The Bubale-1X well reached a total depth of 20,548 feet (6,263 meters) while operating in water depths of 7,795 feet (2,376 meters). According to the company, the well encountered 100 feet (30 meters) of net oil pay distributed across two reservoirs. Initial evaluations indicate the presence of high-quality light oil, supporting the prospectivity of the acreage within Block CI-709.

Commenting on the results, Eric Hambly, President and Chief Executive Officer of Murphy Oil Corporation, said, “Early results at Bubale reinforce the prospectivity of our Côte d’Ivoire acreage. We are pleased with the results to date, which underscore the value of a disciplined and consistent exploration approach. Our immediate focus now is advancing evaluation plans to define the discovery’s full potential.”

Evaluation Phase Planned Following Completion of Exploration Campaign

The Bubale-1X well represents the third and final exploration well drilled as part of Murphy’s current three-well campaign in Côte d’Ivoire. Following the discovery, the company intends to proceed with the next stage of evaluation activities aimed at better understanding the scale and potential of the find. As part of these plans, one additional well is scheduled for the second half of 2026 to assess the extent of the discovery associated with the Bubale-1X well.

Drilling operations began in late February 2026 when the well was spud by Murphy CI-709 Oil Co., Ltd., a subsidiary of Murphy Oil Corporation and the operator of Block CI-709. Murphy maintains a 90 percent working interest in the block, while Société Nationale d’Opérations Pétrolières de la Côte d’Ivoire (PETROCI) holds the remaining 10 percent interest.

Company Maintains Focus on Global Exploration Portfolio

Murphy Oil Corporation is an independent oil and natural gas company with a multi-basin onshore and offshore portfolio and significant exploration opportunities. The company has operated for more than a century and continues to pursue exploration and development projects across several regions. Its current asset base includes extensive inventory onshore in the Eagle Ford Shale, Tupper Montney and Kaybob Duvernay, alongside offshore operations in the Gulf of America and Canada.

In addition to its producing assets, Murphy continues to pursue long-term growth through offshore exploration and development activities in the Gulf of America, Vietnam and Côte d’Ivoire, where the recent Bubale-1X well discovery adds another milestone to its exploration efforts.

The conversation centered primarily on restoring operations through the Kirkuk-Ceyhan pipeline and coordinating efforts to enhance Iraqi petroleum supplies reaching European markets. This Iraq-Türkiye oil pipeline cooperation initiative addresses mounting concerns about export vulnerabilities stemming from regional instability and operational disruptions affecting the Gulf maritime corridor.

Strategic Importance of Alternative Export Routes

For Iraq, the restoration and expansion of oil exports via the Iraq-Türkiye oil pipeline cooperation channels would establish a critical alternative outlet for crude oil production. Recent tensions and operational challenges in the Gulf region have underscored Iraq’s vulnerability when relying solely on southern export ports and marine shipping lanes through congested waterways. These disruptions have directly constrained Iraqi export flows and intensified pressure on national finances, making the Iraq-Türkiye oil pipeline cooperation initiative increasingly vital for the country’s resilience.

Comprehensive Bilateral Cooperation Framework

Beyond oil transportation discussions, the conversations between Al-Zaidi and Erdogan addressed multiple dimensions of bilateral cooperation. Both leaders prioritized water resource management agreements and emphasized the necessity for sustained dialogue to establish frameworks serving the interests of both nations.

The discussions also explored potential collaboration in natural gas development and agricultural sectors as Baghdad and Ankara work toward comprehensive economic integration. Additionally, the Development Road project, a multi-billion-dollar transit corridor connecting Iraq with Turkey and ultimately European markets, featured prominently in negotiations. Both parties reaffirmed their commitment to advancing this transformational infrastructure initiative, which they characterized as a significant undertaking capable of reshaping regional logistics and commerce.

Investment and Private Sector Engagement

Prime Minister Al-Zaidi extended an invitation to Turkish enterprises to expand their investment presence throughout Iraq, highlighting opportunities across multiple economic sectors. He underscored the critical role that private sector participation plays in strengthening economic ties between the neighboring nations and building sustainable business relationships.

President Erdogan reaffirmed his invitation for Al-Zaidi to visit Ankara, where both governments indicated their intention to resume comprehensive talks. These anticipated meetings will address energy cooperation, infrastructure development initiatives, and implementation timelines for the Development Road project.

The Angola offshore oil project is being led by Azule Energy, a joint venture between BP and Eni, which serves as the operator. Additional partners include Norway’s Equinor, Angola’s national oil and gas agency ANPG, and the state-owned entity Sonangol.

Project Scope and Technical Details

The Greater PAJ development represents the latest expansion by Azule Energy, currently Angola’s largest independent oil and gas producer. The offshore oil development is located in the Lower Congo Basin and will integrate production from Block 31 with nearby discoveries in Block 31/21. The combined area contains estimated oil reserves of 252 million barrels, positioning it as a substantial addition to Angola’s production capacity. The deepwater infrastructure will feature a new floating production, storage and offloading vessel (FPSO).

