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Posts from the ‘Energy Data’ Category

Peak of the Norwegian Petroleum Adventure

At the turn of the century it looked like the Norwegian petroleum adventure had reached its peak. And that from then on, the petroleum production on the Norwegian continental shelf would only decrease.

Oil production on the Norwegian continental shelf did indeed hit a plateau in 2001 and started soon to decline. However with new major discoveries of additional petroleum resources, including both oil and gas, this amazing period of the Norwegian petroleum-age has been extended further into the 21st century.

Now it is expected that petroleum production (combined production of oil and natural gason the Norwegian shelf will grow somewhat in the coming years (at least until 2023). Then the production will reach the final plateau and start a real and steady decline. And the slope of the decline may become quite steep.

Norway’s population is only close to five million. Yet, Norway is the world’s third largest exporter of oil and gas (after Saudi Arabia and Russia). And there is only one country that produces more petroleum from the continental shelf than Norway, which is Saudi Arabia.

Although Norway describes itself as “a small player in the global crude market”, with its oil production covering about 2% of the current global demand, Norway is the third largest exporter of natural gas in the world. And Norway supplies about ¼ of the EU gas demand.

When having in mind the population of countries, Norway is the second largest petroleum producer (per capita). Only Qatar produces more oil and gas per capita. Other major petroleum producers per capita, are mostly other states at the Persian Gulf, like Kuwait and UAE.

Another interesting fact regarding Norway’s massive petroleum production, is the enormous size of the Norwegian Oil Fund (the Government Pension Fund Global). Last year (2017) the value of the fund reached over 1,000 billion USD.

The Oil Fund of Norway is the world’s largest sovereign wealth fund. With recent decline in share prices, right now the value of the fund may be somewhat lower than 1,000 billion USD. However, most countries and governments accept that Norwegians have done very well with their petroleum wealth. And although Norway may be reaching its peak in petroleum production, the peak of the Oil Fund is probably much farther in the future.

Electricity statistics update 2016

The Icelandic National Energy Authority (NEA) has published statistics regarding the electricity industry in 2016. You can access the publication in English on NEA’s website (link to the pdf-file). Here are some of the key numbers:

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TOTAL ELECTRICITY GENERATION:          18,549 GWh (2016)

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ELECTRICITY GENERATION SHARE BY SOURCE:

Hydro Power 13,470 GWh          73%
Geothermal Power     5,067 GWh         27%
Other 11 GWh            0%
Total 18,549 GWh        100%

NB: 2016 is the fourth year the NEA publishes data for generated wind power in Iceland. Electricity generated by wind power (9 GWh) and fossil fuels (3 GWh) was to small amount to be measured as a percentage on the scale of the table above. The combined wind- and fossil fuels generation amounted to 12 GWh, which was less than 0.001% of all electricity generated in Iceland in 2016.

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ELECTRICITY POWER CAPACITY:  

Hydro Power  1,988 MW
Geothermal Power     665 MW
Wind Power         3 MW
Fossil Fuels     117 MW
Total Power Capacity 2,773 MW

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ELECTRICITY CONSUMPTION SHARE:

Energy Intensive Industries 77%
General Consumption     18%
Other (losses)     5%
Total 100%

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You will find more Icelandic energy data in our special data-section.

Þeistareykir geothermal station in operation

Iceland’s newest power plant is the 45 MW Þeistareykjavirkjun in Northeast Iceland. The owner and operator of the plant is the Icelandic national power company Landsvirkjun.

The silicon-metal plant of PCC.

The construction of this first phase of the power plant started in the spring of 2015. Most of the generation will be transmitted to a silicon metal plant of PCC. The PCC silicon plant will utilize a total of 52 MW in the start. According to the power contract with Landsvirkjun, PCC will gradually increase its power demand up to 58 MW. Annual energy delivery is expected to start at 456 GWh and then gradually increase to 508 GWh per annum within the next 4 years (article 3 of the power contract).

As the 45 MW phase of the Þeistareykir plant will only generate 360-370 GWh annually, Landsvirkjun must also deliver power from other power plants to PCC. However, Landsvirkjun is already constructing next phase of Þeistareykir, adding another 45 MW. This second phase of the geothermal plant is scheduled to become operational in next April (2018), making the total capacity 90 MW. At this stage, the additional capacity can only be utilised by power consumers in the Northeastern part of Iceland, as the national transmission grid has several bottlenecks.

