Blog – Full Width

by

SEE Exhibition on Energy Efficiency and Renewable Energy

South-East European Exhibition on Energy Efficiency and Renewable Energy

 glava_ee-eng-copy

EXHIBITION

Date: 11 – 13 March 2015
Frequency: Annual
Sequence: 11th edition
Organizer: Via Expo
Venue: Sofia, Inter Expo Center

The 2015 edition will promote the latest energy developments and encourage their large-scale implementation in South-East Europe as well as speed up foreign investment in the regional economy. It is a great networking place for the international and local industry players.

The Exhibition in 2014

  •  Leading companies from Austria, Bulgaria, China, Czech Republic, Greece, Denmark, Germany, Italy, Lithuania, Poland, Romania, the Netherlands and Ukraine showcased products and innovations.
  •  Among the exhibitors were AB Energy Romania, Austep, Biogest Energie- und Wassertechnik, CPM Europe, Dreyer & Bosse, Eqtec, Global Hydro Energy, Hitachi Zosen Inova, Nahtec, Polytechnik Luft-und Feuerungstechnik, Solare Datensysteme, Weiss, etc.
  •  For 5th  year in a row there was an Austrian Pavilion, located at a larger exhibition area.
  • Exhibition index: energy efficient solutions for heating, cooling, ventilation and lighting; bio-, hydro-, solar-, geothermal- and wind energy, waste-to-energy, electric vehicles, etc.  

           Post Event Report 2014

The opportunities and perspectives of the SE European market

The security of energy supply, fast climate changes, strong economic and social benefits have prompted many countries in South-East Europe to diversify their energy mix and to reduce the import of fossil fuels, keeping money circulation within the regional economy.

The Region has a great potential for utilization of renewables. Well-developed agriculture and forestry industries, availability of organic waste are a prerequisite for biogas, methane and biomass production. The decentralized solar electricity generation for heating and cooling is encouraging, too. A very perspective market segment is the realization of waste-to-energy projects through public private partnerships.

Countries with a sea outlet have the opportunity to drive forward the ‘blue energy’ sector and only 40% of the hydro energy sources is developed in SE Europe.

The energy systems transformation will need a new grid that combines capacity for high volume transfers and distribute energy with smart power management.

Investments for improvement of energy efficiency in private and public buildings as well as in industry are coming – the South-East European countries are developing also strategies for zero energy buildings.

The CO2 reduction in transport sector is the other priority issue and in the Region solutions for replacement of the fossil fuels with alternative low carbon fuels are sought. In terms of e-mobility, the South-East Europe is at its early stage and governments are going to stimulate this emerging industry.

———————————————————————————————–

Contact:

Maya Kristeva: +359 (32) 960 011, 966 813
office@viaexpo.com

———————————————————————————————–

Exhibitions & Conferences
 

Emergency, Rescue & Safety

Elevators & Escalators

by

SEE Waste Management & Recycling Conference 2015

 

 


glava_save-eng 

Exhibition

Date: 11 – 13 March 2015
Frequency: Annual
Sequence: 6th edition
Organizer: Via Expo
Venue: Sofia, Inter Expo Center

The countries in South-East Europe no matter they are EU members or not, they are all aiming in becoming a part of the vision of the European recycling society. The governments across the Region are updating their national legislations and regulations, as well as are modernizing the old infrastructure which includes the creation of regional waste disposal systems, construction and exploitation of large scale waste and wastewater treatment plants, etc.

Most of the countries, EU members, incl. Romania, Bulgaria, Greece, Croatia, have to meet specific EU objectives. The countries must recycle 50% of its waste by 2020 and reduce the disposal of biodegradable waste to 25% of total volume. Commendable is the fact that the rehabilitation of old landfills has been started. The demand for separating -, baling- and recycling machines has been increased and many international companies have entered the Regional market. The increasingly popular process of composting green waste and/or food waste has implemented the interest in composting machines as well, especially in the compost turners.

Keeping  pace with the market trends and demand ‘Save the Planet’ Exhibition encourages the waste and recycling technology transfer to South-East Europe. It will provide participants with a quick market entry and opportunity to meet face-to-face state and municipal representatives e.g. government officials, mayors, ecologists; branch associations; investors and entrepreneurs; executives from the sectors: waste management, recycling, ecology and related industry branches.

The 2014 Edition at a Glance
 

  • Austria was again a supporting country due to its remarkable achievements which were demonstrated at the traditional Austrian Pavilion.
  • Leading companies from Austria, Bulgaria, Denmark, Germany, Italy, Poland, Slovenia, Sweden and Switzerland showcased their latest industry developments.
  • Anis Trend, EREMA, Europlast Kunststoffbehälterindustrie, IFE Aufbereitungstechnik, Komptech, Herbold Meckesheim, International Baler Service, Lindner-Recyclingtech, Hitachi Zosen Inova, Tecnova, Untha Shredding Technology and Vecoplan Austria are among the exhibitors.

Post Event Report 2014

———————————————————————————————–

Contacts:

Anelia Karanova: +359 32/512899, 32/393958, nelly@viaexpo.com

Exhibitions & Conferences

Emergency, Rescue & Safety Elevators & Escalators
by

The 2014 oil price slump: Seven key questions

Seven questions

This column attempts to answer seven key questions about the oil price decline:

  1. What are the respective roles of demand and supply factors?
  2. How persistent is the supply shift likely to be?
  3. What are the effects likely to be on the global economy?
  4. What are likely to be the effects on oil importers?
  5. What are likely to be the effects on oil exporters?
  6. What are the financial implications?
  7. What should be the policy response of oil importers and exporters?

Oil prices have fallen by nearly 50% since June, and by 40% since September (see Figure 1).1 Metal prices, which typically react to global activity even more than oil prices, have also decreased but by substantially less than oil (see Figure 2). This casual observation suggests that factors specific to the oil market, especially supply ones, could have played an important role in explaining the drop in oil prices.

Figure 1 Oil prices
(US dollars a barrel)

Figure 2 Commodity price indices
(January 1, 2014=100)

A closer look reinforces this conclusion. Revisions between June and December of International Energy Agency forecasts of demand (see Figure 3), combined with estimates of the short-run elasticity of oil supply, suggest that unexpected lower demand between then and now can account for only 20-35% of the price decline.