Production Timeline and Economic Impact

The project is expected to begin producing crude oil in the first half of 2029, providing a clear development timeline for stakeholders and investors. Joseph Murphy, Chief Executive Officer of Azule Energy, said, “Greater PAJ will contribute to sustaining production, creating value for the country and reinforcing Angola’s position as a key energy supplier in the years ahead.”

Angola’s Strategic Energy Position

Angola maintains its status as a major African crude oil producer and has undertaken substantial reforms to its regulatory framework to attract fresh investment. The country has focused particularly on attracting development in mature and marginal fields as it works to maintain daily crude oil production at approximately one million barrels.

Engineering and Technology Partnerships

Other contracts supporting the Angola offshore oil project implementation were formalized during the signing ceremony, with several specialized engineering and technology firms selected for the work. These include Baker Hughes, Saipem, and TechnipFMC.

This transformative process, often termed chemical recycling, is creating a viable pathway towards a truly circular economy for plastics. It leverages the existing infrastructure and chemical expertise of refineries to integrate plastic waste conversion seamlessly into the production cycle, moving us decisively beyond the limitations of mechanical recycling and incineration. The implications for environmental sustainability, resource efficiency, and the economic landscape of the petrochemical industry are profound, marking a new chapter in industrial symbiosis and ecological responsibility.

The Imperative for a Circular Plastic Economy

For decades, the production and consumption of plastics have followed a linear ‘take-make-dispose’ model, fueled by readily available virgin fossil resources. While plastics offer unparalleled versatility and utility, this linear paradigm has led to an escalating waste crisis. Traditional mechanical recycling, while valuable, struggles with mixed, contaminated, or complex plastic streams, often resulting in downcycled products or a significant portion still ending up in landfills or incinerators. Incineration, while generating energy, releases carbon emissions and destroys the material value of the plastic.

The urgent need for innovative solutions to manage this ever-growing volume of plastic waste has driven the development of refinery recycling technology. This quest for solutions isn’t merely about waste disposal; it’s about preserving the embedded energy and molecular value within plastics, preventing the extraction of new fossil resources, and mitigating the environmental footprint associated with plastic production. The advent of advanced recycling units offers a powerful means to address these challenges, presenting a pathway for plastic waste conversion on an industrial scale that closes the loop on previously unrecyclable materials.

Demystifying Advanced Recycling Units (ARUs)

At its core, advanced recycling refers to a suite of technologies designed to break down plastic waste into its fundamental chemical components, or monomers, or into valuable petrochemical intermediates. Unlike mechanical recycling, which melts and reshapes plastics, these processes alter the chemical structure of the material. This capability is particularly crucial for handling mixed plastic waste, multi-layered plastics, and plastics with food residues or contaminants – streams that often overwhelm conventional recycling facilities.

The integration of advanced recycling units in refineries is a natural fit because refineries are already equipped with the infrastructure and expertise for complex chemical transformations. They routinely convert crude oil into a myriad of products, including the naphtha and other fractions that are the building blocks for virgin plastics. By incorporating ARUs, refineries can now convert difficult-to-recycle plastic waste directly into these same valuable hydrocarbon feedstocks, creating a powerful synergy.

Several key chemical recycling technologies underpin these ARUs:

Pyrolysis: Thermal Decomposition for Hydrocarbon Oils

Pyrolysis is perhaps the most widely recognized and rapidly commercializing form of chemical recycling within advanced recycling units in refineries. This process involves heating plastic waste in the absence of oxygen to high temperatures (typically 300-700°C), causing the long polymer chains to break down into smaller hydrocarbon molecules. The resulting products are primarily pyrolysis oil (or plastic oil), along with some gas and char. This pyrolysis oil is chemically very similar to crude oil fractions like naphtha or gas oil and can be directly fed into a refinery’s existing cracker or other processing units. This direct conversion of plastic waste to feedstock is a game-changer, allowing refineries to augment their traditional crude oil intake with recycled content.

Gasification: Synthesis Gas from Plastic Waste

Gasification transforms plastic waste into syngas (synthesis gas), a mixture primarily of carbon monoxide and hydrogen. This process typically occurs at even higher temperatures than pyrolysis and involves a controlled amount of oxygen or steam. Syngas is a versatile intermediate that can be used as a fuel, or further processed to produce a range of chemicals, including methanol, ammonia, or even new plastics, offering another avenue for waste-to-feedstock systems within a refinery complex.

Depolymerization: Reverting to Monomers

For certain types of plastics, particularly PET (polyethylene terephthalate) and polystyrene, depolymerization is a highly effective chemical recycling method. This process specifically breaks down the polymer chains back into their original monomer building blocks. These pure monomers can then be repolymerized into virgin-quality plastics, creating a truly closed loop. While often performed in specialized chemical plants, the resulting monomers could theoretically be used within refinery-linked petrochemical operations.