Þeistareykir geothermal plant.

This most recent geothermal project is believed to be the most economical of all the upcoming geothermal power projects in Iceland. According to information from Landsvirkjun, the cost of this first 45 MW phase is close to USD 200 millions, which accounts for approximately USD 4.5 millions pr. MW. With a second phase, the total cost for the 90 MW plant is expected to be close to USD 330 millions. Then the cost of each MW will be close to USD 3.7 millions.

Study on energy security in Iceland

The universities IIT Comillas in Madrid and MIT in Boston have completed a research project on the mechanisms of the Icelandic electricity sector. The project was managed by Mr. Ignacio J. Perez-Arriaga, pro­fess­or at MIT.

The project was twofold. Firstly, the current electricity market regime was examined and suggestions made for improvement. Secondly, a simulation of future operation of the power system was conducted, in which a number of scenarios were evaluated in terms of cost and energy security.

Although it was concluded that the operation of the Icelandic transmission system is in many aspects very good, there are certain things that need to be taken into consideration (as explained in Icelandic on the website of the national power company Landsvirkjun):

  1. There is a lack of clear legislation on acceptable norms in terms of energy security. Also, the legislation needs to be clearer on which agency/department is responsible for how to achieve such criteria for energy security, and what tools the responsible party should have to ensure the criteria can be achieved.
  2. Public energy security is not sufficiently guaranteed by the existing power trading system. In their report, the researchers propose how to improve this situation.
  3. Further delays in strengthening the Icelandic transmission system will make energy security in Iceland unsafe. Thera are bottlenecks in the system between regions. Those bottlenecks may contribute to a local energy shortage. The south-west corner of Iceland is at the greatest risk for such shortages. There are different ways to strengthen the transmission and each of them has its advantages and disadvantages.
  4. Wind power is likely to be a competitive alternative to hydropower and geothermal energy, in order to ensure sufficient supply. Opportunities may also be found in negotiating increased flexibility in delivering power to energy intensive industries.
  5. A submarine power cable between Iceland and Europe would better ensure the energy security in Iceland. To make such a project economical, financial assistance would be needed from outside Iceland [for example in the form of similar framework as the British Contracts for Difference; CfD].

This project by IIT Comillas /MIT was funded by the Icelandic National Energy Authority (NEA), the Icelandic TSO Landsnet, and the national power company Landsvirkjun. Presentations from the project can be found on the website of the NEA.

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Prof. Pérez-Arriaga, who was head of this research project on energy security in Iceland, has been a consultant for governmental agencies or electric utilities in more than 30 countries. Prof. Pérez-Arriaga is a member of the Spanish National Academy of Engineering and a Life Fellow of the IEEE. He has published more than 200 papers, been principal investigator in more than 75 research projects and supervised more than 30 doctoral theses on the aforementioned topics. He is a permanent visiting professor at MIT (2008-present) in the Center for Energy and Environmental Policy Research (CEEPR), where he teaches a graduate course on power system regulation, engineering and economics. He was a review editor of the 5th Assessment Report of the Intergovernmental Panel on Climate Change (IPCC).

It should be noted that in October 2015, Mr. Pérez-Arriaga gave a lecture on “the challenge of Energy Security Supply in Iceland”, at the Reykjavík University Arctic Workshop. In his presentation Mr. Pérez-Arriaga referred numerous times to graphs and data from the Icelandic and Northern Energy Portal / Askja Energy Partners, which of course is the main source on Icelandic energy issues. Video recording of the lecture can be seen on Livestream (the presentation starts at 19m:30s, right after an introduction by the President of Iceland).

The green transformation of DONG Energy

Danish energy firm DONG Energy is in the process of selling all its oil and gas business. This is part of a major strategy where DONG is to lead the way in the transformation to a sustainable energy system and to create a leading green energy company.

Away from oil and gas

DONG’s oil and gas business on the continental shelf of Denmark, Norway and the United Kingdom has for decades been a core part of the company. According to Henrik Poulsen, CEO of DONG, the company now aims at selling all its oil and gas fields as one package, already this year (2017).

