Blog Archive

Thursday, April 29, 2010

Gama'nın rüzgar santrali için kredi imzaları atıldı

İSTANBUL - Türkiye Sınai Kalkınma Bankası (TSKB), Gama Enerji A.Ş'nin sahibi olduğu Garet Enerji Üretim ve Ticaret A.Ş. tarafından hayata geçirilecek 2 yeni rüzgar santrali için 44 milyon euro tutarında finansman sağladı.

Çanakkale Ezine'de kurulacak olan 9 türbinli 22,5 megavatlık kurulu güce sahip Sares RES santralinden 85.1 milyon kilovatsaat elektrik üretilmesi planlanıyor.

İzmir Aliağa'da kurulacak diğer santral olan 4 türbinli 10 megavatlık Karadağ RES'den ise 29,4 milyon kilovatsaat elektrik üretilecek. Sares'in işletmeye başlama tarihi 2010 sonu, Karadağ'ın ise 2011 yılının ilk çeyreği olarak öngörülüyor.

TSKB Genel Müdürü Halil Eroğlu, kredinin imza töreninde yaptığı konuşmada, banka olarak yenilenebilir enerji konusunda 200 projeyi değerlendirdiklerini bunların içinden bugüne kadar 83 adet yenilenebilir enerji projesini finanse ettiklerini söyledi.

Bu projelerin toplam finansman tutarının 4,1 milyar dolar olduğunu ifade eden Eroğlu, banka olarak bunun 1,3 milyar dolarını finanse ettiklerini belirtti. Eroğlu, "Projeler devreye girdiğinde Türkiye'nin karbondioksit salınımını yüzde 1 azaltmış olacağız" dedi.

Konuşmasının ardından soruları da yanıtlayan Eroğlu, projenin 2 yıl ödemesiz 11 yıl vadesi olduğunu kaydetti.

Başka bir soruya karşılık da Eroğlu enerji meselesinin moda haline geldiğinin doğru olduğunu belirterek, şunları ifade etti:

"Bu konuda ciddi bir talep olduğu da doğru. O nedenle her firmaya kredi verilmesinin de çok doğru olmayacağı açık. Bu krediler uzun vadeli ve bu kredileri verdiğimiz zaman aynı zamanda firmalardan bir de özkaynak istiyoruz. Firmanın mali bünyesi sağlam değilse, o öz kaynağı getiremeyecekse o zaman bir sorun olarak karşımıza çıkıyor. Ama Türkiye'de özellikle enerji konusundaki yatırımlar çok sağlam ve sağlıklı. Çünkü verdiğiniz paranın nereye harcandığını çok somut olarak görüyorsunuz. Artı Türkiye'nin buna olan ihtiyacı da çok açık."

Eroğlu, enerjinin Türkiye'de tekstilde olduğu gibi bu işi yapanla yapamayanın ayrıştırılamayacağı bir sektör olmadığını, enerjide yapabilenlerin çok kolay ayrıştırılacağını ve konsolide olarak yukarıda kalacağını, Türkiye'de enerji sektöründe olsa olsa konsolidasyondan başka herhangi bir sıkıntı görmediğini kaydetti.

Güneş enerjisinde ciddi potansiyeli var

Gama Enerji Genel Müdürü M. Arif Özozan da halihazırda 2 bin 300 megavat operasyonel portföyleri bulunduğunu, bunu 4 binler seviyesine çıkarmayı düşündüklerini belirtti.

Özozan, "Toplam tutarı 75 milyon dolar olması beklenen bu iki proje, TSKB'nin düzenleyip koordine ettiği finansmanla yapılacaktır" dedi.

Sorular üzerine de Özozan, enerji projelerine yatırım yapma konusunda piyasada bir moda olduğunu, fakat uzun vadeli yatırımlara giren firmaların bu sektörde çok daha sağlam bir konuma geleceğini düşündüklerini, moda olarak giren firmaların yavaş yavaş piyasadan çekileceğini söyledi.

Türkiye'nin ciddi güneş enerjisi üretimi potansiyeli bulunduğunu, bunu çok kişinin şu an için göz ardı ettiğini ifade eden Özozan, "AB'de verilen teşvikler Türkiye ile karşılaştırıldığında ciddi fark var. Teşvikler konusunda biraz daha gerideyiz. Hükümet bu konuda çalışmalar yapıyor. Biz de yeni kanunu bekliyoruz. Güneşle ilgili şu andaki 5,5 euro cent verilen teşvik güneş santrali kurmak için çok yetersiz. Almanya'da bu rakam 39 ile 50 euro cent arasında kilovatsaat başına. Bulgaristan'da 40 euro cent civarında, İtalya'da 40 küsürler civarında bir devlet teşviki var. Günümüzün teşvikleri bu yatırımı hayata geçirmeyi imkansız kılıyor" diye konuştu.

2013'ten itibaren enerji açığının tekrar gündeme geleceğini vurgulayan Özozan, o nedenle mantıklı yatırımlarla atılan politikalarla bu yerin bir an önce doldurulması gerektiğini kaydetti.

Halka arzı düşünüp düşünmediklerine ilişkin olarak da Özozan, "Halka arz, bir gün düşünme ihtimali olan projelerimizden fakat şu anda gündemimizde yok" dedi.


Kaynak: http://www.dunyagazetesi.com.tr/gamanin-ruzgar-santrali-icin-kredi-imzalari-atildi_85932_haber.html?

Alman EnBW, Türkiye yatırımlarını artırmak istiyor

BERLİN - Almanya'nın üçüncü büyük enerji şirketi olan EnBW, Türkiye'de yatırımlarını artırmak istiyor.

EnBW şirketinin Başkanı Hans-Peter Villis, Karlsruhe kentinde düzenlenen şirketin genel kurulunda yaptığı konuşmada, Türkiye'de rüzgar enerjisi projesinden sonra, yıl sonuna kadar bir hidroelektrik santrali yapılmasının da planlandığını söyledi.

Bu projelerin Türk ortak Borusan Holding ile gerçekleştirilmekte olduğunu belirten Villis, yenilenebilir enerji projeleri dahil olmak üzere Türkiye'deki yatırımlarını artıracaklarını kaydetti.

