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Turkey, Romania and Croatia could face investment gaps in energy by 2040

Turkey, Romania and Croatia will have to invest more in the energy infrastructure if they want to avoid investment gaps in the sector by 2040, the new Global Infrastructure Hub report on infrastructure investment needs and gaps shows.

The GI Hub, established by the G20 to increase the flow and quality of infrastructure investment opportunities in the world, has recently launched Global Infrastructure Outlook, an analysis with Oxford Economics of infrastructure investment needs across 50 countries and 7 sectors to 2040.

The report analyses situation in three countries in the Southeast Europe, namely Turkey, Romania and Croatia.

Energy infrastructure forecasts

According to the report, Turkey needs to invest USD 242 billion (EUR 206 billion) in energy infrastructure by 2040, but it will invest only USD 194 billion (EUR 165 billion) based on the current trends. This colud lead to a gap of USD 48 billion (EUR 40.9 billion).

Romania should invest USD 62 billion (EUR 52.9 billion) in energy infrastructure while the current investment trends show that it is on the path to invest USD 57 billion (EUR 48 billion), which would lead to a gap of USD 5.8 billion (EUR 4.9 billion).

Croatia will, based on the current trends, invest USD 20 billion (EUR 17 billion) while the investments needed amount to 23 billion (EUR 19.6 billion) which means that it could face a gap of USD 2.8 billion (EUR 2.3 billion).

Water infrastructure forecasts

When it comes to the water infrastructure, Romania needs to invest USD 18 billion (EUR 15 billion) which concurs with current investment trends with a gap of USD 3,9 million (EUR 3.3 million).  The report forecasts similar trend Croatia – the current investment trend of 6.3 billion (EUR 5.3 billion) is similar to the investment needs by 2040 with a gap of USD 11 million (EUR 9.3 million).

By 2040, Turkey will need to invest USD 53 billion (EUR 45 billion) in water infrastructure but it will invest 51 billion (EUR 43 billion) based on the current tends leading to gap of USD 2,2 billion (EUR 1.8 billion).

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Wang Yi Holds Talks with Foreign Minister Ditmir Bushati of Albania

W020160829348307513871On August 25, 2016, Foreign Minister Wang Yi held talks in Beijing with visiting Foreign Minister Ditmir Bushati of Albania.

Wang Yi expressed that Albania is a traditional friend of China. It made historic contributions to recovering the lawful seat of the People’s Republic of China in the United Nations back in the days, which the Chinese government and people bear deeply in mind. China and Albania have built a profound friendship featuring mutual trust and mutual support since the establishment of diplomatic relations 67 years ago. In recent years, the two sides have conducted close high-level exchanges and enjoyed firm political mutual trust. China is willing to work with Albania to earnestly implement the important consensus reached by leaders of both countries, give full play to bilateral cooperation mechanisms in related areas, advance the in-depth and substantial development of bilateral relations, and benefit the two peoples.

Wang Yi noted that both sides should boost high-level exchanges and consolidate political mutual trust. China appreciates Albania for its long-term and valuable support on issues related to China’s core interests and major concerns, and respects Albania’s choice of development path that is based on its national conditions and people’s will. Both sides should deepen practical cooperation and enrich the connotation of bilateral relations. China is willing to speed up the docking of national development strategies with Albania, substantially push forward practical cooperation in various areas including infrastructure construction, energy, industrial parks, agriculture and others, and strive for new breakthroughs in major project cooperation between the two countries. It is hoped that the Albanian side can provide convenience for Chinese enterprises to participate in Albania’s construction. The two sides should intensify people-to-people and cultural exchanges, advance cooperation in such areas as culture, education, tourism and local affairs, and offer more convenience for personnel exchanges, so as to facilitate the connection of the two peoples’ hearts.

Wang Yi stated that cooperation between China and 16 countries in Central and Eastern Europe (CEE) including Albania has grew out of nothing and expanded from small to large, setting a model for sub-regional cooperation. As the “16+1 cooperation” gradually enters into the mature period and the harvest time, China is ready to, together with the 16 CEE countries, push the “16+1 cooperation” for more tangible results, assist the European integration process, and play a constructive role in the development and prosperity of Europe.

