Выпуск 335

Аннотация

1. P. Gorbacheva, O. L. Salnikova, A. V. Shumilov

Spectral Gamma-Ray as a Tool to Elevate the Stock Value and Find Omitted Deposits

The results of the interpretation of the standard logs set often appear incompletely reliable because the physical background and methods of interpretation do not satisfy the entire complexity of the geological structure of the targets. Up-to-date logging methods such as spectral gamma-ray allow lowering the uncertainty of the geological and geophysical interpretation by means of recording more different physical parameters. Also it allows a more reliable evaluating the key petrophysical parameters, an optimum planning of the field development and development control.

Key words: well logging, spectral gamma-ray, shaliness, oil recovery, geological modeling, hydrodynamical simulation, enhanced effectiveness of development.

LITERATURA

1. Aleksandrovskaya A. A., Saljnikova O. L., Chukhlov A. S., Shumilov A. V. Analiz geofizicheskikh issledovaniyj, provedennihkh kompleksnoyj apparaturoyj impuljsno-neyjtronnogo karotazha na mestorozhdeniyakh Permskogo kraya // Geofizika. 2020. № 5. S. 69–78.
2. Analiz vihpolneniya proektnihkh resheniyj, sopostavlenie proektnihkh i fakticheskikh pokazateleyj razrabotki po ehkspluatacionnihm objhektam mestorozhdeniya Kh. Permj: Filial OOO «LUKOYjL-Inzhiniring» «PermNIPIneftj», 2023.
3. Analiz tekuthego sostoyaniya razrabotki, vihrabotki zapasov nefti ehkspluatacionnihkh objhektov mestorozhdeniya Kh po sostoyaniyu na 01.01.2023 g. Permj: Filial OOO «LUKOYjL-Inzhiniring» «PermNIPIneftj», 2023.
4. Vremennihyj reglament ocenki kachestva i priemki trekhmernihkh cifrovihkh geologo-gidrodinamicheskikh modeleyj, predstavlyaemihkh poljzovatelyami nedr v sostave tekhnicheskikh proektov razrabotki mestorozhdeniyj uglevodorodnogo sihrjya na rassmotrenie CKR Rosnedr po UVS (protokol CKR Rosnedr po UVS ot 19.04.2012 g. № 5370).
5. Gorbacheva A. P., Saljnikova O. L., Serkina A. V., Savich A.D., Chukhlov A.S. Povihshenie ehffektivnosti provedeniya GIS za schet ispoljzovaniya novihkh tekhnologiyj i metodov // Geofizika. 2018. № 5. S. 70–80.
6. Gorbacheva A. P., Savich A. D., Saljnikova O. L. Ispoljzovanie dannihkh spektrometricheskogo gamma-karotazha pri detaljnom izuchenii neftegazovihkh skvazhin na primere produktivnihkh otlozheniyj Permskogo kraya // Geofizika. 2017. № 5. S. 70–78.
7. Dopolnenie k tekhnologicheskomu proektu razrabotki neftyanogo mestorozhdeniya Kh Permskogo kraya. Permj: OOO «LUKOYjL-PERMJ», Filial OOO «LUKOYjL-Inzhiniring» «PermNIPIneftj», 2023.
8. Metodicheskie rekomendacii po metrologicheskomu obespecheniyu, obrabotke i interpretacii dannihkh spektrometricheskogo gamma-karotazha i ispoljzovaniyu ikh pri kompleksnoyj interpretacii materialov geofizicheskikh issledovaniyj neftegazovihkh skvazhin. M.: FGUP GNC RF «VNIIgeosistem», 2013.
9. Metodicheskie rekomendacii po podschetu geologicheskikh zapasov nefti i gaza objhemnihm metodom / Pod red. V. I. Petersilje, V. I. Poroskuna, G. G. Yacenko. M.–Tverj: VNIGNI, NPC «Tverjgeofizika», 2003. 299 s.
10. Metodicheskie ukazaniya po provedeniyu issledovaniyj i interpretacii dannihkh spektrometricheskogo gamma-karotazha. Oktyabrjskiyj: OAO NPP «VNIIGIS», 2005.
11. Operativnihyj pereschet zapasov nefti i rastvorennogo gaza neftyanogo mes-torozhdeniya Kh Permskogo kraya. Permj: Filial OOO «LUKOYjL-Inzhiniring» «PermNIPIneftj», 2017.
12. Operativnihyj pereschet zapasov nefti i rastvorennogo gaza neftyanogo mes-torozhdeniya Kh Permskogo kraya. Permj: Filial OOO «LUKOYjL-Inzhiniring» «PermNIPIneftj», 2021.
13. Podschet zapasov uglevodorodnogo sihrjya neftyanogo mestorozhdeniya Kh Permskogo kraya. Permj: Filial OOO «LUKOYjL-Inzhiniring» «PermNIPIneftj», 2023.
14. RD 153-39.0-072-01. Tekhnicheskaya instrukciya po provedeniyu geofizicheskikh issledovaniyj i rabot priborami na kabele v neftyanihkh i gazovihkh skvazhinakh. M.: GERS, 2001. 269 s.
15. Rekomendacii k metodike postroeniya geologicheskikh modeleyj pri podschete zapasov uglevodorodnogo sihrjya. M.: FBU «GKZ», 2014.
16. Rukovodstvo poljzovatelya «Integrirovannaya sistema «Prayjm», obrabotka dannihkh otkrihtogo stvola». Ufa, 2018.