Dünyada yaşanan mali ve ekonomik kriz nedeni ile geçen yıl şirketin cirosunun 15,56 milyar euroya gerilediği, bu yılın ilk çeyreğinde ise şirketin, özellikle ortaklığı bulunan Saksonya eyaletindeki GESO Holding'in satılması nedeniyle iyi bir sonuç beklediği bildirildi.

Kaynak: http://www.dunyagazetesi.com.tr/alman-enbw-turkiye-yatirimlarini-artirmak-istiyor_85938_haber.html?

Sunday, April 25, 2010

ICCI 12-13-14 Mayıs 2010 Istanbul da

ICCI 12-13-14 Mayıs 2010 Tarihlerinde WOW Convention Center'da


1994 yılından itibaren başarıyla düzenlenmekte olan ve enerji sektöründe konuyla ilgili yaklaşık 5000 yerli ve yabancı katılımcı tarafından düzenli olarak takip edilen ICCI Fuar ve Konferansı'nın 16.'sı geliştirilmiş konu içeriği ile Enerji ve çevre Fuarı ve Konferansı adı altında 12-13-14 Mayıs 2010, tarihlerinde Türkiye'nin ekonomi ve sanayi başkenti İstanbul'da, konum ve kapasite açısından Türkiye'nin en avantajlı mekanlarından biri olan WOW Convention Center' da gerçekleştirilecektir.

Enerji ve Tabii Kaynaklar Bakanlığı ve çevre ve Orman Bakanlığı'nın yanı sıra, Türkiye Kojenerasyon Derneği, Elektrik üreticileri Derneği (EüD), Rüzgar Enerjisi Santralleri Yatırımcıları Derneği (RESYAD), Hidroelektrik Santralleri Sanayi İşadamları Derneği (HESİAD), Bölgesel çevre Merkezi, ASME ve Cogen Europe gibi enerji sektörünün en önemli dernekleri, destekleriyle ICCI 2010'da yer alacaklardır.

ICCI 2009 Fuar ve Konferansında, dünya enerji sektörü ile ülkemiz enerji sektörüne genel bakış çerçevesinde, Enerjide liberalleşme ve yeniden yapılanma, talep ve arz projeksiyonları, AB Enerji politikaları gibi konuların yanı sıra; Kojenerasyon, Yüksek Verimli Enerji üretim Teknolojileri, Enerji Tesis İşletmeciliği, Yenilenebilir Enerji, Atık Yönetimi, Geri Dönüşüm Sistemleri, çevre Teknolojileri gibi teknik konulara da hem ulusal hem de uluslararası ölçekte yer verilecektir.

Her geçen yıl daha yüksek bir katılım ve başarı ile gerçekleşmekte olan Fuarımızın ve Konferansımızın 16. yılında da buluşabilmek dileğiyle...

Friday, April 23, 2010

Give Europe a breath of fresh air

WIND: 50% of EU Electricity in 2050

Wind Barriers

Commissioner addresses EWEC 2010

Çin, rüzgar enerjisi üretiminde dünyada ikincisi

Çin’in, geçen yıl rüzgar enerjisi üretiminde Almanya’yı geçerek, ABD’nin ardından dünyada ikinci sıraya yükseldiği bildirildi.
Dünyada rüzgar enerjisi istasyonları yapan ve işleten şirketlerin kurduğu Küresel Rüzgar Enerjisi Konseyi, rüzgar enerjisindeki hızlı atılımıyla Çin’in geçen yıl 25.8 gigawatts toplam enerji üretimine eriştiğini, 25.77 gigawatts rüzgar enerjisi üreten Almanya’yı geçerek ikinci sıraya çıktığını belirtti.
Konsey, Çin’in rüzgar enerjisi üretiminde zamanla ABD’yi de geçerek, 2020’ye kadar rüzgar tribünlerinden 150 gigawatts enerji üretme hedefini aşmasının beklendiğini kaydetti.

EWEC participants pass judgement

Wednesday, April 21, 2010

Wind energy employment in Europe

19 de abril de 2010
Wind power companies in the European Union currently employ around 102,100 people. Over the past five years, the EU wind energy industry has created more than 60,000 new jobs.



The EU wind energy sector directly employed approximately 108,600 people in 2007. Including indirect employment, the wind energy sector employs 154,000 in the EU. A previous EWEA study on EU-15 employment found that wind energy directly employed 48,363 people in 2002.

Direct employment has increased by 60,237 (125%) since then. On average, 12,047 new direct wind energy jobs have been created per year in the five-year period 2002-2007. In other words, 33 new people have been employed every day, seven days a week in the wind energy sector over the past fi ve years.

For the purposes of this report, direct jobs relate to employment in wind turbine manufacturing companies and with sub-contractors whose main activity is supplying wind turbine components. Also included are wind energy promoters, utilities selling electricity from wind energy and major R&D, engineering and specialised wind energy services.

Any companies producing intermediates or components, providing services or sporadically working in wind-related activities are deemed to provide indirect employment.

Country -No. of direct jobs
Austria 700
Belgium 2,000
Bulgaria 100
Czech Republic 100
Denmark 17,000
Finland 800
France 7,000
Germany 38,000
Greece 1,800
Hungary 100
Ireland 1,500
Italy 2,500
The Netherlands 2,000
Poland 800
Portugal 800
Spain 20,500
Sweden 2,000
United Kingdom 4,000
Rest of EU 400
TOTAL 102,100

SOURCE: EWEA, ADEME, AEE, DWIA, Federal Ministry of the Environment in Germany.

The addition of indirect and induced employment affects results significantly. The European Commission, in its EC Impact Assessment on the Renewable Energy Roadmap, found that 150,000 jobs were linked to wind energy. The European Renewable Energy Council report foresees a workforce of 184,000 people in 2010, but the installed capacity for that year has probably been underestimated. Accordingly, the figure for total direct and indirect jobs is estimated at approximately 180,000 jobs.

These two figures of 102,100 direct and 180,000 total jobs can be compared with the results obtained by EWEA in its previous survey for Wind Energy–The Facts (2004) of 46,000 and 72,275 workers, respectively. The growth experienced (213% and 249%) is coherent with the evolution of the installed capacity in Europe (276%) during the same period and with the fact that most of the largest wind energy companies are European.

