Based on a survey of over 200 recent wind energy projects from across the EU, this report analyses the administrative and electricity grid-related barriers to wind power development. It compares the situation in the different European countries, and recommends ways to improve and speed up the development of wind energy in each one (July 2010).
The SEAENERGY 2020 final report highlights the fact that currently there is little in the way of maritime spatial planning (MSP) in Europe’s maritime states. However, Member States sharing the same sea basin could benefit from cooperation. The European Commission could provide MSP through a European Directive.
SEANERGY2020 was a 26 months project, financed by the Intelligent Energy Europe programme. It focused on maritime spatial planning from the offshore renewable energy perspective. It provided policy recommendations on how to promote a more integrated and coordinated approach to maritime spatial planning and how to facilitate the implementation of the 20% Renewables Directive. (July 2012).
GIZ support mechanism for RE development in VietnamTuong Do
Hanoi, 19/09/2014
Ingmar Stelter, Program Manager
Werner Kossmann, Chief Technical Advisor
GIZ Viet Nam Energy Support Program
Energy Sector Development Partners Coordination
The Republic of the Union of Myanmar Ministry of Electricity and Energy Hydro...MYO AUNG Myanmar
THE REPUBLIC OF THE UNION OF MYANMAR
MINISTRY OF ELECTRICITY AND ENERGY
HYDROPOWER DEVELOPMENT PLANS
http://www.ifc.org/wps/wcm/connect/e46682d2-cc3a-4d3c-9bc5-02496244c6b9/IFC's+General+Forum++(11+8+2016)UAKK.pdf?MOD=AJPERES
Hydropower Potential in Myanmar
The SEAENERGY 2020 final report highlights the fact that currently there is little in the way of maritime spatial planning (MSP) in Europe’s maritime states. However, Member States sharing the same sea basin could benefit from cooperation. The European Commission could provide MSP through a European Directive.
SEANERGY2020 was a 26 months project, financed by the Intelligent Energy Europe programme. It focused on maritime spatial planning from the offshore renewable energy perspective. It provided policy recommendations on how to promote a more integrated and coordinated approach to maritime spatial planning and how to facilitate the implementation of the 20% Renewables Directive. (July 2012).
GIZ support mechanism for RE development in VietnamTuong Do
Hanoi, 19/09/2014
Ingmar Stelter, Program Manager
Werner Kossmann, Chief Technical Advisor
GIZ Viet Nam Energy Support Program
Energy Sector Development Partners Coordination
The Republic of the Union of Myanmar Ministry of Electricity and Energy Hydro...MYO AUNG Myanmar
THE REPUBLIC OF THE UNION OF MYANMAR
MINISTRY OF ELECTRICITY AND ENERGY
HYDROPOWER DEVELOPMENT PLANS
http://www.ifc.org/wps/wcm/connect/e46682d2-cc3a-4d3c-9bc5-02496244c6b9/IFC's+General+Forum++(11+8+2016)UAKK.pdf?MOD=AJPERES
Hydropower Potential in Myanmar
Article 14 of Directive 2012/27/EU: “Promotion of efficiency in heating and c...Leonardo ENERGY
European countries are currently facing complex energy challenges including major external energy dependence or an increasing concern about climate change. The Conclusions of the European Council in 2007 and 2011 established a need for reaching at least a total 20% of savings in the European primary energy consumption by 2020 (2007 baseline).
In order to meet this challenge, the European Union published in 2012 the Energy Efficiency Directive 2012/27/EU (EED), which has established a common framework to promote concrete actions related to energy efficiency in the European market.
Within the EED, the Article 14 stands out for promoting the energy efficiency through the use of CHP (combined heat and power), district heating and cooling and by recovering industrial waste heat.
Obeng, George, and Hans-Dieter Evers. 2009. "Solar PV Rural Electrification and Energy-Poverty: A Review and Conceptual Framework With Reference to Ghana." ZEF Working Paper Series 36.
Synergy with Energy. India Energy Show 2009
Wind and Conventional Electricity -
Comparative Economics for Captive Power Plants
and Thermal Power Stations
Bharat J. Mehta
Vijayant Consultants
Ahmedabad, India
June 17, 2009
An Overview of the Electricity Industry in MyanmarVikas Sharma
This paper attempts to provide a comprehensive current-state assessment of Myanmar’s electricity sector, and goes on to offer some policy recommendations to tackle the key issues at hand.
As Myanmar embarks upon reversing the damage and realizing its potential, availability of electricity is crucial in all spheres – economic, health-related and educational. However, nowhere is the immensity of the task at hand more apparent than in the electricity sector. Less than 30% of households are connected to the electric-grid. Per capita consumption of power is lowest in ASEAN. There is over-reliance on hydropower and erratic demand-side management, especially in summer months. Current supply is almost 30% below demand, manifested in sweeping load-shedding. Planning is centralized, haphazard and seemingly untouched by market dynamics. Power plants have numerous breakdowns and abysmal efficiency. Transmission and distribution networks are antiquated and omit large expanses. Highly-subsidized electricity tariffs and resulting fiscal deficits have crippled public investment in infrastructure. Skepticism over political stability, heavy-handed government terms, and deficient financing ecosystem discourage private entrants.
Report of the committee appointed to investigate the Electricity Supply Inter...Private Consultants
Report of the committee appointed to investigate the Electricity Supply Interruption in the country ( Sri Lanka) on the 17th August 2020 – 0 – Interim Report
The Future Perspective of the Electricity Market – Unbundling and Market Inte...Oeko-Institut
Lecture by Dr. Felix Chr. Matthes at the International Symposium “Towards YR2030 and Beyond”, Japan Renewable Energy Foundation (JREF). Tokyo, 6 September 2012
January 2010 Report on Utah's Energy Landscape. In his 2010 State of the State address, Governor Gary Herbert calls for Utah to become a leader in global energy
Record offshore figures in 2013 conceal slow-down in new projects being developed. 418 offshore turbines came online in 2013 in Europe, making a record 1,567 Megawatts of new capacity. This is one-third more than the capacity installed in 2012. This makes a new total of 6,562 MW of offshore wind power - enough to provide 0.7% of the EU's electricity.
277 new offshore wind turbines, totalling 1,045 megawatts (MW), were fully grid connected in Europe during the first six months of 2013. This is double compared to the same period in 2012 when 523.2 MW were installed. In addition, 268 foundations were installed and 254 turbines erected, all during the first 181 days of the year.
- There are now 117.3 GW of installed wind energy capacity in the EU: 110.7 GW onshore and 6.6 GW offshore.
- 11,159 MW of wind power capacity (worth between €13 bn and €18 bn) was installed in the EU-28 during 2013, a decrease of 8% compared to 2012 installations.
- The EU power sector continues its move away from fuel oil and coal with each technology continuing to decommission more than it installs.
- The wind power capacity installed by the end of 2013 would, in a normal wind year, produce 257 TWh of electricity, enough to cover 8% of the EU's electricity consumption - up from 7% the year before.
Why is an ambitious binding renewable energy target for 2030 essential for the wind industry today?
An ambitious renewables target shows investors there is a long-term market for wind energy, meaning they invest and the wind sector grows.
The EU must decide as soon as possible on an energy and climate policy framework for 2030. This is so investors continue to invest, wind energy continues to grow and deliver all its benefits, and the EU can meet its greenhouse gas reduction commitments of 80-95% by 2050 in the most cost-efficient way.
Highlights:
* Investigates opportunities to encourage early replacement of electric motors by more efficient ones.
* By installing efficient motors, energy is saved and CO2 emissions are reduced.
* Accelerated replacement also increases reliability and reduces risk of unplanned downtime.
* Energy Efficiency Directive (EED) encourages early replacement of motors.
Article 14 of Directive 2012/27/EU: “Promotion of efficiency in heating and c...Leonardo ENERGY
European countries are currently facing complex energy challenges including major external energy dependence or an increasing concern about climate change. The Conclusions of the European Council in 2007 and 2011 established a need for reaching at least a total 20% of savings in the European primary energy consumption by 2020 (2007 baseline).
In order to meet this challenge, the European Union published in 2012 the Energy Efficiency Directive 2012/27/EU (EED), which has established a common framework to promote concrete actions related to energy efficiency in the European market.
Within the EED, the Article 14 stands out for promoting the energy efficiency through the use of CHP (combined heat and power), district heating and cooling and by recovering industrial waste heat.
Obeng, George, and Hans-Dieter Evers. 2009. "Solar PV Rural Electrification and Energy-Poverty: A Review and Conceptual Framework With Reference to Ghana." ZEF Working Paper Series 36.
Synergy with Energy. India Energy Show 2009
Wind and Conventional Electricity -
Comparative Economics for Captive Power Plants
and Thermal Power Stations
Bharat J. Mehta
Vijayant Consultants
Ahmedabad, India
June 17, 2009
An Overview of the Electricity Industry in MyanmarVikas Sharma
This paper attempts to provide a comprehensive current-state assessment of Myanmar’s electricity sector, and goes on to offer some policy recommendations to tackle the key issues at hand.
