scholarly journals The rise of renewables and energy transition: what adaptation strategy exists for oil companies and oil-exporting countries?

2019 ◽  
Vol 3 (1-2) ◽  
pp. 45-58 ◽  
Author(s):  
Bassam Fattouh ◽  
Rahmatallah Poudineh ◽  
Rob West

Abstract The energy landscape is changing rapidly with far-reaching implications for the global energy industry and actors, including oil companies and oil-exporting countries. These rapid changes introduce multidimensional uncertainty, the most important of which is the speed of the transition. While the transformation of the energy system is rapid in certain regions of the world, such as Europe, the speed of the global energy transition remains highly uncertain. It is also difficult to define the end game (which technology will win and what the final energy mix will be), as the outcome of transition is likely to vary across regions. In this context, oil companies are facing a strategic dilemma: attempt the risky transition to low-carbon technologies by moving beyond their core business or just focus on maximising their return from their hydrocarbon assets. We argue that, due to the high uncertainty, oil companies need to develop strategies that are likely to be successful under a wide set of possible future market conditions. Furthermore, the designed strategies need to be flexible and evolve quickly in response to anticipated changes in the market. For oil-exporting countries, there is no trade-off involved in renewable deployment as such investments can liberate oil and gas for export markets, improving the economics of domestic renewables projects. In the long run, however, the main challenge for many oil countries is economic and income diversification as this represents the ultimate safeguard against the energy transition. Whether or not these countries succeed in their goal of achieving a diversified economy and revenue base has implications for investment in the oil sector and oil prices and consequently for the speed of the global energy transition.

2021 ◽  
Author(s):  
Osamah Alsayegh

Abstract This paper examines the energy transition consequences on the oil and gas energy system chain as it propagates from net importing through the transit to the net exporting countries (or regions). The fundamental energy system security concerns of importing, transit, and exporting regions are analyzed under the low carbon energy transition dynamics. The analysis is evidence-based on diversification of energy sources, energy supply and demand evolution, and energy demand management development. The analysis results imply that the energy system is going through technological and logistical reallocation of primary energy. The manifestation of such reallocation includes an increase in electrification, the rise of energy carrier options, and clean technologies. Under healthy and normal global economic growth, the reallocation mentioned above would have a mild effect on curbing the oil and gas primary energy demands growth. A case study concerning electric vehicles, which is part of the energy transition aspect, is presented to assess its impact on the energy system, precisely on the fossil fuel demand. Results show that electric vehicles are indirectly fueled, mainly from fossil-fired power stations through electric grids. Moreover, oil byproducts use in the electric vehicle industry confirms the reallocation of the energy system components' roles. The paper's contribution to the literature is the portrayal of the energy system security state under the low carbon energy transition. The significance of this representation is to shed light on the concerns of the net exporting, transit, and net importing regions under such evolution. Subsequently, it facilitates the development of measures toward mitigating world tensions and conflicts, enhancing the global socio-economic wellbeing, and preventing corruption.