A significant part of the direct wind energy employment (circa 74%) is in three countries: Denmark, Germany and Spain, whose combined installed capacity adds up to 70% of the total in the EU. Nevertheless, the sector is less concentrated now than it was in 2003, when these three countries accounted for 89% of the employment and 84% of the EU installed capacity. This is due to the opening of manufacturing and operation centres in emerging markets and to the local nature of many wind-related activities, such as promotion, O&M, engineering and legal services.

Germany is the country where most wind-related jobs have been created, around 38,000 directly attributable to wind energy companies and a slightly higher amount from indirect effects. According to this source, in 2007, over 80% of the value chain in the German wind energy sector was exported.

In Spain, direct employment is slightly over 20,781 people. When indirect jobs are taken into account, the figure goes up to 37,730. According to the AEE, 30% of the jobs are in manufacturing companies; 34% in installation, O&M and repair companies, 27% in promotion and engineering companies and 9% in other branches.

Denmark has around 17,000 employees in wind turbine and blade manufacturing and major sub-component corporations . When indirect jobs are taken into account, the number goes up to 23,500.

The launch of new wind energy markets has fostered the creation of employment in other EU countries. Factors such as market size, proximity to one of the three traditional leaders, national regulation and labour costs determine the industry structure, but the effect is always positive.

France (2,454 MW, 888 MW added in 2007, and an estimated figure of 7,000 wind energy jobs), for instance, shows a wealth of small developers, consultants, engineering and legal service companies. All the large wind energy manufacturers, developers and some utilities have opened up a branch in this country. France also counts on several wind turbine and component manufacturers producing in its territory.

In the UK, the importance of offshore wind energy and small-scale wind turbines is reflected by the existence of many job-creating businesses in this area. This country also has some of the most prestigious wind energy engineering and consultancy companies. The British Wind Energy Association is conducting a study of present and future wind energy employment; preliminary results point to the existence of around 4,000 to 4,500 direct jobs.

A third example can be found in Portugal, where the growth of the market initially relied on imported wind turbines. From 2009 onwards, two new factories will be opened, adding around 2,000 new jobs to the 800 that already exist.

Some other EU Member States such as Italy, Greece, Belgium, the Netherlands, Ireland and Sweden are also in the 1,500 to 2,500 band. The situation in the new Member States is diverse, with Poland in a leading position. Wind energy employment will probably rise significantly in the next three to five years, boosted by a combination of market attractiveness, a highly skilled labour force and lower production costs.

In terms of gender, the survey conducted by EWEA shows that males make up 78% of the workforce. In the EU labour market, the percentage is 55.7%. Such a bias reflects the traditional predominance of men in production chains, construction work and engineering.

By type of company, wind turbine and component manufacturers account for most of the jobs (59%). Within these categories, companies tend to be bigger and thus employ more people.

Wind energy figures can be measured against the statistics provided by Eurostat. The energy sector employs 2.69 million people, accounting for 1.4% of total EU employment. Approximately half this amount is active in the production of electricity, gas, steam and hot water. Employment from the wind energy sector would then make up around 7.3% of that amount; and it should be noted wind energy currently meets 3.7% of EU electricity demand. Although the lack of specific data for electricity production prevents us from making more accurate comparisons, this shows that wind energy is more labour intensive than the other electricity generating technologies. This conclusion is consistent with earlier research.

Finally, there is a well documented trend of energy employment decline in Europe, particularly marked in the coal sector. For instance, British coal production and employment have dropped significantly, from 229,000 workers in 1981 to 5,500 in 2006. In Germany, it is estimated that jobs in the sector will drop from 265,000 in 1991 to less than 80,000 in 2020. In EU countries, more than 150,000 utility and gas industry jobs disappeared in the second half of the 1990s and it is estimated that another 200,000 jobs wll be lost during the first half of the 21st century (UNEP, ILO, ITUC, 2007). The outcomes set out in the previous paragraphs demonstrates that job losses in the European energy sector are independent of renewable energy deployment and that the renewable energy sector is, in fact, helping to mitigate these negative effects in the power sector.
Job profiles of the wind energy industry

The lack of any official classification of wind energy companies makes it difficult to categorise wind energy jobs. The table below summarises the main profiles required by wind energy industries, according to the nature of their core business.

In the last two to three years, wind energy companies have repeatedly reported a serious shortage of workers, especially within certain fields. This scarcity coincides with a general expansion of the European economy, where growth rates have been among the largest since the end of the Second World War. An analysis of Eurostat statistics proves that job vacancies have been difficult to cover in all sectors. The rotation of workers is high, both for skilled and non-skilled workers.

In the case of wind energy, the general pressure provoked by strong economic growth is complemented by the extraordinary performance of the sector since the end of the 1990s. In the 2000-2007 period, wind energy installations in the EU increased by 339%. This has prompted an increase in job offers in all the sub-sectors, especially in manufacturing, maintenance and development activities.

Generally speaking, the shortage is more acute for positions that require a high degree of experience and responsibility:

* From a manufacturer’s point of view, two major bottlenecks arise: one relates to engineers dealing with R&D, product design and the manufacturing processes; the other to O&M and site management activities (technical staff).
* In turn, wind energy promoters lack project managers; the professionals responsible for getting the permits in the country where a wind farm is going to be installed. These positions require a combination of specific knowledge of the country, as well as wind energy expertise, which is difficult to gain in a short period of time.
* Other profiles, such as financiers or sales managers can sometimes be hard to find, but generally this is less of a problem for wind energy companies, possibly because the necessary qualifications are more general.
* The picture for the R&D institutes is not clear: of the two consulted one reported no problems, while the other complained that it was impossible to hire experienced researchers. It is worth noting that the remuneration offered by R&D centres, especially if they are governmental or university-related, is below the levels offered by private companies.

The quality of the university system does not seem to be at the root of the problem, although recently graduated students often need an additional specialisation that is given by the wind company itself. The general view is that the number of engineers graduating from European universities on an annual basis does not meet the needs of modern economies, which rely heavily on manufacturing, technological sectors and products.