The Refinery’s Strategic Advantage: A Symbiotic Relationship

The decision to site advanced recycling units in refineries is not arbitrary; it represents a deeply strategic and symbiotic relationship. Refineries offer several compelling advantages that make them ideal hosts for these transformative technologies:

Integrated Infrastructure and Expertise

Refineries are vast complexes with established infrastructure for handling, processing, and upgrading hydrocarbon streams. They possess the necessary utilities, storage tanks, safety systems, and, crucially, a highly skilled workforce accustomed to managing complex chemical processes. Integrating an ARU into an existing refinery minimizes the need for entirely new greenfield facilities, reducing capital expenditure and accelerating deployment. The ability to integrate the generated feedstock recovery oils or gases directly into existing production lines without significant modifications is a monumental advantage.

Direct Feedstock Integration

One of the most significant benefits is the direct integration of the products from plastic waste conversion into refinery operations. The pyrolysis oils, for instance, can be co-fed alongside virgin naphtha or other fractions into steam crackers, fluid catalytic crackers (FCCs), or other units. This allows the refinery to produce certified circular polymers and fuels, blending recycled content seamlessly with conventional products. This capability is central to achieving circular economy in refining and validating the “mass balance” approach, where the proportion of recycled content is tracked throughout the production chain.

Economies of Scale and Operational Efficiency

Refineries operate on massive scales, benefiting from significant economies of scale. Integrating ARUs allows them to leverage these efficiencies, reducing the per-unit cost of processing plastic waste. Furthermore, the heat generated by some refinery processes can be utilized by the ARUs, improving overall energy efficiency and reducing operational costs.

Economic and Environmental Imperatives

The rise of advanced recycling units in refineries is driven by both compelling economic incentives and urgent environmental mandates.

Boosting Circular Economy Goals

The primary environmental driver is the establishment of a robust circular economy in refining for plastics. By converting plastic waste back into valuable feedstocks, ARUs reduce the reliance on virgin fossil resources for new plastic production. This significantly lowers the carbon footprint associated with plastics, as the energy-intensive process of extracting and refining crude oil is partially offset. Moreover, it diverts immense volumes of plastic from landfills and incinerators, mitigating land and air pollution. This closed-loop system is essential for corporations and nations striving to meet ambitious sustainability targets and achieve net-zero emissions.

Enhancing Refinery Value and Yields Growth

From an economic perspective, ARUs offer refineries new revenue streams and opportunities for diversified feedstock sourcing. As environmental regulations tighten and consumer demand for sustainable products grows, the ability to produce “circular” plastics or fuels adds significant market value. Refineries can command a premium for products derived from recycled content, strengthening their market position and fostering yields growth. Furthermore, a diversified feedstock supply, including plastic waste, can hedge against volatility in crude oil prices and enhance supply chain resilience. This proactive adaptation positions refineries not just as fuel and chemical producers, but as key players in the sustainable materials economy.

Refinery Sustainability and ESG Leadership

Embracing refinery sustainability through advanced recycling significantly enhances a company’s Environmental, Social, and Governance (ESG) profile. Investors and stakeholders are increasingly scrutinizing corporate environmental performance, and the deployment of ARUs demonstrates a tangible commitment to addressing plastic pollution and reducing environmental impact. This can lead to improved public perception, stronger brand reputation, and potentially better access to capital. By actively participating in plastic waste conversion, refineries move towards becoming leaders in sustainable manufacturing, aligning their operations with global ecological imperatives.

Navigating Challenges and Forging the Path Forward

While the promise of advanced recycling units in refineries is immense, their widespread adoption faces several challenges that the industry is actively addressing. Securing a consistent and high-quality supply of plastic waste remains a hurdle. Effective sorting and collection infrastructure are paramount to ensure the ARUs receive suitable feedstock. Furthermore, the economic viability of these processes, especially at scale, requires ongoing optimization and supportive policy frameworks. Regulatory clarity, particularly regarding the classification of pyrolysis oil as a recycled content input, is crucial for fostering investment and accelerating deployment.

Despite these challenges, the momentum behind advanced recycling is undeniable. Major petrochemical companies are investing heavily in new ARU facilities and strategic partnerships across the globe. Governments are increasingly recognizing the importance of chemical recycling in achieving circular economy goals, often providing incentives and establishing supportive regulatory environments. Innovations in reactor design, catalyst development, and pre-processing technologies are continuously improving the efficiency and economics of these processes.

Oil & Gas Advancement highlights that advanced recycling units in refineries are emerging as a beacon of hope in the battle against plastic pollution. By transforming intractable waste into valuable new resources, these units are propelling us towards a future where plastics can be part of a truly circular economy, providing the materials we need without sacrificing the health of our planet. This paradigm shift, integrating waste into the core of industrial production, underscores a profound commitment to innovation and sustainability, marking a critical step towards a more resource-efficient and environmentally responsible world

The Conventional Paradigm: Challenges in Subsurface Exploration

Traditional seismic imaging involves sending acoustic waves into the Earth and recording the echoes that bounce back from various geological layers. These echoes are then processed and interpreted by geophysicists to create a subsurface map. While incredibly powerful, this process has historically been highly interpretive and, to some extent, subjective. The sheer volume of seismic data, coupled with its inherent complexity, riddled with noise, anomalies, and ambiguities, requires highly skilled human experts to sift through, process, and make sense of it.