It has not been revealed who the potential buyer is. According to Danish media the most likely candidates are Maersk Oil and the US private equity fund EIG Global Energy Partners. EIG is the investor behind the company Chrysaor, which few days ago bought a variety of oil and gas fields in the North Sea from Shell.

Focusing on renewable power generation

dong-energy-green-transformation_2016DONG is also transforming its power production, by out-phasing coal. Not long ago coal used to be the overwhelming source for DONG’s (and Denmark’s) electricity- and heat generation. During the last ten years, DONG has reduced its coal consumption by 73% and is now aiming at phasing out coal completely from its power and heat generation by 2023. This will happen by replacing coal with sustainable biomass, at the same time as DONG will increase wind power generation.

dong-energy-mix_2006-2016-1This means that in just one decade, DONG Energy will have gone from being one of the most coal-intensive utilities in Europe to being among the greenest energy companies on the continent, being able to compare it self with Norwegian Statkraft and Icelandic Landsvirkjun.

Thus it may be no surprise that DONG now has launched a competition where Danes can try out their knowledge on green energy – and the winner will be awarded a week travel trip to Iceland. Iceland is of course the only European country fulfilling all its electricity consumption with renewable power generation. In addition, most of Iceland’s heating is supplied by utilisation geothermal sources, making Iceland the greenest energy country in Europe.

dong-energy-award-iceland-trip_2017

Lower cost of wind power

wind-lcoe_2010-2016_lazard_askja-energy-partners-2017The competitiveness of new wind power has been increasing rapidly. According to Lazard, the levelized cost of energy (LCOE) from onshore wind power in USA, is approximately 50% lower now than it was four years ago, and the lowest cost onshore wind projects now have a LCOE that is 33% lower than it was four years ago. As can be seen on the graph at left.

The lowest cost wind projects in the USA now have a LCOE of 32 USD/MWh. The lowest cost projects are mainly wind farms in the US Mid-West, where wind conditions are good, resulting in a high average capacity factor. And even though the lowest cost was steady (did not decline) between 2015 and 2016, new very large wind farms can be expected to offer even lower cost than 32 USD/MWh. For example, Morocco did receive average bids from Enel and Siemens of 30 USD/MWh from its tender for totally 850 MW wind energy projects (with the lowest offer at around 25 USD/MWh).

kvika-poyry_electricity-generation-cost-lcoe-iceland-slide-13-with-more-recent-figures-2For the Icelandic energy sector, it is interesting to compare the figures in the reports from Lazard on LCOE, with a recent report by Kvika bank and Pöyry. In the report by Kvika/Pöyry the LCOE for up to 6 TWh of new onshore wind power in Iceland is set at a fixed price (LCOE) of approximately 51-52 EUR/MWh. This is quite close to the average LCOE for onshore wind in USA as assumed by Lazard in 2015 (shown with red line on the graph at left).

When having regard to Lazard’s most recent report, from December 2016, it becomes obvious that the LCOE for onshore wind has declined further (the blue line on the graph shows Lazard’s average for onshore wind in its report from 2016). What then becomes especially important, is that now new onshore wind projects in Iceland can be expected to be even more economical than new geothermal projects. For more information on this issue, we refer to our earlier post on the subject.

Iceland’s new energy segment

If the IceLink HVDC subsea interconnector between Iceland and UK, will be developed, more than 2,000 new megawatts (MW) of power capacity is expected to be developed in Iceland in the coming two decades. All these capacity additions will all be in renewable power technology. Most of it will be in the traditional types of Icelandic electricity generation, which is hydro- and geothermal power. However, substantial amount of the new capacity will be in wind power, making wind power the fastest growing type of generation in Iceland.

Low-Cost Wind means Slower Growing Geothermal

It is hard to predict with precision how much capacity will be added to each of the three types of renewable generation mentioned above. The table below shows two predictions, one by Kvika/Pöyry and the other by Askja Energy Partners. According to Kvika/Pöyry, IceLink will need approximately 1,459 MW of new capacity, bringing total new capacity in Iceland to 2,137 MW by 2035.