In contrast, there seems to be a gap in the secondary level of education, where the range and quality of courses dealing with wind-related activities (mainly O&M, health and safety, logistics and site management) are inadequate. Policies aimed at improving the educational programmes at pre-university level - dissemination campaigns, measures to encourage worker mobility and vocational training for the unemployed - can help overcome the bottleneck, and at the same time ease the transition of staff moving from declining sectors.

Employment prediction and methodology

The quantification of wind energy employment is a difficult task for several reasons. Firstly, it encompasses many company profiles, such as equipment manufacturing, electricity generation, consulting services, finance and insurance, which belong to different economic sectors. Secondly, we cannot rely on any existing statistics to estimate wind energy figures, as they do not distinguish between electricity or equipment manufacturing branches. Finally, the structure of the sector changes fast and historical data cannot be easily updated to reflect the current situation.

For these reasons, measurement initiatives must rely on a number of methodologies which, can largely be grouped under two headings:

* Data collection based on surveys and complemented by other written evidence
* Data collection based on estimated relationships between sectors, vectors of activity and input-output tables

Surveys are the best way to collect information on direct employment, especially when additional aspects - gender issues, employment profiles, length of contracts and other qualitative information - need to be incorporated. Surveys have significant limitations, notably the correct identification of the units that need to be studied and the low percentage of responses. When these problems arise, results need to be extrapolated and completed by other means.

Estimated relationships, including input-output tables, can be used to estimate both direct and indirect employment impacts. These models require some initial information, collected by means of a questionnaire and/or expert interviews, but then work on the basis of technical coefficients. The advantages of estimated models are based on the fact that they reflect net economic changes in the sector that is being studied, other related economic sectors and the whole of the economic system.

These models also constitute the basis for the formulation of forecasts. The disadvantages relate to the cost of carrying out such studies, and the need to obtain an appropriate model. In addition, they do not provide any details at sub-sector level and do not capture gender-related, qualification and shortage issues.

In the last six or seven years, coinciding with the boom of the wind energy sector, several studies have been conducted with the related employment repercussions.

A careful revision of their methodology shows that many of them are, in reality, a meta-analysis (that is to say, a critical re-examination and comparison of earlier works), while research based on questionnaires and/or I-O tables is less common. Denmark, Germany and Spain, being the three world leaders in wind energy production and installation, display solid studies (AEE, 2007; DWIA, 2008; Lehr et al, 2008 and Federal Ministry of the Environment, BMU 2008), but the employment in the other EU markets remains largely unknown. In particular, there is a lack of information on some key features affecting the wind energy labour market, such as the profiles that are currently in demand, shortage and gender issues. These issues can best be dealt through ad hoc questionnaires sent to wind energy companies.

EWEA survey on direct employment

As a response to the gaps mentioned above, EWEA has sought to quantify the number of people directly employed by the wind energy sector in Europe by means of a questionnaire. As explained in Wind energy employment in Europe, direct jobs relate to employment within wind turbine manufacturing companies and sub-contractors whose main activity is the supply of wind turbine components. Also taken into account are wind energy promoters, utilities selling electricity from wind energy and major R&D, engineering and specialised wind energy services. Any other company producing intermediates, components, providing services or sporadically working in wind-related activities is deemed as providing indirect employment.

The analysts have attempted to minimise the main disadvantages linked to this type of methodology. Consequently, the questionnaire was drafted after careful analysis of previous research in this field, notably the questionnaires that had been used in the German, Danish and Spanish studies, and following a discussion with the researchers responsible for them. A draft was sent to a reduced number of respondents, who then commented on any difficulties understanding the questions and using the Excel spreadsheet, the length of the questionnaire and some other aspects. The document was modified accordingly.

The final version of the questionnaire was dispatched by e-mail on 19 February 2008 to around 1,100 organisations in 30 countries (the 27-EU Member States plus Croatia, Norway and Turkey). It reached all EWEA members and the members of the EU-27 national wind energy associations. The questionnaire was also distributed among participants of the last two European Wind Energy Conferences (EWEC 2006 and 2007). These included:

* wind turbine and component manufacturers;
* developers;
* independent power producers and utilities;
* installation, repair and O&M companies;
* consultancies;
* engineering and legal services;
* R&D centres;
* laboratories and universities;
* financial institutions and insurers;
* wind energy agencies and associations, and
* other interest groups directly involved in wind energy matters.

The document was translated into five EU languages (English, French, German, Spanish and Portuguese), and a number of national wind energy associations decided to write the introductory letter in their own languages. A reminder was sent out on 11 March, followed up by telephone calls during April, May, June, July and August.

The questionnaire consisted of 14 questions, divided into three blocks:

* The first four questions collected information on the profile of the company, its field of activity and the year in which it started operating in the wind energy sector.
* The next three questions aimed to obtain relevant employment figures. The questionnaire requested both the total number of employees and the number of employees in the wind energy sector, and gave some indication about how to calculate the second figure when a worker was not devoted to wind-related activities full time. The figures were divided up by country, since some companies are trans-national, and by sex. It would have been interesting to classify this data by age and level of qualification, but the draft sent to a sample of respondents showed us that this level of detail would be very difficult to obtain and that it would have had a negative impact on the number of replies.
* The final four questions addressed the issue of labour force scarcity in the wind energy sector, and aimed to obtain information on the profiles that are in short supply and the prospects of wind energy companies in terms of future employment levels and profiles. Questions 9 and 10 were more speculative since it is difficult to quantify the exact employment demands in the next five years, but they gave an order of magnitude that could then be compared with the quantitative approaches used by other researchers that applied input-output tables.

The questionnaire was complemented by in-depth interviews with a selection of stakeholders that suitably reflected the main wind energy sub-sectors and EU countries. The interviews were carried out by phone, e-mail or face-to-face. They were aimed at verifying the data obtained from the questionnaires and at addressing some of the topics that could not be dealt with, notably a more thorough explanation of the job profiles demanded by the industry and the scarcity problem.

By the end of August 2008, 324 valid questionnaires had been received, implying a rate of responses of around 30%. When looking at the size of the companies that replied, it is clear that most large turbine and component manufacturers, as well as the major utilities answered the questionnaire, implying that the percentage of jobs they reported was higher (around 60%) than suggested by the analysis by number of replies.

