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Purnomosidi
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ijoem.journal@gmail.com
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+6281325086977
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ijoem.journal@gmail.com
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Jl. Gajah Mada No.38, Mentul, Karangboyo, Kec. Cepu, Kabupaten Blora, Jawa Tengah 58315
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INDONESIA
Indonesian Journal Of Energy And Mineral
ISSN : 27755142     EISSN : 27979911     DOI : https://doi.org/10.53026/IJoEM
The Indonesian Journal of Energy & Mineral covers the energy and mineral exploration, production, and conservation in its broadest possible sense. The topics related to this journal include but are not limited to: Petroleum Engineering, Petroleum economics, Petroleum geology, Refinery and petrochemicals, Logistics Engineering, Geochemistry, Electrical engineering, Renewable Energy, Energy conservation, Mining engineering, Metallurgy, Drilling and well intervention, Formation evaluation, Energy policy and security, Mechanical Engineering, Information technology, Instrumentation Engineering and Carbon capture & storage.
Articles 24 Documents
Mechanical Design of Slug Catcher Ayende; Arsyad, Mohammad Zafrullah; Widiyanto, Totok
Indonesian Journal of Energy and Mineral Vol. 1 No. 1 (2021): IJoEM, Vol 1, No 1, 2021
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (1223.825 KB) | DOI: 10.53026/IJoEM/2021/1.1/12

Abstract

In the upstream oil and gas industry Slug Catcher is a separator to separate heavy liquid hydrocarbons and the gaseous lighter fraction. Slug Catcher is a cylindrical pressure vessel which has a horizontal orientation designed with an internal pressure of 84.37 kg/cm2 , 73,89 °C temperature, 3 mm corrosion allowance, 3,500 mm length, and 1,750 mm diameter. This paper aims to design a Slug Catcher from a mechanical side that is safe and able to withstand the stress caused by internal pressure. General design which includes calculation of thickness of shell, heads, and nozzles, maximum allowable working pressure (MAWP), and minimum design metal temperature (MDMT) using ASME BPVC Section VIII Division 1. Based on the results obtained the nominal shell thickness is 60 mm, head minimum thickness 58 mm, material specification for shell and head is SA 516 Gr 70. In general, the selected material use low carbon steel; flange rating class 600; vessel’s Maximum Allowable Working Pressure is 87.60 kg/cm2 ; hydrostatic test pressure is 113 kg/cm2 .
The Mitigation of CO2 Emissions in the Sea Water Desalination Plant with Reverse Electrodialysis Power Generation Handaja, Suka; Susanto, Heru; Hermawan
Indonesian Journal of Energy and Mineral Vol. 1 No. 1 (2021): IJoEM, Vol 1, No 1, 2021
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (501.017 KB) | DOI: 10.53026/IJoEM/2021/1.1/13

Abstract

Climate change is a major issue that is very interesting to discuss. Climate change is believed to be caused by the greenhouse gas effect. CO2 is one of the gases that causes the greenhouse gas effect. Therefore, to avoid the dangers of climate change, reducing CO2 emissions is the main topic in various articles. In this article, CO2 emission mitigation is analyzed in the sea water desalination plant using reverse electrodialysis power generation. Reverse electrodialysis is a power plant that does not produce CO2 emissions which converts energy from the difference in salinity of two solutions into electrical energy through selective ion membrane technology. There are 8 sea water desalination (SWD) unit which produces 242 tons/h of clean water for industrial activity and blowdown water of 3,161 tons/h, the blowdown water is wastewater. The SWD unit requires 3.043 tons/h of seawater as feed water, 0.164 MW of electricity and 86 tons/h of steam worth 64.1 MW as an energy. The energy are met from the combined heat and power operation. Combined heat and power require of fuel oil and fuel gas which produce CO2 emissions of 1,352,445,626 kgCO2/y. From the analysis on the SWD plant, the CO2 emission is 148,411,874 kgCO2/y. By implementing reverse electrodialysis power generation, blowdown water at the SWD plant which has a salinity concentration of 680 mol/m3 can produce electricity of 0.414 MW (3,636 MWh/y). If the electricity generated is used to substitute the electricity needs at the refinery plant, the CO2 emissions that can be mitigated is 2,955,915 kgCO2/y
Analysis of Scale Saturation Index (SSI), Scale Formation Rate, and Scale Formation Time Based on Geothermal Production Well Head Pressure at Well "X" Sofyan, Akhmad; Aka, Hari Sumantri; Suranta, Bambang Yudho; Ratasya, Safira Maura Aldira
Indonesian Journal of Energy and Mineral Vol. 1 No. 1 (2021): IJoEM, Vol 1, No 1, 2021
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (450.166 KB) | DOI: 10.53026/IJoEM/2021/1.1/15