Postuplenie rukopisi v redakciyu 20.02.25 g., prinyatie v pechatj 10.04.25 g.

Yu. K. Gruzdeva, I. V. Badyanova, V. N. Savinov, I. V. Ogorodova, A. V. Shumilov

Evaluation of the Petrophysical Parameters of Hard Coal and Regression Analysis of the Data Obtained

The coal content and quality of the coal seams studied in Gremyachinskoe field and Vostochno-Gremyachinskoe one of Kizelovsky coal basin have been described in brief. A set of well logs for the evaluation of the methane content of the coal seams have been given. Techniques for measuring some petrophysical parameters in coal samples (such as open porosity, density, ash content and natural gamma ray) used to compute components in the express analysis of the data in the course of coal-seam methane prospecting and production in different coal-mining world-regions have been considered. The results of sample analysis based on a representative sampling of the stone material have been given.

Key words: petrophysics, coal-seam methane, Kizelovsky coal basin, Gremyachinskoe coal field.

LITERATURA

1. GOST 10742-71. Ugli burihe, kamennihe, antracit, goryuchie slancih i ugoljnihe briketih. Metodih otbora i podgotovki prob dlya laboratornihkh ispihtaniyj.
2. GOST 11022-95 (ISO 1171-97). Toplivo tverdoe mineraljnoe. Metodih opredeleniya zoljnosti.
3. GOST 26450.1. Porodih gornihe. Metod opredeleniya koehfficienta otkrihtoyj poristosti zhidkostenasihtheniem.
4. GOST 5180–2015, p. 10. Gruntih. Metodih laboratornogo opredeleniya fizicheskikh kharakteristik. Opredelenie plotnosti grunta metodom vzveshivaniya v vode.
5. GOST 5180–2015, p. 13. Gruntih. Metodih laboratornogo opredeleniya fizicheskikh kharakteristik. Opredelenie plotnosti chastic grunta piknometricheskim metodom.
6. Gruzdeva Yu. K., Speshkov M. V. Primenenie petrofizicheskikh priborov issledovaniya kerna dlya opredeleniya komponentov metana ugoljnihkh plastov // Geologiya v razvivayuthemsya mire: sbornik nauchnihkh trudov po materialam XVII Mezhdunarodnoyj nauchno-prakticheskoyj konferencii studentov, aspirantov i molodihkh uchenihkh / Otv. red. S. K. Karyakin [Ehlektronnihyj resurs]. Permj: Permskiyj gosudarstvennihyj nacionaljnihyj issledovateljskiyj universitet, 2024. 658 s.
7. Gruzdeva Yu. K., Shumilov A. V., Saljnikova O. L. Vihdelenie ugoljnihkh plastov dlya ocenki ikh metanonosnosti po dannihm geofizicheskikh issledovaniyj v skvazhinakh // NTV «Karotazhnik». Tverj: Izd. AIS. 2024. Vihp. 5 (331). S. 44–55.
8. Maksimovich N. G., Pjyankov S. V. Kizelovskiyj ugoljnihyj basseyjn: ehkologicheskie problemih i puti resheniya: monografiya. Permj: Permskiyj gosudarstvennihyj nacionaljnihyj issledovateljskiyj universitet, 2018. 288 s.
9. Makhmutov I. R., Rakaev I. M., Polyakov A. A., Basihrov M. A. i dr. Opiht primeneniya innovacionnogo apparaturno-metodicheskogo kompleksa AINK-PL v petrofizicheskom modelirovanii v perimetre PAO «Rosneftj» // Neftyanoe khozyayjstvo. 2023. № 2. S. 66?71.
10. Pakhomov V. I., Pakhomov I. V. Vizeyjskaya uglenosnaya formaciya zapadnogo sklona Srednego Urala i Priuraljya. M.: Nedra, 1980. 152 s.
11. 11. Khou Cze, Czou Chanchunj, Yan Yuyjcin, Chzhan Gokhua, Shumilov A. V. Ocenka rezervuarov metana ugoljnihkh plastov po karotazhnihm diagrammam: primer primeneniya v yuzhnoyj chasti basseyjna Cinjshuyj, Kitayj (Ch. I) // Stroiteljstvo neftyanihkh i gazovihkh skvazhin na sushe i na more. 2016. № 11. S. 43?50.
12. Shumilov V. A., Akseljrod S. M., Shumilov A. V. Geofizicheskie issledovaniya skvazhin pri razvedke i dobihche metana ugoljnihkh plastov: monografiya, 2-e izd. dop. Permj: Permskiyj gosudarstvennihyj nacionaljnihyj issledovateljskiyj universitet, 2015. 148 s.
13. Shumilov A. V., Genik I. V., Nigmatullin D. F., Syueli Khou. Geofizicheskie issledovaniya skvazhin pri razvedke i dobihche metana ugoljnihkh plastov // NTV «Karotazhnik». Tverj: Izd. AIS. 2015. Vihp. 10 (256). S. 32?43.
14. Shumilov A. V., Gruzdeva Yu. K. Sravniteljnihyj analiz izmerennihkh i raschetnihkh komponentov dlya povihsheniya tochnosti opredeleniya soderzhaniya metana v ugoljnihkh plastakh // Teoriya i praktika razvedochnoyj i promihslovoyj geofiziki. Permj: Permskiyj gosudarstvennihyj nacionaljnihyj issledovateljskiyj universitet, 2023. S. 270–279.

