Solving Europe’s energy challenge

Solving Europe’s energy challenge

Summer 2022 is ending, and oil prices in the market continue in their well-known volatility. The barrel of oil, despite fears about its supply, is now at a price made worse by recession concerns that continue to cap any market forces.The global market, however, continues to fear Russia’s willingness to use energy as a weapon to put pressure on its adversaries. Especially since deliveries of Russian gas to Europe via the Nord Stream 1 pipeline are still suspended, fueling fears of shortages for the forthcoming winter.And if that is not enough, all of the above could be apprehended as not solving Europe’s energy challenge of going through this winter. Far from it, last week, the members of the Organization of the Petroleum Exporting Countries and their allies (OPEC+) decided to reduce their total production volume by 100,000 barrels per day. A symbolic reduction that “suggests that this gathering of producers is ready to defend the environment from high prices,” say analysts.  Here is a MEED’s view on the issue. 
With oil and gas prices surging, the countries of Europe face a looming winter energy crisis. Can the Middle East and North Africa help overcome the challenge?

Solving Europe’s energy challenge


Published in partnership with

One of the most apparent aspects of the Russia-Ukraine conflict is the rapid increase in energy prices brought on by Moscow’s reduction in exports to its European neighbours.

In 2021, Russia was the largest exporter of oil and gas to Europe, supplying some 40 per cent of its energy requirements, including 100 per cent of the total gas imports of five EU states, according to the International Energy Agency.

The continent’s three largest economies – Germany, Italy and France – depended on Russian gas for 46 per cent, 34 per cent and 18 per cent of their energy needs, respectively.

The imposition of sanctions on Russia in March 2022, followed by Moscow’s threat to suspend hydrocarbon exports, has resulted in a surge in energy prices.

Opec’s crude basket price increased from $78 a barrel at the start of the year to $122 in early June, while Henry Hub natural gas prices more than doubled from $3.8 a million British thermal units (BTUs) to $8.7 a million BTUs over the same period.

Expensive energy bills

This rapid energy inflation has been passed on to consumers through higher electricity bills.

In the UK, for instance, the energy regulator Ofgem estimates that the default tariff price cap will more than double from £1,300 ($1,529) in January to £3,580 in October, and reach a peak of £4,266 in the first three months of 2023, when demand will be highest during the colder winter months.

Replicated across the continent, this is likely to result in millions of households entering ‘fuel poverty’ as they struggle to pay their energy bills.

The Mena region is well-positioned to plug the shortfall in Russian gas exports as European governments scramble to source gas from new markets to reduce their dependence on Moscow

Reducing reliance on Russia

The subject was not surprisingly a central theme of debate at Siemens Energy’s Middle East & Africa Energy Week held in June, where attendees agreed on two main conclusions drawn from the crisis.

The first was that the Middle East and North Africa (Mena) is well-positioned to plug the shortfall in Russian gas exports as European governments scramble to source gas from new markets to reduce their dependence on Moscow.

The GCC alone globally exports almost exactly half of the 411 billion cubic metres of gas that Russia supplies to Europe annually. Most of this is in the form of long-term liquefied natural gas (LNG) contracts to east Asia, but there is some limited capacity available – primarily from Qatar – to fill part of the shortfall.

European nations have been quick to recognise this. For example, following a visit to the region by its Vice-Chancellor and Climate & Energy Minister Robert Habeck in March, Germany – Europe’s largest energy market – is now fast-tracking the construction of two LNG import terminals and has entered a long-term energy partnership with Qatar, the world’s largest LNG exporter.

Energy Week

The second principal finding from the Middle East & Africa Energy Week was that the conflict would act as an additional catalyst for renewable energy development as nations globally attempt to diversify their energy sources and reduce their dependence on imported fossil fuels.

This was in keeping with the results of a poll of up to 400 of the event’s participants. The survey, which forms the central component of the Siemens Energy’s Middle East & Africa Energy Transition Readiness Index, revealed that attendees considered the acceleration of renewables as the highest priority among 11 energy policies in their efforts to tackle the climate crisis, as well as the one with the greatest potential impact.

The Middle East is already taking a clear lead in this as it sets ambitious targets for clean, renewable capacity. For example, Saudi Arabia is looking to scale up its share of gas and renewable energy in its energy mix to 50 per cent by 2030.