Analysis of Askja Energy shows that Kvika/Pöyry may be over-estimating how fast new geothermal power can be developed in Iceland (and under-estimating the potentials of Icelandic wind power). We at Askja Energy, predict slower growth in new Icelandic geothermal power, and somewhat faster growth in wind power. In addition, it is very likely that new Icelandic hydropower can be developed somewhat faster than Kvika and Pöyry are forecasting in their central scenario.

Table: New power capacity (MW) in Iceland until 2035
Central scenario with IceLink HVDC cable
Forecast by Forecast by
Technology Kvika/Pöyry Askja Energy
Geothermal 722 580
Hydro 865 933
Wind 550 768
Total new capacity added 2,137 2,281

Note that the Askja Energy scenario assumes faster capacity additions in hydropower and wind power than Kvika/Pöyry, but substantially slower geothermal capacity additions. The result is less generation pr. each new MW (thus, higher new capacity needed in total to deliver same/similar generation). All numbers are an estimation and may vary, such as due to what power projects exactly (in each category) will be developed.

Wind Power the Fastest Growing Segment

No matter if the forecast by Askja Energy or the forecast by Kvika/Pöyry will be closer to the real development, wind power can be expected to become Iceland’s fastest growing energy segment. If IceLink will be constructed, no type of generation in Iceland will grow as fast (in percentages) as wind power. As explained on the graph below.

iceland-power-capacity-additions-until-2035_ketill-sigurjonsson-2016The question that remains, is if and when the decision will be taken on IceLink. But even without IceLink, it is likely that new wind power will be developed in Iceland in the coming years, as numerous locations in Iceland offer very high capacity factor for wind turbines.

Surprising claims about IceLink in the Financial Times

The Financial Times (FT) has published an interesting article, titled City financier urges UK support for £3.5bn Icelandic power cable – Plan to send geothermal electricity 1,000 miles under the sea to north-east England. The article is written by Andrew Ward, Energy Editor at Financial Times.

edmund-truell-icelink-hvdc-cableAccording to the article, the City financier Edmund Truell has “plans to open a £200m cable factory in the north-east of England if the government backs his project to build a £3.5bn undersea cable connecting the UK to geothermal power from the hot springs of Iceland.”  Actually, the article draws up a somewhat surprising and/or imprecise picture of the project, as explained here:

IceLink is indeed an interesting project. But is doubtful that Mr Truell’s proposal is the “most detailed” plan on the cable to emerge, as stated in FT. So far, the most detailed official document on the project yet, is a recent report by Kvika Bank and Pöyry (the report was published last summer but is in Icelandic only). Numerous of the comments made by Mr. Truell do not align well with this report.

According to Mr. Truell’s comments to the FT, “Iceland could supply 1.2 gigawatts of baseload power”. From this comment it seems that Mr. Truell has somewhat unclear understanding about how the project is seen by the governments of Iceland and UK.

The plan is not really sending “geothermal electricity” to UK. Nor will the cable serve as access to base-load power, but rather be access to a flexible hydro power source. Readers should note that Iceland’s power system is mostly based on hydropower. The idea regarding the cable is mainly to utilize large hydro reservoirs to offer access to highly flexible renewable power source.

Of course part of the power would be from geothermal sources (and also from onshore wind power which is likely to be constructed in Iceland). But the main power source for the cable would/will be the hydropower. In fact Iceland’s main problems in the power sector now relate to too fast construction of geothermal power plants. As was recently explained here on the Icelandic Energy Portal.

Iceland-Europe-HVDC-Interconnector-Landsvirkjun-Map_Askja-Energy-PartnersIt is possible that the cable would have a capacity of 1,2 GW. However, it is somewhat imprecise that the cable would offer a “supply of 1,2 gigawatts”, as Mr. Truell says to the FT. What really matters is how much electricity would be sent through the cable. According to plans introduced in Iceland, the annual amount is likely to be close to 5,000 GWh (5 TWh). This is the important power figure, rather than the capacity of the cable (which has not yet been decided and might be somewhat lower than the claimed 1,200 MW).

The length of the cable might indeed become 1,000 miles, as Mr. Truell is quoted to say in FT. But according to plans presented in Iceland it is more likely that the length would be closer to 750 miles. In the end the length will of course greatly depend on where the cable will/would come on land in Great Britain. No such decision has been taken yet.