As Myanmar embarks upon reversing the damage and realizing its potential, availability of electricity is crucial in all spheres – economic, health-related and educational. However, nowhere is the immensity of the task at hand more apparent than in the electricity sector. Less than 30% of households are connected to the electric-grid. Per capita consumption of power is lowest in ASEAN. There is over-reliance on hydropower and erratic demand-side management, especially in summer months. Current supply is almost 30% below demand, manifested in sweeping load-shedding. Planning is centralized, haphazard and seemingly untouched by market dynamics. Power plants have numerous breakdowns and abysmal efficiency. Transmission and distribution networks are antiquated and omit large expanses. Highly-subsidized electricity tariffs and resulting fiscal deficits have crippled public investment in infrastructure. Skepticism over political stability, heavy-handed government terms, and deficient financing ecosystem discourage private entrants.
Report of the committee appointed to investigate the Electricity Supply Inter...Private Consultants
Report of the committee appointed to investigate the Electricity Supply Interruption in the country ( Sri Lanka) on the 17th August 2020 – 0 – Interim Report
The Future Perspective of the Electricity Market – Unbundling and Market Inte...Oeko-Institut
Lecture by Dr. Felix Chr. Matthes at the International Symposium “Towards YR2030 and Beyond”, Japan Renewable Energy Foundation (JREF). Tokyo, 6 September 2012
January 2010 Report on Utah's Energy Landscape. In his 2010 State of the State address, Governor Gary Herbert calls for Utah to become a leader in global energy
Record offshore figures in 2013 conceal slow-down in new projects being developed. 418 offshore turbines came online in 2013 in Europe, making a record 1,567 Megawatts of new capacity. This is one-third more than the capacity installed in 2012. This makes a new total of 6,562 MW of offshore wind power - enough to provide 0.7% of the EU's electricity.
277 new offshore wind turbines, totalling 1,045 megawatts (MW), were fully grid connected in Europe during the first six months of 2013. This is double compared to the same period in 2012 when 523.2 MW were installed. In addition, 268 foundations were installed and 254 turbines erected, all during the first 181 days of the year.
- There are now 117.3 GW of installed wind energy capacity in the EU: 110.7 GW onshore and 6.6 GW offshore.
- 11,159 MW of wind power capacity (worth between €13 bn and €18 bn) was installed in the EU-28 during 2013, a decrease of 8% compared to 2012 installations.
- The EU power sector continues its move away from fuel oil and coal with each technology continuing to decommission more than it installs.
- The wind power capacity installed by the end of 2013 would, in a normal wind year, produce 257 TWh of electricity, enough to cover 8% of the EU's electricity consumption - up from 7% the year before.
Why is an ambitious binding renewable energy target for 2030 essential for the wind industry today?
An ambitious renewables target shows investors there is a long-term market for wind energy, meaning they invest and the wind sector grows.
The EU must decide as soon as possible on an energy and climate policy framework for 2030. This is so investors continue to invest, wind energy continues to grow and deliver all its benefits, and the EU can meet its greenhouse gas reduction commitments of 80-95% by 2050 in the most cost-efficient way.
Highlights:
* Investigates opportunities to encourage early replacement of electric motors by more efficient ones.
* By installing efficient motors, energy is saved and CO2 emissions are reduced.
* Accelerated replacement also increases reliability and reduces risk of unplanned downtime.
* Energy Efficiency Directive (EED) encourages early replacement of motors.
Wind Power Regulatory Framework Survey 2016Stavros Thomas
In the first semester of 2016 a survey was conducted to holistically evaluate the effectiveness of the existing wind power regulatory framework and the related supporting mechanisms performance. The investigation included respondents from around the world spanning a broad range of stakeholders, wind power professionals, insurance providers and policy makers.
The survey conducted to assess the strengths and weaknesses of the existing regulatory framework for the wind energy (particularly offshore) and provide an indicative picture of the pragmatic needs and improvements in the path to a more sustainable energy system and democratic control over renewable energy.
The European Renewable Electricity Sector 2009/20ReportLinker.com
An investment guide for renewable power projects in 20 EU countriesUpdated from the 2008 edition, this report uses a series of indices to provide a detailed rating of 20 EU countries in a systematic format. These indices offer a means of assessing the key aspects of the renewable electricity sectors in question and offer a more comprehensive basis for informed analysis, evaluation and decision making.This expanded and updated 2009/10 edition of London Research International's original pioneering report provides a greater depth and range of analysis, covering 20 EU member states and including a year-on-year comparison of the changes to the risks and opportunities in each EU member state.
The Scope for Energy Saving in the EU through the Use of Energy-Efficient Dis...Leonardo ENERGY
Highlights:
* Distribution transformers represent an important focus for energy efficiency initiatives.
* They are a worthwhile area for R&D, demonstration and promotional effort.
* The potential for reducing losses from distribution transformers affects strategies on energy efficiency and global warming.
* An action plan should be developed to achieve these goals.
* The strategy should be carefully co-ordinated, technically sound, and involve partners from all the supply chain.
This study was carried out at the request of the European Commission between January and
June 2009. Its main objective was to identify the most effective strategy for developing and
implementing the "Mediterranean Solar Plan” and to suggest how this plan might be
developed and implemented effectively in the region.
Draft report on the implementation and impact of the energy efficiency measur...MARIE Project
MARIE Project at the European Commission
ELIH-MED and MARIE in the EP Draft Report on “The implementation and impact of the energy efficiency measures under Cohesion Policy” to be adopted by REGI Committee on 10 July 2013.
Replicable NAMA Concept - Promoting the Use of Energy Efficient Motors in Ind...Leonardo ENERGY
* Introduces Nationally Appropriate Mitigation Actions (NAMAs).
* Proposed structure and design of the NAMA.
* Template for countries wishing to adopt the NAMA concept.
In 2012, Europe’s wind energy industry was plunged into a crisis of regulatory uncertainty as governments, seeing renewables as an easy target for austerity measures, slashed or changed their support. Despite this, 2012 marked a historic milestone: reaching 100 GW of wind power capacity in the EU, meeting the power needs of 57 million households, equivalent to the output of 39 nuclear power plants – a remarkable success which was achieved during a period of extraordinary growth founded on firm political support.
Emissions from fossil fuel power plants and heavy industry cause climate change.The Emissions Trading System (ETS) puts a price on carbon emissions and prices fossil fuel electricity at its real cost.
Eastern Winds examines the frontier of wind power development in Europe. The report deals with the prospects for wind power in central and eastern Europe, tackles financing and provides an in-depth analysis of 12 emerging wind power markets. Eastern Winds is also a tool for decision-makers highlighting bottlenecks, regulatory challenges and providing policy recommendations. The report features: 1- In depth analysis of central and eastern European markets: first wave (Bulgaria, Romania, Turkey, Hungary, Poland) second wave and future markets covering - Power market overview, wind energy sector, supply chain, legal framework, opportunities and challenges. 2- Analysis of the wind power sector’s growth in the region - high growth in the more mature markets but boom and bust effect - and projections up to 2020. 3- Wind energy financing - Requirements of private banks when financing projects in emerging markets, profiles of International Financial Institutions active in the region and EU funding. 4- Policy recommendations
Published in February 2013 by the European Wind Energy Association, this is the most up-to-date information on wind energy. It includes facts and figures on statistics and targets, jobs and finance, technology, costs, subsidies and prices, R&D, environment and public opinion - all in an easy to digest format. For more wind energy facts, visit www.ewea.org
Europe installed and grid connected 293 offshore wind turbines in 2012 - more than one per working day. This brings the total to 1,662 turbines, in 55 offshore wind farms in ten European countries.
The EU wind energy sector installed 11.6 gigawatts (GW) of capacity in 2012, bringing the total wind power capacity to 105.6 GW, according to the 2012 annual statistics launched by the European Wind Energy Association (EWEA).
A report on EU electricity market rules, which must reflect the energy generation mix of the future and help usher in a flexible power system with a large-scale uptake of wind power and other renewable energy sources. The report recommends: 1- Creating a level playing field for renewable energy sources by tackling structural market deficits. 2-Creating functioning markets covering larger geographical regions within Europe so as to reduce the need to balance variable renewables like wind and solar 3- Developing intraday and balancing markets at national and cross-border levels 4- Creating new markets for 'grid support services', supporting the functioning of the grid to ensure a secure supply of electricity, instead of introducing market distorting capacity payments.
It is the European Commission’s job to propose a seven year ‘Multiannual Financial Framework’ budget to the Council and Parliament. The current proposal stands at €1,025 billion. This represents 1% of the EU’s gross domestic product – while national budgets are around 30-40% of national GDP.
The EU’s budget needs to reflect the high priority given to energy and climate commitments in EU policy in its 2020 climate and renewable energy targets. What is more, EU countries have been undergoing strict austerity measures. The next EU budget needs to be a “growth” budget. (September 2012).
2011 was the year that EWEA spearheaded the call for 2030 renewable energy targets and began to look forward to its 30th anniversary in 2012. During the last 30 years EWEA has supported the growth of Europe’s wind power industry from a marginal technology (in 1982 there was just over 100 MW of capacity in Europe) to a major industry – Europe is set to pass the 100,000 MW mark this year, providing over 6% of Europe’s electricity.
Despite the ongoing economic crisis, Europe’s wind installations remained stable in 2011. And the industry’s long-term prospects remain bright in the light of the European Commission’s Energy Roadmap 2050 showing that wind energy would be the leading generating technology by 2050. (June 2012).