Similarly, the UAE has set ambitious targets for 2050: to improve energy efficiency by 40 per cent, reduce emissions from the power sector by 70 per cent and increase the share of renewables in the energy mix to 44 per cent.

While Europe is looking for alternative gas supplies to urgently fill the gap in the short term, there is little doubt that in the longer term renewable energies and hydrogen will dominate the energy markets
Dietmar Siersdorfer, Siemens Energy


In the long run, the energy crisis also provides momentum for the development of hydrogen production in the region, one of four other central themes emerging from the Energy Week.

Demand for hydrogen in Europe alone is forecast to double to 30 million tonnes a year (t/y) by 2030 and to 95 million t/y by 2050. Thanks to its geographical position, the Middle East is ideally located to meet this demand either by ship or pipeline.

Today, there are at least 46 known green hydrogen and ammonia projects across the Middle East and Africa, worth an estimated $92bn, almost all of which are export-orientated.

“While Europe is looking for alternative gas supplies to urgently fill the gap in the short term, there is little doubt that in the longer term renewable energies and hydrogen will dominate the energy markets. That the robust mix of the energy (gas and renewables) will make the energy system more resilient and support energy supply security while we, at the same time, move us at a fast pace into a renewable future,” says Dietmar Siersdorfer, Siemens Energy’s Managing Director for the Middle East and UAE.

Electricity to Europe

Another unintended consequence of the Ukraine crisis is to turn attention to direct electricity supply from the Mena region to Europe.

Although plans for exploiting the high solar irradiation levels and space provided by the Sahara desert through initiatives such as DESERTEC have long been mooted as an alternative solution, a combination of the crisis, lower costs and improving technologies are increasing impetus.

Some projects are already capitalising on the trend. For example, a joint venture of Octopus Energy and cable firm Xlinks recently received regulatory approval for a 3.6GW subsea interconnector between Morocco and the UK, using energy produced from vast solar arrays in the desert.

A similar project is the 2GW high-voltage EuroAfrica connector currently under construction linking Egypt with Greece via Crete. Plans are also under way for a third power connection between Morocco and Spain, which today is the only operational electricity link between Africa and Europe.

With the Egyptian-Saudi interconnector now under construction, and agreements recently reached for interconnectors between Saudi Arabia and Jordan and Kuwait and Iraq, the region is growing closer to supplying power to Europe directly.

“The development of regional grids has brought the prospect of direct current connection with Europe ever closer,” says Siemens Energy’s VP and Head of Grid Stabilisation in the Middle East, Elyes San-Haji. “Due to its plentiful solar resources, the Mena region could become an energy hub with a global network of high-voltage highways and super grids.”

Connection benefits

Interconnection makes sense on many levels. Not only would Europe benefit from a diversified, economical and renewable energy source, but its season of peak demand, winter, coincides with when supply is lowest in the Middle East, and vice-versa. Power transfer would not necessarily have to be in one direction only.

The Ukraine conflict and ensuing energy crisis have created an unprecedented opportunity for the Middle East and Africa to become more closely integrated with Europe. Whether in the form of fuel exports, either gas or potentially green hydrogen fuels, or direct electricity supply, the Arab world has never had a better chance to become the energy partner of choice for its European neighbours.



Ditch 90% of World’s Coal and 60% of Oil and Gas

Ditch 90% of World’s Coal and 60% of Oil and Gas

The authors of this article on Climate change and elaborate on how to avert it through experts’ notable advice of a ditch of 90% of the world’s coal and 60% of oil and gas to limit warming to 1.5°C. Would it be feasible if some of the MENA countries economic life sustenance depends on fossil fuels related revenues? Here is what these authors are saying.

Climate change: ditch 90% of world’s coal and 60% of oil and gas to limit warming to 1.5°C – experts

Daniel Welsby, UCL; James Price, UCL, and Steve Pye, UCL

Global mean surface temperatures reached 1.2°C above the pre-industrial average in 2020, and the Intergovernmental Panel on Climate Change warned in its recent report that Earth could hit 1.5°C in as little as a decade. The 0.3°C separating these two temperatures make a world of difference. Scientists believe that stabilising our warming world’s temperature at 1.5°C could help avoid the most serious effects of climate change.