According to reports presented in Iceland, the cost of the cable is not expected to be 3.5 billion GBP, as says in the FT article, but rather close to 2.4 billion GBP (central scenario). Total cost of the whole project would of course be a lot higher figure, due to the cost of new power plants and new transmission lines within Iceland. According to the Icelandic ministry of Industries and Innovation the total cost of the whole project would be 5-6 billion GBP (ISK 800 billion).

According to Mr. Truell, UK would get the electricity from Iceland at about 80 GBP/MWh. This figure is probably 25% to low (when having in mind the cost of the transmission from Iceland to UK). According to Pöyry, likely price would probably not be lower than close to 100 GBP/MWh.

urridafoss-vrirkjunIn the article in FT, it says that Iceland has offered “surplus electricity” to aluminium smelters, and Mr Truell says there is “still plenty left for export”. In reality the situation is a bit more complex. Currently, there is very little surplus-electricity in the Icelandic power system. It is expected that IceLink would need close to 1,500 MW of new capacity.  To be able to supply the subsea interconnector with electricity, Iceland would need to build numerous new and quite expensive power plants. Such plants would harness hydro, geothermal and wind. Also Iceland would need to strengthen its transmission system. So the cable would mean huge new investment in the Icelandic power system and the project is only partly based on “surplus” electricity.

An electric subsea HVDC cable between Iceland and the UK is indeed an interesting opportunity, such as to increase the amount of reliable and flexible renewable energy in UK’s power consumption. And it would be wise for the UK to make the project a priority. However, note that Iceland is not at all an endless source of green power. And the people of Iceland will hardly have much interest in such a project unless receiving strong economical gains from it. In addition the project would/will be a major environmental issue in Iceland, due to impacts from constructing new power plants and transmission lines. And to avoid misunderstanding about the project it is extremely important to have the facts right.

Reykjavík Energy searching for steam

Geothermal developer Reykjavík Energy (Orkuveita Reykjavíkur in Icelandic) is facing problems due to fast declining geothermal wells. To keep up the power generation in its recently constructed 303 MW Hellisheiði Power Station, the company will need to invest close to USD 175 million in geothermal wells in the next six years.

This somewhat serious situation is expressed in a new financial plan for 2017 and forecast for the period 2019-2022, as presented by the company-board of Reykjavík Energy on 3rd of October 2016. Reykjavík Energy (Orkuveita Reykjavíkur; OR) is Iceland’s second largest power company and is the parent company of Orka nátturunnar (ON), which is the power-generating arm of Reykjavík Energy. Reykjavík Energy‘s principal owner is the City of Reykjavík.

665 MW of geothermal power

Iceland’s current geothermal capacity is 665 MW. The Hellisheiði station is one of five large geothermal power plants in Iceland. There are additionally two very small geothermal plants, so there are seven geothermal stations in total.

Reykjavík Energy is by far the largest producer of electricity from geothermal sources in Iceland, with two geothermal stations with a combined capacity of 423 MW. Both stations are in the Hellisheiði/Hengill geothermal area in Southwestern Iceland. Privately owned HS Orka operates two geothermal stations at the Reykjanes peninsula, with a total capacity of 175 MW The national power company Landsvirkjun operates two geothermal stations in Northwestern Iceland, with a total power capacity of 63 MW. The five large geothermal stations in Iceland are as follows:

Hellisheiði geothermal station (303 MW), operated by Reykjavík Energy / ON (OR).
Krafla geothermal station (60 MW), operated by Landsvirkjun.
Nesjavellir geothermal station (120 MW), operated by Reykjavík Energy / ON (OR).
Reykjanes geothermal station (100 MW), operated by HS Orka.
Svartsengi geothermal station (77 MW), operated by HS Orka.

In addition, Landsvirkjun is currently constructing the first phase of Þeistareykir geothermal station in Northeast Iceland (45 MW). With a further second phase at Þeistareykir, which is expected to be developed soon after the first phase will be ready, the Þeistareykir plant will have a capacity of 90 MW. And a total cost of EUR 250 million (equivalent to USD 280 million).