Green Growth examines the impact of wind energy on jobs and the economy in the EU. The wind energy industry increased its contribution to the EU’s gross domestic product (GDP) by 33% between 2007 and 2010. In 2010, the industry’s growth was twice that of the EU’s GDP overall, with the sector contributing €32 billion to an EU economy in slowdown. Contents: The sector created 30% more jobs from 2007 to 2010 to reach nearly 240,000, while EU unemployment rose by 9.6% . By 2020, there should be 520,000 jobs in the sector. The sector was a net exporter of €5.7 billion worth of goods and services in 2010. The sector avoided €5.71 billion of fuel costs in 2010. The sector invested 5% of its spending in R&D – three times more than the EU average. Wind turbine manufacturers commit around 10% of their total turnover to R&D.
‘Wind in our Sails’ is about offshore wind energy and provides a detailed analysis of the sector’s rapidly developing supply chain.
A growing industry with huge potential and massive developer interest, offshore is nonetheless facing a possible financing gap and an inadequate power grid. Questions answered in the report include;
How much capacity is currently installed?
Will there be enough turbines, foundations, cables, ships and ports.
How much is under construction, consented and in government concession zones?
How will the sector develop in the next few years?
(November 2011)
EWEA's report shows that in 2010, wind energy avoided as much as 28% of the EU’s Kyoto emissions reduction target, and will avoid as much as 31% of the EU-wide objective by 2020.
EWEA climate policy recommendations for the EU to 2020 include moving to a 30% domestic reduction target, tightening the emissions trading system to avoid oversupply and a low CO2 price and committing 100% of ETS auctioning revenue to finance climate mitigation. (November 2011).
The OffshoreGrid project proves the financial benefits of building a meshed European grid offshore and outlines two cost efficient designs.
Offshore grids, connecting North and Baltic Sea wind farms and electricity consumers, can be built substantially cheaper than expected. Building “hub connections” at sea instead of using cables to connect single wind farms individually to the shore will result in lower investment costs of 14 billion Euros. Additionally if these hub connections would be combined with an even more interconnected “meshed grid”, the necessary additional costs of 7 billion Euros would be compensated by 16 to 21 billion Euros of additional benefits over 25 years of grid operation. October 2011.
2011, just nine years away from 2020, was when the EU’s main climate change and renewable energy legislation expires. Right now – with the EU’s 2020 goals to increase the share of renewable energy in the overall energy mix to 20% and to cut carbon emissions by 20% – the EU is leading the world in terms of renewable energy deployment, exports and promotion.But how will we keep our leadership, retain our competitive edge, and keep cutting emissions from the power sector whilst continuing to create thousands of green jobs and billions of Euros in export revenue? Will decision-makers leave the EU in a policy vacuum post-2020? (August 2011).
This updated edition of Pure Power once again shows the huge contribution wind energy already makes – and will increasingly make – to meeting Europe’s electricity demand and strengthening its economy, and to avoiding polluting and costly fuel and carbon. Contents: Wind energy currently meets 5.3% of the EU’s electricity consumption from an installed capacity of 84.3 GW. The European Wind Energy Association’s scenarios show that wind energy in 2020 should meet 15.7% of EU electricity demand from 230 GW, and by 2030, 28.5% from 400 GW. Indeed, EWEA believes wind energy can provide half of Europe’s power by 2050, with the remainder from other renewable sources. To ensure the continued buoyancy of the wind energy sector and the path to 100% renewables in 2050, EU renewables legislation is needed now for the period after 2020. This should follow the successful legislation so far by setting an ambitious, binding renewables target for 2030.
2010 was a year of many highs and some lows. One of the highs was the fact that the Member States’ National Renewable Energy Action Plans showed the EU to be en route to slightly exceed the 20% renewable energy target.
Similarly, the European Commission’s important communications on a 2020 strategy and on infrastructure priorities were steps towards a Europe-wide power grid and a functioning single electricity market.
EWEA reached out to a wider audience in 2010 through its ‘Breath of Fresh Air’ campaign. It communicated the benefits of wind energy through a visible presence in Brussels and beyond, including the display of a turbine blade and a photo exhibition in the EU quarter, as well as the array of events organised worldwide for Global Wind Day. June 2011.
In 1986, European leaders agreed to open up their borders to the free movement of goods, capital, people and services. Ever since, the European single market has ensured trade, competition, consumer choice, employment and prosperity in Europe. Yet 25 years later, there is still no single market in electricity. Consumers are supplied with electricity that is generally produced nationally, and as competition is ineffective, electricity suppliers can pass any price increase onto that same consumer.
In order to achieve a single market in electricity, Europe needs both the electricity network to transport electricity from one part of Europe to another, and a common set of market rules. April 2011.
20 Megawatt wind turbines are feasible, according to a new report from the EU-funded UpWind project. UpWind explored the design limits of upscaling wind turbines to 20 Megawatt (MW) and found that they would have rotor diameters of around 200 metres, compared to some 120 metres on today's 5 MW turbines. March 2011.
EWEA's report shows that in 2010, wind energy avoided as much as 28% of the EU’s Kyoto emissions reduction target, and will avoid as much as 31% of the EU-wide objective by 2020. Contents: EWEA climate policy recommendations for the EU to 2020 include moving to a 30% domestic reduction target, tightening the emissions trading system to avoid oversupply and a low CO2 price and committing 100% of ETS auctioning revenue to finance climate mitigation.
‘Powering Europe’ puts forward a well-argued case that there are no major technical barriers – but major economic benefits - to integrating large amounts of fuel- and pollution-free wind energy into Europe’s electricity grid. November 2010.
More from EWEA - European Wind Energy Association (20)
Search and Society: Reimagining Information Access for Radical FuturesBhaskar Mitra
The field of Information retrieval (IR) is currently undergoing a transformative shift, at least partly due to the emerging applications of generative AI to information access. In this talk, we will deliberate on the sociotechnical implications of generative AI for information access. We will argue that there is both a critical necessity and an exciting opportunity for the IR community to re-center our research agendas on societal needs while dismantling the artificial separation between the work on fairness, accountability, transparency, and ethics in IR and the rest of IR research. Instead of adopting a reactionary strategy of trying to mitigate potential social harms from emerging technologies, the community should aim to proactively set the research agenda for the kinds of systems we should build inspired by diverse explicitly stated sociotechnical imaginaries. The sociotechnical imaginaries that underpin the design and development of information access technologies needs to be explicitly articulated, and we need to develop theories of change in context of these diverse perspectives. Our guiding future imaginaries must be informed by other academic fields, such as democratic theory and critical theory, and should be co-developed with social science scholars, legal scholars, civil rights and social justice activists, and artists, among others.
Software Delivery At the Speed of AI: Inflectra Invests In AI-Powered QualityInflectra
In this insightful webinar, Inflectra explores how artificial intelligence (AI) is transforming software development and testing. Discover how AI-powered tools are revolutionizing every stage of the software development lifecycle (SDLC), from design and prototyping to testing, deployment, and monitoring.
Learn about:
• The Future of Testing: How AI is shifting testing towards verification, analysis, and higher-level skills, while reducing repetitive tasks.
• Test Automation: How AI-powered test case generation, optimization, and self-healing tests are making testing more efficient and effective.
• Visual Testing: Explore the emerging capabilities of AI in visual testing and how it's set to revolutionize UI verification.
• Inflectra's AI Solutions: See demonstrations of Inflectra's cutting-edge AI tools like the ChatGPT plugin and Azure Open AI platform, designed to streamline your testing process.
Whether you're a developer, tester, or QA professional, this webinar will give you valuable insights into how AI is shaping the future of software delivery.
Kubernetes & AI - Beauty and the Beast !?! @KCD Istanbul 2024Tobias Schneck
As AI technology is pushing into IT I was wondering myself, as an “infrastructure container kubernetes guy”, how get this fancy AI technology get managed from an infrastructure operational view? Is it possible to apply our lovely cloud native principals as well? What benefit’s both technologies could bring to each other?
Let me take this questions and provide you a short journey through existing deployment models and use cases for AI software. On practical examples, we discuss what cloud/on-premise strategy we may need for applying it to our own infrastructure to get it to work from an enterprise perspective. I want to give an overview about infrastructure requirements and technologies, what could be beneficial or limiting your AI use cases in an enterprise environment. An interactive Demo will give you some insides, what approaches I got already working for real.
UiPath Test Automation using UiPath Test Suite series, part 4DianaGray10
Welcome to UiPath Test Automation using UiPath Test Suite series part 4. In this session, we will cover Test Manager overview along with SAP heatmap.
The UiPath Test Manager overview with SAP heatmap webinar offers a concise yet comprehensive exploration of the role of a Test Manager within SAP environments, coupled with the utilization of heatmaps for effective testing strategies.
Participants will gain insights into the responsibilities, challenges, and best practices associated with test management in SAP projects. Additionally, the webinar delves into the significance of heatmaps as a visual aid for identifying testing priorities, areas of risk, and resource allocation within SAP landscapes. Through this session, attendees can expect to enhance their understanding of test management principles while learning practical approaches to optimize testing processes in SAP environments using heatmap visualization techniques
What will you get from this session?
