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The IEA Bioenergy Technology Collaboration Programme (TCP) is organised under the auspices of the International Energy Agency (IEA) but is functionally and legally autonomous. Views, findings and publications of the IEA Bioenergy TCP do not necessarily represent the views or policies of the IEA Secretariat or its individual member countries. The Role of Renewable Fuels in Decarbonizing Road Transport Scenarios and Contributions in Selected Countries Juhani Laurikko, VTT IEA Bioenergy Webinar, 17/11/2020

The Role of Renewable Fuels in Decarbonizing Road Transport · •The input file data of each country case was implemented into “ALIISA”, a Finnish-made model for calculating

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  • The IEA Bioenergy Technology Collaboration Programme (TCP) is organised under the auspices of the International Energy Agency (IEA) but is functionally and legally autonomous.

    Views, findings and publications of the IEA Bioenergy TCP do not necessarily represent the views or policies of the IEA Secretariat or its individual member countries.

    The Role of Renewable Fuels in Decarbonizing Road Transport

    Scenarios and Contributions

    in Selected Countries

    Juhani Laurikko, VTT

    IEA Bioenergy Webinar, 17/11/2020

  • • Specific country assessments were performed for:

    • FINLAND (a model case, previously executed)

    • SWEDEN

    • GERMANY

    • USA

    • BRAZIL

    2

    Country Assessments – General Outline

  • • First, Each Country Expert delivered an input data file, based on Stated Policy, consisting of separate sheets for:

    • Fuel Standards and Sales of Different Fuel Types

    • Projected Vehicle Sales per fuel type (and class)

    • Expected Transport Work and Fuel Consumption

    • Outlook on Biofuel Production and Raw Materials

    • Data on Electricity Generation (for the electrofuels study)

    3

    Country Assessments – General Outline

  • • The input file data of each country case was implemented into “ALIISA”, a Finnish-made model for calculating transport fuel use and the associated CO2-emissions from road vehicles

    • Main variables in the input data for each vehicle category were:

    • Market share (%) of each fuel/energy option

    • Annual average (or total) mileages

    • Specific fuel/energy consumption per vehicle category

    • Vehicle categories were:

    • Cars, Vans & LD Trucks, Buses, Medium & Heavy-Duty Trucks

    4

    Country Assessments – General Outline

  • Country Assessments – General Outline• Vehicle powertrain/fuel options were:

    • Gasoline (SI), FFV (E85), Diesel (CI), GNG/LNG, PHEV(SI), PHEV(CI), BEV, H2FCVEV

    • Fuel/energy options were:

    • Fossil gasoline

    • Fossil diesel

    • Ethanol, E5/E10/E27/E85/E100

    • Renewable diesel fuel(s)

    • Electricity

    • Hydrogen

    • These options were available for each vehicle category (car, van,

    bus, trucks), but not necessarily used

    5

    H2

  • Country Assessments – General Outline• The output of the process was

    • Vehicle park composition

    • per vehicle category and fuel/energy option

    • Annual mileages – per vehicle and total for vehicle type

    • Use of fuel types

    • gasoline, diesel, ethanol, biodiesel, methane, electricity, H2• in litres or kg’s etc.

    • in ktoe and PJ, and

    • divided per vehicle and fuel category

    6

    H2

  • Country Assessments – General Outline

    • Based on this implementation, it was possible to calculate

    for each Case Country:

    • Progression of CO2 emissions,

    • in total and per vehicle category

    • Relative and actual amounts of biofuels

    • in total and per fuel type

    • Biofuel “sinks”, total and not in use in present scenario

    • per fuel category

    7

  • Country Assessments – General Outline

    • Furthermore, for each Case Country, it s possible to outlay

    separately the contributions for the CO2 reduction by:

    • Electrification of transport vehicles

    • Improvements in energy efficiency

    • Biofuels

    8

    EREV

    BEV

    ICE-PHEV

  • Country Assessments – General Outline

    9

  • Current Policies – FINLAND

    10

  • Current Policies – FINLAND

    11

  • Current Policies – FINLAND

    12

  • Current Policies – FINLAND

    13

  • Current Policies – FINLAND

    14

    Electrification

    Improvement in energy efficiency

    Biofuels

  • Current Policies – Car Sales Split

    15

  • Energy Use per Vehicle Category – 2030

    16

    1.

    1.

    1.

    1.

    FIN SWE GER

    BRAUSA

    Buses Make Very Large

    Contribution

    Cars Dominate

    Van/Truck/SUVDominate

    LargestTruck

    Sector

  • 17

    1.

    1.

    1.

    1.

    FIN SWE GER

    USA BRA

    1.

    Energy Use per Vehicle Category – 2050

    No ApparentChange, but

    Share of CarsDiminishesSomewhat

  • 18

    1.

    1.

    1.

    FIN SWE GER

    BRAUSA

    1. 1.

    Energy Use per Carrier – 2030

    Diesel DominatesRenewable

    Diesel in Wide Use

    GasolineDominates

    Ethanolabout 25%

    BiomethaneElectricity

    1.

  • 19

    1.

    1.

    1.

    FIN SWE GER

    USA1.

    1.1.

    Energy Use per Carrier – 2050

    Diesel Still Dominates

    RenewableDiesel Over

    40 %

    Gasoline Still Dominates

    Ethanolabout 25%

    HydrogenStarts to Show

    UpElectricityNearly

    MatchesGasoline

    Bio-CNG

    1.

  • Country Cases – Current Policies

    20

  • Country Cases – Additional Scenarios

    21

  • Country Assessments – Electrification

    22

  • Country Assessments – Electrification - FIN

    23

    REDUCTION IN CO2 EMISSIONS

  • Country Assessments – More EV

    24

  • Country Assessments – MORE EV

    25

  • Country Cases – Additional Scenarios

    26

  • Additional Cases – MAX Biofuels - FIN

    27

  • Additional Cases – MAX Biofuels

    28

  • Country Assessments – MAX Bio

    29

  • Country Cases – Additional Scenarios

    30

  • 31

    E-Fuels Scenarios

  • 32

    E-Fuels Scenarios –Demand for Electricity

  • 33

    E-Fuels Scenarios – Demand for CO2

  • In Summary

    • The Cases for Country Assessment were a Good Selection because of so Different Structure in Road Transport Vehicle Pool Compositionand Different Usage Rates of Energy Carriers

    • The Current Policy Cases Lead to Reductions in TTW CO2 emissions, excluding Brazil, due to their Expected Growth in Economy

    • The Contributions of Electrification, Increase in Energy Efficiency and Use of Biofuels Could be Separated

    • Increasing Sales of EV’s had Moderate Returns

    • Maximising Use of Biofuels Brings More CO2 Reductions and Faster

    • Using Renewable Electricity to Produce eFuels is an Interesting Option, but for Complete Replacement of All Remaining Fossil Fuels the Resource-demand May be too High in Some Countries

    34

  • www.ieabioenergy.com

    THANK YOU FOR YOUR ATTENTION!

    Juhani Laurikko

    [email protected]

    mailto:[email protected]