EWEA is engaged in an in-depth examination of the factors that are behind the repeatedly reported shortage of workers in the wind energy business and the profiles that are particularly difficult to find. This has been done through in-depth interviews (conducted face-to-face, by e-mail and by phone) with the Human Resources managers of a selection of wind energy companies from the different branches and geographical areas.


REpower is expanding its product range for less windy locations

REpower Systems AG (WKN 617703) will present two new variants of their 3.XM wind turbines series for less windy locations at the European Wind Energy Conference and Exhibition (EWEC).

REpower 3.4M104 with a rotor diameter of 104 m and REpower 3.2M114 with a rotor diameter of 114 m to be presented at the EWEC. 3.4M for the first time with hybrid tower and a hub height of 128 m. 3.2M with a larger rotor for a higher energy yield.

REpower Systems AG (WKN 617703) will present two new variants of their 3.XM series for less windy locations at the European Wind Energy Conference and Exhibition (EWEC). In this connection, the 3.XM wind turbines series will, with immediate effect, be differentiated into two wind turbine types. The REpower 3.4M104 with a rotor diameter of 104 m relates to the 3.XM series turbine type, which was introduced back in 2008; it is now available in three different hub heights. The wind power turbine manufacturer from Hamburg has announced that it will start selling the second variant, the 3.2M114 with a rotor diameter of 114 m, in fall 2010.

REpower will present the new turbine types for the first time to the public at the most important European event for the sector, namely the EWEC, which this year is being held in Warsaw, Poland. The REpower 3.4M104 has a rated output of 3.4 megawatts (MW) and a rotor diameter of 104 m. A 128 m hybrid tower made from concrete and steel is now also available in addition to the two steel tower variants with hub heights of between 96.5 m and 100 m as well as between 78 m and 80 m respectively. The turbine can thus now also be optimally used at locations with lower wind speeds as well as on hilly terrain or in forested areas.

The newest turbine of the 3.XM series is also designed for use in less windy locations in inland areas: namely the REpower 3.2M114. The turbine with a rated output of 3.2 MW and a rotor diameter of 114 m is set to be launched on the German market in fall 2010. The erection of a prototype is planned for 2011. The 3.2M114 can increase the energy yield at less windy locations, in comparison to the 3.4M104, by up to 10%, due to its rotor area of over 10,000 sq. m. The RE 55.8, a rotor blade specially developed by REpower Systems AG, is used in this connection. The 3.2M114 is initially to be offered with a steel tower and a hub height of 93 m, additional variants are planned for the future.

Matthias Schubert is responsible, as the CTO, for the research and development work of the company. He emphasizes the following: “We are expanding our product range with the new turbine types in the 3.XM series. Both the 3.4M104 with hybrid tower variant and high hub heights as well as the new 3.2M114 with its 114 m rotor diameter are optimally suited for less wind farm windy locations. With these turbines, we are building on tried-and-tested REpower technology, which has already proven itself in the previous 3.XM wind turbines.”

On Tuesday 20 April this year’s EWEC, annual Wind Energy Conference and Exhibition of the European Wind Energy Association (EWEA) will open in Warsaw, Poland.

On about 5000 square meters exhibition area over 250 manufacturers, suppliers and associations present themselves to over 7,000 visitors who are accredited for the event.
Parallel to the exhibition in the Warsaw International Expocenter a conference takes place, at which industry leaders discuss current topics of the wind industry.

REpower Systems AG has a booth in hall 3 on stand 3310 and will be informing the visitors about product novelties of the company.


REpower to supply 44 wind turbines to Turkey for the first time

Hamburg, April 20, 2010.

REpower Systems AG (WKN 617703) has concluded a contract with Al Yel Elektrik, a subsidiary of Akuo Energy SAS, for the delivery of 44 wind turbines for a Turkish project. The turbines of the REpower 3.XM series, of which each one has a rated power of 3.37 megawatts (MW) and a hub height of 80 meters, are destined for the Geycek wind farm in Kirsehir province East of Ankara. This is the first time the Hamburg-based manufacturer of wind turbines supplies turbines to Turkey. REpower will subsequently be in charge of service and maintenance for the turbines over the first 12 years of operation.

The wind turbines are set to be delivered in summer 2011 and to be commissioned in the subsequent months. With 44 turbines and a total generating capacity of 148.28 MW, Geycek is REpower’s biggest wind farm in Europe to date. It is as well the largest project so far to be fitted with turbines of the 3.XM series. The contract is subject to conditions precedent.

Per Hornung Pedersen, CEO of REpower Systems AG, regards the conclusion of the contract as the first step for further potential projects on the Turkish market. “Turkey is a wind market with huge potential – experts are speaking of volumes of up to 20,000 MW – which has however barely been tapped so far. Turbines with a generating capacity of almost 1,000 MW are already in operation there. In addition, the Turkish Government has announced that it is going to revise the procedures for granting licenses and the remuneration system for renewable energies in 2010. We have outstanding products in the 3.XM series and are happy that customer confidence in the latest generation of turbines is being confirmed by larger and larger orders and projects”, he says.

Eric Scotto, CEO of Akuo Energy, adds: “We are very proud to announce the beginning of the construction of our largest wind farm in Turkey. This project will be one of the largest in Europe; this is a good start for us in a very promising country for the wind industry and the renewable energies, where we are established since 2005.”

REpower liefert erstmals 44 Windenergieanlagen in die Türkei

Hamburg, 20. April 2010. Die REpower Systems AG (WKN 617703) hat mit Al Yel Elektrik, einer Tochtergesellschaft von Akuo Energy SAS, einen Vertrag über die Lieferung von 44 Windenergieanlagen für ein türkisches Projekt abgeschlossen. Die Turbinen der Baureihe REpower 3.XM mit je 3,37 Megawatt (MW) Nennleistung und 80 Metern Nabenhöhe sind für den Windpark Geycek, in der Provinz Kirsehir östlich von Ankara, bestimmt. Damit liefert der Hamburger Windenergieanlagenhersteller erstmals Anlagen in die Türkei. REpower wird in den ersten zwölf Jahren des Betriebs auch für Service und Wartung der Turbinen verantwortlich sein.