1. Insights into SAP testing best practices
2. Heatmap utilization for testing
3. Optimization of testing processes
4. Demo
Topics covered:
Execution from the test manager
Orchestrator execution result
Defect reporting
SAP heatmap example with demo
Speaker:
Deepak Rai, Automation Practice Lead, Boundaryless Group and UiPath MVP
Slack (or Teams) Automation for Bonterra Impact Management (fka Social Soluti...Jeffrey Haguewood
Sidekick Solutions uses Bonterra Impact Management (fka Social Solutions Apricot) and automation solutions to integrate data for business workflows.
We believe integration and automation are essential to user experience and the promise of efficient work through technology. Automation is the critical ingredient to realizing that full vision. We develop integration products and services for Bonterra Case Management software to support the deployment of automations for a variety of use cases.
This video focuses on the notifications, alerts, and approval requests using Slack for Bonterra Impact Management. The solutions covered in this webinar can also be deployed for Microsoft Teams.
Interested in deploying notification automations for Bonterra Impact Management? Contact us at sales@sidekicksolutionsllc.com to discuss next steps.
GDG Cloud Southlake #33: Boule & Rebala: Effective AppSec in SDLC using Deplo...James Anderson
Effective Application Security in Software Delivery lifecycle using Deployment Firewall and DBOM
The modern software delivery process (or the CI/CD process) includes many tools, distributed teams, open-source code, and cloud platforms. Constant focus on speed to release software to market, along with the traditional slow and manual security checks has caused gaps in continuous security as an important piece in the software supply chain. Today organizations feel more susceptible to external and internal cyber threats due to the vast attack surface in their applications supply chain and the lack of end-to-end governance and risk management.
The software team must secure its software delivery process to avoid vulnerability and security breaches. This needs to be achieved with existing tool chains and without extensive rework of the delivery processes. This talk will present strategies and techniques for providing visibility into the true risk of the existing vulnerabilities, preventing the introduction of security issues in the software, resolving vulnerabilities in production environments quickly, and capturing the deployment bill of materials (DBOM).
Speakers:
Bob Boule
Robert Boule is a technology enthusiast with PASSION for technology and making things work along with a knack for helping others understand how things work. He comes with around 20 years of solution engineering experience in application security, software continuous delivery, and SaaS platforms. He is known for his dynamic presentations in CI/CD and application security integrated in software delivery lifecycle.
Gopinath Rebala
Gopinath Rebala is the CTO of OpsMx, where he has overall responsibility for the machine learning and data processing architectures for Secure Software Delivery. Gopi also has a strong connection with our customers, leading design and architecture for strategic implementations. Gopi is a frequent speaker and well-known leader in continuous delivery and integrating security into software delivery.
Builder.ai Founder Sachin Dev Duggal's Strategic Approach to Create an Innova...Ramesh Iyer
In today's fast-changing business world, Companies that adapt and embrace new ideas often need help to keep up with the competition. However, fostering a culture of innovation takes much work. It takes vision, leadership and willingness to take risks in the right proportion. Sachin Dev Duggal, co-founder of Builder.ai, has perfected the art of this balance, creating a company culture where creativity and growth are nurtured at each stage.
Let's dive deeper into the world of ODC! Ricardo Alves (OutSystems) will join us to tell all about the new Data Fabric. After that, Sezen de Bruijn (OutSystems) will get into the details on how to best design a sturdy architecture within ODC.
Transcript: Selling digital books in 2024: Insights from industry leaders - T...BookNet Canada
The publishing industry has been selling digital audiobooks and ebooks for over a decade and has found its groove. What’s changed? What has stayed the same? Where do we go from here? Join a group of leading sales peers from across the industry for a conversation about the lessons learned since the popularization of digital books, best practices, digital book supply chain management, and more.
Link to video recording: https://bnctechforum.ca/sessions/selling-digital-books-in-2024-insights-from-industry-leaders/
Presented by BookNet Canada on May 28, 2024, with support from the Department of Canadian Heritage.
The Art of the Pitch: WordPress Relationships and SalesLaura Byrne
Clients don’t know what they don’t know. What web solutions are right for them? How does WordPress come into the picture? How do you make sure you understand scope and timeline? What do you do if sometime changes?
All these questions and more will be explored as we talk about matching clients’ needs with what your agency offers without pulling teeth or pulling your hair out. Practical tips, and strategies for successful relationship building that leads to closing the deal.
5. Contents
Executive summary................................................................................................................................... 6
Chapter 2: Project methodology. ............................................................................................................. 14
.
Chapter 3: Analysis of barriers in administrative procedures..................................................................... 20
.
3.1 Generic model of the permitting process........................................................................................ 21
.
3.2 Barriers to administrative procedures............................................................................................. 24
3.3 A quick look at offshore. ............................................................................................................... 32
.
3.4 Recommendations........................................................................................................................ 34
Chapter 4: Analysis of barriers to grid connection. ................................................................................... 38
.
4.1 Generic model of the grid connection process................................................................................. 39
4.2 Barriers to grid connection. ........................................................................................................... 42
.
4.3 A quick look at offshore. ............................................................................................................... 50
.
4.4 Recommendations........................................................................................................................ 51
Chapter 5: Market-based analysis............................................................................................................ 56
5.1 Types of market............................................................................................................................ 57
5.2 Analysis per type of market. .......................................................................................................... 59
.
5.3 Regional analysis.......................................................................................................................... 68
Chapter 6: Country factsheets................................................................................................................. 74
6.1 Reader’s guide to the country factsheets........................................................................................ 75
6.2 Factsheets................................................................................................................................... 76
Appendix. ............................................................................................................................................. 145
.
Windbarriers project partners. ........................................................................................................... 145
.
Bibliography.......................................................................................................................................... 146
WindBarriers - Administrative and grid access barriers to wind power 3
6. PRINCIPAL AUTHORS:
Alberto Ceña, Asociación Empresarial Eólica (AEE)
Dorina Iuga, European Wind Energy Association (EWEA)
Emilien Simonot, Asociación Empresarial Eólica (AEE)
Nicolas Fichaux, European Wind Energy Association (EWEA)
Sharon Wokke, European Wind Energy Association (EWEA)
Sune Strøm, Vindmølleindustrien (DWIA)
ACKNOWLEDGEMENTS:
The authors wish to thank everyone who contributed to drafting and producing this report.
In particular we would like to gratefully acknowledge the following persons:
Contributors:
Benjamin Pfluger, Fraunhofer-Gesellschaft zur Förderung der angewandten Forschung e.V. (Fraunhofer)
Wendelin Macht, Fraunhofer-Gesellschaft zur Förderung der angewandten Forschung e.V. (Fraunhofer)
Revisers:
Julian Scola, European Wind Energy Association (EWEA)
Editing:
Sarah Azau, European Wind Energy Association (EWEA)
Zoe Casey, European Wind Energy Association (EWEA)
Special thanks to:
EWEA’s national wind energy member associations for their important contribution to the project.
The developers who replied to the WindBarriers survey.
Glória Rodrigues (EWEA) and Jacopo Moccia (EWEA) for their very useful remarks.
Design and production by: Megaluna
Design coordinator: Raffaella Bianchin, European Wind Energy Association (EWEA)
Published in July 2010
Printed on FSC certified paper
Disclaimer: The analysis, conclusions and recommendations provided in this publication are based on the answers received on
onshore and offshore wind projects from developers in 23 EU countries in the framework of the WindBarriers project. Some of the
samples are too small to be representative and therefore the corresponding recommendations would need to be confirmed on a
larger scale.
4 July 2010
7. Foreword
I am delighted to introduce this first publication from The WindBarriers project, which is supported by the
the WindBarriers project. The Directive on the pro- Intelligent Energy Europe programme, is expected to
motion of the use of energy from renewable sources significantly reduce the lead times for the develop-
(2009/28/EC) is a pillar of European sustainable ment of new wind projects, and it also has the po-
energy policy, and its implementation will require sig- tential to accelerate the development of projects in-
nificant efforts from EU member states to reduce ad- volving other renewable energy sources. It will engage
ministrative and grid access barriers. The WindBarri- with decision makers and help them to benchmark
ers project is important because it supports member their performance using an agreed monitoring meth-
states in this implementation process by providing odology.
a clear and detailed picture of the challenges being
faced across the EU, as well as indicating some of the WindBarriers has the potential to make an important
ways these challenges can be overcome. contribution to accelerating the growth of renewable
energy markets across the EU, and to implementing
WindBarriers analyses both the administrative and our common European vision of a more sustainable
grid access processes in the different member states future.
and regions, and compares them using transparent
and objective criteria. This will help to highlight best
practices, as well as to identify potential bottlenecks.