Fossil fuels such as coal, oil and natural gas are the source of just over 80% of the world’s energy. Burning them accounts for 89% of human-derived CO₂ emissions. To avert catastrophic warming, the global community must rapidly reduce how much of these fuels it extracts and burns. Our new paper, published in Nature, revealed just how tight the world’s remaining carbon budget is likely to be.

In order to hold global warming at 1.5°C, we found that nearly 60% of global oil and fossil gas reserves will need to remain in the ground in 2050. Almost all of the world’s coal – 90% – will need to be spared from factory and power plant furnaces. Our analysis also showed that global oil and gas production must peak immediately and fall by 3% each year until mid-century.

A coal power plant with smokestack and piles of coal nearby.
Fossil fuels still provide most of the world’s energy. Rudmer Zwerver/Shutterstock

Even meeting these stringent limits may not be enough on its own to stabilise global warming at 1.5°C, however.

That’s because we based our estimates on a carbon budget compatible with just a 50% probability of limiting warming to 1.5°C. Our model simply could not be pushed to a greater chance of achieving the 1.5C target because it was already at its limit, given our projections of fossil fuel demand in the near future.

Our analysis also relies on the large-scale deployment of technologies capable of removing CO₂ from the atmosphere sometime in the future. By 2050, our scenario expects around four gigatonnes a year will be being captured by so-called negative emission technologies. There remains a lot of doubt about whether it is even possible to sufficiently scale these technologies up in time.

So, to aim for a better chance of achieving the Paris Agreement’s goal and to lower the risk of relying on as yet unproven technologies, we argue that our estimates of how much of the world’s fossil fuels cannot safely be extracted should be treated as cautious underestimates. The world may need to be even more ambitious.

Fossil fuel rationing

We estimated how much fossil fuel production in each region must fall and how fast based on a global energy system model. We allocated the remaining shares of fossil fuel production allowed within the budget based on the costs and carbon intensity of producing different oil and gas assets, and how cheap low and zero-carbon technologies are in different parts of the world.

Our analysis showed that total fossil fuel production is limited by a global carbon budget. Production growing in one region of the world will require a decrease in another to keep the global trajectory pointing downwards. A mechanism such as the Global Fossil Fuel Registry – a public database of all known reserves – could provide the necessary transparency for an international effort, with the cooperation of governments and fossil fuel producers.

The US and Russia sit on half of the world’s coal but must leave 97% of it in the ground. Australia, which recently pledged to keep producing and exporting coal beyond 2030, would need to keep 95% of its reserves underground. Oil-producing states in the Middle East must not extract around two-thirds of their reserves, while most of Canada’s tar sand oil must not be burned, along with all of the fossil fuel buried beneath the Arctic.

Our analysis suggests that many countries will need to move out of fossil fuel production relatively quickly, which raises concerns about how the transition can be managed fairly. Countries such as Iraq and Angola have a high dependency on fossil fuels for government revenues. They will need support to diversify their economies in a managed way – including financial and technological assistance to develop new low-carbon industries – and to decarbonise domestically to reduce their own reliance on fossil fuels.

The necessary energy transformation highlighted in this research will require a range of policy levers, including measures that drive down fossil fuel consumption, such as banning petrol cars or promoting renewable electricity generation, and those targeting production itself, including restrictions on new fossil fuel extraction licenses.

Alliances between countries are also likely to be important to build political support for reducing fossil fuel production. The Beyond Oil and Gas Alliance, formed by Denmark and Costa Rica, has pressured other countries to halt investment in new oil and gas projects.

Phasing out global fossil fuel production at the rate suggested in our study is possible, but it will rely on some of the measures we’ve described expanding and gaining the support of large producing countries and companies – those which have benefited most from the fossil fuel era.

Daniel Welsby, PhD Candidate in Energy Systems, UCL; James Price, Senior Research Associate in Energy, UCL, and Steve Pye, Associate Professor in Energy Systems, UCL

This article is republished from The Conversation under a Creative Commons license. Read the original article.