Ditmir Bushati said that China has rendered precious support and assistance to the economic construction and social development of Albania for a long time, to which Albania offers deep gratitude. Albania treasures the traditional friendship with China, and always firmly adheres to the One-China policy. Cooperation in various fields between the two countries in recent years has achieved positive outcomes, presenting huge development space in the future. Albania is willing to deepen cooperation with China in such areas as transportation, tourism, education and people-to-people and cultural exchanges, support the “Belt and Road” initiative proposed by President Xi Jinping, and provide favorable conditions and convenience for Chinese enterprises to enter Albania. China, as an important cooperative partner of the “16+1 cooperation”, has played a significant role in regional integration process. Albania is willing to enhance coordination and cooperation with China in international and regional affairs. It is hoped that both sides can join efforts to advance bilateral friendly relations to continuously achieve more outcomes.

Both sides also exchanged views on international and regional issues of common concern.

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Introduction to Peak Oil – (Lecture Notes in Energy)

416kq3dD9bL._SX340_BO1,204,203,200_This book examines the physical and economic characteristics of the global oil resource to explain why peak oil has been so poorly understood. The author draws on information held in oil industry datasets that are not widely available outside of the specialist literature, and describes a number of methods that have been successfully used to predict oil peaks. In contrast to the widely-held view that ‘all oil forecasts are wrong’, these methods correctly predicted the current peak in global conventional oil production. Current oil forecasts are then compared to evaluate the expected dates for regional and global oil peaks for conventional oil, all-oils, and all-liquids. The dates of global peaks in the production of all-oil and all-liquids appear to be reasonably soon, while the oil price that is needed to support these global production levels continues to rise. The world faces serious constraints in its oil supply, which accounts for about one-third of total world energy use, and over 90% of the fuel used for transportation. Readers of this book will gain a thorough understanding of the critical, but poorly understood, phenomenon of peak oil that has already had significant impacts on society in terms of high oil prices, and which will place increasing constraints on mankind’s supply of energy and economic well-being in the coming years.

[embeddoc url=”https://aea-al.org/wp-content/uploads/2016/06/[email protected]” download=”all” viewer=”google”]

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Turkey’s Role in Energy Security through Eastern Partnership

Turkey Oil and Gas Pipeline-01_0

Turkey is located between the rich hydrocarbon reserves in the Caspian region and the European markets and thus sits at the intersection of the most feasible energy transit lines. Yet, geopolitics is not the only reason why Turkey is relevant to the EU’s energy interests in the Caspian. Turkey also has significant political capital and economic ties in the Caspian region that the EU can capitalize on to achieve its long-term energy policy objectives.

Despite the fact that the EU and Turkey have a shared interest in energy security, there are at least two major obstacles that have so far prevented the EU and Turkey from effectively coordinating on energy policy. First, the dissimilar and at times incompatible energy interests of the EU members undermine the EU’s capacity to implement a common external energy policy. Unable to speak in one voice, the EU sends mixed signals to its regional partners, including Turkey. Similarly, Turkey tends to prioritize its own short-term national energy interests over the long-term benefits from cooperation with the EU. The prevalence of national interests over communal ones thus generates a credible commitment problem between the EU and Turkey, where parties are unable to make binding promises for cooperation. For the EU and Turkey to establish a working partnership on energy issues, they should arrive at a common understanding whereby each actor not only values long-term cooperation over short-term interests but also trusts that the other side will do the same. Second, the commitment issue is aggravated by the apparently mismatched perspectives that the EU and Turkey adopt on the political implications of energy cooperation. Turkish decision makers hold that Turkey’s position as an energy corridor merits tangible political benefits, most notably concrete progress in Turkey’s accession talks. Even though most EU officials acknowledge that Turkey could be a strategic asset for European energy security, few go so far as to establish a direct issue-linkage between energy and membership. The discordance of the EU’s and Turkey’s expectations regarding the political payoffs of energy cooperation undermines the mutual trust that is required for long-term partnership.

The EaP was introduced as a joint Polish-Swedish initiative in May 2008. The initiative was conceived as a venue for dialogue and cooperation between the EU and the former Soviet states of Armenia, Azerbaijan, Belarus, Georgia, Moldova, and Ukraine. The Joint Declaration of the Prague Eastern Partnership Summit, signed on 7 May 2009, stated that the “main goal of the Eastern Partnership is to create the necessary conditions to accelerate political association and further economic integration between the European and interested partner countries” (European Union, 2009). Through the implementation of Association Agreements, the EaP aims to facilitate the social, economic, and political transformation in the six partner states.