William Gillett
Head of Unit Renewable Energy
European Commission
Executive Agency for Competiveness and Innovation (EACI)
WindBarriers - Administrative and grid access barriers to wind power 5
8. xxx
Photo: Gehring
Executive summary
6 July 2010
9. Introduction Questions were asked on a set of potential barriers –
referred to as “indicators” - allowing information to be
On 30 June 2009, the European Commission adopted gathered on the administrative and grid obstacles in
a template setting out the minimum requirements for 23 countries of the EU. The results from the indicators
the National Renewable Energy Action Plans (NREAPs), can be compared from country to country, giving an in-
as required by Directive 2009/28/EC of the European dication of the implementation of the 2001 and 2009
Parliament and of the Council of 23 April 2009 (2009 EU directives. The results are accompanied by a set
Renewable Energy Directive). of recommendations on how to improve administrative
and grid access procedures in the EU-27 in order to
The NREAPs, which are to be provided to the European help each EU member state reach its binding target, as
Commission by June 2010, are national roadmaps of described in Table 1.1.
each country’s expected path to its binding renewable
energy target for 2020. Each NREAP is to set out the
country’s expected renewable energy contribution, both
Administrative procedures and
in terms of capacity to be installed (MW) and of energy
production (MWh), for each of the renewable energy corresponding barriers
technologies mentioned in the directive from 2010 to
2020. Moreover, each member state (MS) has to pro- Project developers need to obtain a building permit in
vide an estimate of its gross final energy consumption order to install a wind farm. This goes for the grid con-
from all types of energy (both renewable and non-renew- nection as well. The total time taken to get the building
able), for each year between 2010 and 2020, for three consent and grid connection permits is called the to-
sectors: heating/cooling, electricity and transport. The tal “lead time” of a wind farm. Based on the WindBar-
NREAPs will also include information on all policies and riers survey, the average total lead time in the EU is
support schemes to promote renewable energy in that 54.8 months for onshore and 32 months for offshore.
country. Reasons for the long lead times vary from country
to country, but they are often related to Environmen-
The WindBarriers project seeks to build a reliable meth- tal Impact Assessment (EIA) restrictions and/or grid
odology to obtain concise information on the adminis- connection constraints.
trative and grid connection barriers that obstruct the
development of wind energy. This methodology is to be The EU average for the administrative lead time of an
used by member states and the European Commission onshore wind energy project is 42 months. Compared
to monitor the implementation of Articles 6 (adminis- to this, offshore wind energy projects seem to be much
trative schemes) and 7 (grid connection) of directive quicker, with an average of 18 months according to
2001/77/EC on the promotion of electricity produced the surveys submitted to the WindBarriers project. The
from renewable energy sources, which correspond to administrative lead time differs significantly for each
the new Articles 13 and 16 of the 2009 Renewable country and each project: from 2 to 154 months. Some
Energy Directive. developers in Greece, Portugal and Spain have experi-
enced lead times of 100 months or longer for their build-
Building on a large stakeholder consultation, the Wind- ing permit applications. As regards offshore, a possible
Barriers consortium put together an extensive data- explanation for the shorter building consent time is that
base with precise information on administrative and the six countries in the survey seem to have developed
grid barriers. More than 200 wind energy projects in- efficient and streamlined decision-making processes,
stalled during 2007 and 2008, both onshore and off- including Maritime Spatial Planning (MSP).
shore across the EU-27, were analysed.
WindBarriers - Administrative and grid access barriers to wind power 7
10. Executive summary
On average nine authorities have to be contacted di- Once a project developer has secured the basic tech-
rectly and an additional nine indirectly for onshore nical requirements (e.g. project location, sufficient
wind projects in the EU, while offshore developers wind resource, access to the site of the future farm),
have to liaise with seven authorities directly and 16 a grid connection application can be sent to the
indirectly. This is, however, many more than would system operator.
be involved in the recommended ‘one-stop-shop’
approach, whereby the applicant would have to contact A basic technical project is submitted to the Distribu-
a single entity which would be in charge of coordinat- tion System Operator (DSO), but can be transferred to
ing the whole application process. The ‘one-stop-shop’ the Transmission System Operator (TSO) if it requires a
should be an EU objective for both onshore and off- higher grid capacity (usually over 132 kV).
shore projects.
According to the WindBarriers survey, the EU aver-
The barriers faced by developers during this proc- age for grid connection lead time is 25.8 months for
ess are often related to the approval and scope onshore projects and 14 months for offshore; for on-
of the Environmental Impact Assessment, compli- shore, the grid access lead time is significantly lower
ance with spatial planning, the number of parties/ than the administrative one (42 months).
authorities involved and to barriers related to other
stakeholders involved in the process (e.g. social The average number of TSOs involved in the grid
acceptance issues). connection process is 0.85 onshore and 0.92 off-
shore, whereas for the DSOs, it is 0.77 onshore and
For offshore, the main barriers are likely to be the ad- 0.47 offshore. In terms of third parties involved dur-
ministrative bodies’ lack of experience, an unclear EIA ing the grid connection process, the EU average is
process, and difficult interaction with other users of the 24 onshore and 4.4 offshore. The ideal situa-
sea, according to the survey. tion remains the ‘one-stop-shop’ approach, as
described above.
Costs, the approach of the authorities, the transparen-
cy of the decision-making process and the use of dead- The barriers faced by developers during this process
lines are also analysed in the survey - and depending are mostly related to an absence of clear information
on the country, they can constitute an obstacle to wind on the available grid connection capacity, a lack of plan-
power development. ning for future grid extension and reinforcements on
behalf of system operators, insufficient grid capacity,
and other aspects such as land ownership and the EIA.
Grid connection procedure and
corresponding barriers
Some of the main barriers to grid connection pro-
cedures were evaluated against the requirements
of Article 13 of the Renewable Energy Directive
2009/28/EC.
8 July 2010
11. Table 1.1: Overview of the main results of the survey on administrative and grid procedures
Administrative procedure Grid access procedure
Total lead Administra- Authorities: Authorities: Grid TSOs DSOs Other
time tive direct indirect access parties:
lead time contact contact lead time grid
Average Average Average Average Average Average Average Average
Country Months Months Number Number Months Number Number Number
Austria** 31.65 18.93 10.38 13.90 17.56 0.84 1.00 3.42
Belgium 22.61 20.33 4.08 10.28 7.08 0.91 1.00 3.18
Bulgaria** 31.65 18.93 10.38 13.90 17.56 0.84 1.00 3.42
Czech Republic 39.44 31.56 11.23 11.44 24.76 1.25 0.77 6.91
Denmark 34.46 31.81 4.25 0.90 2.01 0.78 0.92 0.13
Estonia* 37.80 28.30 10.54 16.03 22.33 1.72 1.38 5.46
Finland* 37.80 28.30 10.54 16.03 22.33 1.72 1.38 5.46
France 34.02 29.58 22.06 14.22 6.36 1.00 1.65 14.39
Germany 55.15 30.12 6.16 20.41 6.59 0.76 0.64 8.60
Greece 54.60 50.09 18.63 22.38 20.20 0.84 1.00 11.80
Hungary** 31.65 18.93 10.38 13.90 17.56 0.84 1.00 3.42
Ireland 55.59 33.49 5.74 8.77 31.42 0.82 1.00 5.01
Italy 32.24 18.06 12.73 2.84 18.96 0.45 0.51 32.25
Latvia* 37.80 28.30 10.54 16.03 22.33 1.72 1.38 5.46
Lithuania* 37.80 28.30 10.54 16.03 22.33 1.72 1.38 5.46
Netherlands 45.74 38.85 4.34 1.93 12.93 0.75 0.66 1.11
Poland 48.76 43.09 7.78 12.57 15.46 0.89 0.88 32.13
Portugal 71.11 58.03 7.58 6.61 46.61 0.79 0.38 47.25
Romania** 31.65 18.93 10.38 13.90 17.56 0.84 1.00 3.42
Spain 76.08 57.74 5.53 4.28 33.50 0.94 0.80 27.85
Sweden* 37.80 28.30 10.54 16.03 22.33 1.72 1.38 5.46
United Kingdom 25.88 26.87 3.47 11.74 8.36 0.55 0.94 2.62
Offshore EU 32.00 18.52 6.88 15.92 14.06 0.92 0.47 4.44
Onshore EU-27 54.80 42.32 9.03 9.13 25.83 0.85 0.77 23.89
Offshore EU-6 31.67 28.67 12.10 11.63 7.68 1.00 1.25 7.87
Source: EWEA 2010, WindBarriers survey
* grouped as ‘Baltic and nordic countries with less than four projects’
** grouped as ‘Central and eastern European countries with under four projects’
WindBarriers - Administrative and grid access barriers to wind power 9
12. Executive summary
Recommendations to EU-27 member states
Administrative procedures: Article 13 of the EU 2009 Renewable Energy Directive
Total lead times • Reduce the average total lead time in the EU to 24 months;
• Make clear requirements on Environmental Impact Assessments (EIAs) (fixed dead-
lines, how many EIAs need to be carried out depending on the size of the park, its
location) and reduce the number of irrelevant documents;
• Develop spatial planning by defining the most appropriate locations and wind
development areas, lowering investment risks and streamlining project application
procedures;
• Train and allocate enough civil servants to handle the expected applications;
Number of authori- • Develop and implement the ‘one-stop-shop’ approach in all member states;
ties to be contacted • The authorities should disseminate clear information to developers on the adminis-
directly and indirectly trative procedures and decision-making processes;
Administrative • Lower the average administrative lead time to a maximum of 20 months, to ensure
lead times that the total lead time in the EU stays below 24 months;
• Perform onshore and offshore spatial planning and define the most suitable wind
development areas, with streamlined administrative procedures in these areas;
• Provide clear definitions of the administrative requirements, in terms of procedures,
deadlines and EIA content;
• Set deadlines for the administrative process. If the authority is not able to meet the
deadline, the project automatically goes to the next stage;
• Train and allocate the necessary civil servants to handle the expected applications;
Administrative costs • Lower the average administrative costs in the EU to 1.5% of the total project costs;
• Perform a preliminary environmental assessment;
• Give incentives to competent authorities to gather data and studies collected under
the EIA process and make them public;
• Limit the administrative requirements to the key relevant elements, in particular the
ones identified through past projects. Update procedures regularly;
• Learn from past projects, and avoid requiring similar information from other
projects with the same conditions;
• For offshore, maritime spatial planning should give special importance to cross-
border cooperation and to developing synergies with other sea users;
10 July 2010
13. Transparency of • Improve the transparency of administrative procedures across the EU to an average
the administrative of 4 out of 5 1;
procedure • Inform both the developers and the local authorities of the applicable rules
and regulations;
• Set deadlines for the administrative process. If the authority is not able to meet the
deadline, the project automatically goes to the next stage;
Authority’s attitude • Improve the attitude of local authorities across the EU to an average of 4 out of 5 2;
• National authorities should make sure local and regional authorities are aware of
the targets set out in their NREAP and of the necessity for their country to
,
meet them;
• Disseminate transparent and unbiased information to the authorities at all levels
on wind energy technology and developments, addressing the myths associated
with wind energy.