Abstract

Well “X” merupakan salah satu sumur produksi panas bumi yang memproduksikan fluida dua fasa yaitu uap dan brine. Brine inilah yang biasanya membawa zat-zat yang dapat membentuk scale seperti Silica, Calcite dan Sulphide. Scale pada sumur produksi dapat mengurangi produksi secara signifikan karena mampu menghambat aliran fluida di dalam sumur. Hal itulah yang terjadi pada Well “X”. Parameter terpenting dalam pembentukan scale adalah Scale Saturation Index (SSI). Bila SSI > 1, maka fluida dalam kondisi supersaturated dan pengendapan silica dimungkinkan terbentuk. Pembentukan scale akan meningkat seiring dengan penurunan temperatur dan kenaikan pH akibat flashing. Sehingga laju pembentukan scale dan lama waktu pembentukan scale dapat dihitung secara matematis. Data yang diperlukan dalam analisa ini adalah data hasil produksi Well “X” (Output Curve) dan data sampel scale Well “X”. Untuk menghitung SSI dilakukan perbandingan antara konsentrasi silica dalam larutan dengan kelarutan amorphous silica pada kondisi yang sama. Sedang kan untuk menghitung laju pembentukan scale dan lama waktu pembentukan scale adalah densitas silica, kelarutan quartz pada temperatur reservoir, larutan amorf pada temperatur flashing dan salinitas. Dari hasil analisa yang dilakukan didapatkan bahwa endapan silika tidak akan terbentuk pada WHP yang telah digunakan. Apabila dilakukan analisa Trial and Error diantara didapatkan bahwa nilai SSI ? 1 berada pada tekanan 2.3 bar a atau 18.08 psia. fgSedangkan untuk analisa laju dan lama waktu pembentukan scale, pada tekanan WHP 7.81 bar a atau 114.64 psig merupakan yang paling baik karena laju pembentukan scale yang tidak terlalu besar yaitu sekitar 1.56 inch/ tahun dan waktu pembentukan scale sebesar 25% adalah yang lebih lama yaitu 1.12321 tahun.
Analysis of the Need for Mechanical and Instrumentation Equipment in the Utilization of Gas Wells in Balun Field Kasturi; Suharyadi, Hafid; Mulyono, Dwi
Indonesian Journal of Energy and Mineral Vol. 1 No. 1 (2021): IJoEM, Vol 1, No 1, 2021
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (499.227 KB) | DOI: 10.53026/IJoEM/2021/1.1/16

Abstract

The utilization of old gas wells in Balun field has the potential to improve the welfare of the people in Cepu District and the surrounding areas in meeting their daily gas needs. However, the challenge of these old unutilized gas wells has risks and impacts on the environment, such as the possibility of gas leak causing fires. This study aimed to analyze the potential of old gas wells and to analyze the impact of risks on the areas around the old gas wells, which will be passed through the gas network, and where the gas processing units will be established. In this analysis, the results of the gas processing process would be distributed to Cepu District to meet household fuel needs. In addition, the use of these old gas wells is also to provide education to students regarding gas processing and distribution. The analysis of the utilization of old gas wells began with mapping of environmental conditions, distribution pipeline systems, and gas processing locations. The mechanical equipment requirements for the model, pipeline design, and processing unit would be presented. Next, the need for the instrumentation system would improve the transmission system and processing unit with reference to ease of operation and safety. In addition, budget requirements and flow diagram were needed to facilitate further programs when building pipelines and the desired gas processing unit
Redesign of Centrifugal Pump with Capacity 286.8 M3/hrs and Head 32 Metre at Karawang International Industrial City Susilo Handoko; Hanif Arif Wibowo; Kasturi Kasturi
Indonesian Journal of Energy and Mineral Vol. 1 No. 2 (2021): Indonesian Journal of Energy & Mineral
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.53026/IJoEM/2021/1.2/378