The EaP is a multi-dimensional directive, yet energy security has been at the core of the partnership since its inception. The Prague Declaration says, “The eastern partnership aims to strengthen energy security through cooperation with regard to long term stable and secure energy supply and transit, including through better regulation, energy efficiency and more use of renewable energy sources” (European Union, 2009). Energy security is one of the four thematic platforms of the EaP, along with democracy and good governance, economic integration and contacts with people. Two of the six flagship initiatives of the EaP are also energy-related. One of these initiatives concerns the integration of regional energy markets and raising the profile of renewable energy in partner states, whereas the other initiative directly involves the diversification of energy import routes. On 8 May 2009, the very next day following the EaP Summit, the Southern Corridor Summit was held in Prague, where European Commission officials as well as the presidents of Azerbaijan, Georgia, and Turkey, expressed their “political support to the realization of the Southern Corridor as an important and mutually beneficial initiative” (EU at the UN, 2009). Jose Manuel Barroso, President of the European Commission, speaking at the summit, underlined that diversification was indeed a priority: “The context of this summit is very clear. Our strategic priority in the EU is to enhance energy security in particular by diversifying the EU’s energy sources and energy routes”.

At the core of the EU’s diversification strategy is the development and integration of multiple pipeline systems under the general framework of the Southern Gas Corridor, which would carry gas to Europe primarily from the Caspian region (possibly from Turkmenistan, Iran, and the Middle East as well), bypassing transit networks owned or controlled by Russia. This grand energy strategy can be traced back to the establishment of INOGATE (Interstate Oil and Gas transport to Europe) in 1995. INOGATE was later expanded through the signing of umbrella agreements in 2001 when 21 countries agreed to cooperate on pipeline development. Through conferences in Baku in 2004 and in Astana in 2006, INOGATE evolved into the primary institutional framework of regional cooperation on energy security and integration of markets. The next major step in building the institutional framework of a European energy policy was the signing of Energy Community Treaty, which entered into force in July 2006, establishing an Energy Community among the EU members as well as Albania, Bosnia and Herzegovina, Kosovo, Montenegro, Macedonia, Serbia, Moldova, and Ukraine. Yet another landmark was the Treaty of Lisbon in 2007, which included an article on energy policy, calling for solidarity among Member States. In February 2010, the European Commission established a new DirectorateGeneral for Energy, further indicating the significance attached to the issue. The EaP’s energy agenda should thus be considered the latest step in the evolution of EU’s long-standing efforts to resolve the energy security problem.

How severe is the energy security problem of the EU? Europe is an energy-poor region. It possesses only 0.4 per cent of the world’s proved oil reserves but consumes 15.9 per cent. Similarly, 0.9 per cent of world’s natural gas reserves are in Europe while European consumption constitutes 13.9 per cent of the global consumption (BP, 2012). Not only are the hydrocarbon reserves limited but also production is falling. Total energy production in the EU declined by 13 per cent over the last 20 years. Natural gas production in Europe is in decline. Since 2001, EU-28’s natural gas production decreased by 38 per cent while consumption was reduced by only about 7 per cent. This unfavorable supply and demand structure inevitably led to greater import dependency. Europe’s total energy import dependency rose from 47.1 per cent in 2001 to 53.4 per cent in 2012. Europe imports 90 per cent of its oil and 42 per cent of its solid fuels, yet gas dependency is the most alarming. Gas import dependency jumped from 48.8 per cent in 2001 to 65.8 per cent in 2012 (Eurostat, 2014).

EU is following a multifaceted energy security strategy (European Commission, 2014a,b). The union is committed to reducing primary energy consumption by 20 per cent by 2020 (European Commission, 2011). The energy saving measures are helpful but ultimately insufficient to compensate for the decline in production. In 2012, natural gas consumption in Europe declined 9.9 per cent while production fell by 11.4 per cent. It is possible that part of the decline in energy consumption over the past few years is due to the contraction of the European economy since 2008. With economic restoration over the next decade, energy demand will likely increase, unless policy changes produce significant changes in the structure of energy consumption.

