Biotrade + project:workshop: policy options for sustainable biomasse trade Global Biomass Resources Potential opportunities for trade

Similar documents
How To Model Biomass

Country Report, SWEDEN

Green Energy in Europe - Potentials and Prospects

The Contribution of Global Agriculture to Greenhouse Gas Emissions

Nomura Conference. Biomass: the 4 th Energy Source. June February 2011

WASTES, RESIDUES AND CO-PRODUCTS

Introduction to our Business in Valmet. Marita Niemelä VP, Strategy Pulp & Energy 20 August 2014

LEGAL FRAMEWORK, POTENTIAL AND OUTLOOK FOR BIOENERGY SECTOR IN VIETNAM

Groupwork CCS. Bio-Energy with CCS (BECCS) Platzhalter Logo/Schriftzug (Anpassung im Folienmaster: Menü «Ansicht» «Folienmaster»)

The future is our most important market Refining with a sustainable vision. Sören Eriksson

BIOENERGY (FROM NORWEGIAN FORESTS) GOOD OR BAD FOR THE CLIMATE?

Harvesting energy with fertilizers

Biowaste to Energy Examples from Germany

Biomass supply chain issues for power

Papapostolou 1, E. Kondili 1, J.K. Kaldellis 2

Sustainable production of biogas and bioethanol from waste

Forward. Contents. Bioenergy Development Plan

Biomass Supply Chains in South Hampshire

Utilization of residues from agro-industry in The Philippines Dr.-Ing. Werner Siemers Energy System Analysis

Assignment 8: Comparison of gasification, pyrolysis and combustion

Low-Carbon Development for Mexico (MEDEC)

Biofuels in Sweden: national verification system for sustainability

Biomass-to an overview

FAS Training Course on Energy Efficiency / Renewable Energy

AGRICULTURE FOR FOOD AND FOR BIOENEGY: IS IT POSSIBLE?

Metsä Fibre s Bioproduct mill

February Biogas as a grid stabilising power source

New Bio Solutions. DONG Energy. Pyroneer November May 2013

EU policy outlook on biofuels

Annex 5A Trends in international carbon dioxide emissions

From forest to gas in the transmission system. Ulf Molén,

Implications of Abundant Natural Gas

Potentials for Biomass Utilization. in Serbia

Efficient forest biomass supply chain for biorefineries A project for cross border cooperation

A"Local"Authority"Biomass"Supply"Chain;" experiences"in"north"lanarkshire"and" Stockport" November"2013"

Please address your inquiries to

Creating Industrial Leadership: Metsä Group

Asja Group Company Profile

Delivering the UK s renewable heat objectives through wood fuel

Renewable Energy from Biomass. Opportunities in London and Area? Eric Rosen

The IMES Master Programme

Working Paper 1 Economic analysis of biomass energy

of bioenergy and actions

State of the art of solid biomass technologies in Germany

DEVELOPMENT AND STATUS OF THE USE OF AGRICULTURAL RESIDUES FOR ENERGY IN DENMARK HISTORY AND POLICY DRIVERS

Challenges in trading solid biofuel

A Cheaper Renewable Alternative for Belarus

Energy Efficiency and Renewable Energy Sources in Sweden

Biogas and Biomethane

Wood Pellets for Power and Heat. Gordon Murray, Executive Director

REPORT FROM THE COMMISSION TO THE COUNCIL AND THE EUROPEAN PARLIAMENT

The Feedstock Supply Chain and Centers of Energy Excellence Update

The Norwegian bioenergy sector

Comments to Ontario s Climate Change Discussion Paper EBR POSTING

Sweden Energy efficiency report

1-Some related indicators: Total land area is 1 million Km 2. Only 3% of the land area is arable. The rest 97% is hyper arid desert. The whole lands a

Preliminary pellet market country report SWEDEN

97 MW of Cat coal seam methane power in New South Wales, Australia

How To Gasify Wood And Agriculture Biomass

Residential & Commercial Sectors Overview CLIMATE

How To Improve Energy Efficiency In The Paper Industry

The success of biomethane in Sweden

Present status and future projects of biomethane in Sweden (Scandinavia) Anders Mathiasson, Malmö Senior advisor Swedish Gas Association

Liquid Biofuels for Transport

Biogas as transportation fuel

Global Wood Markets: Consumption, Production and Trade

Bioenergy. A sustainable energy source.