Postuplenie rukopisi v redakciyu 04.03.25 g., prinyatie v pechatj 10.04.25 g.

1. M. Isakov, D. V. Mamin, A. V. Shumilov

Geophysical Control Over the Effectiveness of the Non-Explosive Techniques of Formation Reexposing

Typical techniques used for reexposing pay zones have been enumerated. Their advantages and disadvantages have been highlighted. Major advantages of the deep-penetration drilling and hydromechanical piercing perforation (as well as methods for their geophysical control) have been considered.

Key words: well logging, formation reexposing, perforation types, advantages and disadvantages.

LITERATURA

1. Gladilovich V. G. Preimuthestva vtorichnogo vskrihtiya produktivnogo neftyanogo plasta metodom sverleniya s pomothjyu ehlektrobura dlya zarezki bokovogo kanala // Burenie i neftj. Ehlektron. zhurnal. 2011. № 10. URL: http://burneft.ru/archive/issues/2011-10/12.
2. Gulyaev P. N., Zhulanova M. I., Frolov Yu. B. Sverlyathaya perforaciya glubokogo proniknoveniya // NEFTEGAZ INTERNATIONAL. Ehlektron. zhurnal. 2008. № 2. URL: http://neftegazint.ru/node/140.
3. Zamakhaev V. S. K voprosu o geofizicheskom soprovozhdenii prostrelochnihkh rabot v skvazhinakh // NTV «Karotazhnik». Tverj: Izd. AIS. 2000. Vihp. 74. S. 54–61.
4. Nigmatullin D. F., Turobov A. V., Khatmullin F. F., Shumilov A. V. Vozmozhnosti glubokopronikayutheyj sverlyatheyj perforacii dlya vtorichnogo vskrihtiya plastov // NTV «Karotazhnik». Tverj: Izd. AIS. 2015. Vihp. 2 (248). S. 23–33.

Postuplenie rukopisi v redakciyu 24.02.25 g., prinyatie v pechatj 10.04.25 g.

1. V. Iskandirov

Identification of Permeable Fracturing Zones of Carbonate Sections in Quick Log-Interpretation

An example of a well logs set for analysis and detection of fractured reservoirs in the carbonate section has been given.

Key words: well logging, cross-dipole sonic log, permeability, electrical microscanning, fracturing.

LITERATURA

1. Tezisih dokladov KhKhKh Nauchnoyj prakticheskoyj konferencii im. V. V. Lapteva «Novaya tekhnika i tekhnologii dlya trudnoizvlekaemihkh zapasov uglevodorodov». 2024.
2. Identification of Elastic Anisotropy Mechanisms from a Joint Interpretation of Borehole Images and Sonic Logs // SPWLA 51st Annual Logging Symposium. June 19–23, 2010.
3. Jennifer Market, Camilo Mejia, Ovunc Mutlu, Mojtaba P. Shahri, Joanne Tudge. Untangling Acoustic Anisotropy // Petrophysics. 2015. Vol. 56. № 5. P. 3–4.

Postuplenie rukopisi v redakciyu 25.02.25 g., prinyatie v pechatj 10.04.25 g.

1. V. Vaganova, A. A. Vychigina, O. L. Salnikova, A. V. Shumilov

Opportunities of the Dynamic Interpretation of the Seismic Prospecting Data for Mapping the Migration Directions and Shielding of Hydrocarbons

Practical examples of the detection of geological targets, predominantly paleochannels, by the methods of the dynamical interpretation of the seismic prospecting data have been given. The results have been compared.

Key words: Seismic prospecting, dynamical interpretation, spectral decomposition, inversion, paleochannel, shut-in, tectonic dislocation.

LITERATURA

1. Alekseev M. M., Semenov O. Yu. i dr. Primenenie metoda seyjsmicheskoyj inversii dlya ocenki fizicheskikh parametrov neftegazonosnihkh plastov // Vestnik kibernetiki. 2024. № 1. S. 6?9.
2. Ampilov Yu. P., Barkov A. Yu. i dr. Pochti vse o seyjsmicheskoyj inversii. Ch. 1 // Tekhnologii seyjsmorazvedki. 2009. № 4. S. 3–16.
3. Volkov R. P., Volkov D. S., Kozhevnikov G. S. Ot kachestvennoyj interpretacii k kolichestvennomu analizu: prognoz svoyjstv geologicheskikh tel s pomothjyu atributa spektraljnoyj dekompozicii na primere achimovskogo klinoformnogo kompleksa Zapadnoyj Sibiri // Rossiyjskaya neftegazovaya tekhnicheskaya konferenciya SPE. M., 2020.
4. Ezhova A. V. Litologiya. Tomsk: Tomskiyj politekhnicheskiyj universitet, 2008.
5. Muromcev V. S. Ehlektrometricheskaya geologiya peschanihkh tel – litologicheskikh lovushek nefti i gaza. L.: Nedra, 1984. 260 s.