Indeed, projections for EU’s natural gas demand for the two decades indicate significant variations based on policy environment and expectations regarding macro-economic performance. According to Eurogas’ Base Case, which assumes no significant departure from current policy and market conditions, EU-27’s natural gas demand will increase from 438 mtoe (million tonnes of oil equivalent) in 2010 to 471 mtoe in 2035 (Eurogas, 2013, p. 3) In the Environmental Case, which assumes a growing share of renewables and a restoration of economic growth in Europe, demand for natural gas will rise to 527 mtoe by 2035, a 20 per cent increase over the 2010 baseline. Only under the Slow Developments Case, which assumes that gas would become less competitive in Europe, will demand decline to 394 mtoe by 2035 (Eurogas, 2013, p. 3). Thus, barring a significant change in policy and market conditions, natural gas will likely remain a key source of energy for Europe over the next two decades.

Similarly, a report published by Fitch Ratings in August 2014 confirmed that Europe will continue to depend on Russian gas supplies “for at least the next decade and potentially much longer” (Fitch Ratings, 2014). According to Fitch Rating’s projections, European gas demand will grow slightly until the mid-2020s and after that, demand growth will once again accelerate as gas-fired electricity generation replaces coal and nuclear capacity. European shale gas, the report indicates, will not be a viable option for another decade when production reaches a critical volume. Even then, shale gas production would most likely be just enough to compensate for the decline in domestic conventional gas production in Europe. The best the EU can hope for, the report concludes, is to avoid significantly increasing gas purchases from Russia. (Fitch Ratings, 2014).

Thus, energy import dependency will likely continue to be a major issue for Europe. Dependency, particularly on a single supplier, is considered a source of economic and political vulnerability in international relations (Waltz, 1970). Dependent countries are highly vulnerable to supply disruptions whether they are of technical or political nature. The 2006 and 2009 gas shortages in Ukraine and 2007 crisis involving Belarus served as bitter reminders that import dependency threatens the material well-being and security of ordinary citizens. Import dependency has negative consequences on the foreign policy capabilities of the dependent country as well. The potential cost of aggravating an energy supplier casts the dependent actor into an involuntarily cooperative role. Foreign policy implications of energy dependency are particularly relevant when the energy exporters are keen on using their market power as a weapon over importers and transit countries (Gereben, 2013; Stegen, 2011). Ukraine Crisis in 2014 evidenced the extent to which energy dependence constrains EU foreign policy.

Given the political and economic costs of energy dependency, the EU has no choice but to seek to diversify its energy suppliers and import routes. The EU has a few alternative natural gas suppliers, including Iraq, Iran and most recently Eastern Mediterranean but none of these alternatives appears to be as readily accessible as the Caspian reserves in the near future. Iraqi natural gas reserves rank 12th in the world (EIA, 2013) but given various infrastructure issues and the continuing political turmoil in the country, Iraq’s natural gas export capacity is currently limited. Importing natural gas from Iran has long been on the agenda of the EU and the most recent problems with the availability of Russian gas have once again brought the issue to the forefront (The Telegraph, 2014). Most European countries are looking forward to the normalization of relations with Tehran, as evidenced most recently by UK’s plans to reopen its embassy in Tehran (Foreign & Commonwealth Office, 2014). With a treasury badly damaged by the international sanctions, Iran too would be most interested in selling its gas to Europe, arguably more so than selling to Pakistan (Forbes, 2014). While Iranian natural gas reserves, estimated to be the second largest in the world, constitute a viable alternative for Europe, accessing these reserves poses a challenge in the short term. Even if the ongoing negotiations between P5+1 and Iran ultimately succeed in lifting the sanctions on Iranian energy trade, Iran’s South Pars gas reserves require significant development and investment over the next decade. Once developed and rendered available for international trade, Iranian natural gas will likely be transported to Europe via the proposed Persian Pipeline (Iran-Europe pipeline) or possibly a re-animated Nabucco pipeline, both of which are projected to pass through Turkey. Recently discovered gas in the Eastern Mediterranean would also be a welcome addition to Europe’s energy portfolio yet given the disputes over maritime borders in the region (Eissler & Arasıl, 2014), the enduring Cyprus problem and the diminishing of hostilities between Turkey and Israel since the escalation of Turkey-Russia border spat on downing of latter’s Su-24 in Syria (in 2015), it is getting quite clear that Eastern Mediterranean gas may be available for European consumptionin a significant quantities in the future. Though, fingers are crossed.

