Carbon Reporting under the RTFO

Slides:



Advertisements
Similar presentations
Sustainability Criteria and the Carbon Calculator
Advertisements

Biofuels: Environmental Friend or Foe? Presentation to 1 st Year Environmental Engineering Students Deniz Karman.
California Low Carbon Fuel Standard Discussion document : Coproducts Dr. Shoba Veeraraghavan – Author Dr. Clay Calkin - Presenter.
Powering the Future: Biofuels. Activity: Yeast fermentation Describe the production of ethanol from renewable sources Describe the process of fermentation.
Development of Carbon Certification & Sustainability Assurance for Biofuels Biofuels Markets Conference 16 th February 2005 Brussels Greg Archer Director.
ALTERNATIVE FUELS AND VEHICLES BIOFUELS Carlos Sousa AGENEAL, Local Energy Management Agency of Almada.
Biomass as a Fossil Fuel. Biofuel (also called agrofuel) can be defined as solid, liquid, or gas fuel consisting of, or derived from biomass. Biofuels.
Biomass for Biofuel.
Biofuel.
THINK OUTSIDE THE BARREL …
Impact of Energy Crops on World markets Alastair Dickie Director, Crop Marketing, HGCA.
Production of Renewable Diesel from Domestick Feedstocks and Palm Oil in the EU: Market Equilibrium, Greenhouse Gas Emissions and Biofuel policy Presenter:
BIOFUELS Advantages and Disadvantages Brandie Freeman What is a
Argonne National Laboratory is managed by The University of Chicago for the U.S. Department of Energy Energy and Greenhouse Gas Emissions Impacts of Fuel.
Opportunities and Constraints on Possible Options for Transport Sector CDM Projects – Brazilian Case Studies Suzana Kahn Ribeiro Importance of Transport.
UK Renewable Energy Policy with particular reference to bioenergy
Natalie Gilbert Nick Raphael Johenny Then.  Produced from Carbon Dioxide  Harvested from plants and pre-processed from cellulose  Enzymes break cellulose.
Danish Biogas Technology Co-digestion for Energy and Environment
Opportunities for Methane Capture in the Intensive Livestock Industry.
Biomass energy Ben white and Alison Wojo
Biofuels Sustainable development Prof. Melania Muñoz Sustainable development Prof. Melania Muñoz.
Pennsylvania Biomass Energy Opportunities. Co-firing Biomass with Coal The opportunity to burn biomass with coal to produce electricity is better in PA.
Latest EU policy developments in the field of bioenergy
Biofuels By: Tiffany Morgan Christina Savage Jenna Warner.
Aisha Clark Patricia Deans Kevin Woo
‹#› of [total number of slides] This project has received funding from the European Union’s Horizon 2020 research and innovation programme.
Life Cycle Assessment of Biofuels Paolo Masoni ENEA – LCA & Ecodesign Lab (ACS PROT – INN) Rome, th January.
Biomass and Biofuel Lewis Walsh and Marcia Gonzalez.
Supply chains for the UK to 2050 A. Bauen (*), R. Slade, S. Jablonski and C. Panoutsou The context The aim of this work is to explore the potential for.
Biofuels Developed by Beth Morgan Dept. of Plant Biology.
LCA GHG methodologies for bioenergy, EEA, Copenhagen, 10/06/ Robert Edwards European Commission Joint.
CO2 tool for electricity, heat and biogas Ella Lammers 10 june 2008.
EEA expert meeting Copenhagen 10 June 08 GHG methodologies for bioenergy beyond biofuels 1 ifeu – Institut für Energie- und Umweltforschung Heidelberg.
American Energy Independence and Security Act of 2007 (EIS) and the global agriculture Yong Liu Department of Agriculture.
IOT POLY ENGINEERING 3-5 DRILL Which of the following data sets is the potential source for the pie chart below? A B C U.S. Energy Use %
Biomass Energy By Jonathan Sharer, Brandon Deere,Eric Carpenter.
Biomass Fuel If you have a fireplace, the wood you burn in it is a Biomass fuel. What we now call a Biomass fuel was the source of heating for thousands.
Indirect land-use change emissions - what do we know? Hans van Steen - Head of Unit, European Commission, DG Energy C1.
Biomass/Biofuel/Biogas
Biofuels CENV 110. Topics The Technology Current status around the world – Supply and trends in production Impact Benefits Costs – Carbon balance – Net.
Effect of Biomass as Energy By Zachary Smith. Table of Content  Issue  Target Audience  How to collect Energy from Biomass  Direct Burning for Domestic.
Charlotte Hatto NORTH ENERGY ASSOCIATES LTD Life Cycle Assessment for Project Kade Wetland Biomass to Bioenergy AMW.
Jeremy Rix NORTH ENERGY ASSOCIATES LTD Life Cycle Assessment for AB Systems Wetland Biomass to Bioenergy.
Jeremy Rix NORTH ENERGY ASSOCIATES LTD Life Cycle Assessment for AB Systems Wetland Biomass to Bioenergy.
Jamaica: Advancing a Sustainable Biofuels Industry
Powering the Future: Biofuels
Bacon Academy Science & Alternative Energy
(How to solve) Indirect Land Use Change from biofuels
Biofuels as a Sustainable Logistics Solution
„Carbon footprinting for biomethane in BIOSURF“
WP 5: GHG emission reduction (&) certification Stefan Majer, Maik Budzinski BIOSURF Kick-off, Palais Liechtenstein, Vienna,
The Economics of Biofuel Production and Use
Implementation of the biofuels directive (2003/30) Paul Hodson
Second Generation Biofuels in India – Relevance and Status
Content Need for Sustainability Criteria Development of Methodology
Content Need for Sustainability Criteria Development of Methodology
Wednesday, 14 November 2018 L.O: To know about different types of alternative fuels and to understand the advantages and disadvantages of using these fuels.
Greenhouse Gas Balances for the German Biofuels Quota Legislation
CALCULATION OF GHG EMISSIONS IN THE FUEL CHAIN
Module 38 Biomass and Water
UK approach to calculating biofuel carbon intensity
Greenhouse Gas Balances for the German Biofuels Quota Legislation
BIOSURF inter-association workshop Stefan Majer, DBFZ
Technical Report: Attribution of impacts to bioenergy production and use for the implementation of the GBEP Sustainability Indicators for Bioenergy (GSI)
Comparison of GHG methodologies: UK, NL, Germany, JRC
Carbon Footprint.
Tek. Bioenergi (TKK-2129) Instructor: Rama Oktavian
Changes to CARB’s LCA Methodology
The importance of Biorefineries in Building Value Chains in the Vanguard Bioeconomy Pilot. Driven by a political commitment to use our Regional Smart Specialization.
Presentation transcript:

Carbon Reporting under the RTFO Dr Ausilio Bauen E4tech DG Env, Brussels, 29th May 2007

Contents Why Carbon Reporting? Methodology for carbon reporting Methodological issues Practical implementation Example

Carbon reporting can help the RTFO achieve greater GHG savings and provide a better measure of its impact RTFO’s main objective is to reduce GHG emissions Carbon intensity varies by biofuel type (e.g. bioethanol, biodiesel,…) depending on: Type of feedstock Way in which feedstock was produced Characteristics of conversion process Concerns over GHG benefits of biofuels and RTFO impact Reporting on carbon intensity of biofuels expressed in gCO2e / MJ fuel Metric which compares GHGs emitted in producing and distributing different biofuels Allows comparison with fossil fuel references and determination of GHG savings

2 projects: Carbon Reporting and Sustainability Reporting Carbon Reporting Project Sustainability Reporting Project Objectives To develop a robust, practical & cost-effective methodology for: The consistent quantification of GHG savings for biofuels from different fuel chains Sustainability reporting of fuels from diverse origins To develop & disseminate technical guidance to enable companies to apply the requirements effectively Methodology development Draft Technical Guidance development Piloting Finalising Technical Guidance Roll out of Technical Guidance Project inception Structure Formal consultation By mid Jan By mid Mar By mid Mar - Aug By end Sep By end Mar 08

What data is required for monthly reports? Fuel suppliers will be required to report, for each administrative batch: Carbon intensity of batch of fuel Impact of any land use change Accuracy level of carbon intensity

Contents Why Carbon Reporting? Methodology for carbon reporting Methodological issues Example

carbon intensity calculation Boundaries LUC (indirect) Assessed ex post by RTFO Administrator LUC direct Boundary for monthly Cultivation & Cultivation & carbon intensity calculation harvest harvest Fossil fuel reference system Assessed separately Biofuel use Feedstock Biofuel Biofuel transport production transport Waste Waste material material Alternative waste management Excludes minor sources, from: • Manufacture of machinery or equipment, chemicals PFCs , HFCs , SF 6

Co-products A variety of co-products food products, animal feed, chemicals, energy Addressed within methodology as practically and accurately as possible Approaches: Substitution approach preferred Various “allocation” methods are available - most appropriate is selected for each co-product, but consistency needed Current co-product treatment in default chains: Substitution animal feeds: soy meal, rape meal, DDGS/WDGS Allocation by energy content co-products used for energy: electricity, heat, wheat straw, palm fibre and shells, DDGS/WDGS, rape meal, soy meal Allocation by market value chemicals, some palm co-products: e.g. glycerine, potassium sulphate, palm kernel oil and stearin, palm stearin

Contents Why Carbon Reporting? Methodology for carbon reporting Practical implementation Example

Default chains Default fuel chains are defined using a set of common modules Modules represent stages in the fuel chain Modules contain data points and calculations to derive carbon intensity

Module example: Crop production

Module example: Conversion

Default data exist for all data required to calculate the carbon intensity of a fuel chain Default data have been collected for the following chains: Ethanol from: sugar cane, sugar beet, wheat and corn Ethanol converted to ETBE FAME biodiesel from: tallow & used cooking oil, palm oil, soy and rapeseed Biomethane from anaerobic digestion of organic MSW, dry manure & wet manure Biofuel default values based on limited fuel chain information: Fuel Fuel & feedstock Fuel, feedstock & origin Biofuel default values can be edited using qualitative information: Selected defaults for: mode of transport; conversion plant energy configuration

Quantitative data can be used to more accurately reflect fuel chain emissions Best focused around key data points which have a significant influence on final carbon intensity Crop production Yield Nitrogen fertiliser use (Diesel use) Conversion plants (biofuel and crushing) Plant yield [t biofuel / t feedstock] Natural gas use (Electricity) Co-products Feedstock transport Distances (primarily for non-EU crops)

Contents Why Carbon Reporting? Methodology for carbon reporting Methodological issues Practical implementation Example

Example – biodiesel producer

Questions bauen@e4tech.com