Navigating Data Overload and Interpretation Nuances

The challenge lies in extracting meaningful geological information from vast datasets, often under tight deadlines. Subtle geological features indicative of hydrocarbon reservoirs can be easily missed or misinterpreted. Furthermore, the presence of geological noise, such as multiples or incoherent energy, can obscure critical reflections, leading to blurred or inaccurate images of the subsurface. This human element, while crucial for expert judgment, introduces variability and can be time-consuming, leading to bottlenecks in the exploration workflow. The ultimate consequence of these limitations is an elevated risk of making suboptimal or incorrect drilling decisions, directly contributing to the prevalence of costly dry wells.

The Dawn of a New Era: Understanding AI-Powered Seismic Imaging

AI-powered seismic imaging represents a monumental leap forward, integrating artificial intelligence and machine learning algorithms directly into the seismic data processing and interpretation workflow. This innovative approach moves beyond the limitations of traditional methods by leveraging the computational power of AI to analyze seismic data with unprecedented speed, accuracy, and objectivity. Instead of relying solely on human interpretation of visual patterns, AI systems can identify subtle correlations, anomalies, and structural features that might be invisible or overlooked by the human eye.

Unpacking the AI Advantage in Data Analysis

At its core, AI-powered seismic imaging utilizes sophisticated algorithms, including machine learning and deep learning models, to process raw seismic data, enhance its quality, and extract geological insights. These algorithms are trained on vast datasets of seismic images, well logs, and geological models, learning to recognize patterns associated with different rock types, fluid content, and geological structures. This training allows the AI to perform tasks such as noise attenuation, fault detection, stratigraphic interpretation, and reservoir characterization with remarkable efficiency and precision. The result is a far clearer, more detailed, and reliable representation of the subsurface, leading to better-informed exploration strategies.

The process typically begins with robust seismic data analysis, where AI algorithms are employed to denoise and enhance the raw seismic signal. This initial step is critical, as clean data forms the foundation for accurate interpretation. Machine learning models can then be deployed to automatically identify and delineate geological features, predict rock properties, and even estimate fluid types based on complex seismic attributes. This drastically reduces the time and effort traditionally required for manual interpretation, accelerating the exploration cycle and significantly improving the quality of the derived geological models.

Precision Unleashed: How AI Transforms Subsurface Interpretation

The true power of AI-powered seismic imaging lies in its capacity to revolutionize the interpretation of the Earth’s subsurface. Oil & Gas Advancement notes that AI introduces a level of precision and objectivity that was previously unattainable, fundamentally altering the way exploration teams approach potential reservoirs.

Enhanced Subsurface Accuracy

Perhaps the most significant contribution of AI is its ability to deliver dramatically enhanced subsurface imaging accuracy. Traditional interpretation often grapples with ambiguities arising from complex geology, signal noise, and limitations in human cognitive processing. AI algorithms, particularly deep neural networks, are adept at identifying intricate patterns and subtle seismic attributes that correlate with specific geological features, even in highly noisy or structurally complex environments. They can effectively differentiate between valid geological signals and random noise, leading to clearer, sharper images of underground structures. This granular level of detail allows geoscientists to construct far more precise geological models, delineate reservoir boundaries with greater confidence, and accurately characterize the rock and fluid properties within potential traps. The reduction in ambiguity directly translates into a more reliable understanding of where hydrocarbons might reside.

With a more accurate understanding of the subsurface comes the ability to conduct prospect ranking with unparalleled confidence. AI models can analyze a multitude of geological, geophysical, and petrophysical data points for each potential prospect. They can learn from historical drilling success and failure rates, identifying the subtle signatures associated with productive reservoirs versus barren structures. By evaluating factors like trap integrity, reservoir quality, source rock maturity, and migration pathways, AI can assign probability scores to prospects, objectively ranking them based on their likelihood of containing economic hydrocarbon accumulations. This data-driven approach moves beyond qualitative assessments, enabling exploration teams to prioritize the most promising targets and allocate their valuable resources more effectively, thereby optimizing their drilling portfolio.

Optimized Drilling Decisions

The ultimate goal of all subsurface interpretation is to inform and optimize drilling decisions. With AI-powered seismic imaging, the guesswork is significantly reduced. By providing highly accurate subsurface models and robust prospect rankings, AI empowers explorationists to make more confident and strategic choices about where to drill. The improved clarity in identifying target zones means wells can be placed with greater precision, maximizing the chance of hitting the reservoir. Furthermore, AI can aid in predicting potential drilling hazards, such as overpressured zones or unstable formations, allowing for proactive mitigation strategies. This foresight not only saves time and money but also enhances safety during drilling operations. Each optimized drilling decision is a step closer to a successful well and a step further from the financial drain of a dry hole.

Quantifying the Impact: Direct Cost Reductions from AI

The theoretical advantages of AI-powered seismic imaging translate directly into tangible financial benefits, primarily through a substantial reduction in dry well costs. For an industry where each exploration well represents an enormous capital outlay, minimizing these unproductive expenditures is paramount for sustainable profitability and long-term viability.