The Conversation

More Emissions from Oil Refineries in the near-term future

More Emissions from Oil Refineries in the near-term future

We can expect more emissions from oil refineries in the near-term future, analysis finds. It is by Cell Press and published in as well as other media.
Oil refineries are, as we all know, mostly within the US, Chinese and Russian territories but crude oil and gas that were mainly from the MENA region are nowadays explored all over the world. It is consequently not a matter of refining only but of transporting the crudes to the refineries various locations as well as doing with all those stranded assets. Anyway, let us see what is this story is about

The image above is for illustration and is of Arsenal Energy

More Emissions from Oil Refineries in the near-term future
Oil Refinery
Credit: Pixabay/CC0 Public Domain

A global inventory has revealed that CO2 emissions from oil refineries were 1.3 Gigatonnes (Gt) in 2018 and could be as large as 16.5 Gt from 2020 to 2030. Based on the results, the researchers recommend distinct mitigation strategies for refineries in different regions and age groups. The findings appear August 20 in the journal One Earth.

“This study provides a detailed picture of oil refining capacity and CO2 emissions worldwide,” says Dabo Guan of Tsinghua University. “Understanding the past and future development trends of the oil refining industry is crucial for guiding regional and global emissions reduction.”

Climate change is one of the most fundamental challenges facing humanity today, and continuous expansion of fossil-fuel-based energy infrastructure may be one of the key obstacles in achieving the Paris Agreement goals. The oil refining industry plays a crucial role in both the energy supply chain and climate change. The petroleum oil refining industry is the third-largest stationary emitter of greenhouse gases in the world, contributing 6% of all industrial greenhouse gas emissions. In particular, CO2 accounts for approximately 98% of greenhouse gases emitted by petroleum refineries.

In the new study, Guan and his collaborators developed a publicly available global inventory of CO2 emissions from 1,056 oil refineries from 2000 to 2018. CO2 emissions of the refinery industry were about 1.3 Gt in 2018. If all existing and proposed refineries operate as usual, without the adoption of any low-carbon measures, they could emit up to 16.5Gt of CO2 from 2020 to 2030. Based on the findings, the authors recommend mitigation strategies, such as improving refinery efficiency and upgrading heavy oil-processing technologies, which could potentially reduce global cumulative emissions by 10% from 2020 to 2030. The inventory will be updated and improved in the future as more and better data become available.

The study also showed that the average output of global oil refineries gradually increased from 2000 to 2018, in terms of barrels per day. But the results varied by refinery age group. Specifically, the average capacity of young refineries, which are mainly distributed in Asia-Pacific and the Middle East, increased significantly from 2000 to 2018, while the average capacity of refineries older than 19 years remained stable. “Given the greater committed emissions brought about by the long remaining operating time of young refineries, there is an urgent need for these refineries to adopt low-carbon technologies to reduce their CO2 emissions,” Guan says. “As for middle-aged and old refineries, improving operational efficiency, eliminating the backward capacity, and speeding up the upgrading of refining configuration are the key means to balance growing demand and reducing CO2 emissions.”

Explore further: Refineries challenge EPA plan to cut emissions

More information: One Earth, Lei et al.: “Adaptive CO2-emission mitigation strategies of global oil refineries in all age groups” … 2590-3322(21)00410-3  , DOI: 10.1016/j.oneear.2021.07.009

OPEC, Unconventional Oil and Climate Change

OPEC, Unconventional Oil and Climate Change

OPEC, Unconventional Oil and Climate Change – On the importance of the order of extraction by Benchekroun, Hassan, Gerard van der Meijden, and Cees Withagen. Published by the Journal of Environmental Economics and Management is a long-awaited reflection on what could be the most important topic of the century. The abstract and part of the introduction are republished below, and the whole text could be found in the original referred to document.

OPEC, Unconventional Oil and Climate Change-On the importance of the order of extraction

OPEC, Unconventional Oil and Climate Change

We show that OPEC’s market power contributes to climate change by enabling producers of relatively expensive and dirty oil to start producing before OPEC reserves are depleted. We examine the importance of this extraction sequence effect by calibrating and simulating a cartel-fringe model of the global oil market. While welfare net of climate damage under the cartel-fringe equilibrium can be significantly lower than under a first-best outcome, almost the entire welfare loss is due to the sequence effect of OPEC’s market power. In our benchmark calibration, the cost of the sequence effect amounts to 15 trillion US$, which corresponds to 97 percent of the welfare loss. Moreover, we find that an increase in non-OPEC oil reserves decreases global welfare. In a counterfactual world without non-OPEC oil, global welfare would be 13 trillion US$ higher, 10 trillion US$ of which is due to lower climate damages.