Die Windenergieanlagen sollen im Sommer 2011 geliefert und in den darauf folgenden Monaten in Betrieb genommen werden. Mit 44 Turbinen und einer Gesamtleistung von 148,28 MW ist Geycek der bisher größte Windpark REpowers in Europa und zudem das bisher umfangreichste Projekt, das mit Anlagen der Baureihe 3.XM bestückt wird. Der Vertrag steht unter aufschiebenden Bedingungen.

Per Hornung Pedersen, Vorstandsvorsitzender der REpower Systems AG, sieht den Vertragsabschluss als ersten Schritt für mögliche weitere Projekte auf dem türkischen Markt: „Die Türkei ist ein Windmarkt mit großem Potenzial – Experten sprechen von bis zu 20.000 MW – das allerdings bisher kaum erschlossen ist. Zurzeit sind dort Anlagen mit einer Leistung von knapp 1.000 MW im Betrieb. Außerdem hat die türkische Regierung angekündigt, die Verfahren zur Lizenzvergabe und das Vergütungssystem für Erneuerbare Energien 2010 zu überarbeiten.“ Er ergänzt: „Wir haben mit der 3.XM Baureihe hervorragende Produkte und freuen uns, dass das Vertrauen der Kunden in diese neueste Anlagengeneration durch immer größere Aufträge und Projekte bestätigt wird.“

Eric Scotto, CEO von Akuo Energy, ergänzt: „Wir sind stolz, den Baubeginn unseres größten Windparks in der Türkei anzukündigen. Dieses Projekt wird eines unserer größten in Europa sein; das ist ein guter Start für uns in einem sehr vielversprechenden Markt für die Windindustrie und die Erneuerbaren Energien, in dem wir seit 2005 vertreten sind.“

Durch Unterstützung des potentiellen Investitionsprojektes heißt die Agentur für Wirtschafts- und Investitionsförderung der Türkei (ISPAT) REpower als neuen Akteur innerhalb der türkischen Windenergiebranche willkommen.

Saturday, April 17, 2010

Rüzgar Enerjisi Santrali faaliyete geçti

Rüzgar Enerjisi Santrali faaliyete geçti

Edirne'nin Enez ilçesinde kurulan Enez Rüzgar Enerjisi Santrali faaliyete geçti.

Enez Rüzgar Enerjisi Santrali faaliyete geçti

Edirne'nin Enez ilçesinde kurulan Enez Rüzgar Enerjisi Santrali faaliyete geçti.

TREDAŞ Keşan İşletme Müdürü Mustafa Serbes, yaptığı açıklamada, santralde oluşan enerjinin Keşan'da toplanmaya başladığını belirterek, "Toplanan enerjiyle bölgenin elektrik problemi büyük ölçüde çözüme kavuşacak. Yılda 60 milyon kilowatt saatlik bir üretim yapılacak. Santral sayesinde çevreye zarar vermeden, hemen hemen sıfır maliyetle elektrik üretilecek." dedi.

Kaynak: http://www.denizhaber.com.tr/enerji/25990/enez-ruzgar-enerji-santrali-tredas-kesan-isletme-maliyet-elektrik-saros-korfezi.html

Friday, April 9, 2010

Global Wind Turbine Market

Wind power generation has been growing at a healthy average globally over the last few years, triggered by the fact that more and more countries are realizing the value of wind energy as a low cost and clean source.

This has helped create major new business opportunities for manufacturing and materials innovation in this sector. Driving the wind turbines industry forward is political action in response to climate change. The outcome of the COP-15 meeting in Copenhagen in December this year will be crucial and could result in a significant stimulus for the industry.

For the last ten years worldwide wind turbine sales have grown approximately 29% annually and wind power is now the world's fastest growing source of energy. For the next twenty years it is expected to expand at double-digit rates.

Currently like any other sector, this industry is also being affected by the global financial crisis and 2010 is supposed to be a challenging year for the global wind turbine industry. However, the silver lining is that though the global wind installations will not be able to match the record installations of 2008, a strong rebound is anticipated after 2010 with wind plant investment expected to reach $50 billion annually by 2015.

Also the dip in overall wind energy market demand that has followed the financial constraints has not constrained wind industry development & technology innovation.

However, it is anticipated that the market would be a buyers market and not a sellers market as the competition is going to heat up, courtesy oversupply and increasing global competition.

The global wind turbine market is dominated by a small number of original equipment manufacturers (OEMs), but market competition is increasing as new OEMs enter the industry.

Manufacturers are developing the next generation of wind turbines in the US and Europe. Government support of markets in Europe, India and other developing countries, has been largely responsible for burgeoning sales, providing manufacturers with cash flow to conduct private development efforts.

European manufacturers currently supply most of the world market for utility-scale wind turbines and therefore provide the majority of the private investment in Research and Development.

On the supply chain side, the international wind power industry has been subject to constraints in certain key components and materials. It is now considered that the wind turbine industry and its suppliers should be able to meet an annual demand for new installed capacity of 50 GW per year by 2012, but only if there is a substantial increase in production capacity and quality improvements in the supply of specific materials.

The report begins with a complete and descriptive trace of the historical origins of wind power which is unique in nature as it provides a perspective of wind power in the hands of the earliest innovators of this resource. This if further traced up to the modern wind power story.

The most important cog in the wheel of wind power generation is the wind turbine which is explained in detail along with the basics of its operation and the various commercial avenues of wind farm applications in today's economies.

Some of the earliest wind power scenarios made possible by wind turbines which are historically recorded are also described in brief in order to create a chronological link up to the presence of wind power even before our modern economies.

The report also provides quantifiable data to explore the emission impact of wind power as compared to the more traditional sources of energy which are mined or pumped from the earth. The report exhaustively explores the global wind power industry and its newer source as the offshore wind power net capacities added and installed by region globally.

The report dedicates an entire section to the global wind turbine technology and the even elaborates to explain the formula which is applied an industry standard to calculate the power produced by any turbine under consideration.

One of the key areas in decision making for any wind turbine application is the efficiency and economy which is to be derived from the weight and cost juggernaut. An important area of discussion which is the material used to develop wind turbines and the associated components is also discussed in this report.