Running out of steam

Reykjavík Energy does not only plan to drill for more steam for the Hellisheiði geothermal station, but also the company will spend close to USD 44 million during next six years in pumping water back into wells (to uphold steam). Thus, in total it will cost the company close to USD 263 million to withhold the power generation of the Hellisheiði station – during the next six years. It is noteworthy that this amount is almost as high as the total cost of building Landsvirkjun’s new 90 MW Þeistareykir station.

iceland-geothermal-hellisheidi-steamThe falling production at the Hellisheiði geothermal station is a reminder of the risk which developers of geothermal power face. Despite extensive research before construction, it is always very important to limit the risk of possible declining steam by developing geothermal power in fairly small steps. In Iceland, it is now generally accepted that each geothermal step should not be larger than 50-100 MW.

Developing geothermal power in small phases offers important information and data about the field. Such a methodology strengthens predictions of how much energy the area can deliver in a sustainable manner. Unfortunately the 303 MW Hellisheiði project was developed without necessary precaution, resulting in unsustainable generation.

Upcoming power projects in Iceland

The following list explains what power projects are being considered in Iceland, according to the Icelandic Master Plan for Nature Protection and Energy Utilization. The projects have been cost analyzed (levelized cost of energy; LCOE), as described in a recent report published by the Icelandic Energy Industry Association (Samorka).

The projects are classified into three different groups (not all the possibilities have been officially cost-analyzed):

Utilization category: The project is likely to be developed if/when there is power demand and interest by the energy sector.

Projects on hold: More information and/or data is needed to decide if the project will be classified as Utilization or Protection.

Protection category: The project is unlikely to be developed, due to environmental issues.

The current classification is being reconsidered by the government  However, it is the Icelandic Parliament (Alþingi) that takes final decision regarding how each project is categorized. This means that over time, project(s) may be moved from one category to another, based on a political decision by the Parliament. The following classification is up to date as of August 2016. Note that in Samorka’s report on the LCOE, the cheapest option, Norðlingaölduveita, is said to be on hold. In fact this option is currently in the protection category.

