispol'zovaniya ustroystv kontrolya pritoka pri modelirovanii morskogo neftyanogo mestorozhdeniya na nachal'noy stadii razrabotki // Teoreticheskie i prikladnye problemy servisa. – 2010. – № 4(37). – S. 46–55.
4. Osobennosti provedeniya slozhnykh promyslovo-geofizicheskikh issledovaniy po kontrolyu razrabotki mestorozhdeniy v oslozhnennykh usloviyakh Vostochnoy Sibiri / V.A. Grinchenko, R.R. Valeev, M.M. Abdullin [i dr.] // Neft. khoz-vo. – 2020. – № 11. – S. 56–61. – DOI: 10.24887/0028-2448-2020-11-56-61
5. Guliev R.Z., Tananykhin D.S. Optimizatsiya protsessa zavodneniya s primeneniem strategii reaktivnogo upravleniya pri pomoshchi skvazhin s vysokotekhnologichnymi komponovkami // Sovremennye tekhnologii v neftegazovom dele – 2017: sb. tr. mezhdunar. nauch.-tekhn. konf., Oktyabr'skiy, 31 marta 2017 g.: v 2 t. T. 1. – Ufa: UGNTU, 2017. – S. 61–63.
6. Efimov M.E., Shafeev R.R. Sovershenstvovanie ustroystv kontrolya pritoka: ot passivnykh do intellektual'nogo zakanchivaniya // Aktual'nye problemy nauchnogo znaniya. Novye tekhnologii TEK-2023: materialy VII Mezhdunar. nauch.-prakt. konf., Tyumen', 21 apr. 2023 g. – Tyumen': TIU, 2023. – S. 33–38.
7. Zharikova N.Kh., Samoylov M.I. Analiz tekushchego sostoyaniya obvodnennosti skvazhin na Zapolyarnom neftegazokondensatnom mestorozhdenii // Geologiya, geofizika i razrab. neftyanykh i gazovykh mestorozhdeniy. – 2023. – № 1(373). – S. 46–56. – DOI: 10.33285/2413-5011-2023-1(373)-46-56
8. Optimizatsiya sistemy kontrolya za razrabotkoy plasta PK1 neftegazokondensatnogo mestorozhdeniya putem doosnashcheniya kolonny NKT ustroystvom kontrolya pritoka gaza / N.Kh. Zharikova, O.V. Savenok, G.V. Shelukhov, P.P. Poryvkin // Str-vo neftyanykh i gazovykh skvazhin na sushe i na more. – 2024. – № 6(378). – S. 36–48.
9. Umnoe zakanchivanie stingerom i peremeshchenie tochki pritoka flyuida kak al'ternativa passivnykh i aktivnykh ustroystv pri razrabotke tonkikh neftyanykh otorochek / E.S. Zakirov, S.N. Zakirov, I.M. Indrupskiy, D.P. Anikeev // Aktual'nye problemy nefti i gaza. – 2018. – № 2(21). – S. 8. – DOI: 10.29222/ipng.2078-5712.2018-21.art8
10. Zakharov L.A., Martyushev D.A., Ponomareva I.N. Prognozirovanie dinamicheskogo plastovogo davleniya metodami iskusstvennogo intellekta // Zap. Gornogo in-ta. – 2022. – T. 253. – S. 23–32. – DOI: 10.31897/PMI.2022.11
11. Opyt primeneniya avtonomnykh ustroystv kontrolya pritoka / E.S. Zyuzev, A.A. Davydov, I.A. Oparin [i dr.] // Ekspozitsiya Neft' Gaz. – 2023. – № 1(94). – S. 36–40. – DOI: 10.24412/2076-6785-2023-1-36-40
12. Iktisanov V.A. Opisanie ustanovivshegosya pritoka zhidkosti k skvazhinam razlichnoy konfiguratsii i razlichnym chastichnym vskrytiem // Zap. Gornogo in-ta. – 2020. – T. 243. – S. 305–312. – DOI: 10.31897/PMI.2020.3.305
13. Kim A.S., Podoprigora D.G. Obosnovanie meropriyatiy po povysheniyu effektivnosti ekspluatatsii gazovykh skvazhin v usloviyakh vysokoy obvodnennosti // Problemy vnedreniya rezul'tatov i napravleniya razvitiya innovatsionnykh issledovaniy: sb. st. mezhdunar. nauch. konf., SPb., 08 noyab. 2023 g. – SPb.: Gumanitarnyy nats. issled. in-t NATsRAZVITIE, 2023. – S. 5–8.
14. Otsenka vliyaniya gradientov vodonasyshchennosti i kapillyarnogo davleniya na formirovanie razmera zony dvukhfaznoy fil'tratsii v szhimaemom nizkopronitsaemom kollektore / V.A. Korotenko, S.I. Grachev, N.P. Kushakova, S.F. Mulyavin // Zap. Gornogo in-ta. – 2020. – T. 245. – S. 569–581. – DOI: 10.31897/PMI.2020.5.9
15. Kosachuk G.P., Sagitova D.Z., Titova T.N. Opyt razrabotki gazovykh i gazokondensatnykh mestorozhdeniy s neftyanymi zalezhami i otorochkami // Gazovaya prom-st'. – 2005. – № 3. – S. 27–30.
16. Tekhnologiya razrabotki neodnorodnoy zalezhi massivnogo tipa s gazoneftyanym i vodoneftyanym kontaktami / D.S. Leont'ev, Yu.V. Vaganov, D.V. Shalyapin [i dr.] // Izv. Tomskogo politekhn. un-ta. Inzhiniring georesursov. – 2022. – T. 333, № 4. – S. 193–201. – DOI: 10.18799/24131830/2022/4/3293
17. Metodika opredeleniya prichiny obvodneniya skvazhin / V.A. Lushpeev, O.A. Lushpeeva, O.V. Tyukavkina, V.I. Strelyaev // Georesursy. – 2013. – № 2(52). – S. 44–47.
18. Optimizatsiya ekspluatatsii obvodnyayushchikhsya skvazhin putem primeneniya liftovykh kolonn s klapannym regulirovaniem / D.V. Mardashov, V.V. Syshchenko, R.G. Gilaev, O.Ya. Yun // Vektory razvitiya TEK Rossii: materialy II Vseros. nauch.-prakt. konf., Krasnodar, 15 noyab. 2022 g. – Krasnodar: Novatsiya, 2022. – S. 54–65.
19. Muktasipov D.R., Bashirova P.E., Safiullina E.U. Primenenie korrelyatsionno-regressionnogo analiza kak sposoba diagnostirovaniya nachala protsessa obvodneniya gazovykh skvazhin // Inzhener-neftyanik. – 2023. – № 2. – S. 33–36.
20. Petrushin E.O., Arutyunyan A.S., Kusova L.G. Promyslovye issledovaniya pritoka k gorizontal'nym skvazhinam i metody intensifikatsii neftegazodobychi // SEVERGEOEKOTEKh-2021: dokl. XXII Mezhdunar. molodezh. nauch. konf., Ukhta, 17–19 marta 2021 g. – Ukhta: UGTU, 2021. – S. 476–480.
21. Pat. na polez. model' 218391 Ros. Federatsiya, MPK E21B 34/08, E21B 43/12. Ustroystvo kontrolya gazovogo pritoka / O.V. Savenok, N.Kh. Zharikova, P.P. Poryvkin; patentoobladatel' FGBOU VO "S.-Peterb. gornyy un-t". – № 2023103926; zayavl. 21.02.2023; opubl. 24.05.2023, Byul. № 15.