2021 ◽  
Vol 73 (05) ◽  
pp. 32-35
Author(s):  
Judy Feder

Is green H2 better than blue? Is gray going away? As the world transitions from “black gold” to greener alternatives, many questions are being raised about hydrogen (H2) and its role in the current and future energy mix. H2 was among the “hot topics” during the 2021 CERAWeek by IHS Markit held virtually in March. The global energy research firm estimated that hydrogen currently costs $200 to $250/bbl to produce—as much as five times the cost to produce a barrel of oil. Low-carbon hydrogen has a tiny share of the global energy market today, but investors are betting on its long-term potential, according to Wood Mackenzie, who said shares with meaningful exposure to hydrogen have been among the best-performing of energy transition stocks in the past few months. By 2050, low-carbon hydrogen will constitute 7% of global energy demand—211 Mt—from practically zero today. For this and other reasons, many oil companies are researching and investing in hydrogen projects. IHS Markit believes that energy companies will invest $5 billion to $10 billion in hydrogen of various colors over the next 5 years, helping to develop breakthrough technologies that will reduce its cost and increase its competitiveness, not only with renewables such as wind and solar, but eventually with oil and natural gas. Paul Browning, president and chief executive officer of Mitsubishi Power Americas, said, “What’s really driving green hydrogen is net zero, from regulators to shareholders. There is no way to get to net zero without long-term storage, and for that, we need hydrogen,” he said. “Green H2 will be used as storage first. Then its cost will decline enough to make it a fuel.” But green won’t be the only player. Blue and green are at the basis of different perspectives of a potential hydrogen society, according to a paper recently published in an environmental research journal Sustainability. Blue hydrogen, integrated with carbon capture and storage, can provide the scale and reliability needed by industrial processes. It can also play an essential role in decarbonizing hard-to-electrify industries and driving down the cost of the energy transition. And it can represent a useful option in the short and medium term by helping pave the way for green hydrogen at a later stage (Fig. 1). Armin Schnettler, executive vice president of new energy business for Siemens Energy, said at CERAWeek, “Short-term color isn’t important. What is important is a hydrogen economy, dedicated to green H2. In the short term, we should be ready to support all colors.” Moving From Talk to Action Hydrogen’s potential role in national and international decarbonization strategies is growing for sectors ranging from industry to transport. Already used as a feedstock in industrial applications, it is now being proposed as a potential energy carrier to support wider deployment of low-carbon energy.


Energies ◽  
2022 ◽  
Vol 15 (1) ◽  
pp. 387
Author(s):  
Alexey Cherepovitsyn ◽  
Victoria Solovyova

Global energy transition trends are reflected not only in oil and gas market dynamics, but also in the development of related sectors. They influence the demand for various types of metals and minerals. It is well-known that clean technologies require far more metals than their counterparts relying on fossil fuels. Nowadays, rare-earth metals (REMs) have become part and parcel of green technologies as they are widely used in wind turbine generators, motors for electric vehicles, and permanent magnet generators, and there are no materials to substitute them. Consequently, growth in demand for this group of metals can be projected in the near future. The topic discussed is particularly relevant for Russia. On the one hand, current trends associated with the global energy transition affect the country’s economy, which largely depends on hydrocarbon exports. On the other hand, Russia possesses huge REM reserves, which may take the country on a low-carbon development path. However, they are not being exploited. The aim of this study is to investigate the prospects for the development of Russia’s rare-earth metal industry in view of the global energy transition. The study is based on an extensive list of references. The methods applied include content analysis, strategic management methods and instruments, as well as planning and forecasting. The article presents a comprehensive analysis of the global energy sector’s development, identifies the relationship between the REM market and modern green technologies, and elaborates the conceptual framework for the development of the REM industry in the context of the latest global tendencies. It also contains a critical analysis of the current trends in the Russian energy sector and the plans to develop the industry of green technologies, forecasts future trends in metal consumption within based on existing plans, and makes conclusions on future prospects for the development of the REM industry in Russia.