Figure 3 IEA forecast of world oil demand growth
(year-on-year change in million barrels a day)

On the supply side, the evidence points to a number of factors, including surprise increases in oil production. This is in part due to faster than expected recovery of Libyan oil production in September and unaffected Iraq production, despite unrest.2

A major factor, however, is surely the publicly announced intention of Saudi Arabia – the biggest oil producer within OPEC – not to counter the steadily increasing supply of oil from both other OPEC and non-OPEC producers, and the subsequent November decision by OPEC to maintain their collective production ceiling of 30 million barrels a day in spite of a perceived glut.

The steady increase in global oil production could be seen as ‘the dog that didn’t bark’. In other words, oil prices had stayed relatively high in spite of the upward trajectory in global oil production due to the perception at the time of OPEC’s induced floor price. The resulting shift by the swing producer, however, helped trigger a fundamental change in expectations about the future path of global oil supply, in turn explaining both the timing and the magnitude of the fall in oil prices, and bringing the latter closer to the level of a competitive market equilibrium. A similarly dramatic drop took place in 1986, when Saudi Arabia voluntarily stopped being the swing producer, causing oil prices to fall from $27 to $14 per barrel, only to recover 15 years later in 2000.

Beyond traditional demand and supply factors, some have pointed to ‘financialisation’ – oil and other commodities considered by financial investors as a distinct asset class – and ‘speculation’ as contributors to the price decline.3 We see little evidence that this is the case. According to the latest report from the International Energy Agency, oil inventories have reached their highest level in two years, suggesting expectations of price increases, not price declines.

How persistent is the supply shift likely to be?

This depends primarily on two factors.

The first is whether OPEC, and in particular Saudi Arabia, will be willing to cut production in the future. This in turn depends in part on the motives behind its change in strategy, and the relative importance of geopolitical and economic factors in that decision. One hypothesis is that Saudi Arabia has found it too costly, in the face of steady increases in non-OPEC supply, to be the swing producer and maintain a high price. If so, and unless the pain of lower revenues leads other OPEC producers and Russia to agree to share cuts more widely in the future, the shift in strategy is unlikely to change soon. Another hypothesis is that it may be an attempt by OPEC to reduce profits, investment, and eventually supply by non-OPEC suppliers, some of whom face much higher costs of extraction than the main OPEC producers (see Figure 4, which gives the world marginal cost curve, showing how much it costs to produce an additional barrel by type of oil extraction).

Figure 4 Global liquid supply cost curve
(USD/bbl)

Source: Rystad Energy research and analysis.

The second factor is how investment and, in turn, oil production will respond to low oil prices. There is some evidence that capital expenditure on oil production has started to fall. According to Rystad Energy, overall capital expenditure of major oil companies is 7% lower for the third quarter of 2014 compared to 2013.

Available projections from the same source indicate that capital expenditures will fall markedly until 2017. For unconventional oil such as shale (which now accounts for 4 million out of a world supply of 93 million barrels a day), the break-even prices – the oil price at which it becomes worthwhile to extract – of the main US shale fields (Bakken, Eagle Ford and Permian) are typically below $60 per barrel (see Figure 5, which gives break-even prices for the US shale fields).

At current prices (around $55 per barrel), Rystad Energy’s projections suggest that the level of oil production could decline, but only moderately by about under 4% in 2015. Rates of return will be significantly lower, however, and some highly leveraged firms that did not hedge against lower prices are already under financial stress and have been cutting their capital expenditure and laying off significantly.

Figure 5 Average WTI breakeven different US oil price for shale plays

Note: WTI oil price which gives NPV of zero at 10% discount rate.
Source: Rystad Energy research and analysis.

Thus, other things being equal, the dynamic effects of low prices on supply should lead to a decrease in supply relative to the initial shift, and thus to a partial recovery of prices.  This is what is suggested by futures markets, which show, in the left-hand panel of Figure 6, an expected recovery of prices to $73 a barrel by 2019.

The uncertainty associated with these forecasts comes not only from supply but also demand factors.

On the supply side, for example, possible changes in OPEC’s strategy and geopolitical tensions in Libya, Iraq, Ukraine, and Russia should not be underestimated. On the demand side, uncertainty about global economic activity, and thus the derived demand for oil, remains high.  This is shown, emphatically, by the size of the implied distribution of futures prices (based on options prices) in the right-hand panel of Figure 6:  the 68% confidence band for the price in 2019 ranges from $48 to $85, and the 95% band from $38 to $115; a very wide range indeed.

Figure 6

What are the effects likely to be on the global economy?

Overall, lower oil prices due to supply shifts are good news for the global economy, obviously with major distribution effects between oil importers and oil exporters. The crucial assumptions in quantifying the effects of those supply shifts are how large and persistent we expect them to be. These assumptions determine not only the path of adjustment, but also the initial reaction of consumers and firms.

Given the uncertainty about the relative importance of supply shifts, both now and expected in the future, we present the results of two simulations (these are ceteris paribus in nature, not projections about the global economy, and as such ignore all other shocks likely to affect the global economy), which we see as representing a reasonable range of assumptions. The first assumes that the supply shift accounts for 60% of the price decline reflected in futures markets. The second also assumes that the supply shift accounts for 60% of the price decline at the start, but that the shift is partly undone over time for the reasons described above, with its contribution to the price decline falling gradually to zero in 2019.4

The results of the simulations shown below capture only the effects of the supply component of the oil price decline (the demand driven component of the oil price decline is a symptom of slowing global economic activity rather than a cause). The oil price projection used in the simulations is based on the IMF’s price forecast, which is itself based on futures contracts.

The results for global GDP are shown in Figure 7. The first simulation implies an increase in global output of 0.7% in 2015 and 0.8% in 2016 relative to the baseline (the situation without the oil price drop). Not surprisingly, in the second scenario, the effect on output is smaller: of the order of 0.3% in 2015 and 0.4% in 2016. The range of these effects includes predictions that would be obtained using existing empirical estimates for advanced economies. Estimates from Blanchard and Gali  (2009), for example, find that the effect of a permanent (supply-driven) decrease in the price of oil by 10% leads to an increase in US output by about 0.2%.5 Given a supply component of the price decline of about 25% (i.e. 60% of a total decline of 40%), these estimates would therefore imply an increase in output of about 0.5%.

Figure 7 Global GDP
(percent difference)

These global results mask asymmetric effects from lower prices across countries. Winners are the (net) oil importing countries, losers are (net) oil exporting countries. But, even within each group, there are important differences.

What are likely to be the effects on oil importers?