Since wind turbines have many applications from the smallest to the biggest this report equips the reader with the key to classify wind turbine projects by capacity and identify their uses as well at same time explaining the core of wind turbine technology from the basics theoretically as well as diagrammatically.

The report also enables the user to understand the reverse chain of wind turbine production right from the raw materials used to the finished blades which go on the turbine.

Further, the report explains the applications of pure wind systems and other systems of energy which work in conjunction with the wind power systems which are further linking in to grid connected applications of wind power thereby feeding into any economy.

The important role played by small wind turbine systems across major markets as Europe, UK and the United States is also examined in this report. In a commercial capsule the report explains the global wind turbine market as a pie by the major wind turbine manufacturers which are present globally. These global players exercise some competition as well as constantly develop new technology trends and market activity.

The report provides a numerical base of the wind turbine market by providing detail on wind turbine market on the demand as well as turbine numbers and size installed in major markets which also give an insight on the trends which are being noticed in such established markets globally.

Since every technology needs the credit of the market as a backbone to grow and prosper; the recent slowdown of economic activity and its impact on this industry is also examined in this report. Thereafter, the opportunities which are present in the wind turbine industry globally as well as major market profiles are presented in this report with data figures.

The report also uniquely explores the entire supply chain of wind turbines and the role of OEMs in this vast industry. Some of the global major players of wind turbine production and their activity is also provided in this report.

The report also takes an analytical forecast on the strategy moves which will be rolled out by the various component manufacturing suppliers in the wind turbine industry as they expect an economic recovery and lot of activity during 2010. This report also exhaustively provides a brief profiling of the major industry players in the wind turbine industry globally.

In a forward looking perspective the report provides a vision on the technology trends spread across components which can be seen in the near future in this industry.

Wind is often a part of our daily lives and yet we seem to hitherto miss it as a daily occurrence. It is often only felt and then the thought is discarded after a momentary sensation. It often soothes our senses or excites them depending on the strength of its presence around us. We may usually ignore this wonder of nature as it only touches our limited senses and thereby only generates a limited memory. This may however, change if we really look at the impulse it generates by the simplest actions of powering a light bulb for us from the smallest towns to generating water for us in the biggest plants.

This wonderful resource of nature is known as wind to us and fuel to the turbine which transforms the energy from this natural resource into a form of energy which is more useful to us and thereby much needed for a sustainable future. This sustainable future has to be slowly but surely weaned away from the much inefficient methods of energy generation towards cleaner and earth friendly resources and wind turbines are a step in this direction.


Reference: http://evwind.es/noticias.php?id_not=5133

Denmark supports wind energy

Denmark is a world leader in wind energy, with roughly a fifth of its electricity output coming from wind farms on and offshore, after having built up the industry since the 1970s.

As the world leading country in wind power technology, Denmark's Prime Minister Lars Lokke Rasmussen said recently that Denmark needs a national test center for wind turbines to ensure the country stays in the forefront of wind energy technology development, according to report reaching here from Copenhagen.

"We have a very strong industry for wind turbines in Denmark, which has created tens of thousands of jobs in this sector in a market where international competition has increased," Rasmussen was quoted by Reuters as saying at a news conference.

The test center will be good enough for testing giant wind turbines up to 250 meters (820 ft) high, the report said.

Denmark is a world leader in wind energy, with roughly a fifth of its electricity output coming from wind farms on and offshore, after having built up the industry since the 1970s.

It is also home to the world's leading wind turbine manufacturer, Vestas, and headquarters for the main wind turbine operations of the world No. 9 manufacturer, Germany's Siemens, according to fresh 2009 rankings.

"New economies are entering and improving the market for green energy technology so for us to maintain our position as world leader in this area, we need to establish a so-called test center," Rasmussen said.

China became the biggest wind turbine market last year, accounting for more than a third of the world's new wind power capacity. Chinese manufacturers Sinovel, Goldwind and Dongfang, ranked No. 3, 5 and 7, according to BTM consultants.

Vestas is an active and largest foreign player in the Chinese market.

The government's proposal next goes to parliament which could pass the legislation by the summer holidays, the report said.


Reference: http://evwind.es/noticias.php?id_not=5096

Rüzgar Enerjisinin Evlerde Kullanımı

Türbinler artık rüzgâr enerjisini eve taşıyacak!

Rüzgâr enerjisi sistemlerinde yeni teknolojilerin ortaya çıkması bireysel kullanımı artıracak gibi görünüyor. Konutlara monte edilebilen sistemler bağımsız elektrik kullanımında devrim yaratacak.

Rüzgar enerji sistemleri yeni teknolojilerle kitlesel üretimden bireysel üretime doğru kayıyor. Bilindiği gibi yenilenebilir enerji kaynakları içinde en temizi rüzgâr enerjisi.

Ülkemizin coğrafi yapısı bu tükenmez enerji kaynağının merkezi durumunda. Finlandiya orijinli bir şirket, kendi buluşu rüzgâr türbini teknolojisini maliyetlerde rekabet edecek konuma getirdi. Buluşun ilginç tarafı küçük hacmi nedeniyle hemen her yerde kullanılabilir olması.

Çevresel etkilerinin minimum düzeyde bulunması ve kolaylığı ise konutlarda doğrudan elektrik üretimine imkân veriyor.

İNCE HESAPLARLA GELİŞTİRİLMİŞ TEKNOLOJİ

Yeni türbin teknolojisi güç kaybına yol açmayacak şekilde devasa türbin kanatlarını dikey konuma getirmiş. Özgün tasarımı ise fizik yasalarının yeniden yorumlanmasıyla ortaya çıkmış. Buluş, basit bir mekanik prensibe dayanıyor: Rüzgâra duyarlı dikey kanatlar çok katmanlı açıyla birbirini tahrik ederek güç sağlayan rotoru döndürüyor.

Yapılan kritik hesaplarda güç kaybı görülmemiş. Sistemin üstünlüğü daha az yer kaplaması ve rüzgârın hızına göre kendini ayarlayabilmesi. Yeni türbin teknolojisi santral ünitelerinin büyüklük sınırlamalarını da ortadan kaldırmış. Bu gelişme rüzgâr enerjisinin yaygınlaşması demek. Örneğin, AB direktiflerine göre gelecek yıllarda tüketilen enerjinin en az yüzde 20â’’sinin yenilenebilir kaynaklardan elde edilmesi şartı, bu buluşun devreye girmesiyle gerçekleşmek üzere.