2021 ◽  
Vol 65 (5) ◽  
pp. 59-67
Author(s):  
A. Bereznoi

Received 16.12.2020. The article explores the key trends in R&D and innovation activities of the world’s largest oil&gas companies through the lens of dynamic shifts taking place in the competitive landscape of the global energy sector. The first area, where the author sees significant changes, relates to the appearance of the new powerful players in the technological domain of the world oil and gas industry. He draws attention to the growing roles of national oil companies and multinational oilfield service firms as increasingly important investors in R&D and innovations. These developments are analyzed in the context of the overall competitive positioning of Western-based supermajors whose technological dominance in the industry has never seriously been challenged before. Another significant change, noticed by the author, relates to the new technological priorities set by the world’s largest oil&gas companies for the foreseeable future. Two major sets of technologies are becoming increasingly important as strategic areas for investment by the industry giants. One of them, low-carbon technologies, reflects the dramatic evolution of the “Big Oil” attitude to the Energy transition. In contrast to a largely negativist (or at best ‘window-dressing’) approach to climate agenda, visible just a decade ago, most oil&gas giants have recently adopted individual low-carbon strategies driven to a large extent by the significantly increased pressure from the powerful institutional investors and the growing influence of the negative public opinion. The second top technological priority relates to the changing digital agenda in the oil and gas industry. It reflects the transition of the industry leaders to the next generation digital technologies (including internet of things, artificial intelligence, machine learning and robotics) but most importantly to a systemic approach in digital transformation contrasting with traditional “piecemeal” IT projects with limited operations coverage. The changing innovation management mechanisms are also considered by the author as one of the key trends in technological domain of the world oil and gas industry. Specific focus is devoted to the formation of the corporate innovation ecosystems, including various R&D and innovation collaborations with different innovation actors (business partners, professional research centers, universities and governments organizations) and the connected vast spread of open innovation-based instruments working within these alliances. Acknowledgements. The article was prepared within the framework of the Basic Research Program at the National Research University Higher School of Economics.


2019 ◽  
Vol 59 (3) ◽  
Author(s):  
Paul Simons

The global energy landscape continues to be in a state of flux and understanding the ongoing shifts in markets, technology and policy—and the impact of this interplay on the energy sector—has never been more critical. Each year, the IEA’s World Energy Outlook provides updated and comprehensive quantitative modelling and analysis on the evolution of the global energy system, incorporating the latest data and market developments. Amb Paul Simons will outline the key findings of the most recent edition of the World Energy Outlook, including the outlook for global oil and gas markets, and explain their implications for energy security, sustainability and growth. He will also cover recent developments and future prospects for a range of low-carbon technologies, including renewables, nuclear power, hydrogen and CCUS, that will be needed to speed up global clean energy transitions. To view the video, click the link on the right.


2021 ◽  
Vol 73 (09) ◽  
pp. 50-50
Author(s):  
Ardian Nengkoda

For this feature, I have had the pleasure of reviewing 122 papers submitted to SPE in the field of offshore facilities over the past year. Brent crude oil price finally has reached $75/bbl at the time of writing. So far, this oil price is the highest since before the COVID-19 pandemic, which is a good sign that demand is picking up. Oil and gas offshore projects also seem to be picking up; most offshore greenfield projects are dictated by economics and the price of oil. As predicted by some analysts, global oil consumption will continue to increase as the world’s economy recovers from the pandemic. A new trend has arisen, however, where, in addition to traditional economic screening, oil and gas investors look to environment, social, and governance considerations to value the prospects of a project and minimize financial risk from environmental and social issues. The oil price being around $75/bbl has not necessarily led to more-attractive offshore exploration and production (E&P) projects, even though the typical offshore breakeven price is in the range of $40–55/bbl. We must acknowledge the energy transition, while also acknowledging that oil and natural gas will continue to be essential to meeting the world’s energy needs for many years. At least five European oil and gas E&P companies have announced net-zero 2050 ambitions so far. According to Rystad Energy, continuous major investments in E&P still are needed to meet growing global oil and gas demand. For the past 2 years, the global investment in E&P project spending is limited to $200 billion, including offshore, so a situation might arise with reserve replacement becoming challenging while demand accelerates rapidly. Because of well productivity, operability challenges, and uncertainty, however, opening the choke valve or pipeline tap is not as easy as the public thinks, especially on aging facilities. On another note, the technology landscape is moving to emerging areas such as net-zero; decarbonization; carbon capture, use, and storage; renewables; hydrogen; novel geothermal solutions; and a circular carbon economy. Historically, however, the Offshore Technology Conference began proactively discussing renewables technology—such as wave, tidal, ocean thermal, and solar—in 1980. The remaining question, then, is how to balance the lack of capital expenditure spending during the pandemic and, to some extent, what the role of offshore is in the energy transition. Maximizing offshore oil and gas recovery is not enough anymore. In the short term, engaging the low-carbon energy transition as early as possible and leading efforts in decarbonization will become a strategic move. Leveraging our expertise in offshore infrastructure, supply chains, sea transportation, storage, and oil and gas market development to support low-carbon energy deployment in the energy transition will become vital. We have plenty of technical knowledge and skill to offer for offshore wind projects, for instance. The Hywind wind farm offshore Scotland is one example of a project that is using the same spar technology as typical offshore oil and gas infrastructure. Innovation, optimization, effective use of capital and operational expenditures, more-affordable offshore technology, and excellent project management, no doubt, also will become a new normal offshore. Recommended additional reading at OnePetro: www.onepetro.org. SPE 202911 - Harnessing Benefits of Integrated Asset Modeling for Bottleneck Management of Large Offshore Facilities in the Matured Giant Oil Field by Yukito Nomura, ADNOC, et al. OTC 30970 - Optimizing Deepwater Rig Operations With Advanced Remotely Operated Vehicle Technology by Bernard McCoy Jr., TechnipFMC, et al. OTC 31089 - From Basic Engineering to Ramp-Up: The New Successful Execution Approach for Commissioning in Brazil by Paulino Bruno Santos, Petrobras, et al.


