| © UPMU The BIG picture Matthew Rivers 1 Tuesday, 11 August 2015.

Slides:



Advertisements
Similar presentations
1 Drivers for biofuel Energy security – Diversification Self-sufficiency Climate change Agriculture and rural development Support for domestic farmers.
Advertisements

Biomass for heat and power production - opportunities for land owners and buildings managers Ian Tubby Biomass Energy Centre RRSP, October 2009.
Biorefining – Introduction, Opportunities and Challenges
Wood energy and raw material supply Forest owners’ views Ivar Korsbakken, special adviser.
1 Alternative Energy Strategies Transitions to renewables and supply security Philip Peck IIIEE at Lund University, Sweden II Energy Club meeting, Minsk,
Putting it all together: Policy directions Cameron Maxwell, Business Development, FCS FEG Autumn Symposium, 8 September 2011.
Presentation to Joint Oireachtas Committee on Agriculture, Food and the Marine on the positive impacts of Coillte on Ireland’s carbon footprint Thursday.
Christer Segerstéen LRF Forest owners’ association Sweden’s Green Gold.
FOREST FUEL - RENEWABLE ENERGY. Renewable energy Today, renewable energy is an important part of the Swedish energy budget. With its share in the energy.
ALTERNATIVE FUELS AND VEHICLES BIOFUELS Carlos Sousa AGENEAL, Local Energy Management Agency of Almada.
Moffitt Symposium, Newcastle University 18 th September 2007 Oliver Harwood The Contribution of Renewables to the UK Sustainable Farming and Food Strategy.
Identification of needed competences Socio-economic development in the era of renewable energies: Towards the creation of a research institution for the.
The role of bioenergy in the European Union Giulio Volpi Renewable Energy and Carbon Capture and Storage Policy DG Energy, European Commission.
Being bold Many food and drink companies have good individual environmental records FDF decided to be bold about making a real difference for the environment.
The UK’s National Centre for Biorenewable Energy, Fuels and Materials NNFCC Developing Markets for Bio-based Plastics Opportunities and Challenges Dr Adrian.
Biofuels in Sweden – moving the sustainability agenda forward Semida Silveira PhD, sustainability expert International Secretariat Curso combustíveis líquidos.
Module 1: Understanding Bioenergy Resources
The Hungarian Energy Policy and the Renewable Energy Situation The Hungarian Energy Policy and the Renewable Energy Situation Dr. Poós.
Slide 1 U.S. Energy Situation, Ethanol, and Energy Policy Wally Tyner.
IIP Utilization of renewable raw materials in Germany
Impact of Energy Crops on World markets Alastair Dickie Director, Crop Marketing, HGCA.
Apex Paris - October UK and European Renewable Energy trends and implications for energy markets Philip Wolfe Renewable Energy Association
Biomass to energy projects in the Caribbean and cross-island trade for power production IRENA, Martinique, June
Final Project Renewable Energy System : Biomass Iberian Partnership for Technician Excellence, Summer 2012.
BIOMASS.  Biomass is a biological material derived from living, or recently living organisms. This often means plant based material, but biomass can.
CLIMTECH Side Event at COP-8 in New Delhi, India Thu 31 Oct 2002 at 6.00 p.m. Technology and Climate Change Programme (CLIMTECH) I. Savolainen,
Renewable energy development and share in energy balances in Central-East Europe 1 Renewable energy – development and share in energy balances of Central-East.
Renewable energy – EU policy update Mihail DUMITRU European Commission, Directorate-General for Agriculture.
BIOFUELS Advantages and Disadvantages Brandie Freeman What is a
EU policy for renewable sources of energy Implications for producers and basic industries Lars J. Nilsson CANES Oslo, 20 November 2007.
1 BIOFUELS FROM A FOOD INDUSTRY PERSPECTIVE Willem-Jan Laan European Director External Affairs Unilever N.V.
The Impact of the EU Biofuel Policy on the Feedstock Markets in the EU and Worldwide Stephan Hubertus Gay European Commission, DG Agriculture and Rural.
Linking energy and environmental changes through statistics Duncan Millard Department of Energy and Climate Change, UK IAOS.
WIND ENERGY Is there a Latvian Master Plan? CHRISTIAN KJÆR Chief Executive Officer European Wind Energy Association SSE Riga, 4 December 2008 © EWEA/L.
UK Renewable Energy Policy with particular reference to bioenergy
Wood for Energy Experience of Coillte to date Presentation to the Oireachtas Joint Committee on Marine, Communications and Natural Resources George McCarthy.
Biomass Defined  Biomass is wood, plants, animal mass and other substances that have recently been alive. They are burned directly for heat or power or.
Bio-energy Initiatives and Collaboration in New Brunswick Climate Change Hub Advisory Committee Meeting February 5, 2009 By: Bryan Pelkey Department of.
1 5.2 Low-energy strategies for the European Union Katharina Koch Manuela Steiner Barbara Unterrainer.
The potential role of biomass in the EU The campaigning NGO for greater environmental and social justice, with a focus on forests and forest peoples rights.
Latest EU policy developments in the field of bioenergy
The energy that we get from Biofuels originally came from the sun. This solar energy was captured through photosynthesis by the plants used as feedstocks.
Directorate General for Energy and Transport Euroforenet Conference 20/11/2007 Brussels European Commission Kyriakos MANIATIS Biofuels & Industry DG TREN.
BioFuEl Biofuels and Bioelectricity -A Network of Excellence providing the future energy supply of Europe Claus Felby Center for Biomas and Plant Fiber.
International Conference on Wood-based Bioenergy LIGNA+Hannover, Germany, May 2007 Photo: NTC Photo: Stora Enso Mobilization of Wood Resources for.
Global energy, trends and figures Global energy demand:  will grow by more than 30% over the period to 2035,  China, India and the Middle East accounting.
Kimmo Tiilikainen Member of Finish Parliament. Bioenergy in Finland Finland is one of the leading bioenergy countries in Europe Share of bioenergy 20.
43.Biomass energy sources are all around us. They include many types of plants and plant- derived material. List examples. agricultural crops and wastes;
Renewable energy VS. Fossil energy Viaenergetiki.
European Commission DG TREN / C: Conventional Energy Greenhouse gas mitigation and energy policy, a European perspective Presentation by Cristóbal.
Renewables/Bioenergy in Europe: legislation overview Jean-Marc Jossart Adriatic Wood Days 2015, Croatia 7 October 2015.
American Energy Independence and Security Act of 2007 (EIS) and the global agriculture Yong Liu Department of Agriculture.
The Swedish Energy Foresight Energy supply and use in Sweden 2001, TWh.
Biofuels.
By Kai Evans and Andrew Duran
The European Climate and Energy Policy Assessment and future prospects Co-finanziato Dal Programma LLP dell’Unione Europea L’autore è il solo responsabile.
Sugar Beets as an Industrial Feedstock David Ripplinger May 3, 2014 Fargo, ND 2.
Microgeneration Karl Letten – Change Programme Support Officer (Environment) Change Management.
World Environment Day Roundtable Forests: Nature at Your Service Geneva, 6 June 2011 Paola Deda UNECE/FAO Forestry & Timber Section.
Heat Plan Denmark Low Carbon Urban Heating Anders Dyrelund, market manager Rambøll Denmark.
Benefits of Biodiesel Use from Palm Oil Industry’s Perspective M. Fadhil Hasan Executive Director Indonesian Palm Oil Association
Biofuels CENV 110. Topics The Technology Current status around the world – Supply and trends in production Impact Benefits Costs – Carbon balance – Net.
Tim Maker, Senior Program Director Biomass Energy Resource Center ENSURING FOREST SUSTAINABILITY IN THE DEVELOPMENT OF WOOD BIOENERGY IN THE US Pocantico.
Effect of Biomass as Energy By Zachary Smith. Table of Content  Issue  Target Audience  How to collect Energy from Biomass  Direct Burning for Domestic.
Biomass Understand the fundamental principles and
Transition towards Low Carbon Energy Monday 12th June 2017
Energy Policy Statistical Support Unit
Bio-fuel crops and P fertilizer
Scientific Support to the Danube Strategy The Danube Bio-Energy Nexus Nicolae Scarlat, Renewable Energy Unit 13 June 2013 Budapest.
BBE – Markets and Marketing of Bio-based Products
Presentation transcript:

| © UPMU The BIG picture Matthew Rivers 1 Tuesday, 11 August 2015

| © UPMU 1.EU Regulation on climate change 2.Demand for biomass 3.Supply in UK 4.What can this mean ? 2 Tuesday, 11 August 2015

R.E.D. is not a colour, or an instruction to stop – but it is a challenge !

| © UPMU The Renewable Energy Directive (2009) defines the ambition of the EU to tackle climate change. Global political lead in tackling climate change Secure 20% of final energy consumption across EU 27 from renewables by 2020 Plus 20% reduction in energy use – efficiency hence Use all forms of renewables - solar, wind, hydro and biomass. Delivery of national targets is matter for Member States 4

| © UPMU 5 To meet EU targets : biomass sources dominate ~1,600 TWh heat and power estimated to come from biomass plus ~ 328 TWh of biomass based biofuels demand SOURCE: European Commission; Europower and heat 2020 Final Energy Consumption (FEC) from different renewables Heat and power from biomass Total FEC from RED Biofuels mandates Heat and power Power from hydro 70555Power from wind 40Solar power 40Solar heat 13 Geothermal power and heat TWh

| © UPMU 2010 all Member States published National Renewable Energy Action Plans. UK starts from low base 3% and targets 15% by 2020 – x3 electricity generation. 6

| © UPMU Responding to this expectation are a number of large, planned biomass boilers for electricity. There are many more smaller scale boilers being installed and operating 7 Tuesday, 11 August 2015 Can be 2 Million tonnes per annum demand

| © UPMU UK technology intentions – for heating and cooling (Ktoe) Scale of increase for solid biomass is even more dramatic A proportion of biomass is described as ‘’in households’’ which is shown to increase from 10% in 2010 to 25% of total biomass used in District heating is expected to increase from 42 to 230 Ktoe = substantial growing demand for wood for heating Likely to be fragmented, local and small scale units 8 Source: Table 11 of UK NREAP

| © UPMU Then there is the biofuels mandate ….. Where to now? The Economist, 30 th October 2010.