Minimizing Dry Well Costs Through Informed Action

The most straightforward and impactful benefit is the direct reduction in dry well frequency. By providing exploration teams with superior subsurface insights, AI significantly improves the probability of drilling successful wells. This means fewer wells are drilled into uneconomic formations, directly saving the considerable costs associated with rig mobilization, drilling operations, logging, casing, and abandonment of a dry hole. These savings alone can run into hundreds of millions of dollars annually for larger exploration companies, fundamentally reshaping their capital efficiency.

Streamlined Data Processing and Reduced Cycle Times

Beyond avoiding dry wells, AI contributes to cost reduction through efficiency gains. Traditional seismic data analysis and interpretation are labor-intensive, time-consuming processes. Oil and gas AI algorithms can process vast amounts of seismic data in a fraction of the time it would take human geophysicists, and with greater consistency. This machine learning in exploration capability means quicker turnaround times from data acquisition to drill-ready prospects, accelerating the decision-making cycle and reducing the overall exploration timeline. Faster processing translates into lower operational costs and the ability to respond more rapidly to market dynamics or new data.

Improved Exploration ROI

Ultimately, all these benefits converge to significantly enhance exploration ROI (Return on Investment). By reducing dry well frequency, optimizing well placement, and streamlining data processing, AI minimizes capital expenditure while maximizing the probability of discovering commercially viable hydrocarbon reserves. The capital that would otherwise be wasted on unproductive wells can be reinvested into more promising ventures, further fueling growth and innovation. In a fiercely competitive and capital-intensive industry, an improved ROI is not just a desirable outcome; it’s a strategic imperative for long-term success. AI-driven exploration shifts the balance from high-risk, high-reward to higher-probability, higher-efficiency ventures.

The Technological Backbone: AI, Machine Learning, and Deep Learning in Action

The capabilities of AI-powered seismic imaging are underpinned by advances in various facets of artificial intelligence. Machine learning algorithms, such as Support Vector Machines or Random Forests, are used for classification tasks like identifying different lithologies or fluid types based on seismic attributes. Deep learning, a subset of machine learning involving neural networks with multiple layers, truly excels in complex pattern recognition. Convolutional Neural Networks (CNNs), for instance, are particularly effective in image processing tasks, making them ideal for denoising seismic data, detecting faults, or mapping geological horizons with incredible accuracy. These systems learn from vast amounts of historical data, seismic surveys, well logs, production data, to build predictive models, constantly improving their accuracy with more data and feedback. This continuous learning aspect is what makes seismic interpretation AI so powerful; it’s not just a tool, but an evolving intelligence that becomes smarter over time.

Real-World Applications of AI-powered Seismic Imaging

While the theoretical advantages of AI-powered seismic imaging are compelling, its real impact is best understood through its practical application in the field. Across the oil and gas industry, pioneering companies are already leveraging this technology to unlock new efficiencies and achieve tangible reductions in dry well costs.

Transforming Exploration Success Rates

Consider a multinational energy company operating in a geologically complex basin. Traditionally, their exploration campaigns in this area had a dry well rate approaching 40-50%, a figure that severely impacted their profitability. By integrating AI-powered seismic imaging into their workflow, they were able to re-evaluate historical seismic data, revealing subtle geological features and fluid contacts that were previously missed by human interpreters. The AI models, trained on regional well data, identified a previously overlooked stratigraphic trap, predicting its presence and likely hydrocarbon content with high confidence. Upon drilling, the well proved to be a significant discovery, transforming what would have been another high-risk venture into a successful exploitation project. This success not only reduced the dry well count for the campaign but also significantly boosted their exploration ROI for the region.

Gaining a Competitive Edge with AI

Another example involves a mid-sized independent producer looking to optimize their drilling program in mature fields. By applying machine learning in exploration to existing seismic data, combined with production history and well log data, they were able to perform a high-resolution re-interpretation of the subsurface. The AI identified bypassed pay zones and subtle structural traps within areas previously deemed fully depleted. This advanced subsurface imaging allowed them to strategically place infill wells and sidetracks with a much higher success rate than conventional approaches, extending the economic life of their assets and substantially increasing production. Such early adoption of oil and gas AI grants these companies a distinct competitive advantage, allowing them to extract more value from existing assets and approach new frontiers with greater assurance.

Navigating the Future: Challenges and Opportunities

While the benefits of AI-powered seismic imaging are undeniable, its widespread adoption and continued evolution are not without challenges. However, these challenges are overshadowed by the immense opportunities this technology presents for a more efficient, sustainable, and data-driven future for the oil and gas industry.

Overcoming Integration Hurdles and Data Silos

One primary challenge is the integration of diverse datasets and legacy systems. For AI models to perform optimally, they require vast amounts of high-quality, standardized data, which can often be siloed across different departments or stored in disparate formats within large organizations. Overcoming these data integration hurdles and establishing robust data governance frameworks are crucial for unleashing the full potential of AI. Another aspect is the need for a skilled workforce capable of understanding, deploying, and interpreting the output of AI models. This necessitates investment in training and upskilling geoscientists and engineers in data science and machine learning principles.