2021 ◽  
Vol 73 (06) ◽  
pp. 34-37
Author(s):  
Judy Feder

We talk about “the energy transition” as if it were some type of unified, global event. Instead, numerous approaches to energy transitions are taking place in parallel, with all of the “players” moving at different paces, in different directions, and with different guiding philosophies. Which companies are best positioned to survive and thrive, and why? This article takes a look at what several top energy research and business intelligence firms are saying. What a Difference a Year Makes Prior to 2020—in fact, as recently as the 2014 bust that followed the shale boom—the oil and gas industry weathered downturns by “tightening their belts” and “doing more with less” in the form of cutting capital expenditures and costs, tapping credit lines, and improving operational efficiency. Adopting advanced digitalization and cognitive technologies as integral parts of the supply chain from 2015 to 2019 led to significant performance improvements as companies dealt with “shale shock.” Then, in 2020, a strange thing happened. Just as disruptive technologies like electric vehicles and solar photovoltaic and new batteries were gaining traction and decarbonization and environmental, social, and governance (ESG) issues were rising to the top of global social and policy agendas, COVID-19 left companies with almost nothing to squeeze from their supply chains, and budget cuts had a direct impact on operational performance and short-term operational plans. To stabilize their returns, many oil and gas companies revised and reshaped their portfolios and business strategies around decarbonization and alternative energy sources. The result: The investment in efforts toward effecting energy transition surpassed $500 billion for the first time in early 2021 ($501.3 billion, a 9% increase over 2019, according to BloombergNEF) despite the economic disruption caused by COVID-19. According to Wood Mackenzie, carbon emissions and carbon intensity are now key metrics in any project’s final investment decision. And, Rystad Energy said that greenhouse-gas emissions are declining faster than what is outlined in many conventional models regarded as aggressive scenarios. In Rystad’s model, electrification levels will reach 80% by 2050. A Look at the Playing Field: Energy Transition Pillars In a February 2021 webinar, Rystad discussed what leading exploration and production (E&P) companies are doing to keep up with the energy transition and stay investable in the rapidly changing market environment. The consulting firm researched the top 25 E&P companies based on their oil and gas production in 2020 and analyzed how they approach various market criteria in “three pillars of energy transition in the E&P sector” that the firm regards as key distinguishers and important indicators of potential success (Fig. 1). The research excludes national oil companies (NOCs) except for those with international activity (INOCs). Rystad says these 25 companies are responsible for almost 40% of global hydrocarbon production and the same share of global E&P investments and believes the trends within this peer group are representative on a global scale.