Daha şimdiden başta Fransa olmak üzere birçok ülke bu yeni türbin teknolojisinin analog örneklerini geliştirmeye çalışıyor. Amerika’da da dikey türbin teknolojisiyle ilgili şu ana kadar 26 patent alınmış durumda.


GELİŞMELER DEVRİM NİTELİĞİNDE


Halen kullanılmakta olan konvansiyonel rüzgâr enerjisi sistemleri yakın bir tarihte dikey türbin sistemlerine doğru ciddi bir evrim geçirecek. Nitekim coğrafi özellikleri açısından büyük rüzgâr potansiyeline sahip Fransa ve İngiltere bu yeni teknolojiyi konutlara taşımaya hazırlanıyor. Toplam enerji üretiminin yüzde 20 gibi iddialı bir bölümü bu yeni teknolojiyle sağlanabilecek.

Amerika ve Almanya’da geliştirilen benzer sistemler ise tamamen ‘konikâ” kanatçıklardan oluşan yeni bir kolaylığın öncüsü. Bu sistemde gürültü ve rezonans riski neredeyse yok edilmiş.

Peki, bu sistemler nasıl çalışıyor? Bilindiği gibi güneş ışınları dünya atmosferinde ısınmaya neden oluyor. Sıcaklık etkisiyle yoğunluğu azalan hava yükseliyor ve alt katmanlara soğuk hava doluyor.

Nur Demirok-Para Dergi

Kaynak: http://www.girisimciyim.org/ruzgar-enerjisinin-evlerde-kullanimi.html

TRAFO MERKEZLERİ RÜZGAR SANTRALLARI BAĞLANABİLME KAPASİTELERİ

TRAFO MERKEZLERİ RÜZGAR SANTRALLARI BAĞLANABİLME KAPASİTELERİ

Wednesday, April 7, 2010

Vestas signs 93 MW contract in Turkey

Vestas has received an order for the Sahres project in Turkey consisting of 31 units of the V90-3.0 MW wind turbine.

The order comprises delivery, transportation and installation of the wind turbines, a VestasOnline® Business SCADA system, as well as a ten-year service and availability agreement. Delivery of the turbines is scheduled to start in Q4 2010 and the project is expected to be completed by mid-2011.

The order has been placed by the Turkish company Galata Wind Energy Ltd. Şti., a subsidiary of the Ağaoğlu Group, one of Turkey’s largest group of companies working within the construction, tourism, service and energy industries.

The project will be located in the Bandırma province in the north-western part of Turkey, which is one of the windiest areas in the country.

“We are very pleased with this contract, and we look forward to continuing working closely together with the Ağaoğlu Group with whom we have recently finalised the completion of the 33 MW Mersin project located in the Mersin province in southern Turkey,” says Juan Araluce, President of Vestas Mediterranean. He continues: “Provided that that the Turkish government will offer the support needed to the wind industry through a long-term regulatory framework, Turkey has the possibility to achieve the country’s goals for 2023. Being the world leader in wind technology, Vestas is fully committed to support the expansion of the wind energy market in Turkey.”

The wind power plant will produce approximately 333,000 MWh per year, saving the environment from almost 160,000 tons of CO2 on an annual basis. Furthermore, it will provide enough electricity to power 52,250 Turkish households annually.

Vestas installed its first turbine in the Turkish market in 1984. In January 2008, Vestas established an office in Istanbul, which is responsible for all sales, construction and service operations in Turkey and the Middle East. The office currently employs more than 50 people, and as per 31 December 2009, Vestas has installed 107 turbines equivalent to a capacity of 280 MW in Turkey.

The above order does not affect the Vestas Group’s expectations for 2010, ref. company announcement No. 3/2010 of 10 February 2010.


Ref: http://www.vestas.com/files//Filer/EN/Investor/Company_announcements/2010/100407_CA_UK-15.pdf

Friday, April 2, 2010

Hataydaki Ruzgar Parkinda Is Kazasi



Vinç devrildi: 2 ölü

Hatay'ın Samandağ ilçesinde rüzgar santrali kuran şirkete ait vinç devrildi. Kazada 2 kişi öldü, 1 kişi ağır yaralandı.

HATAY

02.04.2010

Samandağ'a bağlı Aknehir beldesinde bulunan St. Simon Manastırı'na yakın bir bölgede, rüzgar santrali türbinleri kuran bir şirkete ait vincin devrilmesi sonucu işçilerden Nizamettin Güzel (39) ile Ali Berber (36) olay yerinde hayatını kaybetti.

Yaşamlarını yitiren işçilerin cenazeleri Antakya Devlet Hastanesi morguna kaldırıldı. Yaşanan kazada, ağır yaralanan vincin sürücüsü Kemal Derici, Hatay Devlet Hastanesi'ne kaldırılarak, tedavi altına alındı.

Ölen işçilerin yakını Şahabettin Meryem, kazanın yaşandığı sırada vinç operatörünün araçta olmadığını ancak hayatını kaybeden iki işçinin vincin taşıma aparatında bulunduklarını belirterek, "Vinç hareket ederek yamaçtan aşağı sürüklenmiş. Operatör vinci durdurmaya çalışırken bacağı kırılmış. Daha bir ay önce işe başlamışlardı. İkisinin de eşleri hamile. Çok büyük bir acı" diye konuştu.

Yaşanan feci kazada hayatlarını kaybeden işçilerin evlerinde büyük bir acı yaşandı. Nizamettin Güzel'in annesi ve kardeşlerinin feryadı yürekleri dağladı.

Bir çocuk babası Ali Berber'in 3 aylık hamile eşi Funda Berber, kocasının fotoğrafını öperek gözyaşı dökerken, yaşananlardan habersiz 1,5 yaşındaki oğlu Arda yakınlarının kucağında kaldı.


Kaynak:

1- http://www.iha.com.tr/haber/detay.aspx?nid=115322&cid=735