De energievoorziening in 2040;

DSM Position on Sustainable Biomass

World Energy Outlook 2007: China and India Insights. International Energy Agency

DELIVERING THE BIOENERGY TRIPLE BOTTOM LINE TO THE GLOBAL COMMUNITY

Bioenergy from agroforestry can lead to improved food security, climate change, soil quality and rural development

Modular chemical conversions delivering clean energy

Woody Biomass Supply and Demand 1

Q UEEN S I NSTITUTE FOR E NERGY & E NVIRONMENTAL P OLICY

Using resources in an efficient way Case Metsä Group

Biomass Renewable Energy from Plants and Animals

World Energy Outlook Presentation to the press London, 12 November 2012

Hillevi Eriksson, Climate and Bioenergy specialist, Swedish Forest Agency

British Columbia s Clean Energy Vision

The heat plant Future biorefinery. Panndagarna 2015 Västerås, April

SECTOR Specials: Value Chains, Economics and Sustainability

Danish Energy Model RE Policy Tools MAIN Asian Dialog, Bali January Mr. Henrik Breum Special Advisor

Forest carbon sequestration and climate change. Dr Brian Tobin University College Dublin

Sweden. Biofuels Annual. Clearance Office: All - FAS. Date: 6/24/2009 GAIN Report Number: SW9008

Biorefinery concepts in the paper industry

UK Biomass Strategy May 2007

BUILDING THE BUSINESS CASE FOR LARGE-SCALE UTILIZATION OF FOREST RESIDUES AS FEEDSTOCKS FOR PRODUCTION OF ENERGY COMMODITIES:

IDEAS Energy Innovation Contest 2012 Winners

Renewable vs. non-renewable energy sources, forms and technologies prepared by. A.Gritsevskyi, IAEA

Copa and Cogeca s preliminary contributions to the policy on promoting renewable energy sources and decarbonising the transport sector for the

Teacher notes for activity: What is global warming?

Uusiutuvien teknologioiden kehittäminen yhteistyössä partnereiden kanssa

Biogas. creating the future

UPM Grow with Biofore. Vesiyhdistyksen Jätevesijaoston seminaari Esa Laurinsilta

Göteborg Energi. Biogas potential. Henrik Forsgren. Dir. Public Affairs. Biogas has a wide range of biomass feedstock.

AP ENVIRONMENTAL SCIENCE 2012 SCORING GUIDELINES

Central Highlands and Wimmera Southern Mallee Biomass Supply Chain Strategy

Alternative and Renewable Energy. Christopher Nicholson section: AD Last 4 # of SIN: 5001

Using Straw and MSW for Biorefineries in Denmark Technical Developments and Demonstration Activities

Transcription:

Biotrade + project:workshop: policy options for sustainable biomasse trade Global Biomass Resources Potential opportunities for trade Dr. Heinz Kopetz World Bioenergy Association, Stockholm Vienna, 3 June 2015 Messe Wien Congress center Schubert 4 World Bioenergy Association (WBA) join the global voice of bioenergy!

Global Biomass Resources Potential opportunities for trade Structure: Global issues: population, energy demand, emissions, land endowment Facts and examples outlook Join the World Bioenergy Association (WBA)

Global Biomass Resources Potential opportunities for trade Purpose of the project: guidelines for an european trade strategy for 2020 and beyond, sustainably sourced and efficiently used biomass; focus: wood chips, pellets, torrefied biomass and pyrolysis oil Key assumptions for ths presentation: climate mitigation policy is getting serious economic growth and population growth continue Europe develops a global responsibility Join the World Bioenergy Association (WBA)

Bioenergy and climate change towards 2035: Economic growth and climate mitigation 2035: more energy needed growth of population and the economies the carbon budget approach: halving the use of fossil fuels required to comply with the 2 C target How to close the gap? more renewable energies better energy efficiency What can be the role of bio-energy and of bio-energy trade? World Bioenergy Association (WBA) join the global voice of bioenergy! www.worldbioenergy.org

Global Biomass Resources Potential opportunities for trade perspectives 2035 2035 Required reduction of global ghg emissions minus 50% Expected population by 2035: 8,3bn beople Increased global energy demand additional 50-100EJ Global C02 per capita emissions/year: 2012: ca 4,6 tons (variations from 16 tons to 1 ton) Target 2035: 2,2 tons per capita High emitters: North America, Middle East, Australia Medium emitters: Europe, China Low emitters: Africa, India developing countries

Global Biomass Resources Potential opportunities for trade Global population Global Population bn 2011 Trends to 2035 World 7 058 Growth Africa 1 072 Strong growth Americas 942 Almost stable Asia 4 216 Strong growth Europe 740 Stable, declining Oceania 37 - The projected population growth will mainly take place in Africa and Asia, In these continents they will need more land for food! Join the World Bioenergy Association!