Abstract

Mechanical equipment has an important role to support the needs of a process. There is mechanical equipment, namely a pump that functions to move liquid fluid from one place to another through the piping medium. Based on report from customer, Centrifugal pump ETA-N 150 x 125 - 315 which functions as supply distribution of clean water from Water Treatment Plant (WTP) to the Karawang area International Industrial City (KIIC) experienced a decrease in capacity and Head and happened unbalance on the pump drive motor rotor. After an investigation by the team engineering PT. TG Engineering, found problems such as heavy corrosion and corrosion erosion on surface impeller, spoons impeller and volute chamber, deep scratch and light corrosion on shaft / shaft, as well as malfunction bearing on bearing pump and bearing pump drive motor unbalance. Referring to the results of the investigation, the authors design and select centrifugal pump components based on the results of the investigation. So that after calculating the dimensions of impeller, shaft, key and component selection such as type bearing, lubrication bearing, as well as coupling.
The Analysis of the LPG Storage Tank Planning Based on the Potential Demand in Belitung Island Adiga Putra Alindita; Dwi Nurma Heitasari
Indonesian Journal of Energy and Mineral Vol. 1 No. 2 (2021): Indonesian Journal of Energy & Mineral
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.53026/IJoEM/2021/1.2/657

Abstract

The growing demand for LPG has increased the number of LPG tanker ships/gas carriers entering X Port, resulting in queues that will impede the distribution of LPG to the people of Belitung Island. PT XYZ in-tends to construct an LPG tank in the X Port area to facilitate LPG distribution on Belitung Island. The tank capacity is expected to meet Belitung Island’s LPG demand for the next five years. The authors forecast the potential demand for the next five years using LPG revenue data from January 2019 to February 2021, with forecasting results from March 2021 to February 2026. The Time Series Method was used to forecast by comparing the smallest MAD (Mean Absolute Deviation) values between the Linear Trend Model and the Exponential Trend Model. According to the forecasting calculations conducted using the linear trend mod-el, the potential demand for February 2026 is 973.4098 Tons with a ten-day stock resistance. According to these calculations, the proposed tank is a spherical tank with a capacity of 1000 tons, which means that the LPG tank stock resistance in the last period, namely February 2026, is 11 days, which is in compliance with the Regulation of the Ministry of Energy and Mineral Resources Number 26 of 2009 concerning the Provision and Distribution of Liquefied Petroleum Gas.
Ligno Sulphonate [SLS] Laboratory Testing For the Recovery of Residual Oil at Ledok Oil Field Edi Untoro; Purnomosidi Purnomosidi; Slamet Priyanto
Indonesian Journal of Energy and Mineral Vol. 1 No. 2 (2021): Indonesian Journal of Energy & Mineral
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.53026/IJoEM/2021/1.2/895

Abstract

Fossil energy much still needed and exhalated in demand every year on industrial sector, household, and transportation in Indonesia. In the other hand, oil gas production has decreases as many of oil and gas reservoirs have saturated with water breakthrough. Therefore, Enhance Oil Recovery [EOR] as one of proposed solution is adopted to optimize the remaining reserves of oil wells exploitation, especially from mature field that has lesser production capacity towards production problems. Ledok field Cepu district, Central Java Indonesia has many mature wells that produce liquids with its water cut higher than 90 %. The objective of study is to determine which variables that are involve on black liquor or Sodium Ligno Sulphonate [SLS] application as surfactant for EOR on laboratory measurements. Core flooding measurements had been developed and measured. Crude, formation water, and SLS surfactant were injected into the artificial cores. FTIR test show appearance of Sulphonate and Ether alkyl in its composition. Preliminary results show the surfactant has optimum performance to recover oil up to 79% with IFT value 10-1 dyne/cm.
Evaluation and optimization of Plug and Abandon of well XX-01 on DELTA Field Bima Putra Buana; Purnomosidi Purnomosidi; Akhmad Sofyan
Indonesian Journal of Energy and Mineral Vol. 1 No. 2 (2021): Indonesian Journal of Energy & Mineral
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.53026/IJoEM/2021/1.2/896