There are three main channels through which a decrease in the price of oil affects oil importers. The first is the effect of the increase in real income on consumption. The second is the decrease in the cost of production of final goods, and in turn on profit and investment.  The third is the effect on the rate of inflation, both headline and core.

The strength of these effects varies across countries.

For example, the real income effect is smaller for the US, which now produces over half of the oil it consumes, than for the Eurozone or for Japan. The real income and profit effects also depend on the energy intensity of the country: China and India remain substantially more energy-intensive than advanced economies, and thus benefit more from lower energy prices. The share of oil consumption in GDP is on average 3.8% for the US, compared to 5.4% for China and 7.5% for India and Indonesia.6

The effect on core inflation depends both on the direct effect of lower oil prices on headline inflation and on the passthrough of oil prices to wages and other prices.  The strength of the passthrough depends on real wage rigidities – the way nominal wages respond to CPI inflation – and the anchoring of inflation expectations.

In normal times, monetary policy would respond to lower core inflation through a greater than one-for-one decrease in the nominal interest rate, and thus a lower real interest rate. However, times are not normal, and the major advanced economies are constrained by interest rates at zero, leaving aside quantitative easing. While the US, which is getting closer to exiting this zero lower bound, can respond to a decrease in inflation by delaying the timing of its exit, the Eurozone and Japan, which are expected to remain at the zero lower bound for a long time, cannot materially change their conventional monetary policy.

Our simulations reflect, to the best possible extent, these differences in energy intensity, in the proportion of oil produced at home, and in monetary policy constraints. We assume that inflation expectations are similarly anchored in the US, the Eurozone, and Japan, leading to a pass through of about 0.2, so a decrease in core inflation of 0.2 percentage points when headline inflation decreases by 1 percentage point.

The implications for GDP are shown in Figure 8 for the two simulations described earlier.

Figure 8

The effects on China in both scenarios are larger than those for Japan, the US and Eurozone countries. For China, GDP increases by 0.4-0.7% above the baseline in 2015, and by 0.5-0.9% in 2016. For the US, GDP increases by 0.2-0.5% above the baseline in 2015, and by 0.3-0.6% in 2016. (The simulation assumptions do not take into account the potential offset from some policies that governments may implement following the fall in oil prices. For example, China may decide to tighten monetary or fiscal policy in response to the oil price decline).

Other effects are relevant, which our simulations do not take into account. Among these are the following.

The depreciation of the yen and the euro since June (by 14% and 8%, respectively, for reasons mostly unrelated to the decline in the price of oil) implies that the decrease in the price of oil in terms of yen and euros has been smaller than in dollars, namely 36% and 40%, respectively. Those depreciations somewhat mute the impact of the oil price slump for Japan and the Eurozone compared to our simulations.

In countries that have large specific – as opposed to proportional – taxes on energy (that is, they levy a fixed dollar or euro amount per gallon or litre), the same percentage decrease in the world price of oil leads to a smaller percentage decrease in the price paid by consumers and firms. Countries may also use the opportunity of a decreasing price of oil to reduce energy subsidies – a move that has been generally recommended by the IMF – leading again to a smaller decline in the price paid by consumers and firms.

Some oil importers depend heavily on what happens to oil exporters, and thus may benefit less from lower oil prices. For example, low-income importers in the Caribbean that benefit from transfers under Venezuela’s Petrocaribe regime could face a marked reduction in transfers as Venezuela itself comes under pressure. Caucasus and central Asian oil importers are likely to experience adverse spillovers from slowing growth in their oil-exporting neighbours, particularly Russia, which will reduce non-oil exports and remittances. Mashreq countries and Pakistan might also be adversely affected through a decline in non-oil exports, official transfers and remittances from the member countries of the Gulf Cooperation Council, especially over the medium term.

What are likely to be the effects on oil exporters?

As Figure 8 shows, the effect is, not surprisingly, negative for oil exporters. Here again, however, there are substantial differences across countries.

In all countries, real income goes down, and so do profits in oil production; these are the mirror images of what happens in oil importers.  But the degree to which they fall and the effect of the decline in the price of oil on GDP depend very much on their degree of dependence on oil exports, and on what proportion of revenues goes to the state.

Oil exports are much more concentrated across countries than oil imports.  Put another way, oil exporters depend much more on oil than oil importers.

To take some examples, energy accounts for 25% of Russia’s GDP, 70% of its exports, and 50% of federal revenues. In the Middle East, the share of oil in federal government revenue is 22.5% of GDP and 63.6% of exports for the Gulf Cooperation Council countries. In Africa, oil exports account for 40-50% of GDP for Gabon, Angola and the Republic of Congo, and 80% of GDP for Equatorial Guinea. Oil also accounts for 75% of government revenues in Angola, Republic of Congo and Equatorial Guinea. For Ecuador and Venezuela, oil contributes respectively about 30% and 46.6% to public sector revenues, and about 55% and 94% of exports.7 This shows the dimension of the challenge facing these countries.

In most countries, a mechanical effect of the oil price decline is likely to be a fiscal deficit. One way to illustrate the vulnerabilities of oil-exporting countries is to compute the so-called fiscal break-even prices – that is, the oil prices at which the governments of oil-exporting countries balance their budgets. The break-even prices vary considerably across countries, but are often very high.8 For Middle Eastern and central Asian countries, the break-even prices range from $54 per barrel for Kuwait to $184 for Libya, with a notable $106 for Saudi Arabia (see Figure 9).  For countries for which we do not have available data on break-even prices, budgetary oil prices (that is, the oil prices that countries assume in preparing their budget) are another way to gauge their vulnerability to falling oil prices.

Figure 9 2015 Fiscal Breakeven oil prices
(USD per barrel)

Note: IMF, Middle East and Central Asia Department.

For Africa, those budgetary oil prices have been revised down for 2015 in light of the falling prices (see Figure 10). For Latin America, the budgetary oil prices are $79.7 for Ecuador and $60 for Venezuela.

Figure 10 Sub-Saharan Africa budgetary price of oil, 2014-15

Some countries are better equipped than in previous episodes to manage the adjustment. A few (e.g. Norway) have put in place policy cushions such as fiscal rules and saving funds and have a more credible monetary framework, which has helped decouple internal from external balances.

But in many countries, the adjustment will imply fiscal tightening, lower output, and a depreciation (harder to achieve under the fixed exchange rate regimes that characterise many oil exporters).  And where expectations of inflation are not well anchored, the depreciation may lead to higher inflation.