Global Biomass Resources Potential opportunities for trade Global energy demand Energy consumption Trends towards 2035 per capita World 21 900kWh (79 GJ) growing Africa low Strong growth Americas North Amer: very high Small growth South Amer: low Growth Asia Rather low Strong growth Europe Oceania High (38 000kWh; 137GJ) High Rather stable, maybe decline Join the World Bioenergy Association (WBA)

Global Biomass Resources Potential opportunities for trade energy demand and CO2 emissions World Africa Americas Asia Europe Oceania Energy demand and CO2 emissions/capita CO2 emisions What should be the trends towards 2035 4,6 t/cap and year Should decline by 50% low North: high South: low China: medium Other countries: low medium Rather high (AU) Small increase Strong decrease Small decrease Small Decrease Small increase Strong decrease Africa, Asia, South America: increasing energy demand, will need much more RES Europe: reduce emissions and energy demand, more res North America: strong reduction in emissions and strong growth in res! Join the World Bioenergy Association!

Global Biomass Resources Potential opportunities for trade available arable land per capita Arab land/cap ha Trends towards 2035 World 0,20 reduced Africa 0,22 Strongly reduced Americas 0,39 Rather stable Asia 0,11 Strongly reduced Europe 0,37 Rather stable Oceania 1,30 oversupply Americas and Europe have a good endowment with arable land/capita, Africa and especially Asia not. In these continents arable land/cap will go Decline futher due to population growth. due to the growing population! Join the World bioenergy Association (WBA)

Global Biomass Resources Potential opportunities for trade Period 2015 2025 Big differences in the infrastructure to use biomass between North America, Africa and Europe. Europe Biomass to power plants Biomass district heating systems Millions of biomass boilers, pellets stoves Europe continues to import more biomass, doing so Europe helps to to build up a supply structure in exporting countries, but sooner or later these countries will need part of this biomass in their own countries. Europe needs efforts to increase the European supply of biomass!

Global Biomass Resources Potential opportunities for trade conclusions 1 World situation Short term Africa Americas Asia Europe Strong growth in energy demand and population, arable land per capita low as compared to Europe and Americas, Deforestation, unsustainable forest management Canada: huge bioenergy potential as compared to the population, USA: huge bio-potential but also high fossil CO2 emissions, Latin America: big bioenergy potential, Strong growth in energy demand and population, arable land very scarce Well endowed with arable land and forests, stable population Until 2025 Limited export Possibilities for Europe, Building up a Bioenergy structure Import possibilities for Europe Demand for bioenergy imports Good import possibilities America Longer term Beyond 2025 Africa will need all its Bioenergy For Africa Import possibilities for Europe but less and less from the USA Strong demand for imports Reduced import possib., Europe has to use its resources better

Global Biomass Resources Potential opportunities for trade Structure: Global issues: population, energy demand, emissions, land endowment Facts and examples outlook Join the World Bioenergy Association (WBA)

Bioenergy and climate change Biomass for energy: origin and potential by 2035 Forestry: fuel wood, forest residues, wood industry residues, black liquor (lignin from pulp mills) recovered wood, wood from landscape cleaning, processed forms; charcoal, pellets Agriculture: animal by-products (manure-biogas), agriculutral byproducts like straw, rice husk, sun flower shells, empty fruit bunch, bagasse, kernels from olive trees etc., energy crops, short rotatation coppices etc. Waste streams: MSW (municipal solid waste organic fraction), sewage sludge, waste from food industry, World Bioenergy Association (WBA) join the global voice of bioenergy! www.worldbioenergy.org

Table 22 Overview of biomass supply sources (in EJ, 2010) Structure of global biomass supply 2010 source IPCC study Biomass sector % EJ Fuelwood 67% 34.7 Charcoal 7% 3.62 Forest residues 1% 0.52 Forestry (87%) Black liquor 1% 0.52 Wood industry residues 5% 2.59 Recovered wood 6% 3.11 Animal byproducts 3% 1.55 Agriculture (10%) Agricultural byproducts 4% 2.07 Energy crops 3% 1.55 Wastes (3%) MSW and landfill gas 3% 1.55 Total 54.7 Bioenergy 2014 estimated with 58.5 EJ, hereof 3,5 EJ pellets, 3 EJ biofuels)