Postuplenie rukopisi v redakciyu 03.03.25 g., prinyatie v pechatj 10.04.25 g.

Zh. A. Khakimova, I. V. Genik, I. V. Ogorodova, A. V. Shumilov

The Choice of Exploder Parameters for Seismic Prospecting in Interfluve Among Small Rivers of Permian Kama Area

Currently, shallow waters (transit zones) are among promising areas to search for hydrocarbon fields. In this connection, improving seismic exploration in such zones is crucial. Permian geophysicists have the experience of using the seismic prospecting for surveying such zones in Kama basin reservoirs such as Kama, Votkinsk and Low-Kama ones. Usually they use an environment-friendly seismic prospecting with little or superlittle charges. This article details the effect of the exploders’ parameters on the quality of the seismic data obtained on one of the areas in Perm Territory while preparing for a 3D seismic prospecting.

Key words: seismic prospecting, transit zones, pilot operations, exploder.

LITERATURA

1. Verba M. L., Budagov A. G., Keller M. B., Gryaznov N. N., Grigorenko Yu. N. Problemih izucheniya neftegazonosnosti tranzitnihkh zon arkticheskogo sheljfa Rossii // Geologiya nefti i gaza. 2000. № 6. S. 2–7.
2. Zakharov Yu. M., Putilov I. S. Poluchenie kachestvennihkh seyjsmicheskikh dannihkh na zabolochennihkh territoriyakh severa Permskogo kraya. Vestnik Permskogo NIPU // Geologiya. Neftegazovoe i gornoe delo. 2020. T. 20. № 2. S. 115–125.
3. Zakharov Yu. M., Khakimova Zh. A., Bekeshko P. S., Shumilov A. V. Opiht primeneniya seyjsmorazvedochnihkh rabot MOGT-3D s ispoljzovaniem tekhnologii razmetheniya vzrihvnogo istochnika vozbuzhdeniya v donnihe otlozheniya v ruslovoyj chasti Votkinskogo vodokhranilitha // Geofizika. 2023. № 5. S. 57–64.
4. Korotkov S. B. Vihpolnenie seyjsmorazvedochnihkh rabot v perekhodnihkh zonakh susha–more // Vesti gazovoyj nauki. 2010. № 2 (5). S. 120–123.
5. Kuznecov V. I. Problemih postanovki seyjsmicheskikh issledovaniyj v tranzitnihkh zonakh severa Zapadnoyj Sibiri // Neftegazovaya vertikalj. 2010. № 15–16. S. 98–101.
6. Laptev A. P., Pyatunina E. V., Khakimova Zh. A., Cherepovskiyj A. V. Ehkologo-sberegayuthaya seyjsmorazvedka 3D na territorii Permskogo kraya // Priborih i sistemih razvedochnoyj geofiziki. 2023. № 2 (77). S. 53–58.
7. Laptev A. P., Roshmakov Yu. V. Seyjsmorazvedka MOGT-3D v zimnikh usloviyakh na Nizhnekamskom vodokhranilithe // Geofizika. 2013. № 5. S. 32–35.
8. Lyadova N. A., Raspopov A. V., Yakovlev Yu. A. Geologiya i razrabotka neftyanihkh mestorozhdeniyj Permskogo kraya. M.: VNIIOEhNG, 2010. 335 s.
9. Neganov V. M., Cherepanov S. S., Shumilov A. V., Shumskiyj I. F. Krupnoe otkrihtie geofizikov i neftyanikov Permskogo kraya nachala XXI veka // Geofizika. 2013. № 5. S. 26–31.
10. Patent na izobretenie № 2 369 882. Sposob seyjsmicheskoyj razvedki. M.: Rospatent, 2006.
11. Patent na izobretenie № 2 824 335. Sposob vozbuzhdeniya kolebaniyj vzrihvnihm istochnikom dlya provedeniya seyjsmicheskoyj razvedki na pokrihtom ljdom vodoeme. M.: Rospatent, 2024.
12. Patent na poleznuyu modelj 61894. Transportabeljnihyj kompleks dlya provedeniya trekhmernihkh seyjsmorazvedochnihkh rabot 3D. M.: Rospatent, 2006.
13. Roshmakov Yu. V., Stolbova T. A., Laptev A. P., Neganov V. M. i dr. Tekhnologii seyjsmorazvedki pri podgotovke objhektov v tranzitnihkh zonakh // Tekhnologii seyjsmorazvedki. 2010. № 2. S. 85–89.
14. Salovskiyj V. A., Lancev V. F., Roshmakov Yu. V., Laptev A. P. Donnaya seyjsmorazvedka v Prikamje // Priborih i sistemih razvedochnoyj geofiziki. 2009. T. 29. № 3. S. 50–51.
15. Cherepovskiyj A. V., Laptev A. P., Pyatunina E. V., Mamedov O. G. Ehkologosberegayuthaya («zelenaya») seyjsmorazvedka na sushe i v perekhodnihkh zonakh // Priborih i sistemih razvedochnoyj geofiziki. 2022. № 2 (73). S. 14–24.
16. Shumskiyj B. V. Tekhnologiya seyjsmorazvedochnihkh rabot MOV OGT 2D na predeljnom melkovodje i v tranzitnihkh zonakh: avtoref. … kand. tekhn. nauk. 25.00.10. Krasnodar, 2008. 28 s.