1
According to the WindBarriers survey, the transparency of administrative procedures is rated 3.21 on average, on a range from 1 to
5 where 1 means non-transparent and 5 means maximum transparency.
2
The attitude of local authorities is rated 3.36 on average across the EU, on a range from 1 to 5, where 1 means ‘negative attitude’
and 5 means ‘maximum positive attitude’
WindBarriers - Administrative and grid access barriers to wind power 11
14. Executive summary
Grid connection procedures: Article 16 of the 2009 EU Renewable Energy Directive
Grid connection • Reduce the average grid connection lead time in the EU to six months;
lead time • Set deadlines for the administrative process. If the authority is not able to meet the
deadline, the project automatically goes to the next stage;
• Train and allocate the necessary civil servants to handle the expected applications;
• Develop the grid infrastructure:
- Provide clear definitions of the grid connection requirements. In particular, de-
velop and implement standardised grid codes across the EU;
- Plan and build transnational offshore grid infrastructure to connect the antici-
pated offshore wind power, and guarantee connection to the grid for offshore
wind projects;
- Reinforce the onshore and offshore transmission system (through cooperation
between different EU member states);
- Finding and occupying the land for interconnection infrastructure for wind farms
should be made easier, with adequate economic compensation for the land owners;
• On the developer’s side:
- Avoid an excess of requests on the same grid point; the projects should be
realistic and based on measured wind data. The use of the land should also be
guaranteed for the entire length of the project;
- Close collaboration with grid operators is required;
Grid connection costs • Lower the average grid connection costs in the EU to 2.5% of project costs;
• System operators should cover and contribute to the grid connection costs in the
countries where this is not yet the case, and adapt these costs to the project size;
• Upgrade the public grid infrastructure within reasonable costs;
• Limit the technical grid connection requirements to a reasonable level (remain
within the scope of the project);
• Provide clear definitions of the grid connection requirements. In particular, develop
and implement standardised grid codes across the EU. Grid codes have to be real-
istic and compatible with the latest technology. Harmonisation of grid codes at EU
level is important;
• The voltage range should be the minimum required according to the short circuit ca-
pacity of the grid and the load flows in the common coupling point (PCC). Feasibility
studies should identify the voltage range for the connection. This will affect the final
line tracing and the costs and time schedule;
• Clear information about grid costs should be provided to developers at an early at
an early stage of project development, in order to reduce investment risks;
12 July 2010
15. Transparency of • Improve the transparency of the grid connection process at EU level to an average
the grid connection of 4 out of 5 1;
• Provide a clear, streamlined procedure and decision-making process for
process
grid connection;
• Unbundling of vertically integrated power companies would make grid access fairer.
Plans for the construction and reinforcement of new grid lines should be realistic
and effective. It is fundamental to have better coordination between distribution
and transmission companies when building new infrastructure and for connection
requests. This coordination should also be extended during the wind
farm’s operation;
• Widely publicise information on the characteristics of the grid. Developers can carry
out access capacity studies and propose technical and management solutions.
These proposals will allow grid capacity to be increased and a realistic calendar to
be set for grid connection;
• Set deadlines for the grid connection process. If the authority is not able to meet
the deadline, the project should automatically go to the next stage of the authorisa-
tion process.
According to the WindBarriers survey, the transparency of administrative procedures is rated 3.21 on average, on a range from 1 to
1
5 where 1 means non-transparent and 5 means maximum transparency.
WindBarriers - Administrative and grid access barriers to wind power 13
16. xxx
Photo: Jan Oelker
Project methodology
14 July 2010
17. The aim of the project methodology was to find criteria Targeting recent projects:
that could be used to measure administrative and grid
barriers to wind energy projects for years to come.
2008 and 2007
Before beginning to collect the data, the consortium The objective of the project was to collect recent data
set up a working group made up of experts from the from both large and small projects, in all EU-27 coun-
consortium partners, 27 national wind energy asso- tries, via a questionnaire. In order to have the most
ciations, and representatives of the Executive Agency up-to-date information on barriers to wind energy devel-
for Competiveness and Innovation (EACI). The working opment, it was decided to focus on projects installed
group agreed on a specific methodology, based around in 2008 (when the project started). In order to obtain
the following criteria. statistically reliable datasets, representative of the dif-
ferent rates of development across the EU, the consor-
tium decided to monitor a minimum of 10 projects per
country, and to cover from 20% to 50% of new capacity
installed in 2008 in each country, as described below.
Since some countries installed low amounts of wind en-
ergy in 2008, projects from 2007 were also sometimes
taken into account, provided they were relevant.
Figure 2.1: Map of the cumulative capacity in MW at the end of 2008
Finland
143
Norway
428
Faroe Islands Estonia Russia
4 Sweden 78 11
1,021
Denmark Latvia
Rep. of Ireland 3,180 27
1,002 Lithuania
UK 54
3,241
Netherlands
European Union: 64,935 MW 2,225 Poland
Belgium Germany 472
Candidate Countries: 452 MW 384 23,903
EFTA: 442 MW Luxembourg Czech Republic Ukraine
Total Europe: 65,933 MW 35 150 90
Slovakia
France 3
Switzerland Austria
3,404 995 Hungary
14
127
Croatia Romania
18 10
Portugal
2,862
Spain Bulgaria
16,740 Italy
158
3,736
Turkey
433
Greece
985
Source: EWEA
WindBarriers - Administrative and grid access barriers to wind power 15
18. Project methodology
Building a representative Getting a minimum
sample: adaptation to number of projects
market dynamism
In addition to covering the minimum percentages men-
The goal was to build a data sample that represented tioned above, the sample was expected to include at
the different types of market in Europe. Considering the least 10 projects per country. However, this was not
wide variability of annual installed capacity in the differ- possible in Cyprus, Latvia, Luxembourg, Malta and
ent countries, the sample size for each country had to Slovenia, as there were not enough new projects in
be adapted to the market size. This was done in order 2008. In such cases, the project collected other rel-
to avoid collecting the vast majority of data from large evant data to indicate the barriers.
developed markets, and losing focus of the newer wind
energy players, where the barriers may be higher.
Analysing regional variations:
Generally, market analysts determine the maturity of
the market (regulatory environment, public authorities’ regional distribution
expertise, developers’ skills, and so on) using four mar-
ket categories based on the new installed capacity. Ex- In order to ensure that all types of regional develop-
perience shows that a high annual installation of wind ment were considered, the samples targeted regions
power is a good indicator of the level of barriers for where wind power was less developed.
countries with similar wind resources.
The Nomenclature of Territorial Units for Statistics
For the WindBarriers project, the consortium used the (NUTS) classification of the Committee of the Regions
capacity installed in 2008 as per statistics published was used to define regions; but not all regions in each
by the European Wind Energy Association (EWEA: see country were to be covered by WindBarriers.
Figure 3.1). More information on these statistics is
available on EWEA’s annual statistics web page on A substantial number of the projects to be consid-
www.ewea.org. ered per country were to come from regions that
performed at or below the European average. The
• For countries where less than 150 MW came online remaining projects were to come from the best
in 2008, the sample had to cover at least 50% of the performing regions.
new installed capacity.
• For countries where between 150 MW and 1,000 Balancing the regional distribution was one of the most
MW came online in 2008, the sample had to cover complex tasks in this project and only a few countries
at least 30% of the new installed capacity. managed to take it into account in the definition of their
• For countries where more than 1,000 MW came on- country sample.
line in 2008, the sample had to cover at least 20%
of the new installed capacity.