What are the financial implications?

Declines in oil prices have financial implications, directly through the effects of oil prices themselves, and indirectly through the induced adjustment of exchange rates.

Lower oil prices weaken the financial position of firms in the energy sector, especially those that have borrowed in dollars, and by implication weaken the position of banks and other institutions with substantial claims on the energy sector. The proportion of energy firms with an interest coverage ratio (the ratio of cash flows to interest payments) of below 2 stands at 31% in emerging countries, indicating that some of these companies may indeed be at risk. CEMBI spreads, which reflect spreads on high-yield emerging market corporates, have increased by 100 basis points since June.

Stress tests carried out in the context of our financial stability assessments over the past few years in a number of oil-exporting countries had found only a few countries where some banks did not pass the tests, implying recapitalisation needs of a few points of GDP at most. However, those stress test results may not be very informative, since the capital buffers at the time of the tests may have changed, as well as the profitability of banks. Russia is a good example of rapidly evolving conditions in both respects, considering the effect of sanctions on its financial sector. Overall the impact of lower oil prices on banks in oil-exporting countries will depend critically on how persistent the fall in price is and its impact on economic activity and, in turn, on prevailing buffers.

Lower oil prices also typically lead to an appreciation of oil importers’ currencies, in particular the dollar, and to a depreciation of oil exporters’ currencies. The drop in oil price has contributed to an abrupt depreciation of currencies in a number of oil-exporting countries, including Russia and Nigeria. While the decrease in the price of oil is only one of the reasons behind the fall of the rouble, the Russian currency has depreciated by 40% so far this year, and by 56% since September. While controlled depreciations can help oil exporters adjust, they also exacerbate financial problems for those firms and governments whose debt is denominated in dollars. And, in countries where expectations are not well anchored, uncontrolled depreciations can lead quickly to very high inflation.

If sustained, the oil price slump will thus have a concentrated and material impact on those bondholders and banks with high dollar and energy sector exposures. However, the global banking system’s exposure is likely not to be large enough to cause more than a moderate increase in provisioning requirements and should be partially offset by improving credit quality in oil-importing countries and sectors. Some oil importers may nevertheless have financial sector linkages to oil exporters, and may be exposed to economic and financial developments in the latter. For example, Austrian banks have significant exposure to Russia, and some have seen a very sharp decline in their equity price recently.

This relatively optimistic assessment must, however, come with a clear warning.  One of the lessons from the Great Financial Crisis is that large changes in prices and exchange rates, and the implied increased uncertainty about the position of some firms and some countries, can lead to increases in global risk aversion, with major implications for the re-pricing of risk and for shifts in capital flows. This is all the more true when combined with other developments such as what is happening in Russia. One cannot completely dismiss this tail risk.

What should be the policy response of oil importers and exporters?

Clearly, the appropriate policy response to falling oil prices will depend on whether the country is an oil importer or exporter. The exception is the shared opportunity provided by low oil prices to reform energy subsidies and energy taxes. The IMF has long advocated that governments use the saving from the removal of energy subsidies toward more targeted transfers.9 Low prices provide a great opportunity to remove subsidies at less political cost. For example, India was able to decrease diesel subsidies recently, and there were no protests as the price did not rise.  And, in a number of advanced countries, this might be an opportunity to increase energy taxes, using the savings to reduce other taxes, such as labour taxes.

Now let’s turn to oil-importing countries. In normal times, for a country in good macroeconomic health – say, no output gap, inflation is on target and the current account is balanced – the advice is well honed, learned from past movements in oil prices: monetary policy should make sure that, in the face of lower headline inflation, inflation expectations remain anchored, and try to maintain stable core inflation. Whether this implies an increase or a decrease in the interest rate is ambiguous. On the one hand, higher demand calls for higher interest rates; on the other hand, keeping core inflation from declining may call for lowering interest rates. In general, whatever the interest rate does, the improvement in the current account balance is likely to generate an exchange rate appreciation.  This appreciation is natural, and desirable.

Times are not normal, however. Most large advanced economies suffer from a substantial output gap, inflation below target, and conventional monetary policy constrained by interest rates close to zero. This suggests that any increase in demand is welcome at this stage, and that lower inflation, which cannot be offset by lower interest rates, is more dangerous. Against this backdrop, use of forward guidance to anchor medium-run inflation expectations and avoid sustained deflation is crucial.

One might think that the appropriate policy response for oil exporters is the same as that for oil importers, but with the sign reversed.  Importers differ from exporters, however, in two important ways: first, the size of the shock faced by oil exporters as a proportion of their economy is much larger than for oil importers; and second, the contribution of oil revenues to fiscal revenues is typically much higher.  Thus, in all countries, lower fiscal revenues, and the risk that prices remain low for some time, imply the need for some decrease in government spending.

In countries that have accumulated substantial funds from past higher prices, allowing for larger fiscal deficits and drawing on those funds for some time is appropriate. This is even more so for exporters with fixed exchange rates, and where the real depreciation needed for adjustment may take some time to achieve.

For countries without such fiscal space, and where room to increase the fiscal deficit is limited, the adjustment will be tougher. Those countries need a larger real depreciation.  And they need a strong monetary framework to avoid depreciation leading to persistently higher inflation and further depreciation. This will indeed be a challenge for a few oil exporters.

Summary

  • We find that both supply and demand factors have played a role in the sharp price decline since June.

Futures markets suggest that oil prices will rebound but will remain below the level of recent years. There is, however, substantial uncertainty about the evolution of supply and demand factors as the story unfolds.

  • While no two countries will experience the drop in the same way, they share some common traits: oil importers among advanced economies, and even more so among emerging markets, stand to benefit from higher household income, lower input costs, and improved external positions.

Oil exporters will take in less revenue, and their budgets and external balances will be under pressure.

  • Risks to financial stability have increased, but remain limited.

Currency pressures have so far been limited to a handful of oil-exporting countries such as Russia, Nigeria, and Venezuela. Given global financial linkages, these developments demand increased vigilance all-round.

  • Oil exporters will want to smooth out the adjustment by not curtailing fiscal spending abruptly.

For those without savings funds and strong fiscal rules, however, budgetary and exchange rate pressures may be significant. Without the right monetary policies, this could lead to higher inflation and further depreciation.

  • The fall in oil prices provides an opportunity for many countries to decrease energy subsidies and use the savings toward more targeted transfers.