Given the various political and economic limitations of bringing online the natural gas from Iraq, Iran and the East Mediterranean in the near term, the Caspian region—estimated to hold six per cent of the world’s proven reserves and well-endowed with foreign investment—currently appears to be the most politically and economically feasible option for European diversification strategy.

The Southern Gas Corridor linking Caspian reserves to European markets consists of several existing and projected pipelines. The Baku-Tbilisi-Erzurum (BTE) gas pipeline carries gas from Shah Deniz gas field in the Azerbaijani sector of the Caspian Sea to Turkey since late 2006. The current capacity of the pipeline is 8 bcma (billion cubic meters per annum) but with the completion of the phase II of the Shah Deniz project it can be scaled up to 25 bcma. BTE currently supplies Georgia and Turkey but it can be linked to other projects like the Trans-Anatolian Pipeline (TANAP) which will initially carry about 16 bcma of gas from Georgian-Turkish border to Turkish-European border. Depending on the gas flow, the capacity of the pipeline can later be increased up to 60 bcma.

There are several options to further transport the Caspian gas from Turkish territory to European markets. The primary existing route is the Turkey-Greece Inter-connector, which carries up to 12 bcma of natural gas. A key aspect of this project is the extension across Greece to Italy, which will carry Caspian gas deeper into Europe. A few additional routes to transport Caspian gas from Turkey to Europe have been considered. Nabucco West, the revised version of the defunct Nabucco project, was planned to start from the Turkish-Bulgarian border and transport gas from Shah Deniz Gas field phase II via Bulgaria, Romania, Hungary to Austria. Yet Shah Deniz Consortium partners rejected Nabucco West in 2013 and opted for the Trans-Adriatic Pipeline (TAP) instead. The main supply source of TAP will be the gas extracted from phase II of the Shah Deniz field, which will be carried through Turkish territory via BTE and TANAP. TAP is planned to start at Greece, cross Albania and the Adriatic to reach Italy.

Turkey thus sits at the intersection of the pipelines that constitute the Southern Gas Corridor. Turkey’s relevance to the EU’s energy policy with respect to Eastern Partnership, however, is not limited to Turkey’s fortunate geopolitical position. Secure and reliable access to Caspian hydrocarbon reserves requires not only a network of pipelines but also regional political stability and cooperation between supplier and transit states. Turkey, with its long-standing economic ties in the Caspian region can potentially act as an intermediary between the EU and the partner countries. Turkey has also been willing to contribute to the resolution of the several “frozen conflicts” throughout the region by acting as an interlocutor between the EU and other relevant parties.

Ankara has a standing policy of promoting interdependence among the three South Caucasus states in order to expand their trade and energy ties with Turkey. Georgia is not only a transit corridor of Azerbaijan’s gas, but also a major trade route for Turkish exports to Central Asia. Turkey also has considerable investments in Azerbaijan, Georgian and Abkhazian economies. Pending on the normalization of relations with Armenia and the opening of the Turkish-Armenian border, economic relations with Armenia also hold great promise for Turkey. Turkey can also help the EU in its capacity building efforts in the Caspian region. Turkish state-owned energy companies TPAO and BOTAS are partners in many pipeline projects in the region. Turkey has also recently shown a great deal of interest in investing in upstream development projects in the region. TPAO for instance signed in May 2014 a 1.5 billion USD deal to acquire French Total’s 10 per cent stake in Azerbaijan’s Shah Deniz project. In addition to Shah Deniz, TPAO owns shares in the two major fields in Azerbaijan, ACG (6.75 %) and Alov (9 %). Turkey has a strong presence on the ground and Turkish private sector accumulated expertise that is critical for secure and long-term cooperation.

Lastly, Turkey due to its historic ties to the region has considerable political capital in the Caspian, particularly in Azerbaijan, with which Turkey has sustained a very close relationship since its independence. Turkey also cooperated with the US in its efforts to help Georgia build a new state after independence. Given the difficulties that the EU has experienced in politically reaching out to its Caspian partners over the last decade, the EU can benefit from Turkey’s role as a regional interlocutor between Europe and the Caspian partners.

 

It is evident that the EU and Turkey can both benefit from extending their cooperation on regional energy issues. Despite the commonality of interests, however, EU-Turkey energy cooperation has so far failed to meet mutual expectations. The next section examines how the prevalence of national interests over communal ones and the opposing views on the Turkish and European sides regarding the political implications of energy partnership undermine the ability of these two actors to commit to a more extended form of energy cooperation.