| © UPMU 10 Feed Stock Processes Products The biofuels agenda requires 10% of liquid fuels to be from renewables by 2020 There are several different concepts – just moving to pre-commercial phase with 2G which can also use wood as feedstock 1G: Sugar & Starch 1G: Oleic Acid 2G: Cellulose Sugar cane Sugar beet CornWheat Rapeseed PalmSoya GrassBagasseSludgeWood 1G 2G 1.5/2G Hydro treatment Gasification Enzymatic/acid hydrolysis Fischer-Tropsch Fuel ethanol  10% gasoline blend  E85 for FFV cars  30% less energy  % less CO 2 Methyl ester diesel  7% diesel blend  10% less energy  % less CO 2 Transesterification Fermentation Synthetic gasoline 90% less CO 2 Synthetic biodiesel  high performance  % less CO 2 1G 2G

| © UPMU - 355– –170515– –260720–800340–420 ~380 Current forest biomass supply Mobilization Net imports Recovered wood Estimated supply Estimated gap Estimated demand Non-traditional demand (energy) Traditional demand Paper Wood products SupplyDemand ? What about supply ? EU impact on Europe wide woody biomass demand-supply balance in ‘conventional’ forest industry Demand exceeds supply – there is only one way for price  An opportunity for new businesses

| © UPMU In UK all biomass domestic production is remarkably stable. As our living standards increase we import more – mainly food - most/all can be re-used for energy at some point. 12 Tuesday, 11 August 2015 UK domestic biomass production and imports Data from Office for National Statistics

| © UPMU 13 Industrial roundwood Firewood/Wood Fuel 780k UK wood flow (M m³) in – rough numbers can sustain 12 M tonnes of forest harvest and 5 M recycled wood : when demand can be easily double that amount Exported SRW Drop to 416 km k 6.27 MT Pulpwood Wood based panels Fencing Energy wood biomass Sawn timber By products Recycled wood 5.4 to 5.52 Pellets Pulpwood Wood based panels Fencing Logs for wood products Heat Electricity RCP 3.99 million –UK 4.85 million Export 1.81million potential 456k Forest biomass Total removal Annual felling potential till Forest residues Small wood Stumps Branches Arb Arisings SRC 456k 0.46 By products Forest energy potential ~2.75 * *Forestry Commission 2.87 MT Sawn timber

| © UPMU 14 POLITICS EU 20 Subsidies to change the opera- tional environ- ment Increasing competition for wood and higher prices Estimation of EU-27 woody biomass gap Mm³ Globalization of energy wood bio- mass market Role of waste and agriculture as energy source will increase Competition with the traditional forest industry will intensify Of course outcomes are uncertain - but a clear opportunity is to use national resources to better effect : which also contributes to energy security. Role of waste and other burn- able material as energy source will increase Political target adjustment (= failure ?) Increase in wood supply in EU

| © UPMU The element that I am spending my time on Key flows in shipped wood chips and biomass – recent history Wood pellets (M tonne, 2010 [2009] ) Pulp chips to Japan (BDMT) Pulp chips to China (BDMT, 2010 [2009] ) Chips to Europe (BDMT) Vietnam,Thailand + Indonesia 3.9 [ 2.0] 0.7 [0.5] 0.9 [0.5] Total Pacific basin chip 18 M bdmt p.a. Total Europe chip 2 M bdmt p.a.

| © UPMU What does this mean to us all ? Higher personal energy bills ! – because generators are steered to deliver Government obligations + recover all costs from the consumer 16 Tuesday, August 11, 2015

| © UPM Summary Sceptic or not -> doesn’t matter because Climate change Is in place : UK implementing via Green Bank, ROC, FiT, RHI Regulatory action - mandatory Energy use and emissions costs – vehicles ? By-product use and value Understand and support your clients Do the right thing for Homo Sapiens. Threat or opportunity ? Of course both 17

| © UPM UPM Local supply specialists advantaged through backward integration – utilising wastes Supply Aggregation& localtrading Processing Demand No direct involvement, may have long-term relationships with demand-side players Typical involvement Key competitive advantage Supply specialist value chain + Strong backward integration towards supply May have some own processing capacity, e.g. sorting, chipping or drying to add value to product + Consider characteristics/scale of input material and balance to market Aggregates supply from fragmented sources + Locally well-known players and sourcing footprint + Close relationships with stakeholders + Developed logistics, access to sources Takes supply from fragmented sources + Supply control/engagement