For others it is a chance to increase energy taxes and lower other taxes.

  • In the Eurozone and Japan, where demand is weak and conventional monetary policy has done most of what it can, central banks’ forward guidance is crucial to anchor medium-term inflation expectations in the face of falling oil prices.

Editor’s note: This column presents the IMF’s latest thinking on the big oil price drop.  The simulations do not represent an IMF forecast for the state of the world economy in 2015 and beyond as it does not take account of the many other cross-currents driving growth, inflation, global imbalances and financial stability.  The column was first posted on the IMF blog Seven Questions About The Recent Oil Price Slump, 22 December 2014. The authors are grateful to numerous colleagues, in particular Thomas Helbling, Ben Hunt, Douglas Laxton, Prakash Loungani, Akito Matsumoto, Gian Maria Milesi Ferretti, as well as colleagues in the modelling and commodities teams and in the African, Asia Pacific, Europe, Fiscal Affairs, Middle East and Central Asia, Monetary and Capital Markets, Strategy and Policy Review and Western Hemisphere departments. They also thank Rystad Energy and Per Magnus Nysveen in particular for kindly providing proprietary data on capital expenditures and cost structures.

References

Arezki, R, P Loungani, R van der Ploeg and T and Venables (2014), “Understanding International Commodity Price Fluctuations”, Journal of International Money and Finance 42, 1-8.

Blanchard, O J and J Gali (2009), “The Macroeconomic Effects of Oil Price Shocks: Why are the 2000s so different from the 1970s?”, in J Gali and M Gertler (eds), International Dimensions of Monetary Policy, Chicago, IL: University of Chicago Press, pp. 373-428.

Baumeister, C and G Peersman (2013), “The Role Of Time‐Varying Price Elasticities In Accounting For Volatility Changes In The Crude Oil Market”, Journal of Applied Econometrics 28(7), 1087-1109.

BP, (2014). BP Statistical Review of World Energy. Retrieved  December 2014, fromhttp://www.bp.com/en/global/corporate/about-bp/energy-economics/statistical-review-of-world-energy.html

Cashin, P, K Mohaddes, M Raissi and M Raissi (2014), “The differential effects of oil demand and supply shocks on the global economy”, Energy Economics 44, 113-134.

IMF (2013), Energy Subsidy Reform: Lessons and Implications, report prepared by a staff team led by B Clements, Washington: International Monetary Fund.

Hamilton, J D (2003), “What is an oil shock?,” Journal of Econometrics 113(2), 363-398.

Kilian, L (2009), “Not All Oil Price Shocks Are Alike: Disentangling Demand and Supply Shocks in the Crude Oil Market”, American Economic Review 99(3), 1053-69.

Parry, I, D Heine, E Lis and S Li (2014), Getting Energy Prices Right: From Principle to Practice, Washington: International Monetary Fund.

Peersman, G and I Van Robays (2012), “Cross-country differences in the effects of oil shocks”,Energy Economics 34(5), 1532-1547.

Endnotes

[1] These price changes are based on the IMF average petroleum spot price (APSP), a simple average of UK Brent, Dubai, and West Texas Intermediate.

[2] Gains from Libyan production in September have, however, reversed in November according to the latest report from the International Energy Agency.

[3] See Arezki et al. (2014) and references therein for a discussion on the respective role of fundamentals and financialisation in driving commodity price fluctuations.

[4] The supply component in the second scenario is 60% in 2014, 45% in 2015, 30% in 2016, 20% in 2017, 10% in 2018 and zero in 2019.

[5] In their recent assessments of the effects of the oil price decline, the Bundesbank estimates that a price decline of $10 lead to 0.2% increase in GDP in year one, and the French authorities estimate that the same price decline would raise GDP by 0.1% after two years. In the academic literature, Hamilton (2003) and Kilian (2009) provide empirical investigations of the relationship between oil prices and the macroeconomy, including a discussion on the identification of supply versus demand shocks. Baumeister and Peersman (2013), Peersman and Van Robays (2012) and Cashin et al. (2014) provide cross-country and time varying estimates of the effect of oil prices on output.

[6] The oil cost share is computed as the ratio between oil consumption and GDP average over the period 2004-2014. The data sources are BP Statistical Review (2014) and staff own calculations.

[7] For Venezuela, the latest available estimate of the share of oil in public sector is for 2013 and is the share to central government revenue.

[8] The calculations of the fiscal break-even prices ignore the offsetting effects of depreciations. In general, an exchange rate depreciation would help partly offset the effect of falling oil prices on oil export receipts in local currency.

[9] See IMF (2013) on energy subsidy reforms. See also Parry et al. (2014), who find that for many countries energy prices are below the levels that fully reflect the negative externalities from energy consumption

 

by

How the shale oil revolution has affected US oil and gasoline prices

o-FRACKING-facebookThe recent expansion of US shale oil production has captured the imagination of policymakers and industry analysts. It has fuelled visions of the US becoming independent of oil imports, of cheap US gasoline, of a rebirth of US manufacturing, and of net oil exports improving the US current account. This column asks how plausible these visions are, and examines the evidence to date.

Only a few years ago, many observers expected a steadily growing global shortage of crude oil. This shortage did not materialise in part because of the rapidly growing production of shale oil in the US. The production of shale oil (also referred to as tight oil) exploits technological advances in drilling. It involves horizontal drilling and the hydraulic fracturing (or fracking) of underground rock formations containing deposits of crude oil that are trapped within the rock. This process is used to extract crude oil that would have been impossible to release by conventional drilling methods designed for extracting oil from permeable rock formations. Shale oil production relies on the availability of suitable drilling rigs and skilled labour, which is one of the reasons why the US shale oil boom so far has been difficult to replicate in other countries.

US shale oil production has grown from about 0.4 million barrels a day in 2007 to more than 4 million barrels a day in 2014. This expansion was stimulated by the high price of crude oil after 2003, which made the application of these new drilling technologies cost competitive. The expansion of US shale oil production soon captured the imagination of policymakers and industry analysts. By 2012, the International Energy Agency projected that the US would become the world’s leading crude oil producer, overtaking Saudi Arabia by the mid-2020s and evolving into a net oil exporter by 2030 (International Energy Agency 2012). Pundits envisioned the US becoming independent of oil imports, net oil exports financing the US non-oil trade deficit, and consumers enjoying an era of cheap gasoline with a resulting rebirth of US manufacturing. My recent research, however, suggests that these visions remain far removed from reality (Kilian 2014).