2021 ◽  
Author(s):  
Sam Jones ◽  
Adam Joyce ◽  
Nikhil Balasubramanian

Abstract Objectives/Scope There are many different views on the Energy Transition. What is agreed is that to achieve current climate change targets, the journey to deep decarbonisation must start now. Scope 3 emissions are clearly the major contributor to total emissions and must be actively reduced. However, if Oil and Gas extraction is to be continued, then operators must understand, measure, and reduce Scope 1 and 2 emissions. This paper examines the constituent parts of typical Scope 1 emissions for O&G assets and discusses a credible pathway and initial steps towards decarbonisation of operations. Methods, Procedures, Process Emissions from typical assets are investigated: data is examined to determine the overall and individual contributions of Scope 1 emissions. A three tiered approach to emissions savings is presented: – Reduce overall energy usage – Seek to Remove environmental losses – Replace energy supply with low carbon alternatives A simple method, used to assess carbon emissions, based on an abatement of carbon from a cost per CO2 tonne averted basis is described. This method, Marginal Abatement Cost Curve (MACC), is based solely on cost efficiency. Other criteria such as safety, weight, footprint and reliability are not considered. Credible pathway for reduction of Scope 1 emissions is presented. Taking appropriate actions as described in the pathway, contributors are eliminated in a strategic order, allowing operators to contribute to deep decarbonisation. Results, Observations, Conclusions A typical offshore installation was modelled with a number of carbon abatement measures implemented. Results are presented as cost effective or non-cost-effective CO2 measures together with the residual CO2 emissions. Based on the data presented, many of the replace measures have a higher cost per tonne of CO2 abated than reduce and remove measure. These findings indicate that additional technological advancement may be needed to make alternative power solutions commercially viable. It also indicates that several CO2 abatement measures are cost effective today. The pathway proposes actions to implement carbon savings for offshore operators, it differentiates actions which can be taken today and those which require further technological advancement before they become commercially viable. The intent of this pathway is to demonstrate that the energy transition is not solely the preserve of the largest operators and every company can take positive steps towards supporting decarbonisation. Novel/Additive Information The world needs security of energy supply. Hydrocarbons are still integral; however, oil and gas operators must contribute to carbon reduction for society to meet the energy transition challenges. As government and societal appetite for decarbonisation heightens, demands are growing for traditional hydrocarbon assets to reduce their carbon footprint if they are to remain part of the energy mix. Society and therefore regulators will demand that more is done to address emissions during this transitional phase, consequently necessitating that direct emissions are reduced as much as possible. The pathway is accessible to all today, we need not wait for novel technologies to act.


2019 ◽  
Vol 110 ◽  
pp. 02030
Author(s):  
Olga Kalchenko ◽  
Svetlana Evseeva ◽  
Oksana Evseeva ◽  
Kristina Plis

The pathway to a low-carbon future is circular. Circular economy and the optimization of resources used in the energy system can be seen as a way to improve energy self-sufficiency. In St. Petersburg, stakeholders of International Innovation Forum and International Economic Forum 2018 have discussed foreign experience and circular economy in Russia, and found several solutions. Representatives from Business Finland partnership shared their experience – how environmentally friendly technologies become profitable business. FIRO-O, OptiKom, Charity second-hand store “Spasibo”, Baltika Brewery (Carlsberg group) and St. Petersburg Urban Eco-Cluster are given as successful examples of circular economy principles in Russia and St. Petersburg. Moscow and Saint Petersburg have different programs under the local authorities’ support in the sphere of environmentally-friendly development. Infrastructure of the Russian regions needs more attention and support from all the stakeholders: the business, the government and the society. The triangle cooperation (business-government-society) is needed. Russian company’s cooperation and integration into the global networks of ecologically responsible businesses could lead to the easier and faster solutions.


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