The use of bioenergy by continents: Asia is leading, followed by Africa and the Americas

Bioenergy and climate change Supply of biomass, EJ (source 2010 IPCC) Additional 80 EJ until 2035! 2010 2035 Forestry 47.2 Medium increase Agriculture 5.4 Strong increase Waste 1.6 Strong increase total 54.2 125-150

Global Biomass Resources Potential opportunities for trade Biomass in Europe 2012 and 2035 2012: bioenergy in Europe EU28 116Mtoe (4,8 EJ, 1 333 TWh as prim. Energy) 2014: Pellets consumption 0,35EJ (20 Mt equals 96TWh or 8,27 Mtoe.) 2035: bioenergy in EU europe as part of a climate mitigation strategy Ca 200 230 Mtoe (about 9 EJ) Assumed share of pellets 20% would be 40 Mtoe (ca 100 Mt pellets ) 2035: European production:? 2035: Imported pellets:? 5 Mha decidated energy crops for solid biomass deliver 60Mt solid biomass as dry matter (1,08 EJ = 30 Mtoe = 300 TWh) that is 75% of the assumed 100 Mt pellets

Low quality wood for bioenergy

Straw for bioenergy

A few clarifications ILUC is a misleading concept, that does not depict the real world, underestimates the innovation and dynamic of the agric. sector First generation fuels are a by-product of the protein production, a too low limitiation as now in Europe limits the protein production and causes more protein imports from abroad. Dirty carbon and renewable carbon: dirty (fossil) carbon would remain in the earth crust forever if humans would not dig it out. The use of fossil carbon leads to a huge carbon debt! Renewable carbon in biomass origins from the atmosphere and is given back to it by decay or by use. It is part of the natural carbon cycle. Nature as example: we need a fossil free energy system but not a low carbon society nature is not a low carbon system!!

Bioenergy and climate change Overview about technologies for treatment of biomass: - Baling, chipping - Drying, grinding - Pelletizing, briquetting - Torrefaction - Steam explosion - Pyrolysis World Bioenergy Association (WBA) join the global voice of bioenergy! www.worldbioenergy.org

Global Biomass Resources Potential opportunities for trade Structure: Global issues: population, energy demand, emissions, land endowment Facts and examples outlook Join the World Bioenergy Association (WBA)

Global Biomass Resources Potential opportunities for trade conclusions Biomass trade is a global not an European issue Europe Short term opportunities: Import possibilities from Africa and America! Europe long term opportunities: Import possibilities mainly from Canada and South America Join the World Bioenergy Association!

Principles in the use of biomass Efficiency Sustainability Cost competitive Regional priority for production and use

Bioenergy and climate change Philip Lowe, former Directeur General of the EU energy department: Biomass is the only renewable, affordable energy source available on-demand. European countries need to make sure it is sourced sustainably, writes Philip Lowe.

Bioenergy and climate change Philip Lowe: Sweden is already getting it right. Bioenergy is today the largest source of energy in the overall mix, accounting for one-third of Sweden's energy consumption. Since 1990, the Swedish economy has grown by more than 50% in real terms, and at the same time, greenhouse gas emissions have decreased by 23%. A leading factor in this decoupling between economic growth and emissions is the steady growth of bioenergy use, in all sectors of the Swedish economy.

To cope with this challenge: join the World Bioenergy Association (WBA) World Bioenergy Association (WBA) join the global voice of bioenergy! www.worldbioenergy.org

World Bioenergy Association (WBA) World Bioenergy Association (WBA) join the global voice of bioenergy! www.worldbioenergy.org

Thank you for your attention! ANDRITZ Iour official sponsor ANDRITZ and our silver sponsors: KWB pellet boilers, AGRANA ethanol producer Official Sponsors:

Global Biomass Resources Potential opportunities for trade conclusions conclusions from this analysis by 2035: high emitter countries: will have to reduce fossil fuels strongly in their energy mix; they will have to use a big share of their biomass in their own country, they are big difference between USA and Canada Low emitter countries: Africa strong growth in energy demand, unsustainable biomasse use for cooking! They will need their biomass to replace unsustainable use by sustainable practices and cover part ot the growing demand by indigenous sustainable biomass Medium emitters like Europe: Limited import possiblilities from Africa and USA, better possibilites from Canada, Latin America and Russia, if a political accord can be reached.