Uncertainty about the US shale oil boom

To gauge the importance of shale oil for the US economy it is useful to bear in mind that, as of March 2014, shale oil accounted for almost half of US oil production, but only about a quarter of the total quantity of oil used by the US economy. This magnitude is far from negligible, but to understand the excitement about shale oil one has to consider projections of future US shale oil production.

Publicly available projections of future shale oil production have to be interpreted with some caution.

  • One concern is that increases in shale oil production are not permanent.

Sustained production requires ongoing investment. Projections by the US Energy Information Administration suggest that even under favourable conditions US shale oil production will peak by 2020 (at a level commensurate with US oil production in 1970) and then decline. Moreover, even the peak level would be far below what is needed to satisfy US oil demand.

  • A second concern is that estimates of the stock of shale oil that can be recovered using current technology are subject to considerable error.

In the summer of 2014, for example, the Energy Information Administration was forced to lower its previous estimates of the stock of recoverable shale oil by 64%.

  • A third concern is that it is not known how vulnerable the shale oil industry is to downside oil price risk.

This concern has become particularly relevant in recent months with the rapid decline in global oil prices. Shale oil production remains profitable as long as the price of oil exceeds marginal cost. There are indications that the initially high marginal cost of shale oil production has been declining substantially, as the shale oil industry has gained experience, but there are no reliable industry-level estimates of marginal cost.

In short, there is considerable uncertainty about the persistence and scope of the US shale oil boom, and there are many reasons to be skeptical of the notion that the US will soon (or indeed ever) become independent of oil imports.

Today, the US is the third-largest oil producer, slightly behind Saudi Arabia and Russia, with US crude oil accounting for about 10% of world production. Much has been made of the possibility of the US overtaking Saudi Arabia as the largest oil producer in the world, as the production of shale oil continues to surge. The implicit premise has been that being a large oil producer ensures a country’s energy security. It is easy to forget, however, that the US already was the world’s largest oil producer in 1973/1974 as well as in 1990. This fact did not protect the US economy from major foreign oil price shocks, suggesting that the focus on becoming the world’s largest oil producer is misplaced.

Imperfect substitutability between different types of crude oil

Even more importantly, the shale oil debate has largely ignored the fact that shale oil is not a perfect substitute for conventional crude oil, making comparisons across countries difficult. The quality of crude oil can be characterised mainly along two dimensions. One is the oil’s density (ranging fromlight to heavy) and is typically measured based on the American Petroleum Institute (API) gravity formula; the other is its sulphur content (with sweet referring to low-sulphur content and sour to high-sulphur content). Figure 1 provides an overview of how commonly quoted crude oil benchmarks (including West Texas Intermediate (WTI) and Brent oil in the North Sea) can be characterised along these dimensions. Shale oil consists of light sweet crude (at most 45 API), ultra-light sweet crude (about 47 API), and condensates (as high as 60API). Thus, not all shale oil is a good substitute for conventional light sweet crude oil such as the WTI or Brent benchmarks, and an aggregate analysis of the crude oil market tends to be misleading. In reality, the impact of shale has been far more complicated.

Figure 1. Classification of conventional crude oil benchmarks

Source: US Energy Information Administration.

Notes: MARS refers to an offshore drilling site in the Gulf of Mexico. WTI = West Texas Intermediate. LLS = Louisiana Light Sweet. FSU = Former Soviet Union. UAE = United Arab Emirates.

The US shale oil boom was preceded by a persistent and growing shortage of light sweet crude oil in world markets. US refiners responded to this trend by expanding their capacity to process heavy crudes that remained in abundant supply, becoming the world leader in this field. They were therefore taken by surprise when the US market was inundated with shale crude oil from the centre of the country after 2010. Not only was much of the refining structure ill-equipped to process this light sweet crude oil, but it proved difficult to ship the shale oil to those refineries on the coasts that would have been able to process it. With the development of shale oil in the interior of the country, large parts of the US oil pipeline infrastructure developed over the preceding 40 years had suddenly become obsolete, and rail and barge transport could not cope with increased demand. Moreover, exports of US shale oil that cannot be processed domestically were (and continue to be) prohibited by US law.

The resulting local excess supply of light sweet crude oil in the central US caused the WTI price of oil to fall below the Brent price. This discrepancy between domestic and global oil prices resulted from a breakdown of arbitrage between domestic and imported light sweet crude oil. There are signs that the US refining industry is gradually responding to these price differentials. Reconfiguring the US refining and transportation infrastructure, however, is a costly and slow process. For the time being, therefore, the evolution of the US price of oil is inextricably tied to improvements in the US refining, pipeline, and rail infrastructure.

In sharp contrast, US retail fuel prices have remained integrated with the world market in part because US refined products such as gasoline or diesel (unlike domestically produced crude oil) may be exported freely. As a result, the widely noted decline in US domestic oil prices relative to international benchmarks such as Brent, has not been passed on to the consumer in the interior of the country. This point is important because it removes the basis for any notion of a rebirth of US manufacturing on the basis of low-cost US gasoline and diesel fuel.

The beneficiaries of the US shale oil boom

Thus, the main beneficiary of the US shale oil revolution has been not gasoline consumers or, for that matter, domestic shale oil producers, but the US refining industry, which enjoys a competitive advantage compared to diesel and gasoline producers abroad because of its access to low-cost crude oil. In fact, refiners have every incentive to preserve the status quo and to prevent a lifting of the US ban on exports of domestically produced crude oil. An additional beneficiary of the shale oil revolution has been the transportation sector, notably the railroad industry, and the industries directly serving the oil sector. In contrast, the macroeconomic effects on real output and employment have been small, given the negligible share of the shale oil sector in the US economy. It is fair to say that there is no support for the notion that shale oil has been a game changer for the US economy. One area in which the shale oil revolution has made a difference is in reducing crude oil imports on the one hand, and increasing exports of refined products on the other, thus improving the US trade balance (and as a side-effect dampening the effect of foreign oil price shocks on the US economy). Of course, these improvements are small compared with the overall US trade deficit.