Abstract

Plug and abandon operation may need to be applied on mature wells which have decreased oil and gas production less than others in economic benefits or exploration wells that may need to be side tracked with an option of new trajectory. This study evaluated and optimized cementing technique that being used on plug and abandon operation for well XX-01 which its location is on Delta Mahakam Field. The XX -01 well can’t be produced due to water breakthrough at its current producing layers, therefore, there will be a future sidetrack drilling as deepening project. Study results show that probability leakage rate is 5.76E-07 m3/s (0,000000576 m3/s) and according to ALARP triangle, the probability leakage rate of well XX-01 is on the acceptable risk zone therefore can be considered as a safe operation to be executed.
Remaining Reserves Drainage Optimization Using Infill Drilling Based on Subsurface Study Field Ana Megawanti Haryuni; Erdila Indriani; Purnomosidi Purnomosidi
Indonesian Journal of Energy and Mineral Vol. 1 No. 2 (2021): Indonesian Journal of Energy & Mineral
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.53026/IJoEM/2021/1.2/897

Abstract

The XY Field is an oil field in the Sunda Basin which was developed since 1981 and has been produced in the Baturaja carbonate layer and Talang Akar sandstone layer. Decreasing the amount of oil production in the reservoir can have a detrimental impact on the company so it is necessary to analyze the remaining reserves of the reservoir. The calculation used to evaluate the remaining reserves use the Volumetric, Material Balance and Decline Curve methods. From the three methods, the results that are close to the reserve of the XY field reservoir are 14 MMSTB. OOIP is obtained from the volumetric method and material balance which is divided into P10, P50 and P90. The reserve OOIP for P10 is 110.8 MMSTB and P90 is 60.34 MMSTB, with the last cumulative production in December 2019 being 9.3 MMSTB, where the economic limit of the field is 46 bbl. / day and the contract will be expired in 2038. From the results of the subsurface analysis, the four infill wells are candidates for infill wells because they have hydrocarbon potential. Then in terms of economics this development scenario is feasible to be developed with NPV reaching 9,140 MUSD, the ROR reaching 41% for PSC and 60% for Gross Split, and increases field recovery factor (RF) up to 56%.
Design of Monitoring System Distribution Water Based on IoT Feras Ferdinan Sabono; Umi Yuliatin; Roni Heru Triyanto; Astrie Kusuma Dewi
Indonesian Journal of Energy and Mineral Vol. 2 No. 1 (2022): Indonesian Journal of Energy & Mineral
Publisher : Politeknik Energi dan Mineral Akamigas

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.53026/IJoEM/2022/2.1/997

Abstract

Based on the reference journal states that the increase in water use activities in urban areas for the lower Golan is 169.11 liters per person per day, and in the upper middle class it is 247.36 liters for each person per day, this cannot be denied that many activities use large amounts of water. large, so that from this problem, a distribution system and regular water monitoring is needed so that there is no wastage of water. In this research, a water distribution monitoring system has been designed, using Wemos D1 R1 and Blynk as interfaces. The purpose of this system design is to be able to design and realize a simple system for flow monitoring. This system consists of a water flow sensor YF-201 water flow sensor, Wemos D1 R1 Microcontroller, Blynk HMI to display measurement data that will detect the flow rate of water, then the water discharge value will be converted by Wemos D1 R1. After that Wemos D1 R1 will control and communicate with Blynk using the com port to display the measurement results in the form of numbers which are the final display of the flow rate measurement. For the experimental results of the prototype water distribution monitoring system tool, which is designed to show that the measurement system has been able to run quite well. accuracy 97.42 – 99.98%

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