Despite these challenges, the future of AI-powered seismic imaging is incredibly promising. Continuous advancements in computational power, algorithm development, and data acquisition techniques will further enhance its capabilities. We can anticipate even more sophisticated AI models that can perform real-time interpretation, integrate with autonomous drilling systems, and even predict reservoir behavior with greater accuracy throughout the entire asset lifecycle. The collaboration between data scientists, geophysicists, and engineers will drive further innovation, pushing the boundaries of what’s possible in subsurface exploration. The move towards cloud-based AI platforms will also democratize access to these powerful tools, enabling smaller companies to leverage advanced analytics previously only available to industry giants. This evolution promises not just a reduction in dry well costs, but a complete transformation of the exploration and production landscape, fostering a more sustainable and profitable future for the energy sector.

A New Horizon in Hydrocarbon Exploration

The journey of hydrocarbon exploration has always been one of constant innovation, driven by the imperative to find and extract energy resources from the Earth’s most challenging environments. Today, we stand at the precipice of another transformative era, one powered by the remarkable capabilities of artificial intelligence. AI-powered seismic imaging is not just an incremental improvement; it is a fundamental shift in our approach to understanding the subsurface, promising to mitigate the historically high risks and costs associated with discovering new oil and gas reserves.

By harnessing the power of machine learning and deep learning, this technology elevates seismic data analysis to unprecedented levels of precision, moving beyond the inherent limitations of human interpretation. It delivers clearer subsurface imaging, enables superior prospect ranking, and leads to far more optimized drilling decisions. The direct consequence of these advancements is a substantial reduction in dry well costs and a significant boost to exploration ROI, ensuring that capital is deployed more efficiently and effectively. For the oil and gas industry, embracing AI-powered seismic imaging is not merely an option; it is an essential step toward a future where exploration is smarter, more sustainable, and ultimately, more successful. Oil & Gas Advancement believes this intelligent frontier has promise to unlock new opportunities and sustain energy supply with greater confidence and responsibility.

Commemorating Three Decades of Collaboration

The occasion coincided with the official visit of Malaysia’s Prime Minister Datuk Seri Anwar Ibrahim to Turkmenistan, highlighting 30 years of cooperation between the two nations founded on mutual trust, shared ambitions and value creation through the energy industry. The prime minister concluded a two-day official visit to Turkmenistan on 19th June 2026. In a statement, PETRONAS said PC(T)SB had entered into new strategic agreements with State Concern Turkmennebit (Turkmennebit) and State Enterprise Hazarnebit (Hazarnebit), supporting the company’s efforts to expand its upstream activities and reinforce its presence in the Caspian Sea.

Strategic Agreements for Offshore Expansion

Production Sharing and Exploration Framework

PETRONAS stated, “The agreements comprise a production sharing agreement (PSA), covering offshore Block 19 and Block 20, as well as a cooperation agreement (CA) on 2D seismic studies for the northern offshore blocks.”

The company noted that these strategic agreements demonstrate a joint commitment to creating future opportunities, improving understanding of subsurface resources and reinforcing Turkmenistan’s role as a contributor to regional and global energy supply. The PSA was signed by PETRONAS chief operating officer and executive vice-president and chief executive officer of upstream Mohd Jukris Abdul Wahab on behalf of PC(T)SB, together with chairman of Turkmennebit Guvanch Agajanov and Hazarnebit director Esetov Amanmuhammet. The CA was signed by Mohd Jukris and Agajanov, while the ceremony was witnessed by Anwar and Turkmenistan president Serdar Berdimuhamedov.

Under the PSA, PC(T)SB will obtain a 100% participating interest in Block 19 and Block 20, providing PETRONAS with access to new exploration acreage in Turkmenistan. The CA, meanwhile, facilitates the acquisition of additional seismic data to close existing information gaps and support a more detailed assessment of the northern offshore blocks.

Broader Bilateral Cooperation Framework

At the same time, a framework agreement on long-term cooperation for the development of hydrocarbon resources of Turkmenistan was formalised between the government of Malaysia, represented by Economy Minister Akmal Nasrullah Mohd Nasir, and the government of Turkmenistan, represented by Agajanov in his role as deputy chairman of the Cabinet of ministers of Turkmenistan.

PETRONAS stated, “The agreement provides a framework for exploring broader areas of collaboration, including the potential development of the Galkynysh field, as well as opportunities across downstream and adjacent sectors such as oil refining, gas processing and gas chemicals.”

Mohd Jukris said the strategic agreements underscore PETRONAS’ confidence in the future potential of Turkmenistan’s energy industry and the value of long-term partnerships built on technical cooperation and mutual respect.

“We want to express our gratitude to Prime Minister Datuk Seri Anwar Ibrahim, President Serdar Berdimuhamedov and the national leader of the Turkmen people, Gurbanguly Berdimuhamedov, for their support to PETRONAS’ operations, and their leadership that has brought this Malaysia-Turkmenistan relationship to a new height,” he said.

He added that PETRONAS remains dedicated to collaborating with partners to responsibly develop resources, improve energy resilience and create sustainable value wherever it operates.