16 July 2010
19. Looking for showstoppers: Definition of the indicators
analysis of non-finalised projects
The main aim of the questionnaire was to obtain a
While obtaining a balanced overview of recently imple- comprehensive description of existing administra-
mented projects in the EU was relatively straightfor- tive and grid access barriers, primarily in a quantita-
ward, projects that are planned but whose implementa- tive manner, by means of particular criteria or “indi-
tion has been delayed represent a significant capacity cators”. In order to evaluate the results, and make
that is not registered in any database and can be at recommendations, it was necessary to make the bar-
various stages of development. riers in the individual member states measureable
and comparable.
However, it is necessary to differentiate between
projects delayed specifically due to administrative barri- A summary of the indicators is given in Table 2.1. They
ers, and projects delayed because of the lack of experi- fall into three categories depending on whether they
ence of the developer, an inadequate project proposal, measure administrative or grid access barriers, or pro-
or an overly speculative approach. vide overall information on the project and the devel-
oper’s success rate.
The WindBarriers consortium decided to address
this issue by adding a specific section on delayed/ In most cases, direct quantification of the barriers was
blocked projects to the questionnaire. Since the ques- possible. The questions relate to numerical values with
tionnaire was filled in by developers with a proven pre-defined units. Lead times are measured in months,
track record, the consortium avoided considering costs as a percentage of the overall project costs,
unrealistic projects. and the number of involved authorities, operators or
other persons/parties involved in the project in ab-
solute values.
Sample and survey
The indicators measuring administrative and grid ac-
cess transparency are derived from several ques-
On the basis of these criteria, each national wind tions. The respective answers are ranked on a
energy association compiled a sample of repre- five-point scale.
sentative projects, and identified the developers to
be contacted.
A copy of the WindBarriers online based questionnaire
was sent to those developers. Almost all member
states were covered, with the exception of the coun-
tries where no capacity was installed at all in 2008.
WindBarriers - Administrative and grid access barriers to wind power 17
20. Project methodology
Table 2.1: Selected indicators
Number of
Indicator Unit
questions
Total lead time Months 1
Overall
Number of projects on hold in same region Numerical value 1
Number of authorities that developer must contact directly Numerical value 1
Number of authorities developer does not have to contact directly Numerical value 1
Administrative barriers
Administrative lead time Months 1
Administrative costs As share (%) of total project costs 1
Authority’s attitude [1-5] 1
Transparency of administrative procedure [1-5] 4
Number of Transmission System Operators (TSOs) involved Numerical value 1
Number of Distribution System Operators (DSOs) involved Numerical value 1
Grid connection barriers
Number of other parties involved in obtaining grid connection Numerical value 1
Grid connection lead time Months 1
Grid connection costs As share (%) of total project costs 1
Transparency of grid connection process [1-5] 3
Source: Fraunhofer ISI 2009, for WindBarriers
18 July 2010
21. Confidentiality and the project partners and that only aggregated figures
would be published. Despite these measures, for some
representativeness countries the number of replies was relatively low and
the results would therefore have to be considered cau-
Before the data gathering process began, the consor- tiously and tested on a larger sample.
tium decided to cover the whole questionnaire with a
confidentiality agreement. It stipulated that the data The target amount of replies for each country, and the
from the questionnaire would only be visible to two of actual number received, can be seen below:
Figure 2.2: Rate of replies
900
900 31
800
800
700
700 23
600
15
Answers in MWMW
600
500
Answers in
500
10
400
400
300 13
300 10
200 10 11 12 9 13
200 6
100 12
12 6
100
0
Spain
Portugal
Poland
Italy
Greece
France
Ireland
Baltic & Nordic
Netherlands
Central & southeastern
Germany
Belgium
Denmark
United Kingdom
Czech Republic
0
Spain
Portugal
Poland
Italy
Greece
France
Ireland
Netherlands
Germany
Hungary
Belgium
Denmark
Estonia
United Kingdom
Latvia
Sweden
Czech Republic
Bulgaria
Finland
Austria
Lithuania
Romania
Baltic and nordic countries:
Estonia, Finland, Latvia, Lithuania, Sweden
Central and southeastern European countries:
Austria, Bulgaria, Hungary, Romania ■ Actual ■ Target (based on installed capacity 2008)
■ Actual ■ Target (based on installed capacity 2008)
Source: Fraunhofer ISI, 2010, for WindBarriers
WindBarriers - Administrative and grid access barriers to wind power 19
22. xxx
Photo: Shutterstock
Analysis of barriers
in administrative procedures
3.1 Generic model of the permitting process
3.2 Barriers to administrative procedures
3.3 A quick look at offshore
3.4 Recommendations
20 July 2010
23. In the following sections, the main barriers to the ad- 3.1 Generic model of
ministrative procedures are evaluated against the
requirements of Article 13 on “Administrative proce- the permitting process
dures, regulations and codes” of the 2009 Renewable
Energy Directive. Throughout the EU-27, project developers need to ob-
tain a building permit in order to install a wind farm. This
This article is included at the end of this chapter goes for the grid connection as well: developers cannot
(page 36) its first paragraph reads: “All member states link up to a network without a grid permit. Developers
[must] apply all proportionate and necessary rules con- often need more than one permit, and barriers can be
cerning the authorisation, certification and licensing related both to other stakeholders involved in the proc-
procedures for the production of electricity, heating or ess (such as NGOs, local community opposition, and
cooling from renewable energy.” other sea users in the case of offshore) and/or the final
building consent and grid connection.
The rest of the article defines the responsibility of the
member states to take the necessary steps in order Based on the information WindBarriers gathered on the
to ensure: perceived barriers to wind energy projects, a simplified
• Clear administrative structures and rules for certifi- process can be drawn for the permit process, as shown
cation and licensing at all administrative levels: lo- in Figure 3.1.1 below.
cal, regional and national.
• All the actors involved in the authorisation, certifica- This simplified process is primarily based on onshore
tion and licensing application for renewable energy wind farm procedures, as at this stage there are few
installations have clear and concise information on descriptions of the procedures for offshore wind farms.
what is required. The time needed to obtain these permits - the “lead
• Administrative procedures are simplified and stream- time” - is calculated from the moment when the project
lined at all levels for all stakeholders involved in the developer submits his first application (both for the
authorisation and permitting processes. building permit and for the grid connection permit) to
the point in time when a wind farm is online.
As the application processes for building and connect-
ing a wind farm to the grid can run in parallel, the overall
lead time cannot be calculated as the sum of the build-
ing permit procedure and the grid connection procedure.
Figure 3.1.1 summarises this process.
Figure 3.1.1: The process of getting the permit to build and connect a wind turbine
2. Building 3. onstruction of
C
permit the wind farm
1. Investment 6. Productive
decision wind farm
4. Grid acces 5. Physical grid
permit access
Lead time
Source: DWIA 2009, Windbarriers survey
WindBarriers - Administrative and grid access barriers to wind power 21
24. Analysis of barriers in administrative procedures
Phase 1: Investment decision/project planning: • Lack of regulation and/or uncertainty about regula-
The project developer first has to decide when to start tion related to wind farms and electricity production.
the application process for the necessary permits. If • Overly strict rules on noise requirements and dis-
the initial application is rejected, the lead time is con- tance of wind farms from habitations.
sidered to be zero. • Negative/lack of support from local authorities and/
or the neighbouring community.
The most common barriers during this phase are mar-
ket barriers, for example insufficient support schemes, Phase 2: Early development and maturation:
rejection of the project based on an informal dialogue The real process of getting a permit starts when the
with the public authority, or risks that are perceived by project developer submits an application to get a build-
developer as too high compared to the expected rate of ing permit. Now a ‘sub-process’ begins and this proc-
return. High risk can be caused by administrative barri- ess differs from country to country.
ers in the form of:
• Lack of access to information concerning the mate- The five sub-processes described in Figure 3.1.2 sum
rial needed for the permits. up the complete building permit procedure.
Figure 3.1.2: Process for getting the building consent
3.5. The building
3.1. Approval of
consent is
the EIA
approved
3.2. Public 3.3. The planning 3.4. Appeal
hearing act is decided process
Source: DWIA, 2009, for WindBarriers
22 July 2010
25. 3.1 EIA approval process: 3.4 Complaint procedures / appeal process:
The public authorities prepare to take a decision to ap- Much time can be wasted waiting for the outcome of
prove or reject the building permit. The process gener- a complaint/appeal process. From the perspective of
ally begins at local level and it can run in parallel with the project developer, these processes often lack clear,
other phases of the administrative processes. fixed deadlines, causing great uncertainty for the devel-
oper as to the exact date/time when the building permit
The project developer can encounter barriers such as: will finally be obtained. There is also the possibility that
• Lack of official information about the decision-mak- the authorities will reject the wind farm based on the
ing process. complaint procedures.
• Delays in the administrative process. For example,
even when the authority has a fixed deadline to give The project is then stopped or started again with a new
an answer to the EIA, it can postpone this deadline EIA process (box 2.1, Figure 3.2.1). Some developers
by asking for more materials or studies from the also face legal proceedings against the project during
project developer. or after the construction of the wind farm, which is a
• Negative attitude and inexperience of the authori- great financial burden.
ties.
• Disagreement regarding the scope of the EIA and 3.5. Building permit approved:
the spatial planning. At this stage, all the necessary permits are approved
• Having to contact several authorities to obtain the and the final building permit has been obtained.
necessary permits. The project developer can now start building the
wind farm.