 Project name Current  Type MW Annual LCOE
  classification GWh USD/MWh
1 Norðlingaölduveita* Protection Hydro n/a 670 22.50
2 Búlandsvirkjun On hold Hydro 150 1,057 25.00
3 Jökulsárveita/Blönduveita On hold Hydro n/a 100 25.00
4 Urriðafossvirkjun On hold Hydro 140 1,037 25.00
5 Þeistareykir I** and II Utilisation Geothermal 270 2,214 28.90
6 Hrafnabjargavirkjun* On hold Hydro 89 585 30.50
7 Villinganesvirkjun On hold Hydro 33 215 30.50
8 Skrokkölduvirkjun On hold Hydro 45 345 30.50
9 Hólmsárvirkjun* Protection Hydro 72 470 30.50
10 Bjarnarflag Utilisation Geothermal 90 756 35.20
11 Meitillinn Utilisation Geothermal 45 369 35.20
12 Sandfell Utilisation Geothermal 100 820 35.20
13 Sveifluháls Utilisation Geothermal 100 820 35.20
14 Austurengjar On hold Geothermal 100 820 35.20
15 Gjástykki On hold Geothermal 50 420 35.20
16 Trölladyngja On hold Geothermal 100 820 35.20
17 Bitra Protection Geothermal 135 1,100 35.20
18 Brennisteinsfjöll Protection Geothermal 90 711 35.20
19 Hvammsvirkjun Utilisation Hydro 93 720 38.80
20 Búðartunguvirkjun On hold Hydro 27 230 38.80
21 Hagavatnsvirkjun On hold Hydro 20 120 38.80
22 Holtavirkjun On hold Hydro 57 450 38.80
23 Hraunavirkjun* On hold Hydro 126 731 38.80
24 Selfossvirkjun On hold Hydro 35 258 38.80
25 Stóra-Laxárvirkjun Unclassified Hydro 35 200 38.80
26 Tungnaárlón On hold Hydro n/a 70 38.80
27 Bláfellsvirkjun Protection Hydro 89 516 38.80
28 Djúpárvirkjun Protection Hydro 86 499 38.80
29 Markarfljótsvirkjun Protection Hydro 121 702 38.80
30 Gráuhnúkar Utilisation Geothermal 45 369 44.80
31 Eldvörp Utilisation Geothermal 50 410 44.80
32 Hverahlíð Utilisation Geothermal 90 738 44.80
33 Krafla II Utilisation Geothermal 150 1,260 44.80
34 Stóra-Sandvík Utilisation Geothermal 50 410 44.80
35 Botnafjöll On hold Geothermal 90 711 44.80
36 Fremrinámar On hold Geothermal 100 840 44.80
37 Grashagi On hold Geothermal 90 711 44.80
38 Hágönguvirkjun On hold Geothermal 150 1,260 44.80
39 Innstidalur On hold Geothermal 45 369 44.80
40 Sandfell On hold Geothermal 90 711 44.80
41 Þverárdalur On hold Geothermal 90 738 44.80
42 Grændalur Protection Geothermal 120 984 44.80
43 Hverabotn Protection Geothermal 90 711 44.80
44 Kisubotnar Protection Geothermal 90 711 44.80
45 Neðri-Hveradalir Protection Geothermal 90 711 44.80
46 Þverfell Protection Geothermal 90 711 44.80
47 Blanda II Utilisation Hydro 31 194 49.70
48 Hvalárvirkjun Utilisation Hydro 55 320 49.70
49 Austurgilsvirkjun On hold Hydro 35 228 49.70
50 Blöndudalsvirkjun On hold Hydro 16 92 49.70
51 Brúarárvirkjun On hold Hydro 23 133 49.70
52 Hafrálónsárvirkjun efri On hold Hydro 15 87 49.70
53 Hafrálónsárvirkjun neðri On hold Hydro 78 452 49.70
54 Haukholtavirkjun On hold Hydro 17 99 49.70
55 Hestvatnsvirkjun On hold Hydro 34 197 49.70
56 Hofsárvirkjun On hold Hydro 39 226 49.70
57 Hverfisfljótsvirkjun On hold Hydro 42 243 49.70
58 Hvítá við Norðurreyki On hold Hydro 14 82 49.70
59 Kaldbaksvirkjun On hold Hydro 47 273 49.70
60 Kljáfossvirkjun On hold Hydro 16 93 49.70
61 Núpsárvirkjun On hold Hydro 71 412 49.70
62 Reyðarvatnsvirkjun On hold Hydro 14 82 49.70
63 Skatastaðavirkjun* On hold Hydro 156 1,090 49.70
64 Vatnsdalsárvirkjun On hold Hydro 28 162 49.70
65 Gýgarfossvirkjun Protection Hydro 22 128 49.70
66 Bakkahlaup On hold Geothermal 15 119 57.30
67 Hrúthálsavirkjun On hold Geothermal 20 160 57.30
68 Hveravallavirkjun On hold Geothermal 10 79 57.30
69 Reykjabólsvirkjun On hold Geothermal 10 79 57.30
70 Sandfellsvirkjun On hold Geothermal 10 79 57.30
71 Sköflungsvirkjun On hold Geothermal 90 711 57.30
72 Seyðishólavirkjun On hold Geothermal 10 79 57.30
73 Fljótshnjúksvirkjun On hold Hydro 58 405 60.50
74 Vörðufellsvirkjun On hold Hydro 58 174 60.50
75 Glámuvirkjun On hold Hydro 67 400 nyca
76 Arnardalsvirkjun* Protection Hydro 587 3,404 nyca
77 Bjallavirkjun Protection Hydro 46 310 nyca
78 Blöndulundur Unclassified Wind 100 350 nyca
79 Búrfellslundur Unclassified Wind 200 705 nyca
Notes:
* The project may be developed in a different way for less environmental impacts, resulting in lower generation.
** 45 MW station at Þeistareykir is already under construction, with the electricity sold (long-term contract).
n/a Projects involving new reservoir for current power stations (turbines may be added, but not necessarily).
nyca Projects that have not yet been officially cost-analyzed.

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The list above may change at any time and new projects not listed may be introduced and developed.

Planned 45 MW wind power project of Biokraft in Southern Iceland is not included on the list.

No planned power projects under 10 MW (mainly small hydro) are included on the list.

Cost estimates do not include transmission or connection cost.

The list is up to date @ August 2016.