About The Author:

Tolga Demiryol is assistant professor of Political Science in the School of Economics and Administrative Sciences at Istanbul Kemerburgaz University in Turkey. Tolga Demiryol received his Ph.D. in Political Science from the University of Virginia in 2010. Dr. Demiryol specializes in international political economy and security. His recent research focuses on the geopolitics of energy. 

Publication Details:

Baltic Journal of European Studies. Volume 4, Issue 2, Pages 50–68, ISSN (Online) 2228-0596, DOI: 10.2478/bjes-2014-0015, November 2014

This work is an abstract form of author’s original work, titled The Eastern Partnership and the EU-Turkey Energy Relations”which is licensed under Creative Commons 3.0

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US ‘Applying Pressure’ on Greece to Build Gas Link w/ Bulgaria

greek-americanUS diplomats are working in Greece to make sure the interconnector project between Athens and Sofia will be carried out, the Bulgarian National Radio has said.

“The interconnector with Bulgaria is a priority for Greece‘s energy policy as well,” BNR’s correspondent in Athens quotes Greek Energy Minister Skourletis as telling lawmakers in Parliament.

US energy envoy Amos Hochstein, who earlier this year visited Bulgaria, is in Greece on Wednesday and is set to meet Skourletis, in a trilateral meeting that is also to be attended by his Bulgarian counterpart Temenuzhka Petkova.

While visiting Bulgaria in January, US Secretary of State John Kerry asserted that the United States would put in effort to make sure the gas link project will be carried out and will be granted EU funding, for the sake of Bulgaria‘s energy diversification.

With early elections and the peak of the debt crisis in Greece this summer, alongside developments on the so-called “Turkish Stream” pipeline project, agreements on the Interconnector Greece-Bulgaria (IGB) were not signed in July as it was initially envisaged.

Bulgaria has been working for years to build interconnections with neighboring states, but the bilateral projects are either yet to begin or have come to a halt.

Once connected with Greece‘s energy system, Bulgaria will be able to receive gas from the Trans Adriatic Pipeline, which is set to carry gas from Azerbaijan via Turkey, Greece and Albania to Italy. 

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Albania Solar energy

With solar energy, we distinguish usually two conversion types:  solar thermal, solar PV (or photovoltaic solar energy)

In this study we are focusing more on solar thermal energy. Solar thermal energy is the process where solar radiation is converted into thermal energy. The most common system is the solar water heater system (SWHS). The water is heating by the sun through a collector, usually placed on the roof of the building. The warm water is stored in a tank or directly used to heat the house or preheat another boiler.

Principle of a Solar Water Heating System

Principle of a Solar Water Heating System

 

Sometimes a distinction is made between active systems (such as a SWHS) and passive systems. An example for a passive system is a greenhouse that captures solar radiation without any additional process.

Background

The Preskot model is used for the assessment of the territorial distribution of solar radiation. The model has been adapted to the climate conditions of Albania, taking into consideration the multi-annual series of solar radiation (Mustaqi and Sanxhaku 2006). The following factors are considered as crucial in the assessment of solar radiation:

  • The geographic location of the country, which defines the possible theoretic potentials of the solar energy, taken from the horizontal surface of the earth.
  • Topography (closely connected to the scale of horizon hided from natural barriers), which defines the practical possible potential of the solar energy taken from the earth horizontal surface.
  •  Baric systems (their occasionally and time duration), which define the characteristics of the cloudiness regime

It is very clear that the last two factors have the major impact in the identification of the solar energy characteristics. The influence of both factors is at the same direction, the decrease of solar radiation towards the inner part of the territory. Concretely, the heliographic measure spots (at the same time the inhabited areas) are located at the end of the valleys of the rivers. As a result the horizon is relatively closed to the mountainous slopes. It is evident that the solar radiation quantity measured in the station is smaller that the one taken on earth surface located in a plateau or locations of a relative height. On the other side, analyzing the cloudiness regime in the territory, it results that, an average of 5 degrees in the field areas and of 6-7 degrees in the mountainous areas. Consequently, the reduction of the solar radiation can also be noticed.