Postuplenie rukopisi v redakciyu 06.03.25 g., prinyatie v pechatj 10.04.25 g.

1. Xie, S. V. Belov, V. I. Kostitsyn

A New Method to Evaluate Formation Density Through the Casing String

A Monte Carlo simulation software package for a three-sonde gamma-gamma density logging tool based on Geant4 toolkit has been developed. Gamma counts of the tools for 1000 different combinations of the formation density, casing string thickness, cement density and thickness have been given. A comparison between the data simulated and those measured in the monitoring and calibration wells validated the reliability of the numerical simulation software. Comparison between the formation density calculated in the cased well and open hole showed that the method proposed allows elevating the accuracy of the formation density evaluation in the cased wells.

Key words: gamma gamma ray logging, formation density, Monte Carlo method, cased borehole.

LITERATURA

1. Belov S. V., Se M. Opredelenie metrologicheskikh parametrov priborov GGM-C // Teoriya i praktika razvedochnoyj i promihslovoyj geofiziki: Sb. nauchnihkh trudov XI Vserossiyjskoyj nauchno-prakticheskoyj konferencii s mezhdunarodnihm uchastiem. Permj: PGNIU, 2023. S. 48–55.
2. Kozhevnikov D. A., Deshenenkov I. S. Adaptivnaya interpretaciya dannihkh skvazhinnoyj gamma-gamma-cementometrii // NTV «Karotazhnik». Tverj: Izd. AIS. 2010. Vihp. 7 (196). S. 31–49.
3. Se M. Modelirovanie polya gamma-kvantov metodom Monte-Karlo pri cementometrii obsazhennihkh skvazhin // Geofizika. 2023. № 3. S. 114–120.
4. Agostinelli S., Allison J., Amako K., Apostolakis J. et al. Geant4 – a Simulation Toolkit // Nucl. Instrum. Methods Phys. Res. Sect. A Accel. Spectrom. Detect. Assoc. Equip. 2003. 506 (3). P. 250–303.
5. Wang, Xinguang et al. A Novel Method for Formation Density Measurement in Cased Wells // SPWLA 62nd Annual Logging Symposium. OnePetro, 2021.
6. Zhang Q, Li Y, Jin Y et al. A New Gamma Density Measurement Method for Cased-Hole Formation Evaluation // J. Applied Radiation and Isotopes. 2022. 184: 110178.

Postuplenie rukopisi v redakciyu 03.02.25 g., prinyatie v pechatj 10.04.25 g.

1. D. Savich, A. P. Laptev, D. A. Budnik, Zh. A. Khakimova, P. A. Komarov

Improvement of the Formation Testing Technologies for Exploratory Wells

The results of the pilot operations to implement the integral technology combining the innovation techniques for the reexposure of the reservoirs detected from the geological and geophysical data in the exploration wells (and testing them) have been given. It has been shown that the technology allows excluding stages of well killing after perforation and redevelopment for hydrodynamical surveys. It can save the test time and exclude the deterioration of the filtration and capacity properties of the reservoir under study. Possibility to enhance the effectiveness of the technology for improving the quality of the information and reexposure.

Key words: borehole, reexposure, depression, geodynamical surveys, skin factor, distributed downhole fiber-optic thermal-conductive flow measurement.