What is the impact of imperfect competition in the oil market on climate change? This question is relevant given the sizable carbon footprint of oil and the prominent size of OPEC. Oil is responsible for close to a quarter of anthropogenic carbon emissions (IEA, 2016)1 and, with OPEC producing 40 percent of global oil supply and owning 70 percent of world oil reserves (EIA, 2019b), it is not realistic to assume that OPEC is a price taker in the market of oil.

An old adage says that “the monopolist is the conservationist’s best friend” (e.g., Dasgupta and Heal, 1979, p. 329). Indeed, we know from non-renewable resource economics that market power typically leads to higher initial resource prices and slower resource depletion. However, in the case of oil, the consequences of imperfect competition for the Earth’s climate are more complex because different types of oil reserves with varying carbon contents are exploited. The reason is that imperfect competition does not only affect the speed, but also the order of extraction of different reserves of oil (cf. Benchekroun et al., 200920102019). Conventional OPEC oil is cheaper and its extraction is less carbon intensive than unconventional oil owned by relatively small oil producers (Malins et al., 2014Fischer and Salant, 2017OCI, 2019). Technically recoverable reserves and production of unconventional types of oil by non-OPEC countries have grown significantly over the last decade. The supply of oil sands from Canada has more than doubled, and shale oil production in the US has increased more than tenfold since 2007 (CAPP, 2017bEIA, 2019b). Current recoverable reserves of Canadian oil sands and of US shale oil amount to 165 and 78.2 billion barrels, respectively (CAPP, 2017aEIA, 2019c). In this paper, we take into account that when OPEC exercises market power it does not only slow down its rate of extraction—which tends to be good for the climate—but it also opens the door for earlier production by the fringe. As a result, OPEC’s relatively cheaper and cleaner oil is extracted later, while the fringe’s costlier and dirtier oil is extracted earlier. This ‘sequence effect’ leads to higher discounted extraction costs and climate damage.

This work is licensed under a Creative Commons Attribution 4.0 International License

After 60 years, what future for OPEC

After 60 years, what future for OPEC

In the face of new global energy changes, going through these traumatic times, and after 60 years, what future for OPEC, can we expect of this organisation.

OPEC was established on September 14, 1960 and celebrated its 60th anniversary with a declining share in both energy decision-making and global marketing. With the coronavirus outbreak despite a substantial drop in production, prices are struggling to recover to 2019 levels.  With a crisis like no other, since the 1928/1929 crisis, at a time when the interdependence of economies was low, no expert, able only to develop scenarios, can predict whether consumer and investment activities will be able to rebound, depending on the control of the epidemic. However, a high growth rate in 2021 compared to a negative growth rate in 2020 would mean it recovers, and in any case, the level of 2018/2019 will not be reached until 2022. However, the growth of the world economy and the future energy consumption model for 2020/2025/2030 are the fundamental determinants of the price of oil/gas, as the market has experienced ups and downs have not yet reacted favourably to the various OPEC decisions.

OPEC was created on September 14, 1960, at a Baghdad conference mainly on the initiative of the Shah of Iran, the Saudi Abdullah Tariki and the Venezuelan Juan Pablo Pérez, with initially only five member countries: Saudi Arabia, Iran, Iraq, Kuwait and Venezuela. Other producers joined such as in Africa, Algeria joining in 1969 was the first country to nationalise its hydrocarbon production;  Angola:  member since 2007. One of the largest areas of exploration, mainly conducted as production by the major oil companies of the OECD;  Congo:  the last member country to join the organisation (in the summer of 2018); Gabon:  a member who left the organisation in 1995 and rejoined it back in July 2016; Equatorial Guinea, a country that joined OPEC in May 2017; Libya:  member since 1962. Immense potential for untapped exploration due to the conflict in that country;  Nigeria: OPEC’s least nationalised oil industry. In South America:  Venezuela a country with the world’s largest oil reserves thanks to its oil sands resources but currently experiencing a severe political and economic crisis; Ecuador,  which was a member of OPEC between 1973 and 1992 and then again in 2007 In the Middle East:  Saudi Arabia as a founding member. The traditional leader of OPEC and the second-largest producer in the world with the largest conventional reserves; the United Arab Emirates, a member since 1967, a significant producer; Iran, founding member, OPEC’s second-largest producer and fourth-largest exporter of crude oil in the world before sanctions; Iraq: a founding member with the world’s largest open-air reserves; Kuwait: a founding member, a unique deposit whose peak production is declining. Qatar, a country that announced that it would leave the organisation in January 2019, officially to focus on its gas production. 