The reducing effect of topography factor can be avoided by recommending areas as plateaus in considerable heights, with an open horizon. Meanwhile, it is important to point out that the effect of causality and the duration of baric systems can not be avoided because of the stochastic character of the atmospheric phenomena. The result of these factors is the distribution in the territory of the annual solar radiation, as presented in the following maps (figure 15 and 16).

Potential

As it can be seen from this map, Albania has a considerable energy coming through the solar radiation. This quantity varies from 1200 kWh/m2 in the northeast part of the country (the area than receives the lowest quantity of the solar radiation) up to 1600 kWh/m2 in Myzeqe area, which is the area that has a considerable quantity of this energy kind (Hido 2006). The average of daily solar radiation can change from a minimum of 3.2 kWh/m2 in the Northeast (day in Kukes) up to a maximum of 4.6 kWh/m2 in the South-Western (day in Fier). Therefore, Albania has an average of daily solar radiation of 4.1 kWh/m2, which can be considered as a good solar energy regime.

Figure 15 Territorial distribution of average daily solar radiation in Albania

Figure 15 Territorial distribution of average daily solar radiation in Albania

Figure 16 Territorial distribution of average quantity of sunshine hours in Albania

Figure 16 Territorial distribution of average quantity of sunshine hours in Albania

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Most areas of Albania benefit more than 2200 hours of sunshine per year, while the average for the whole country is about 2400 hours. The Western part receives more than 2500 hours of sunshine per year. Fier has a record of 2850 hours. The number of the solar days in Albania has an average of 240 – 260 days annually with a maximum of 280 – 300 days annually in the South-Western part. The potential of solar thermal is not merely determined by irradiation characteristics (which positively considered in Albania) but also by availability of roof space and orientation and inclination of the roof, the collector and storage as well (Ecofys BV2006). More detail for some cities you will find on Annex B.

Installed capacity

The penetration of solar panel systems are used for thermal power production during the last decade increased from 0 to 23 GWh in 2001. Nevertheless, based on the surveys of National Agency of Energy (NAE), the number of the installed solar panels in 2003 is increased with 35% compared to 2002. In absolute values, the number of solar panels installed in 2003 was 2800 units, while in 2005 it is expected to go beyond 4000 units (MIE and NAE 2004).

Energy Efficiency Centre (EEC) has designed and implemented in kindergartens and schools three projects funded by EU in 2002-2003. The investment amount has been around 85000 EUR installing more than 200 m2 of solar panels. Based on the assistance of UNDP during 2003, an amount of 160 m2 of solar panels has been installed. The total of the investment reached 70000 USD (EEC 2002).

Nehemia Foundation, has installed 168 m2 solar panels and a contemporary heating systems in three schools of Pogradec with a beneficiary number of 650 students. In the framework of this project 28 m2 photovoltaic systems have been installed aiming to supply the computers and lightening system when power cuts.

Another significant project in the area of solar panels is currently under implementation. Global Environment Facility (GEF) through UNDP is supporting the Government of Albania to accelerate the market development of SWHS as one of the measures to reduce the growing electricity consumption and disparity between demand and the domestic power generation capacity. This country program aims at accelerating the market development of solar water heating. It is expected that the end of the projects meets the following: the installation of 75,000 m2 of new installed collector area, an annual sale of 20,000 m2 and with expected continuing

growth to reach the set target of 540,000 m2 of total installed SWH capacity by 2020 (UNDP 2005). The project is financed partly by GEF through UNDP, and Government of Albania as well as from other donors and private sector.

If Albania would develop the solar panels at similar level of Greece, the potential production of warm water would be equivalent to the energy production of 360 GWh thermo (or 75 MW thermo of the installed power). These amounts correspond to a total surface of 300,000 m2 (or 0.3 m2/family. The penetration in such countries as Israel, Greece, Turkey is actually over 0.45 m2/familje), which can be taken as a potential indicator for Albania for the coming 20 years.

Characteristic features for Albania

Figure 17 Daily average solar irradiation in some European countries.

Figure 17 Daily average solar irradiation in some European countries.

The position of Albania, which has a Mediterranean climate, generates favourable conditions for a sustainable development of the solar energy. The high intensity of solar radiation, its relatively long duration, the temperature and the air moisture are exactly the elements that contribute to this effect. The Mediterranean climate with a soft and wet winter and a hot and dry summer enables Albania to have higher potentials in solar energy use than the average of the European countries.