LITERATURA

1. Ayjgiljdin A. L., Amineva G. R., Zubik A. O., Kuchurina O. E. Analiz rezuljtatov issledovaniyj plastovihmi ispihtatelyami na kabele v usloviyakh slozhnopostroennihkh karbonatnihkh kollektorov // Ehkspoziciya. Neftj. Gaz. 2022. № 4. S. 33–37. DOI: 10.24412/2076-6785-2022-4-33-37
2. Vasilenko N. R., Chertenkov M. V., Shepelj K. Yu., Likutov A. R. Stendovihe ispihtaniya modeleyj krepi skvazhinih i produktivnogo plasta kumulyativnoyj perforacieyj // Neftj. Gaz. Novacii. 2015. № 12. S. 21–26.
3. Konjshin A. I., Savich A. D., Kosticihn V. I., Chernihkh I. A. Kompleksnaya tekhnologiya vtorichnogo vskrihtiya i gidrodinamicheskikh issledovaniyj pri oprobovanii plastov v razvedochnihkh skvazhinakh // Teoriya i praktika razvedochnoyj i promihslovoyj geofiziki. Permj: PGNIU, 2021. S. 77–85.
4. Kosticihn V. I., Savich A. D., Shumilov A. V., Saljnikova O. L. i dr. Kompleksirovanie geofizicheskikh tekhnologiyj vtorichnogo vskrihtiya i dolgovremennogo monitoringa rabotih plastov // Neftyanoe khozyayjstvo. 2019. № 9. S. 108–113.
5. Metodicheskie ukazaniya po kompleksirovaniyu i ehtapnosti vihpolneniya geofizicheskikh, gidrodinamicheskikh i geokhimicheskikh issledovaniyj neftyanihkh i gazovihkh mestorozhdeniyj. RD153-39.0-109-01. M., 2002.
6. Nazarov A. Yu., Chernihkh I. A., Savich A. D., Shumilov A. V. Novihe resheniya dlya provedeniya issledovaniyj skvazhin v slozhnihkh usloviyakh // Sb. trudov 3-yj Nauchno-prakticheskoyj konferencii «Gorizontaljnihe skvazhinih – 2019. Problemih i perspektivih». Kaliningrad, EAGE. 2019.
7. Khalilov D. G., Savich A. D., Semencov A. A., Budnik D. A., Isaev V. A. Sovershenstvovanie metodov vtorichnogo vskrihtiya, informacionnogo obespecheniya razrabotki i tekhnologiyj ehkspluatacii skvazhin s primeneniem specializirovannogo kabelya // NTV «Karotazhnik». Tverj: Izd. AIS. 2019. Vihp. 5 (299). S. 91–105.
8. Khalilov D. G., Nekrasov A. N., Savich A. D., Kosticihn V. I. Kolichestvennoe opredelenie debita dobihvayuthikh skvazhin po dannihm optovolokonnoyj raspredelennoyj termodebitometrii (skhema i metodika) // NTV «Karotazhnik». Tverj: Izd. AIS. 2024. Vihp. 5 (331). S. 56–74.
9. Khaziev M. I., Svikhnushin N. M., Ivashin M. D., Khoshtariya V. N., Dmitriev S. E. Vozmozhnosti ocenki produktivnosti skvazhinih po dannihm plastoispihtateleyj na kabele putem gidrodinamicheskogo modelirovaniya v programmnom komplekse PETREL // NTV «Karotazhnik». Tverj: Izd. AIS. 2017. Vihp. 9 (279). S. 12–21.
10. Chernihshov S. E., Popov S. N., Savich A. D., Derendyaev V. V. Analiz ustoyjchivosti krepi neftedobihvayuthikh skvazhin pri provedenii kumulyativnoyj perforacii na osnove rezuljtatov geomekhanicheskogo modelirovaniya // Georesursih. 2023. 25(2). S. 245–253. https://doi.org/10.18599/grs.2023.2.18.
11. https://www.slb.com/products-and-services/innovating-in-oil-and-gas/reservoir-characterization/reservoir-testing/wireless-telemetry/muzic-wireless-telemetry (data obratheniya 16.01.25).

Postuplenie rukopisi v redakciyu 03.03.25 g., prinyatie v pechatj 10.04.25 g.

1. V. Belov, N. Yu. Chistyakov, I. V. Ogorodova

Evaluation of Fractures Opening from Stoneley Waves in Parmalog.Acoustic Software Package

Possibilities to calculate the location and openness of permeable fractures in the borehole have been described. The method is based on the analysis of the arrivals of both direct and reflected Stoneley waves recorded by standard sonic log tools.

Key words: direct wave, reflected wave, Stoneley wave, sonic log, fracturing, open borehole, fracture width.

LITERATURA

1. Hornby B. E., Johnson D. L., Winkler K. W., Plumb R. A. Fracture Evaluation Using Reflected Stoneley Wave Arrivals // Geophysics. 1989. № 54. P. 1274–1289.
2. Hornby B. E. Hydraulic Fracture Width Determination Using Integration of Stoneley Wave “Pressure Testing” with Electrical Borehole Scans in FORGE Geothermal Project // Second International Meeting for Applied Geoscience & Energy, Society of Exploration Geophysicists and the American Association of Petroleum Geologists. 2022. P. 262–266.
3. Kimball C. V., Marretta T. J. Semblance Processing of Borehole Acoustic Array Data // Geophysics. 1984. № 49. P. 274–281.
4. Wiggins R. A., Helmberger D. V. Synthetic Seismogram Computation by Expansion in Generalized Rays // Geophysical Journal of the Royal Astronomical Society. 1974. № 37. P. 73–90.

Postuplenie rukopisi v redakciyu 24.02.25 g., prinyatie v pechatj 10.04.25 g.

1. P. Potapov, V. N. Danilenko, V. V. Danilenko, G. I. Golovatskaya, R. R. Kuibyshev, A. V. Shumilov

A New Technology for Magnetic Pulse Defectoscopy and Pipe Wall Thickness Measurements in the Multistring Wells

A brief description of a MID-5 tool and an interpretation method using a knowledge base has been given. Examples of well logging have been shown. Effectiveness of the magnetic pulse defectoscopy in monitoring of safe well operation wells have been demonstrated.

Key words: multistring wells, magnetic-pulse defectoscopy, mathematical simulation, inverse problems.

LITERATURA

1. Patent 2364719 RF. Sposob ehlektromagnitnoyj defektoskopii v mnogokolonnihkh skvazhinakh / A. N. Nayanzin, A. P. Potapov; ZAO NPF «GITAS». № 2007 142168.03; zayavl. 14.11.2007; opubl. 20.08.2009. Byul. № 23.
2. Patent 2636064 RF. Sposob ehlektromagnitnoyj defektoskopii v mnogokolonnihkh skvazhinakh / A. P. Potapov; № 2016128899; zayavl. 14.07.2016; opubl. 20.11.2017.
3. Patent 2507393 RF. Sposob ehlektromagnitnoyj defektoskopii v mnogokolonnihkh skvazhinakh i ehlektromagnitnihyj skvazhinnihyj defektoskop / A. M. Aslanyan, D. A. Davihdov, A. A. Arbuzov D. Yu. Pyatnickiyj, TGT Oil & Gas Services, FZE (AE); zayavl. 31.08.2012; opubl. 31.08.2012.
4. Patent 2468197 RF. Sposob ehlektromagnitnoyj defektoskopii-tolthinometrii mnogokolonnihkh skvazhin i ustroyjstvo ego osuthestvleniya / A. A. Miller, A. V. Miller, S. V. Stepanov; OAO NPP «VNIIGIS», VNIIGIS-TZS, zayavl. 01.04.2011, opubl. 27.11.2012.
5. Potapov A. P., Khan S. A., Danilenko V. N., Shamshin V. I. i dr. Magnitoimpuljsnaya tekhnologiya i apparatura dlya defektoskopii obsadnihkh kolonn v gazovihkh skvazhinakh. M.: PAO «Gazprom», 2023. 150 s.
6. Potapov A. P., Danilenko V. N., Danilenko V. V., Golovackaya I. G. Tekhnologiya ocenki tekhnicheskogo sostoyaniya obsadnihkh kolonn magnitoimpuljsnihmi defektoskopami // NTV «Karotazhnik». Tverj: Izd. AIS. 2016. Vihp. 6 (264). S. 112–134.
7. Svideteljstvo № 2019619324, 2019 g. o gosudarstvennoyj registracii programmnogo obespecheniya dlya EhVM «Programma dlya vizualizacii i interpretacii dannihkh magnitoimpuljsnoyj defektoskopii mnogokolonnihkh skvazhin UniMID» / A. P. Potapov, A. L. Sharov; PAO NPP «VNIIGIS», AO NPF «GITAS».
8. Dutta S., Olaiy J. Analysis and Interpretation of Multi-Barrier Transient Electromagnetic Measurement // SPWLA 16th Annual Logging Symposium. June 24, July 29, 2020.10.30632/spwla-5008.
9. Fouda A., Dai J., Sheng H. et al. First Ever Seven Pipe Corrosion Evaluation for Comprehensive Assessment of Pipe Integrity in Complex Well Completions //SPWLA 65th Annual Logging Symposium. May 18–22, 2024 1. DOI: 10.30632/SPWLA-2024-0116.
10. Gavin M., Smith A., Ramirez M. et al. Novel Through-Tubing Casing Measurement with Azimuthal Sensitivity for Game-Changing Proactive Multi-Casing Corrosion Measurement // SPWLA 65th Annual Logging Symposium. May 18–22, 2024. DOI: 10.30632/SPWLA-2024-0105.
11. Golovatskaya G., Potapov A., Shumilov A. The Technology of Magnetic-Pulse Flaw Detection Thickness Measurement of Multistring Wells by the Transient Method // SPWLA 65th Annual Logging Symposium. May 18–22, 2024 1. DOI: 10.30632/SPWLA-2024-0115.
12. Luis C. M., Ahmed E. F., Reza K. A. New High Definition Frequency Tool for Tubing and Multipipe Casing Corrosion Detection // SPE-188932-Ms. 2017.14 p.
13. Saada M., Ismail M., Yakupov Al. et. al. Comprehensive Case Studies on the Applications of Advanced Well Integrity Management in Real Time Operation Interventions // SPE-192372-MS, Copyright 2019.
14. Yanxiang Yu, William Redfield, Nicholas Boggs, Kuang Qinet et al. An Advanced Technique for Simultaneous in Situ Inspection of Multiple Metallic Tubulars // SPE -194269-MS.

Postuplenie rukopisi v redakciyu 04.03.25 g., prinyatie v pechatj 10.03.25 g.

1. S. Romashov, R. A. Adiev

Simulation of the Influence of the Barite Drilling Mud on the Calculated Bulk Density Evaluated from Gamma Gamma Rays

Practical calculations of bulk density from the density gamma gamma ray tool on the basis of simulations obtained on standard 4pi-geometry samples have been given. The dependence of readings from the sondes on the barite plates has been plotted.

Key words: gamma gamma ray, bulk density calculation, barite drilling muds, correction.

LITERATURA

1. Gulin Yu. A. Gamma-gamma-metod issledovaniya neftyanihkh skvazhin. M.: Nedra, 1975. 160 s.
2. Romashov I. S., Adiev R. A. Metod korrektirovki dannihkh pribora plotnostnogo gamma-gamma-karotazha v sluchae otkloneniya pribora ot stenki skvazhinih // NTV «Karotazhnik». Tverj: Izd. AIS. 2024. Vihp. 5 (331). S. 106–114.
3. Darwin V. Ellis, Julian M. Singer. Well Logging for Earth Scientists. Springer, 2007.
4. Wahl J. S., Tittman J., Johnstone C. W., Alger R. P. The Dual Spacing Formation//Density Log. Jour. of Pet. Tech. 1964. V. 16. P. 1411–1416.

Postuplenie rukopisi v redakciyu 13.03.25 g., prinyatie v pechatj 10.04.25 g.

1. A. Nikitin, A. V. Shumilov

Land-Use in Expenditures of Geological Prospecting Companies

The geological prospecting companies working on the land, in the field faced problems after the introduction of the right of private ownership of land plots. They became hostages of the situation when the earth interior are transferred for use to certain companies, whereas the right to use the land for the geological prospecting has to be “produced” by themselves and at any cost from other individuals and legal entities. So, what is the cost of the land-use to prospect the earth interior?

Key words: economics of geological prospecting, land-use cost.

LITERATURA

1. Zemeljnihyj kodeks Rossiyjskoyj Federacii ot 25.10.2001 № 136-FZ.
2. Rasporyazhenie Ministerstva prirodnihkh resursov ot 5 iyulya 1999 g. № 83-r «Ob utverzhdenii polozheniya o poryadke provedeniya geologorazvedochnihkh rabot po ehtapam i stadiyam (tverdihe poleznihe iskopaemihe)».
3. Shpiljman T. M. Ehkonomika i organizaciya geologorazvedochnihkh rabot: uchebnoe posobie. Orenburg: Orenburgskiyj gos. un-t. 2011. 156 s.

Postuplenie rukopisi v redakciyu 25.02.25 g., prinyatie v pechatj 10.04.25 g.

1. V. Pyatunina

Memories of the Veterans of the Great Patriotic War Who Worked in PAO PermNefteGeoFizika

Participation of the PAO PermNefteGeoFizika employees in the Great Patriotic War has been reviewed. Memories of the veterans and company workers about the people who gave their efforts for the Victory and establishment of the geophysical industry in Kama area have been given.

Key words: geological and geophysical operations in Kama area, PermNefteGeoFizika Public Joint-Stock Company, veterans of the Great Patriotic War, memories.

LITERATURA

1. Permneftegeofizika. Skvozj godih ispihtaniyj i trudovihkh pobed. Permj: ZAO «Poligrafkomplekt», 2010. 175 s.
2. Permneftegeofizika. Pervihe polveka: ocherk. Permj: Izd-vo «Zvezda», 2000. 224 s.
3. Ehra permskoyj nefti: 1929–1990. Sobihtiya sovetskoyj istorii Zapadnogo Urala. Permj: Izd-vo «Aster Plyus», 2019. 232 s.
4. https://pamyat-naroda.ru/

Postuplenie rukopisi v redakciyu 10.03.25 g., prinyatie v pechatj 10.04.25 g.

1. D. Bystrova, I. D. Gornostaev, Yu. I. Kuznetsov

Great Patriotic War, Kola Peninsula, Pechenga town, Superdeep-3, searchers, tourism

LITERATURA

1. Bihstrova G. D. Musta-Tunturi – Liinakhamari. Narodnihe istorii o pos-levoennihkh Liinakhamari i poluostrovakh Rihbachiyj i Sredniyj. g. Zapolyarnihyj Murmanskoyj oblasti: Opimakh, 2021. 254 s.
2. Kuznecov Yu. I., Smirnov Yu. P. Legendarnihyj poluostrov Rihbachiyj – simvol stoyjkosti i muzhestva nashikh otcov i dedov // NTV «Karotazhnik». Tverj: Izd. AIS. 2005. Vihp. 2 (129). S. 212–218.
3. Kuznecov Yu. I. Pobeda v Zapolyarje. Desyatihyj Stalinskiyj udar // NTV «Karotazhnik». Tverj: Izd. AIS. 2015. Vihp. 5 (250). S. 108–126.
4. Kuznecov Yu. I., Gornostaev I. D., Nikitin A. A. Koljskaya SG-3. Mirovihe rekordih, mifih, faktih i dostizheniya // NTV «Karotazhnik». Tverj: Izd. AIS. 2025. Vihp. 2 (334). S. 140–152.

Postuplenie rukopisi v redakciyu 20.03.25 g., prinyatie v pechatj 10.04.25 g.