Since 1982, OPEC has had a system for regulating production and selling prices using a total amount of production (slightly more than 30 million barrels of crude per day). This volume of production, defined according to member countries’ reserves, is adjusted according to the needs of the consumer countries. The system of production quotas by member country was agreed in 2011 and negotiations have been expanded since the end of 2016 with other non-OPEC producers, Russia, produces as much as Iran, Nigeria, Venezuela, Algeria and Ecuador combined. However, the functioning of this regulatory system is affected by fluctuations in the price of the dollar, the transaction currency of oil: the purchasing power of producing countries decreases when the dollar falls and vice versa. 

OPEC manages a quantification instrument: the OPEC basket (ORB) which sets a benchmark price based on the costs of fifteen crude oils type (one per member country). The different qualities type reflect the major crude exports of member countries (e.g., the “Arab Light of Saudi Arabia). This basket is competing with the WIT and the Brent, whose prices are usually only a few cents different. Production and price management is extended by periodic assessment of available reserves. For all these countries, oil and gas revenues contribute significantly to their development through taxation. Still, these being very fluctuating over time and depending on the number of inhabitants of a country. For example, according to the EIA (2019), oil revenues in 2018 amounted to $14,683 per capita in Kuwait (nearly 4.2 million inhabitants), compared to only $212/hab for Nigeria (-200 million inhabitants). When the dollar falls against other currencies, OPEC states see their revenues decline for purchases in different currencies, which reduces their purchasing power as they continue to sell their oil in dollars. Local constraints (political instability, wars) or international crisis (embargo, sanctions) also affect the availability of the oil resource and thus its price. Always according to the IEA, in 2018, OPEC states as a whole benefited from a total of about $711 billion in oil revenues compared to $538 billion in 2017, due to higher average crude oil prices and higher exports, where Saudi Arabia benefited of $237 billion in 2018, ahead of Iraq with $91 billion.

OPEC decisions have, for some time, had some influence on the world’s oil price. Beyond the economic context, OPEC’s action on oil price developments is closely linked to the geopolitical environment. The organisation’s influence, however, has diminished since the 1990s, as has its share in world oil production. 55% in 1970, 42.6% in 2017 and about 38/40% in 2019 and indeed an even lesser rate is expected in 2020. One example is the oil crisis of 1973 during the Yom Kippur War: OPEC’s embargo on Western countries that support Israel caused a fourfold increase in the price in five months from October 17, 1973, to March 18, 1974. However, this historical version of the first oil shock is highly questionable.

On the other hand, from 1983, the price of a barrel collapsed, and from then on, would no longer be controlled by OPEC for several years. The London futures markets (ICE) and New York (NYMEX) playing an increasing role in determining prices, took over the pricing process away from OPEC. Recall that on September 28, 2016, OPEC met in Algiers with a historic decision to limit crude oil production to a level of 32.5 to 33 million barrels per day. On November 30, 2016, in Vienna, its output from 1.2 million barrels per day to 32.5 million with an effective agreement as of January 01, 2017, and Russia’s commitment to reduce its production by 300,000 barrels per day. In May 2018, the Vienna meeting, the members signed the integration of another country: Equatorial Guinea, which then officially became the 14the member of OPEC (the sixth African country). It was in a particular context that on April 09 2020, the group of oil-exporting countries, comprised of the 13 of the OPEC and ten-member partner countries, negotiated a new agreement on a joint reduction in production: a 22% reduction in output from the ten non-quota-exempt OPEC countries (i.e. OPEP without Iran, Venezuela and Libya) and their 10 OPEC partners, the final agreement covered 10 million barrels per day less on the market during May and June, with reductions up to 8 Million Barrel per Day (MBD) between July and December 2020, and then to 6 MBD up to January 2021. The effort will be supported mainly by Saudi Arabia and Russia, the second and third largest producers in the world behind the U.S., which would each cut nearly 2.5 Mbj from a reference production smoothed to 11 MBD. The remaining 5 million barrels to be cut would be distributed among the other 18 countries in the agreement, depending on their production level over a typical reference month, which is October 2018. According to experts, discussions focused on this reference period, with each measuring its actual production capacity, having to decide whether or not to take into account condensates (hydrocarbons associated with natural gas deposits) in the reference period can also play on final quotas. The organisation hopes that the United States, the world’s largest producer, and other countries such as Canada, Norway and Brazil, will reduce their production to a total of 5 MBD. This is only a wish since the United States has indicated that it will not participate in this reduction,(the majority being private companies, U.S. laws prohibiting executive directives in the management of the private sphere) as the U.S. Department of Energy has declared that the country’s production is already declining, because the majority of marginal deposits, which are the most numerous, although costs have fallen by more than 50% in recent years, shale oil is no longer profitable below $40 per barrel

