FEALING: Free Medical Check-Up Event Promotes Health Awareness

Indonesia is stepping up its renewable energy efforts through a strategic partnership between global energy technology company SLB and Star Energy Geothermal. The two companies have signed an agreement to support the development of the Sekincau geothermal project in Lampung, marking a deeper phase of collaboration in the country’s geothermal sector.The agreement, signed on Thursday (February 19), expands beyond earlier technology cooperation into a more comprehensive scope that includes field development planning, subsurface evaluation, and integrated drilling services. SLB will play a key role in providing technical expertise, particularly in subsurface mapping, well planning, and drilling operations, all of which are critical in reducing risk during geothermal development.“Advanced technology, deep technical expertise and disciplined operational performance, through integration across the project lifecycle, are essential to scaling geothermal projects,” said Nurzhan Ongaltayev, managing director, Indonesia, SLB. “These agreements and new collaboration opportunities apply SLB’s subsurface consulting expertise and global execution experience to support geothermal development alongside an experienced operator, from project execution in Indonesia to evaluating opportunities overseas.”The Sekincau geothermal project represents more than just another energy development initiative. It reflects a shift in how geothermal projects are approached, with a stronger emphasis on collaboration, technology integration, and risk reduction.If successful, the partnership between SLB and Star Energy could serve as a model for future geothermal developments in Indonesia. By combining technical expertise with operational experience, the project has the potential to accelerate the country’s transition toward a more sustainable and resilient energy system.As demand for clean energy continues to rise, initiatives like Sekincau highlight the importance of turning Indonesia’s vast geothermal resources into tangible and lasting impact.

PetroChina International Jabung Ltd. (PCJL) has successfully completed the initial production test of the Gemah-81 development well in the Jabung Working Area, Jambi, marking another milestone for Indonesia’s upstream oil and gas sector. The drilling activity was conducted under the supervision of SKK Migas, the country’s upstream oil and gas regulator.Head of SKK Migas Djoko Siswanto confirmed the positive test results, highlighting the well’s strong production performance following completion on February 11, 2026.Based on well test analysis conducted at a 32/64-inch choke, Gemah-81 produced 4.8 million standard cubic feet per day (MMscfd) of gas at a wellhead pressure (WHP) of 1,080 psig, along with approximately 400 barrels per day (bpd) of condensate. The well targets three reservoirs, with the primary zone located at a depth interval of 7,259–7,281 feet measured depth (MD). The results indicate promising hydrocarbon potential within the Gemah field.To accelerate production, PetroChina plans to connect the well to the existing Gemah Station production facility within approximately two weeks. The tie-in will involve the installation of around 300 meters of pipeline, enabling the well to commence regular production promptly.Building on this success, the company is scheduled to drill two additional wells — Gemah-85 and NEB-85 ST — within the next month. SKK Migas expressed hope that these wells will deliver even higher production rates, further strengthening output from the Jabung Block.Looking ahead, PetroChina reaffirmed its commitment to expanding exploration activities and optimizing existing assets in the block through technology deployment, cost efficiency, and collaborative efforts, supporting sustained production growth in the years to come.