As part of the anniversary programme, PETRONAS and Turkmennebit jointly hosted the Turkmenistan-Malaysia: 30 Years of Mutually Beneficial Cooperation in the Oil and Gas Sector Forum and Exhibition, attracting more than 500 participants from government agencies, industry stakeholders, Malaysian companies operating in Turkmenistan and the wider energy community. PETRONAS said the event provided a venue for industry experts and thought leaders to discuss emerging opportunities, changing industry dynamics and the future of energy development in Turkmenistan.

Workforce Development and Community Development Initiatives

Alongside the forum, the company presented a two-day exhibition highlighting key milestones since 1996, including contributions to the country’s energy sector, investments in local capability development and enduring partnerships. “PETRONAS has demonstrated commitment to developing local talent and strengthening national capabilities in Turkmenistan,” PETRONAS stated.

Over the past 30 years, PETRONAS has trained 235 local technicians and awarded scholarships to 188 Turkmen students to study at Universiti Teknologi PETRONAS and PETRONAS’ technical training facilities in Malaysia. The company also supported community initiatives such as the renovation of schools in Kiyanly.

“These long-term investments have helped nurture a highly skilled local workforce, with more than 1,000 Turkmen nationals employed so far, making up close to 90% of PC(T)SB’s workforce in the country. Together, they reflect PETRONAS’ commitment to creating lasting value through knowledge transfer, capability development and meaningful partnerships that extend beyond its operations,”PETRONAS added.

PETRONAS further reaffirmed its role as a trusted and enduring partner committed to supporting energy security, strengthening bilateral relations and delivering shared prosperity in the years ahead.

Iraq’s Deputy Oil Minister for Extraction Affairs Naseer Aziz delivered the official statement detailing the ministry’s directives to national oil companies. His announcement emphasized that recovering Iraq oil production remains central to protecting national financial stability and ensuring continuous domestic fuel availability amid current security challenges.

Production, Export and Domestic Refinery Targets Under Iraq Oil Production Recovery Plan

• Production Targets: Gradually restoring national oil production capacity with the aim of reaching between 4.2 million and 4.3 million bpd.
• Export Targets: Reestablishing crude exports through southern marine terminals toward the previous benchmark of nearly 3.5 million bpd, subject to infrastructure preparedness and storage capacity requirements.
• Securing Domestic Refineries: Aziz directed company management teams to promptly address any technical or operational challenges to ensure domestic refineries receive their complete crude allocations, helping maintain a stable and uninterrupted fuel supply across the country.

Strategic Export Route Diversification

Recognizing the vulnerabilities associated with concentrated reliance on southern Gulf shipping lanes, the Iraq oil production recovery plan emphasizes urgent diversification of export mechanisms. This strategy represents a calculated response to maritime disruptions and geopolitical uncertainties affecting traditional southern port operations.

• Revitalizing North Oil Company: Fast-tracking production activities across northern oil fields while maintaining close oversight of development and output schedules.
• The Ceyhan Pipeline Lifeline: Increasing the movement of crude oil from southern producing regions to northern pipeline networks to support exports through the Turkish port of Ceyhan, helping sustain foreign currency revenues and reduce operational strain on southern export terminals.
• Central Field Development: Implementing firm timelines for the development of Midland Oil Company fields to enhance production levels and contribute to overall national output capacity.

International Collaboration and Technical Development

The Iraq oil production recovery plan emphasizes integrating national technical expertise with international contracting capabilities to systematically recover lost production capacity. Further focus on developing exploration blocks will add to Iraq’s domestic hydrcarbon resources.

Gas Development as National Priority

Aziz highlighted associated and free gas investment as a critical national security objective within the Iraq oil production recovery plan. The ministry identified accelerating gas capture and utilization projects as essential components of achieving structural independence from foreign energy imports.

Enhanced gas development initiatives directly support national power generation requirements and fuel demands of domestic heavy industries. By prioritizing gas capture alongside crude production recovery, the ministry addresses multiple energy security challenges simultaneously.

The ministry expressed its commitment to bolster a stable and encouraging environment for oil and gas sector operations, so as to attract global investment into Iraq’s upstream industry.

Equinor and its partners have reached agreement on the development concept for Ringvei Vest, a significant subsea development project that will be connected to the Troll B platform in the Norwegian North Sea. The decision represents a major step forward in advancing the project and defines a common development solution covering seven discoveries and one prospect. With the concept now selected, the groundwork has been established for a potential joint field development. According to Equinor, Ringvei Vest is expected to contribute substantial resources to future production.

Project Scope and Resource Assessment

The discoveries included within Ringvei Vest are Grosbeak, Swisher, Mulder, Kveikje, Toppand, Røver Sør, and Røver Nord, while the prospect Grønngylt is also part of the planned development. These resources are distributed across eight licences involving a total of seven owners. Acting as operator across all licences, Equinor has taken responsibility as the area architect and worked with partners to assess multiple development alternatives. This process involved evaluating which discoveries should be incorporated into the project as well as determining the most suitable host platform. As a result of that work, Ringvei Vest has emerged as one of the largest projects currently in the early development phase on the Norwegian Continental Shelf.