The (lack of) impact on the global price of oil

It may seem that the rapid decline in the global price of oil after mid-2014 may be attributable to sharp increases in US shale oil production, providing direct evidence of the impact of the US shale oil revolution on oil prices after all. Although shale oil is not being exported, it replaces US crude oil imports, reducing the demand for oil in global markets, as do US exports of refined products. Some observers have gone as far as suggesting that shale oil may have become a victim of its own success in that it caused a sharp drop in global oil prices. There is no credible support for this interpretation. Similar price declines also occurred in other industrial commodity markets at the same time, suggesting that the cause of the oil price decline has not been specific to the oil sector, but that it mainly reflects a weakening global economy in Asia as well as Europe, possibly amplified by the decision of many oil producers to preserve oil revenues by increasing oil production in response to falling oil prices. This view is also consistent with the comparatively small magnitude of US shale oil production on a global scale.

By : Lutz Kilian

References

International Energy Agency (2012), World Energy Outlook 2012, Paris: OECD/IEA.

Kilian, L (2014), “The Impact of the Shale Oil Revolution on U.S. Oil and Gasoline Prices”, CEPR Discussion Paper 10304.

by

Global carbon taxation: Intuition from a back-of-the-envelope calculation

carbon_taxThe failure of markets to price carbon emissions appropriately leads to excessive fuel use and induces global warming. This column suggests a new, back-of-the-envelope rule for calculating the global carbon price. The authors find that fighting global warming requires a price of around $15 per ton of emitted CO2, or $0.13 per gallon of gasoline. The rule also highlights the importance of economic indicators, such as GDP, for climate policy.

The biggest externality on the planet is the failure of markets to price carbon emissions appropriately (Stern 2007). This leads to excessive fossil fuel use which induces global warming and all the economic costs that go with it. Governments should cease the moment of plummeting oil prices and set a price of carbon equal to the optimal social cost of carbon, where the social cost of carbon is the present discounted value of all future production losses from the global warming induced by emitting one extra ton of carbon. Our calculations suggest a price of $15 per ton of emitted CO2 or 13% per gallon gasoline. This price can be either implemented with a global tax on carbon emissions or with competitive markets for tradable emission rights and, in the absence of second-best issues, must be the same throughout the globe.

The most prominent integrated assessment model of climate and the economy is DICE (Nordhaus 2008, 2014). Such models can be used to calculate the optimal level and time path for the price of carbon. Alas, most people, including policymakers and economists, view these integrated assessment models as a ‘black box’ and consequently the resulting prescriptions for the carbon price are hard to understand and communicate to policymakers.

New rule for the global carbon price

This is why we propose a simple rule for the global carbon price, which can be calculated on the back of the envelope and approximates the correct optimal carbon price very accurately. Furthermore, this rule is robust, transparent, and easy to understand and implement. The rule depends on geophysical factors, such as dissipation rates of atmospheric carbon into oceanic sinks, and economic parameters, such as the long-run growth rate of productivity and the societal rates of time impatience and intergenerational inequality aversion. Our rule is based on the following premises.

  • First, the carbon cycle is much more sluggish than the process of growth convergence. This allows us to base our calculations on trend growth rates.
  • Second, a fifth of carbon emission stays permanently in the atmosphere and of the remainder 60% is absorbed by the oceans and the earth’s surface within a year and the rest has a half-time of three hundred years.
  • After three decades, half of the carbon has left the atmosphere. Emitting one ton of carbon thus implies that is left in the atmosphere after t years.
  • Third, marginal climate damages are roughly 2.38% of world GDP per trillion tons of extra carbon in the atmosphere.

These figures come from Golosov et al. (2014) and are based on DICE. It assumes that doubling the stock of atmospheric carbon yields a rise in global mean temperature of 3 degrees Celsius. Hence, the within-period damage of one ton of carbon after t years is

  • Fourth, the social cost of carbon is the discounted sum of all future within-period damages.

The interest rate to discount these damages r  follows from the Keyes-Ramsey rule as the rate of time impatience r  plus the coefficient of relative intergenerational inequality aversion (IIA) times the per-capita growth rate in living standards g (Foley et al. 2013). Growth in living standards thus leads to wealthier future generations that require a higher interest rate, especially if the intergenerational inequality aversion is large because current generations are then less prepared to sacrifice current consumption.

  • Fifth, it takes a long time to warm up the earth. We suppose that the average lag between global mean temperature and the stock of atmospheric carbon is 40 years.

We thus get the following back-of-the-envelope rule for the optimal social and price of carbon:

where r = p + (IIA – 1) x g Here the term in the first set of round brackets is the present discounted value of all future within-period damages resulting from emitting one ton of carbon, and the term in the second set of round brackets is the attenuation in the social cost of carbon due to the lag between the change in temperature and the change in the stock of atmospheric carbon.

Policy insights from the new rule

This rule gives the following policy insights:

  • The global price of carbon is high if welfare of future generations is not discounted much.
  • Higher growth in living standards g boosts the interest rate and thus depresses the optimal global carbon price if the intergenerational inequality aversion is larger than 1. As future generations are better off, current generations are less prepared to make sacrifices to combat global warming. However, if the aversion is less than 1, growth in living standards boosts the price of carbon.
  • Higher intergenerational inequality aversion implies that current generations are less prepared to temper future climate damages if there is growth in living standards and thus the optimal global price of carbon is lower.
  • The lag between temperature and atmospheric carbon and decay of atmospheric carbon depresses the price of carbon (the term in the second pair of brackets).
  • The optimal price of carbon rises in proportion with world GDP which in 2014 totalled 76 trillion USD.

The rule is easy to extend to allow for marginal damages reacting less than proportionally to world GDP (Rezai and van der Ploeg 2014). For example, additive instead of multiplicative damages resulting from global warming give a lower initial price of carbon, especially if economic growth is high, and a completely flat time path for the price of carbon. In general, the lower elasticity of climate damages with respect to GDP, the flatter the time path of the carbon price.

Calculating the optimal price of carbon following the new rule

Our benchmark set of parameters for our rule is to suppose trend growth in living standards of 2% per annum and a degree of intergenerational aversion of 2, and to not discount the welfare of future generations at all (g = 2%, IIA = 2, r = 0). This gives an optimal price of carbon of $55 per ton of emitted carbon, $15 per ton of emitted CO2, or $0.13 per gallon of gasoline, which subsequently rises in line with world GDP at a rate of 2% per annum.

Leaving ethical issues aside, our rule shows that discounting the welfare of future generations at 2% per annum (keeping g = 2% and IIA = 2) implies that the optimal global carbon price falls to $20 per ton of emitted carbon, $5.5 per ton of emitted CO2, or $0.05 per gallon gasoline. 