During the 1990s, OPEC’s influence with the importance of Saudi Arabia on oil price resulted in prices declining for three reasons: a) internal divergences and the violation of production quotas by some of its members, b) the failure to extend its zone of influence to new producers (Russia, Mexico, Norway, United Kingdom, Colombia) and c) the impact of the London and New York markets that significantly drive prices

After 60 years, what future for OPEC
So sixty years after its founding, OPEC faces also three significant challenges that have persisted since the 1990s.  
  • First,  the resolution of new internal conflicts: the rift between pro and anti-American members exacerbates these conflicts. Saudi Arabia, a traditional U.S. ally, is facing Iran and Venezuela, two of the most overtly anti-American countries in the world, challenging its influence on the organisation. Beyond ideological differences, there are therefore two trends between countries for which OPEC must above all be the facilitator of a commodity market and those wishing to make it a more political weapon.  
  • Secondly,  the rise of Russia, wherewith more than 11.3 million barrels per day, produces as much as Iran, Nigeria, Venezuela, Algeria and Ecuador combined, having pledged since late 2016, alongside OPEC to cap its production to raise oil prices. 
  • Third,  the growing production of unconventional hydrocarbons in the United States, which makes it the world’s largest producer in 2019 with more than 12 million barrels per day, has reduced OPEC’s influence. However, its hydrocarbon reserves are announced as the world’s first. Still, it will all depend on the price vector and costs that may have large reserves but are not economically profitable. New deposits discovered, particularly in Canada or off the coast of Brazil, could disrupt the global distribution of these reserves and thus significantly reduce OPEC’s share. But the critical medium and long-term decline in its influence is the new model of global energy consumption that is emerging.  

Years 2020 through 2040 could be impacted by the Coronavirus, as already shown by the reorientation of public investment in Europe. As per B.P.’s recent statement of September 11, 2020, companies should redirect their investments towards other alternative energies with the combination between 2025/2035 of renewable energy and hydrogen, the cost of which will be widely competitive compared to conventional fossils. 

By 2030, lower dependence on oil is expected by industrialised countries. In contrast, conversely, OPEC countries remain highly dependent on oil, mainly due to the absence of a sustainable economic model that can replace the oil industry. Oil revenues account on average more than half of their Pia developed a “Vison 2030” to diversify its economy. The combination of these factors weakens the geopolitical influence of the OPEC institution and acts on the price level.

The price of oil in 2020/2021 is as always fundamentally dependent on the growth of the world economy. 