Indonesia is set to eliminate diesel imports in 2026, supported by the upcoming operation of the Refinery Development Master Plan (RDMP) Balikpapan, operated by PT Pertamina (Persero). Based on the latest update, the project is now scheduled to be inaugurated by President Prabowo Subianto on 17 December 2025, marking the entry of Indonesia’s largest refinery upgrade into commercial operation. Previously, Minister of Energy and Mineral Resources, Bahlil Lahadalia had stated that the RDMP Balikpapan inauguration was planned for 10 November 2025 following a limited cabinet meeting with President Prabowo on 3 November 2025. At the time, he emphasized that the refinery upgrade would enable Indonesia to meet domestic diesel demand entirely through national production. “Insya Allah, starting 2026 we will no longer import diesel,” Bahlil said. “Because our RDMP refinery in Balikpapan will be inaugurated.” Despite the rescheduled inauguration, the government maintains that RDMP Balikpapan will play a decisive role in strengthening fuel self-sufficiency. The facility is expected to significantly increase Indonesia’s refining capacity and support the national objective of achieving zero diesel imports while also boosting aviation fuel (avtur) supply for both domestic and export markets. The RDMP Balikpapan project is designed to modernize one of Indonesia’s strategic refineries by increasing production capacity, improving fuel quality, and enhancing operational efficiency. The refinery upgrade forms part of Pertamina's long-term downstream investment roadmap to reduce reliance on petroleum imports, strengthen supply resilience, and improve state fiscal performance by reducing the foreign exchange burden from imported fuels. In support of the refinery expansion, the government is also pushing for the implementation of B50 biodiesel, which blends 50% palm oil-based fuel. According to Bahlil, the synergy between RDMP Balikpapan and B50 could shift the domestic diesel balance from deficit to surplus. “If both RDMP and B50 run well, we will have excess diesel and we can export it,” he asserted. The ministry is currently calculating the production forecast and export potential once both programs are fully executed. To date, Indonesia has relied on imported diesel to bridge the gap between domestic refinery capacity and fuel consumption. The cessation of diesel imports is expected to reduce logistics vulnerability during global price fluctuations, strengthen energy independence, and improve the trade balance. Policymakers have highlighted that diesel remains a critical fuel for transportation, mining, agriculture, and industrial sectors, meaning its secure supply is closely tied to national economic performance. The RDMP Balikpapan project has been categorized as a strategic national program due to its magnitude and expected economic impact. The government anticipates that its operation will contribute to regional economic activity, promote industrial employment, and accelerate technology transfer in refinery modernization. Stakeholders, including local governments, logistics operators, and energy-intensive industries are monitoring the commissioning timeline as it will determine fuel distribution adjustments across Kalimantan and other regions. Further information regarding refinery output, the detailed implementation roadmap for B50, and mechanisms for potential diesel exports is expected to be released after the inauguration in November. For now, the government maintains the target of achieving diesel self-sufficiency in 2026, marking what could become a significant milestone in Indonesia’s long-term energy security agenda.Writer: Azzahra Luna Prasetyo

The Society of Petroleum Engineers (SPE) ITS SC held a guest lecture program called SPEak Up! Guest Lecture in collaboration with SPE UTM SC from Malaysia and SPE PSU SC from the Philippines. The program aimed to increase the understanding of the members of the three SPE’s regarding the perspective of the oil and gas industry in the energy transition era.  SPEak Up! Guest Lecture is an annual event that developed by Academia and Competency Development Department SPE  ITS SC. This year, SPEak Up! brought the theme regarding the perspective of the oil and gas industry in the energy transition era. One interesting topic was "CCUS as a Remarkable Solution to Support Emission Reduction" presented by Mutia Khairunnisa Mardhatillah.Mutia Khairunnisa Mardhatillah is a graduate student from the PETRONAS University of Technology majoring in Petroleum Engineering at the master's degree. Currently she is a Researcher Assistant in the field of carbon capture and storage (CCS) at PETRONAS University of Technology. Also, currently she is working on his dissertation focused on the CO2-Brine-Rock Interactions during sequestration in Saline Aquifer. The observations are on the near-wellbore vicinity and the consequences from the interactions are analyzed.In her presentation, Mutia said that currently, our world is experiencing a significant increase in the earth's temperature from year to year which is experienced by the large number of greenhouse gas emissions, especially CO2 that rises into the atmosphere. That way, there needs to be a step to prevent it.there are many ways that can be done to reduce greenhouse gas emissions, such as the use of renewable energy, methane reduction, alternative fuels, etc. However, in this case there is one way that is often discussed at this time, that is CCUS.CCUS stands for Carbon Capture, Utilization, and Storage. It refers to a set of technologies and processes aimed at reducing carbon dioxide emissions from industrial processes and power generation. Carbon capture involves capturing carbon dioxide emissions from sources such as power plants, factories, and other industrial processes. Utilization involves finding ways to use the captured carbon dioxide, for example, in the production of chemicals, fuels, or building materials. Storage involves storing the captured carbon dioxide in underground geological formations, such as depleted oil and gas reservoirs or saline aquifers, so that it does not enter the atmosphere. CCUS is seen as a promising approach to reducing greenhouse gas emissions and mitigating climate change, as it allows for continued use of fossil fuels while reducing their environmental impact.“CCUS consists of 4 stages, namely Carbon Capture, Transport, Utilization, and Storage. In the carbon capture stage, CO2 released into the atmosphere will be captured from fuel combustion or industrial processes. Furthermore, at the transport stage, CO2 will be transported via a ship or pipeline. After CO2 is transported, there is a utilization stage where it can either be used as a resource to create valuable products or services, but it doesn't stop at that stage, CO2 can also be injected into underground geological formations for the storage stage.” Mutia said. However, there are still several obstacles in its application, such as high cost, regulatory framework, and public acceptance. For this reason, Mutia hopes that companies that will later apply this technology and the government can work together with the surrounding community for the implementation of this CCUS technology.