If society were to be more concerned with intergenerational inequality aversion and used a higher aversion of 4 (keeping g = 2%, r = 0), current generations would have to sacrifice less current consumption to improve climate decades and centuries ahead. This is why our rule then indicates that the initial optimal carbon price falls to $10 per ton of carbon. Taking a lower intergenerational inequality aversion of 1 and a discount rate of 1.5% per annum as in Golosov et al. (2014) pushes up the initial price of carbon to $81 per ton emitted carbon.

A more pessimistic forecast of growth in living standards of 1 instead of 2% per annum (keeping IIA = 2, r = 0) boosts the initial price of carbon to $132 per ton of carbon, which subsequently grows at the rate of 1% per annum. To illustrate how accurate our back-of-the-envelope rule is, we road-test it in a sophisticated integrated assessment model of growth, savings, investment, and climate change with endogenous transitions between fossil fuel and renewable energy and forward-looking dynamics associated with scarce fossil fuel (for details see Rezai and van der Ploeg 2014). Figure 1 below shows that our rule approximates optimal policy very well.

Figure 1. Calculating the social cost of carbon over time

The table below also confirms that our rule predicts the optimal timing of energy transitions and the optimal amount of fossil fuel to be left unexploited in the earth very accurately. Business as usual leads to unacceptable degrees of global warming (4 degrees Celsius), since much more carbon is burnt (1640 Giga tons of carbon) than in the first best (955 GtC) or under our simple rule (960 GtC). Our rule also accurately predicts by how much the transition to the carbon-free era is brought forward (by about 18 years). No wonder our rule yields almost the same welfare gain as the first best while business as usual leads to significant welfare losses (3% of world GDP).

Table 1. Transition times and carbon budget

Recent findings in the IPCC’s fifth assessment report support our findings. While it is not possible to translate their estimates of the social cost of carbon into our model in a straight-forward manner, scenarios with similar levels of global warming yield similar time profiles for the price of carbon.

Our rule for the global price of carbon is easy to extend for growth damages of global warming (Dell et al. 2012). This pushes up the carbon tax and brings forward the carbon-free era to 2044, curbs the total carbon budget (to 452 GtC) and the maximum temperature (to 2.3 degrees Celsius). Allowing for prudence in face of growth uncertainty also induces a marginally more ambitious climate policy, but rather less so. On the other hand, additive damages lead to a laxer climate policy with a much bigger carbon budget (1600 GtC) and abandoning fossil fuel much later (2077).

Conclusion

In sum, our back-of-the-envelope rule calculates the optimal global price of carbon and gives an accurate prediction of the optimal carbon tax. It highlights the importance of economic primitives, such as the trend growth rate of GDP, for climate policy. We hope that as the rule is easy to understand and communicate, it might also be easier to implement.

By : Armon Rezai, Rick van der Ploeg 

References

Dell, M, Jones, B and B Olken (2012), “Temperature shocks and economic growth: Evidence from the last half century”, American Economic Journal: Macroeconomics 4, 66-95.

Foley, D, Rezai, A and L Taylor (2013), “The social cost of carbon emissions”, Economics Letters121, 90-97.

Golosov, M, J Hassler, and P Krusell (2014), “Optimal taxes on fossil fuel in general equilibrium”,Econometrica, 82, 1, 41-88.

Nordhaus, W (2008), A Question of Balance: Economic Models of Climate Change, Yale University Press, New Haven, Connecticut.

Nordhaus, W (2014), “Estimates of the social cost of carbon: concepts and results from the DICE-2013R model and alternative approaches”, Journal of the Association of Environmental and  Resource Economists, 1, 273-312.

Rezai, A and F van der Ploeg (2014), “Intergenerational Inequality Aversion, Growth and the Role of Damages: Occam’s Rule for the Global Carbon Tax”, Discussion Paper 10292, CEPR, London.

Stern, N (2007), The Economics of Climate Change: The Stern Review, Cambridge University Press, Cambridge

by

Albania Oil, Gas & Energy 2015 Summit

IRN is pleased to introduce the inaugural

Albania Oil, Gas & Energy 2015 Summit,

17-18 March 2015 Sheraton Tirana Hotel

Taking place in Tirana, Albania, organised in collaboration with and under the Official Auspices of the Ministry of Energy & Industry.

IRN holds a very successful Mediterranean portfolio of high level meetings, the most recent of which was the Annual Balkans and the Adriatic Summit that recently hosted more than 250 senior delegates and 70 IOCs in Athens. The Albania Summit takes the regional discussions to a forum focused only on Albania to bring you exclusive updates on major developments within Albania’s energy sector by gathering all interested investment parties together with key Government Executives to discuss:

  • Upcoming licensing round of onshore and offshore blocks
  • Albania’s hydrocarbon and energy production potential
  • Energy infrastructure projects
  • Investment opportunities in gas, renewables and electricity production
  • The Trans Adriatic Pipeline (TAP): the most important development catalyst in the region

Find out how the investment legal framework encourages foreign involvement, how to get involved in upcoming energy projects, meet the key players and operators in the country and develop your entry strategy in Albania.

Why Albania:

  • A growing market with different business opportunities

  • Open-door licensing round for 12 onshore blocks and 1 offshore block

  • Europe’s largest onshore oilfield; Patos-Marinza

  • Proven oil and gas reserves

  • Amongst Europe’s largest and oldest oil and gas producers

  • Excellent fiscal initiatives

  • Major IOCs already investing in the country

  • Trans Adriatic Pipeline to supply Albania with natural gas

  • Current privatization of the petroleum sector

Key topics to be discussed at the Albania Oil, Gas & Energy 2015 Summit include:

  • An overall analysis of the Albanian onshore sector and current developments

  • New licenses onshore and offshore

  • Albania’s fascinating oil and gas history

  • Exclusive updates on Patos Marinza field

  • Developing Albania’s gas infrastructure to best fit Gas Master plan 2015

  • Fiscal and investment incentives for the Energy Sector

  • A step-by-step direction on how to acquire an exploration license in Albania

  • Gas market drivers and dynamics: Domestic and export potential

  • Plans, projects and opportunities in the Upstream, Midstream and Downstream sector

  • Transparency initiatives

For more information please contact

Chryssa Tsouraki

E: ChryssaT@irn-international.com

T: +44 (0) 207 111 1615

Web: www.albaniasummit.com/