3.2 Public hearing:
Approval of the EIA is often followed by a public hear- Construction of the wind farm:
ing, where the local community can express their views Barriers related to the construction process are not
on the project. The typical barriers encountered at this targeted in the WindBarriers project; therefore delays
stage are social acceptance barriers, such as the “not during construction were not counted in the overall lead
in my backyard” attitude (NIMBY), answering questions time.
from environmental NGOs, and a negative attitude from
the local authorities. Developers can face a lawsuit
against the project at this stage, but this happens more
often after the building consent has been given.
3.3 The planning act:
If the planning act is adapted to the wind farm project,
the developers will continue with an appeal process or
another legal proceeding (box 2.4, Figure 3.1.2) or they
will directly obtain the building permit (box 5, Figure
3.1.2). If the planning act is not adapted to the wind
farm, it can either be rejected outright, or developers
can be asked to start again with a new EIA process
(box 2.1, Figure 3.1.2). This delay occurs in almost all
EU countries.
WindBarriers - Administrative and grid access barriers to wind power 23
26. Analysis of barriers in administrative procedures
3.2. Barriers to administrative procedures
Table 3.2.1: Barriers to administrative procedures and corresponding indicators
Total Number of Number of Administra- Administra- Transparency Authority
lead authorities to authorities tive lead time tive costs (of of the attitude (1-5)
time be contacted with indirect (months) overall project administrative
(months) directly contact costs) procedure
(1-5)
Austria + + - + - + -
Belgium + + - + + + 0
Bulgaria + - + + + - -
Czech Republic + - - + - 0 -
Denmark + + + + + - +
Estonia + - - + + + -
Finland + 0 - + + 0 -
France + - - + + 0 -
Germany 0 + - + - 0 0
Greece 0 - - - - - -
Hungary - - - + + 0 -
Ireland 0 + 0 + + + +
Italy + - + + + 0 0
Latvia + + + + + 0 -
Lithuania + - - + - - -
Netherlands + + + 0 - - -
Poland + + - 0 0 0 0
Portugal - + + - + + +
Romania + 0 + + + 0 -
Spain - + + - - 0 0
Sweden + + - 0 - + +
United Kingdom + + - + 0 0 0
Offshore EU + + - + - 0 0
Source: EWEA 2010, based on WindBarriers
Relative country performance: Country colour codes:
• “+” performs 10% or more better than the EU aver- ■ : Noticeable deviation from the EU average in negative
age. direction (worst cases).
• “-” performs 10% or more below the EU average. ■ : Noticeable deviation from the EU average in positive
• “0” performs at EU average, within a 10% range. direction (best cases).
■ : Emerging markets.
Offshore: comparison onshore / offshore practices ■ : Growth market.
■ : Developed market.
24 July 2010
27. Total lead time The countries that have a lead time of longer than the
EU average are Hungary, Portugal and Spain.
The length of the total lead time for obtaining all the
needed permits for wind projects across the EU-27 is Urgent action is needed to reduce these lead times,
on average 54.8 months for onshore and 32 months despite the fact that Portugal and Spain are considered
for offshore. extremely dynamic markets, falling in the categories of
“developed” and “growth” markets.
As indicated in Figure 3.2.2, the total lead time is based
on both the administrative and grid connection proce- Reasons for long lead times vary from country to coun-
dures. For onshore, the best performing countries are try, but are often related to EIA restrictions and/or grid
Austria, Romania, and Finland with a total lead time of connection constraints due to a high number of re-
less than 20 months each. However, the very small sam- quests for connection to the power network.
ple size from these countries, due to a low level of MW
installed in 2008 (less than 10 projects), means that the We recommend an average lead time of 24 months at
results are not representative enough to be the basis of EU level for both onshore and offshore. EU member
a recommendation. states should take measures to reach this target by
improving their EIA procedure3: reducing the number of
According to the survey, Belgium, the UK, Italy, France, authorities to be contacted when carrying out the EIA,
and Denmark each have a total lead time of between and putting concise EIA procedures in place.
25 and 35 months.
Figure 3.2.2: Definition of total lead time, administrative procedure, and grid connection procedures
First application All main permits
Administrative made to an authority obtained
procedure
First application made Access to the grid
Grid access to a grid operator secured
procedure
First application to an All main permits and
authority or grid operator grid access obtained
Overall process
Source: Fraunhofer ISI, based on WindBarriers
3
The EIA should be carried out at member state level, based on European recommendations.
WindBarriers - Administrative and grid access barriers to wind power 25
28. Analysis of barriers in administrative procedures
Administrative lead time The three countries that are performing far below the
average are Greece, Spain and Portugal, with more than
The EU average administrative lead time for an onshore 50 months on average. For Spain and Portugal, this is
wind energy project is 42 months. Compared to that, related to the long total lead time. The Spanish case
offshore wind energy is much quicker, with an average is a paradox with a very long lead time for the admin-
of 18 months. Figure 3.2.3 below shows clearly how istrative process, but a small number of authorities to
much the administrative lead time differs from country be contacted (nine). This could indicate that there is
to country. a surcharge on the administrative side due to a high
number of applications in comparison to the allocated
The total range of the administrative lead time varies staff resources.
from two to 154 months. Some developers in Den-
mark, Greece, Portugal and Spain have experienced However, taking into account the earlier recommen-
lead times of 100 months or longer for their applica- dations, and in order to achieve a total lead time of
tions. For onshore, the five best performing countries 24 months, the EU average administrative lead time
are: Finland, Austria, Romania, Italy and Belgium, with should be reduced to a maximum of 20 months, pro-
an administrative lead time of less than 20 months. vided that the administrative and grid connection proce-
Considering the small sample size for Finland, Austria dures run in parallel.
and Romania, with very little wind power capacity in-
stalled in 2008 and 2007, the recommendations we
make in the factsheets (Chapter 6) need to be tested
on a larger sample.
Figure 3.2.3: Administrative lead time for obtaining the building consent per EU country
Month
160
140
120
100
80
60
40
20
0
Belgium
Czech Republic
Denmark
France
Germany
Greece
Ireland
Italy
Netherlands
Poland
Portugal
Spain
United Kingdom
CSE 4 proj.
BN 4 proj.
Onshore EU
Offshore EU-27
Source: 2009 WindBarriers survey
Note 1: C and SE: Central and southeastern European countries: Austria, Bulgaria, Hungary and Romania; B and N: Baltic and Nordic
countries: Estonia, Finland, Latvia, Lithuania and Sweden
Note 2: The top of the box plot represents the maximum lead time, the middle bar the mean lead time and the bottom of the box plot
the minimum lead time according to the survey answers received.
26 July 2010
29. Number of authorities to be EU countries, as already indicated in the 2001 Copen-
hagen strategy on offshore wind power deployment5.
contacted directly and indirectly4
Five countries are performing significantly below av-
On average, nine authorities have to be contacted di- erage, namely Austria, Hungary, Finland, France and
rectly and an additional nine indirectly for onshore wind Greece, with over 30 direct and indirect contacts to
projects in the EU, while offshore developers have to make. In these countries, urgent action is needed to
liaise with seven authorities directly and 16 indirectly. streamline the administrative processes.
These averages are relatively high compared to the
best performing countries on this indicator.
Administrative costs6
Taking into account both direct and indirect contacts,
the best performing countries in this study are Den- On average, administrative costs in the EU represent
mark, the Netherlands and Spain, with fewer than ten 2.9% of the overall project costs for onshore and 14%
contacts in total. This is however much higher than the for offshore. For offshore, this particularly large share
‘one-stop-shop’ approach, where the applicant would is related to the high costs of the EIA studies required
have to contact a single entity in charge of coordinating for the application procedure. For onshore, ten EU coun-
the application process for them. This should be the ob- tries have administrative costs below 2%.
jective both for onshore and offshore wind energy in all
Figure 3.2.4: Administrative cost as a percentage of total project costs
14
12
10
8
6
5
4
2
0
Belgium
Czech Republic
Denmark
France
Germany
Greece
Ireland
Italy
Netherlands
Poland
Portugal
Spain
United Kingdom
CSE 4 projects
BN 4 projects
Onshore EU-27
Offshore EU
Source: DWIA and Fraunhofer ISI 2010, for WindBarriers
Note 1: C and SE: Central and southeastern European countries: Austria, Bulgaria, Hungary and Romania, B and N: Baltic and Nordic
countries: Estonia, Finland, Latvia, Lithuania and Sweden
4
Authorities to be contacted directly are the ones that a developer has to negotiate with personally or in correspondence, e.g.
through applications or other documents. In some cases these documents are automatically forwarded to other authorities for
processing, without action from the developer.
5
Copenhagen Strategy on Offshore Wind Power Deployment, European Policy Seminar on Offshore Wind Power, Copenhagen,
27 October 2005.
6
The costs of the administrative procedures include all expenses needed for the building consent (NOT the grid connection proce-
dures): a) staff costs for the administrative procedures, b) fees, c) costs for the preparation of necessary studies such as environ-
mental impact assessments. “Overall cost” in this context means all the money spent in order to build the wind park, but not later
operation and maintenance costs.
WindBarriers - Administrative and grid access barriers to wind power 27