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Perencanaan Penggunaan Electrical Submersible Pump Pada Sumur “AM” Anastasyah Maulidiah; Engeline Malrin; Mirza; Yudiaryono; Esterina Natalia Paindan; Agista Ayu Ramadhani; Pratama Bagus Restu.S
AL-MIKRAJ Jurnal Studi Islam dan Humaniora (E-ISSN 2745-4584) Vol. 3 No. 1 (2022): AL-Mikraj Jurnal Studi Islam dan Humaniora
Publisher : Pascasarjana Institut Agama Islam Sunan Giri Ponorogo

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.37680/almikraj.v3i1.7157

Abstract

"AM" wells are wells that no longer have the ability to produce fluid on their own. So it requires the utilization of artificial lift. The artificial lift process it self aims to increase fluid pressure so that it can flow to the surface. The production process for this well has been carried out by natural flow with a production of 593 BFPD. After several years of production, the reservoir pressure will decrease and the ability to lift the fluid will also decrease. If the pressure drop experienced by the reservoir is very large, the reservoir can no longer produce oil to the surface. But referring to the capability of the well, the production of this well can still be increased by using an Electric Submersible Pump (ESP) type artificial lift. Based on the desin method carried out is to plan the design of the artificial lift Electric SubmersibIe Pump (ESP) using manual calculations.
Analisis Sisa Cadangan Reservoir Pada Sumur X Lapangan Y Priska Vernanda Hipui; Jan Friadi Sinaga; Mirza; Baiq Maulinda Ulfah; Mohammad Lutfi; Luthfiyah Atisa Fadhilah
AL-MIKRAJ Jurnal Studi Islam dan Humaniora (E-ISSN 2745-4584) Vol. 2 No. 1 (2021): AL-Mikraj Jurnal Studi Islam dan Humaniora
Publisher : Pascasarjana Institut Agama Islam Sunan Giri Ponorogo

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.37680/almikraj.v2i1.7165

Abstract

Decline curve analysis: this method uses an exponential decline curve to describe the decline in reservoir production over time. This method utilizes historical production data to extrapolate and estimate the remaining reserves in the reservoir. So that the well in the field "Y" can be predicted using the decline curve. Trial Error and X2 Chi-Square Test method and obtained the value of the b exponent, namely 0 type decline curve Exponential, rate of decline (Di) 0.018616 and the smallest value of ∑X2 are 136.614. EUR is 1630,727 BOPD and ERR to limit is 1794,672 BOPD. The remaining production life is 136 months or 11 years.
Analisa Vertical Lift Performance Pada Sumur “Af” Pada Lapangan “MP” Dengan Memperhitungkan Kehilangan Tekanan Pada Tubing Untuk Mendapatkan Laju Alir Optimal Marsel Patempe; Mirza; Rohima Sera; Engilene Marlin; Joko Wiyono; Dody Finansa
AL-MIKRAJ Jurnal Studi Islam dan Humaniora (E-ISSN 2745-4584) Vol. 2 No. 1 (2021): AL-Mikraj Jurnal Studi Islam dan Humaniora
Publisher : Pascasarjana Institut Agama Islam Sunan Giri Ponorogo

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.37680/almikraj.v2i1.7205

Abstract

As is known, if an oil well is produced for a long time, the pressure will decrease so that it can reduce the production rate of the well. So it is necessary to do a vertical lift performance to determine the pressure loss in the tubing during production. Where in production it is important to determine the vertical lift performance in analyzing the pressure loss in the vertical pipe. Where the purpose of this study is to calculate the pressure loss in the tubing and also to obtain the optimal flow rate in the "AF" well in the "MP" field. There is a loss of pressure when the production stage has started, automatically the pressure in the reservoir will decrease to pwf, where after the fluid enters the tubing it starts to take into account the VLP value, where the liquid rate is the greater the pressure generated in the tubing will also be greater because of friction between the fluid and the tubing. so that the maximum oil flow rate is 167.61 Bopd, then the maximum water flow rate is 490.53 Bwpd, and the total maximum flow rate is 658.14 Bfpd. From the intersection of the VLP curve to the IPR curve, the optimal flow rate is 398 Bfpd.