“We estimate that Ringvei Vest will contribute 240 million barrels of oil equivalent. A solid effort has been put in over a long period, and I am confident that together with partners and authorities, we have arrived at the best development solution, which also ensures optimal resource utilisation,” said Kjetil Hove, executive vice president for exploration and production Norway in Equinor.

Strategic Context and Continental Shelf Development

Highlighting the broader industry context, Hove stated, “The Norwegian Continental Shelf is maturing, new discoveries are smaller and costs are increasing. To maintain a high activity level and reliable energy supplies to Europe, it is important to develop marginal discoveries near existing infrastructure and collaborate across licenses. Equinor aims to increase our equity production from the Norwegian Continental Shelf to 1.3 million barrels per day in 2035.”

Operational Infrastructure and Execution Strategy

The planned Ringvei Vest development spans a wide geographical area. Current plans call for the drilling of 13 wells through six subsea templates. Production streams from the wells will undergo separation on the seabed before being transported to the Troll B platform. In addition to serving as the receiving facility, Troll B will provide power to the subsea installations associated with Ringvei Vest. Operational control of the wells is also planned to be handled from Troll B. Once processed, oil from the project will be transported to Mongstad, while gas will be sent to Kollsnes.

Further enhancements linked to Ringvei Vest include the installation of a new compressor on Troll B to expand the platform’s processing capacity. The platform already receives partial power from shore, a feature that supports lower-emission production. This arrangement will allow oil and gas from Ringvei Vest to be produced with reduced emissions while making use of existing infrastructure in the Norwegian North Sea. The agreed concept therefore establishes a framework for resource development, infrastructure utilization and future production growth tied to the Troll B platform.

During the Asean-Russia Commemorative Summit in Kazan, Malaysia’s Prime Minister Datuk Seri Anwar Ibrahim announced a significant development in bilateral relations. Russia has formally agreed to guarantee long-term energy supply to Malaysia covering petrol, oil, and gas. This commitment represents a substantial shift from Malaysia’s previous reliance on annual renewal agreements and seasonal arrangements.

The long-term energy supply framework ensures predictability and stability in the nation’s energy procurement strategy. Rather than negotiating supply terms annually, Malaysia can now depend on sustained contractual arrangements with Russia.

Agreement Status and Implementation Timeline

Speaking on the current status of the long-term energy supply to  Malaysia, “Approval has already been given. Company representatives have already come here. It is now a matter of signing and finalising the agreement.”

“As soon as we return, we will ask them to expedite the process. The draft is already available, the principles have already been agreed upon, and we are simply waiting for the delegation to review the details and sign it,” he added.

Expanding Bilateral Cooperation Beyond Energy

The long-term energy supply agreement forms part of a broader expansion of bilateral mechanisms between the two countries. Cooperation has been extended to encompass trade relations, investment opportunities, financial partnerships, and the halal economy sector.

Current Energy Security Status

Addressing concerns about Malaysia’s energy security position, Anwae reported that the nation is not currently facing supply difficulties. Prices, however, may still be affected a bit.

“Previously, there were concerns about supply, especially diesel and sometimes gas. All three are now available. In fact, diesel, which we once considered very complicated from a supply standpoint, now appears to have a slight surplus,” he said.

Earlier, Anwar had also expressed his appreciation to Russian President Vladimir Putin for Russia’s aid in bolstering energy cooperation with Malaysia, particularly with PETRONAS.

The statement emphasized a shared commitment among member nations to strengthen energy resilience and develop alternative routes for the movement of energy resources. It said: “We commit to accelerate the diversification of energy supply routes in order to reduce global vulnerability to the Strait of Hormuz and to increase our energy stocks,” said a joint statement by G7 leaders in Évian-les-Bains, France, on 17th June 2026.

The leaders further acknowledged Canada’s future role in strengthening the global energy supply, stating: “We welcome the potential for Canada to deliver significant additional capacity to global markets in the coming years.”

Speaking at his closing news conference, Canada’s Prime Minister Mark Carney stressed the importance of expanding energy supply options beyond the Strait of Hormuz, describing the route as a critical vulnerability for the world economy.

“One of the points that I made in the room, in our discussions around Iran and geopolitics was: we have to apply the lessons of recent events,” he said.

Before the conflict, approximately 20 per cent of the world’s crude oil moved from states in the Persian Gulf through the Strait of Hormuz and into the Gulf of Oman before reaching destinations worldwide. The disruption caused by Iranian attacks on ships carrying energy through the Strait of Hormuz effectively shut access to the Persian Gulf, stopping most oil shipments and contributing to higher energy prices globally.

Carney said Canada is already progressing toward higher energy production levels, supported by several major liquefied natural gas projects currently underway. He also pointed to increased output from the TMX oil pipeline and the possibility of two additional pipelines originating in Western Canada, with one directed toward the U.S. and another toward the West Coast. According to Carney, these developments have drawn international attention to Canada’s capacity and future role in supporting the global energy supply, particularly as countries seek dependable alternatives to vulnerable energy transit corridors.