For China, which is heavily demanding hydrocarbons and dependent on external markets at half-mast, industrial production is recovering very modestly. Such a decline is unprecedented in China since the country turned to the market economy in the late 1970s. According to the Asia-Pacific report released on April 8, 2020, the world’s second-largest economy could see its GDP growth limited to 2.3% over the whole of 2020, or, as per a darker scenario, be almost nil, at 0.1%. It is not to be compared to its 2019 estimated 6.1% for a population exceeding 1.3 billion requiring a minimum growth rate of 7 to 8%. As far as India is concerned, the demand for hydrocarbons will also be low because its economy is geared towards globalisation. The impact on its growth rate is evident and is still in a declining trend in 2019. After falling to 4.5% from 7.5% in 2018, it is accompanied by an increasing rate in unemployment. In addition to all potential health and social crises, its economy paralysis could lead to the breakdown of the supply chain of many global companies. India, with more than 4 million low-cost employees (Indian I.T. engineers are paid up to 5 times less than their Western counterparts) is the leading player in ICT outsourcing. Almost all of the major international groups delegate part of the management and maintenance of their digital tools to Indian companies.  For the Euro area, dependent on more than 70% on hydrocarbons, the PMI (survey of business purchasing managers) saw the most significant drop on record, after reaching 51.6 in February 2020. This index is a figure that if it is below 50, it indicates a contraction, but if above, represents an expansion of activity. For instance, the President of the European Central Bank stated “In the economies of the Euro area, for each week of Lockdown, GDPs are shrinking by 2 to 3%. The longer it goes on, the bigger the shrinking of the economy.” Growth in the euro area and the E.U. generally will fall below zero by 2020. This necessitated a $1 trillion bailout from the ECB, plus $500 billion for all ancillary institutions. For the two leading European economies, according to officials, in France, the notices give less 9%. In Germany, the leading economic institutes have forecast that Germany, which plunged by 9.8% in the second quarter of 2020, double the co. Recorded in the first quarter of 2009 following the financial crisis. For the United States of America, the job market is deteriorating at an unprecedented rate, despite the government’s injection of more than $2 trillion. With data contradictions showing the extent of uncertainty, Morgan Stanley sees GDP fall by 30%, Goldman Sachs by 24% and JP Morgan Chase by 12%. The bailout package, which is more than 9% of U.S. GDP, is a mix of non-refundable aid and hospital loans, a massive increase in unemployment insurance for individuals. But this raises the whole problem of the health care system in the United States. According to the Kaiser Family Foundation, which specialises in health issues, the average cost of family insurance in 2018 was $19,600 (about 18,000 euros), 71% funded by the employer. To keep it, a sacked employee will have to support it in full. To avoid a significant increase in the number of uninsured (about 28 million in the United States), a dozen states, mostly Democrats, have relaxed the rules for subsidised insurance underwriting.  For the global economy as a whole, and according to several international institutes, including the Institute of International Finance (IIF), Global Financial Sector Association, a note dated April 7, 2020, highlights the global economy is expected to contract by 1.5% in 2020 in the context of the COVID-19 pandemic, lowering its forecast from 2.6% to 0.4%. According to the report, I quote “our global growth forecast is now -1.5%, with a contraction of 3.3% in mature markets and growth of just 1.1%” in emerging markets, adding that there would be “enormous uncertainty” about the economic impact of COVID-19.” Over the full year, the IIF expects growth rates in the United States and the euro area to contract by 2.8% and 4.7% respectively. For its part, the IMF anticipates a “partial recovery” in 2021 provided the pandemic subsides in the second half of this year. That containment measures can be lifted to allow for the reopening of shops, restaurants, a resumption of tourism and consumption. According to the IMF, low-income or emerging countries in Africa, Latin America and Asia “are at high risk” where we have seen capital outflows from emerging economies more than triple that for the equivalent period of the 2008 financial crisis.

What are the prospects for the price of oil? 

Global oil consumption in 2019 was around 99.7 million BDD globally, according to IEA data, and OPEC countries accounted for only 40 per cent of global crude oil production.   China on a global consumption for the same period imported 11 million barrels or about 11/12% of world consumption. According to energy experts, a drop or rise of a dollar in the price of oil would mean an impact between 500 and 600 million dollars. If you take a median average of 550, the shortfall from this decision is $5.5 billion per day per year. It will therefore be a matter of establishing a currency balance of the net gain of this decision, assuming that, if the price falls to $30 or less, before this reduction, allowing the market price to be between $40/45 per barrel. If the barrel were less than $30/35, this decision would have had a very mixed impact. In September 2020, it seems that the market is reacting timidly after this reduction, knowing that the price increase will depend mainly on the return or not to ‘growth’ in the world economy. The primary determinant of demand, because the reduction of 10 million barrels per day is based on the assumption that global demand market declines by only 10/11% while the coronavirus epidemic has caused a drastic fall in global demand, up to 33% or about 30 million BPDs.

%d bloggers like this: