MAY 2015 BIOENERGY A LOCAL AND RENEWABLE SOLUTION FOR ENERGY SECURITY

Similar documents
Development history. of biomass heat market. Dr. Heinz Kopetz World Bioenergy Association, Stockholm. Nagano May 24th, 2017

Export & import possibilities and fuel prices

Czech Republic Energy efficiency report

Development of biomass fuel in Austria as the dominant heating fuel. Dr. Horst Jauschnegg

Bio-energy and the European pulp and paper industry an impact assessment

NORWEGIAN MARKET STATEMENT 2012 UNECE Timber Committee Week, October, Geneva, Switzerland

energy in figures Energy

Finnish Forest Sector Economic Outlook

Role of biomass in meeting future energy demands

Status Update: Canadian Wood Pellet Industry. Gordon Murray, Executive Director

Bioenergy from potential to reality

Solid biofuel markets in Europe

Towards sustainable international biomass trade strategies

Bioenergy Potential in Kaluga Region

Quick overview. Energy balance Production of primary energy. Renewable energy. Electricity and district heating. Consumption review 2009

Sustainability criteria for solid and gaseous biomass

Wood pellet production

WIND POWER TARGETS FOR EUROPE: 75,000 MW by 2010

DI Bioenergy Danish Bioenergy Association Danish-German Bioenergy Conference Kolding, 4. April, 2017

Energy Energy Energy Energy Energy Energy Energy

MODELLING OF BIOENERGY FUTURES THE CASE OF SWEDEN. Martin Börjesson* & Erik O. Ahlgren Chalmers (*IVL)

Overview of the European sawn softwood market in 2017

Data, tables, statistics and maps ENERGY STATISTICS

THE SUCCESS FACTORS BEHIND THE RAPID GROWTH OF THE HEAT PUMP MARKET IN FINLAND

Determining Carbon Footprint of a Waste Wood Burning Power Plant

Slovenia Energy efficiency report

Government support for bioenergy in Finland. The forest industry dilemma

COMMISSION STAFF WORKING DOCUMENT IMPACT ASSESSMENT. Sustainability of Bioenergy. Accompanying the document

Belgium Energy efficiency report

BIOMASS IN ITALY MARKET ENVIRONMENT AND OPPORTUNITIES FOR SMALL-SCALE BIOMASS PLANTS

Potential production of bioenergy from forests

COGEN Europe Position Paper: Industrial Renaissance in Europe

The Biomass Option. Types of Biomass. Pellets market and products. Summary and Conclusions

Energy Security in the Baltic Sea Region

The Future of Forestry-The Local Impact of Global Trends

Renewable Energy in Sweden an Overview

Supply Base Report for GLHU Stolbtsovski leshoz

The Renewable Energy Directive: Biomass for district and individual heating

Copyright 2017 Indufor Oy

How to address a scattered market? The case of Italy

IEA Task 40 Sustainable International Biomass Trade: aspects for the Central European Region

ENERGY PRIORITIES FOR EUROPE

France Energy efficiency report

Ministry of Employment and the Economy Energy Department [Finland]

Wooden Biomass in the Energy Sector - EU and international perspective -

Proposal for a Directive of the European Parliament and of the Council on the promotion of the use of energy from renewable sources (recast)

Bioenergy markets and policies, 2018

Renewable Chemicals from the Forest Biorefinery

2015 Final Heating & Cooling Demand in Sweden

Clean-Tech Innovation Strategy for the B.C. Forest Sector

Bioenergy in Ukraine: state of the art, prospects, barriers

Wood consumption and availability. developments and challenges. PROF. DR. UDO MANTAU UNIVERSITY of HAMBURG CENTRE of WOOD SCIENCE

Executive Summary of the Report on

Resource efficiency in Europe

EVALUATION OF THE POSSIBILITY TO UTILIZE BIOMASS IN FINNISH BLAST FURNACE IRONMAKING

ISSUES OF SOLID WOOD BIOMASS DEVELOPMENT FOR BIOENERGY IN LATVIA

EXPERIENCES FROM ESTABLISHING A BIOENERGY CLUSTER IN HEDMARK AND OPPLAND COUNTIES IN NORWAY. Session V Biomass energy markets financing perspective

The Netherlands Energy efficiency report

Energy Statistics: Making the Numbers Count

Overview of developments of wood-based bioenergy in the Netherlands and EU

Preliminary Report on Resource and Technology Assessment

Günther OETTINGER SPEECH/12. EU Commissioner for Energy

AEGPL position paper on the European Parliament Environment Committee s Draft Opinion on the EU Strategy on Heating and Cooling

Wood based Biomass in the U.S. An Emphasis on Wood Energy

Resource efficiency in the European Paper Industry Doing more with less is what we do best

Renewable energy in Europe. E-turn 21 workshop Cologne, 10 May 2006

IEA Task 40 Sustainable International Biomass Trade: aspects for the Central European Region

VISION AND INITIAL FEASIBILITY ANALYSIS OF A RECARBONISED FINNISH ENERGY SYSTEM

Mount Gambier Aquatic Centre Biomass Boiler

SUCCESS FROM THE FOREST INDUSTRY: European growth spurred by the. bioeconomy

International Energy Outlook 2011

Netherlands Energy efficiency report

Yukon Biomass Energy Strategy

Det europeiske kraftmarkedet på lang sikt

EU Bioenergy policy. COMPETE: Bioenergy for sustainable development in Africa. Ewout Deurwaarder, European Commission EUROPEAN COMMISSION

Integrating Renewable Fuel Heating Systems

Portugal Energy efficiency report

Profitability of short rotation crop resources for bio-fuels: Miscanthus plantation in the south west of France

Gas perspectives. Houston/Paris, 3-4 December Ministère de l'écologie, du Développement durable et de l Énergie

Finland s New Energy and Climate Strategy

CONTENTS TABLE OF PART A GLOBAL ENERGY TRENDS PART B SPECIAL FOCUS ON RENEWABLE ENERGY OECD/IEA, 2016 ANNEXES

Renewable Energy Trends in Finland. Update 20 November 2014

INTERNATIONAL BIOENERGY TRADE: EXAMPLES, TRENDS AND BARRIERS OBSERVED BY IEA BIOENERGY TASK 40

Center on Global Energy Policy Columbia University New York NY, October 15, Philippe Benoit Head, Energy Efficiency and Environment Division

Estonia Energy efficiency report

Finland s National Forest Strategy Ministry of Agriculture and Forestry Forests and Bioenergy Unit

Overview of energy efficiency in industry and utilities

Deciduous tree species for sustainable future forestry

Handelsbanken Breakfast Club: Biopower Equipment November 9, 2007

An Assessment of the Importance of Biomass Imports for the Austrian Bioenergy Sector

CHINA 2050 HIGH RENEWABLE ENERGY PENETRATION SCENARIO AND ROADMAP STUDY. Energy Research Institute National Development and Reform Commission

Finnish Forest Sector Economic Outlook

Bioenergy based energy services BENET OY. Asko Ojaniemi

Belgium Energy efficiency report

Overview 6/9/2010. How is our industry green? By John Ackerly. NEHPBA Annual Meeting Albany, June 6, 2010

Green Fuel Nordic The Smart Way. Utilising RTP TM technology to produce sustainable 2 nd generation bio-oil from local feedstocks

Sustainability at Michigan State University. Wolfgang Bauer

Photo: Thinkstock. Wind in power 2010 European statistics. February The European Wind energy association

Russia's accession to the WTO: Implications for Forest Sector Russia and Finland. Anatoly Chubinsky SPbFTU

Metsä Group s bioproduct mill -The largest bioeconomy investment in Europe

Transcription:

MAY 2015 BIOENERGY A LOCAL AND RENEWABLE SOLUTION FOR ENERGY SECURITY

State of play of EU energy dependency Following the crises between Ukraine and Russia, energy security has become high on the EU political agenda. In fact, since the EU is more than 65% dependent on Russian gas, it has no choice other than to rethink its energy supply and distribution systems. "For years we have talked about energy security in terms of secure external suppliers and secure routes for fossil fuels this is important but only half of the story. The secret to true energy security lies closer to home: clean, locally-produced renewable energy" Miguel Arias Cañete, Commissioner for Climate Action and Energy. Knowing that only around 25% of the gas we consume in Europe goes to electricity production and the rest to heating (41% for heating of buildings and 31% for industrial processes), the EU gas security crisis is in fact a heating crisis. The graph below shows the steadily increasing dependency rate of the EU for different fuels. Without additional measures, imports will continue to rise dramatically. The EU is highly dependent on fossil fuels imports (EU28 Energy import dependency by fuel (%) 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% 1995 2000 2005 2010 2011 2012 Total Fossil Fuels Coal Petroleum and Products Natural Gas The EU is dependent on unstable countries supply of fossil fuels (EU28 Imports by country of origin) 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% Other Kazakhstan Libya Nigeria Saudi Arabia Norway Russia Other Libya Nigeria Saudi Arabia Norway Russia Other South Africa Australia United States Colombia Russia Crude Oil Natural Gas Solid Fossil Fuel

A significant part of our energy imports comes from unstable regions, threatening the stability and security of the EU s supplies. The uncertainties over the current crisis in Ukraine show once again the limits of EU s energy dependency. According to Eurostat, about one third of the EU s total crude oil (34.5%) and natural gas (32%) imports in 2012 originated from Russia. These supplies appear to be less and less stable and secure, forcing the EU to think of a new strategy for its future energy security. According to Eurostat, nuclear energy represented in 2012, 28.1% of the EU s primary energy production (227.7 Mtoe), giving a misleading impression that nuclear is an indigenous fuel. In fact, the EU is largely dependent on external uranium supply, mostly from mines in Canada, Australia and Kazakhstan. It is important to realize that nuclear energy is keeping the EU dependent on external supplies when too often it is considered as a European primary energy (unfortunately, Eurostat includes nuclear energy in its primary energy production statistics). The dependency on different fossil fuels contributes not only to the weakening of the EU s geopolitical influence on the international arena, but also to the fueling of dramatic GDP-leakage, with the EU spending more than 1 billion per day on importing fossil fuels, or around 4% of its annual GDP. Solid biomass imports represent today only around 2-3% of the EU s gross inland consumption of biomass for heating and electricity. These imports are minor today and will remain marginal compared to fossil fuels imports. They also come from geopolitically stable countries such as the United States and Canada. In addition, imports of biomass to the EU are today subject to sustainability criteria (national sustainability schemes for solid biomass in NL, UK, DK, BE and private initiatives such as the Sustainable Biomass Partnership (SBP) scheme) and will be increasingly so in the future with an upcoming EU-wide sustainability criteria scheme announced by the European Commission in its communication on the Energy Union. This ensures the sustainability of increased biomass demand. Sweden has been a pioneer in switching from fossil fuels to biomass. The graph below shows the increase of biomass use in Sweden over the past 33 years in comparison with the decrement of fossil fuel use. As a result, Sweden has managed to considerably reduce its import energy dependency. Mtoe 30 Increased use of bioenergy and reduced import dependency Import dependency 80% 25 20 70% 60% 50% 15 40% 10 5 30% 20% 10% 0 1980 1985 1990 1995 2000 2005 2010 0% Bioenergy (Mtoe) Fossil fuel use (Mtoe) Import dependence %

Latvia is another good example of how biomass could alleviate energy dependency, while avoiding GDP-leakage. In fact, the current situation in Latvia is quite striking. The country is importing around 7 TWh of a Russian natural gas at a price of 55 /MWh and is exporting the same amount of energy wood at 13 /MWh, losing approximately 280 millions every year! Buying expensive, selling cheap Import/Export balance of energy sources in Latvia GAS Import approx. 7TWh/year Price 55 /MW Energy Wood Export approx. 7TWh/year Price 13 EUR/MW Source: Latbio Latvia is losing approx. 280 mln. /year Biomass as a solution to reduce EU energy dependency Biomass has a significant role as part of the solution to reduce energy dependency. By encouraging a switch to renewable sources of energy, including biomass, in its energy security strategy, the EU will not only alleviate its external dependency and therefore improve its geopolitical situation, but it will also invest in a European SME based sector, creating growth and jobs in the EU, while decarbonizing its economy. 1. Biomass potential European forests are currently underutilized, as volume growth is significantly higher than the utilization, which can be seen in the following graph. In Europe, we are harvesting only 62% of annual forest growth. Every year, the wood stock in forest is increasing by almost 300 million m 3.

Increment and fellings in forest available for wood supply (thousands of m 3 ) The current and future biomass potential for energy use has been evaluated by numerous studies, at the EU and national levels. Different potentials have been concluded, depending on the initial assumptions, the approach, the methodology used and considered constraints. The methodologies for biomass resource assessments were compared in the Biomass Energy Europe (BEE) project which was financed by the European Commission. The graph below summarizes the potential of biomass (forestry and forestry residues, agricultural residues, organic waste). The red diamond in the graph shows the actual gross inland energy consumption of biomass in 2012, compared to the range of potentials evaluated. It clearly shows that the current use of biomass is below all evaluated potentials, even the most stringent ones. This is foreseen to remain the same in the future. EJ/yr Studies are showing that the potential is higher than current biomass use 70 60 50 40 30 20 10 0 2000 2010 2020 2030 2040 2050

Counterintuitively, higher wood demand increases forest wood stock, as the owners see a higher value in wood, thereby managing forests more actively. More active forest management leads to increased volume increment as planting and thinnings are taken care of. Additionally, a stronger forest industry which creates sawn wood products and paper increases the biomass available for energy. Harvesting residues (branches and tree tops), small diameter wood, saw dust, wood shavings, bark and black liquor are among the by-products of the traditional paper and saw milling industries which can be used as bioenergy feedstocks. The image below illustrates the different parts of a deciduous tree. The branches and tops can be used for bioenergy. The round wood is processed into sawn wood and cellulose, while their residues are used for energy purposes. The figure on the bottom-right depicts the wood consumption of an example country, Finland. The wood used for energy comes mainly from bark, dust and chips from the sawmilling and pulp industries. The fuel wood for heating and power accounts for a significantly smaller share and consists mainly of small diameter wood and harvesting residues. Wood used for energy comes mainly from tree branches and tops and from bark, dust and chips from the sawmilling and pulp industries Source: LKÖ 2. Technologies available Source: Metla Readily available renewable energy solutions, combined with energy efficiency measures, are a quick, practical and versatile option to alleviate fossil fuels dependency. Biomass offers the possibility to replace every type of fossil fuel within every market: electricity, heating and cooling, and transport. Biomass represents today 9.25% of the total final energy consumption in Europe and 62.4% of the renewable energy consumed (Eurostat data for 2012). Biomass for Heat: Of all possible renewable heating options, biomass has a great potential to deliver significant and cost-effective solutions to a concerning heat demand. Wood pellets, wood chips, briquettes, wood logs, and straw can be used for biomass heating, by using stoves or boilers.

Stove: Used for residential heating Boiler: From small to large scale, heat can be used in buildings (through individual applications or district heating) and for industrial processes. Heat can also be produced through CHP (Combined Heat and Power). Biomass for Electricity: Biomass can be used to produce electricity for the grid or for self-consumption in industrial processes. It can be implemented in dedicated biomass power plants or through co-firing with fossil fuels. Dedicated biomass plants are plants specifically designed or converted to use biomass as fuel. They often use low cost fuels such as wood chips and, in some cases, agricultural by-products such as straw. Co-firing offers a possibility to produce large amounts of renewable electricity using existing power facilities. In the case of pulverized coal plants, high quality wood fuels such as pellets are used. Pellets are milled to powder and burned with coal in existing conventional power plants. In some recent cases co-firing plants have been converted to use 100% biomass. By achieving the targets for renewables in heating and cooling (21.4% in 2020), the EU could reduce its gas imports by the equivalent of 28.7 Mtoe annually in 2020. With current average import prices, this would save the EU some 9.6 bn. However, with more ambitious policies, it would be possible to cover 25% of the total heat demand by the end of this decade. The annual savings in reduced fossil fuel imports would amount to as much as 21.8 bn compared to 2012. Instead of being paid to third countries, these amounts would be reinvested in EU industries developing technologies able to use indigenous and renewable sources of heating, such as biomass. Switching to a pellet stove means contributing to the EU economy

Policy recommendations Biomass can play an active role in reaching the EU s energy security objectives, while tackling at the same time growth and climate change objectives. EU policies which can contribute to strengthen this role: Subsides to fossil fuels and nuclear should end and a carbon tax instrument should be promoted to drive consumption to a low carbon economy. With low oil prices, we have now a very good window of opportunity to increase fossil fuel taxes. The Renewable energy Directive should be implemented properly, in particular articles 13 and 14 dedicated to renewables in buildings and to communication towards consumers and trainings of installers of small-scale equipment. Beyond 2020, these measures could be strengthened. The development of renewable sources of energy should be combined with energy efficiency measures. For example, the buildings renovation policy should integrate both energy efficiency and renewable energy solutions. Communication campaigns should be organized at the national / regional level with the support of the EU, so as to raise local authorities, industries and consumers awareness on the benefits of switching from fossil fuels to biomass. The European Commission should submit an analysis on how stable sources of renewable energy, such as sustainable biomass power, can complement variable renewable sources to increase the stability of the power sector. The revision of Regulation (EU) 994/2010 on the security of gas supply should require Member States to establish a strategy to promote a switch from gas to biomass, including in district heatings. Increase RD&I in renewable heat technologies to reduce costs, enhance systems performance and reduce payback time. European Biomass Association Place du Champ de Mars 2 1050 Brussels T: +32 2 318 40 33 www.aebiom.org Join us on www.biomasscounts.eu For more information info@aebiom.org AEBIOM is the common voice of the European bioenergy sector with the aim to develop the market for sustainable bioenergy, and ensure favorable business conditions for its members.