aviation climate policy & lower carbon aviation fuel · • increase participation of oil and...

16
Aviation Climate Policy & Lower Carbon Aviation Fuel Jean-Christophe Monfort Saudi Arabia

Upload: others

Post on 05-Aug-2020

3 views

Category:

Documents


0 download

TRANSCRIPT

Page 1: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Aviation Climate Policy & Lower Carbon Aviation Fuel

Jean-Christophe Monfort

Saudi Arabia

Page 2: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Outline

• CORSIA Background & Objectives

• CORSIA & Eligible Fuels

• Sustainability Criteria

• GHG Reduction Potential

• Next Steps

Page 3: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

CORSIA Background & Objectives

• Fuel burn from international aviation is projected to grow significantly.

• Achievement of carbon neutral growth at 2020 emissions levels out to 2050.

• In June 2018 ICAO’s governing 36-State Council has adopted standards and rules for the CORSIA.

Range of CO2

reductions from

Eligible Fuels and

CORSIA

Source: CORSIA Frequently Asked Questions (FAQs)

Page 4: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

CORSIA & Eligible Fuels

• The use of sustainable aviation fuels or lower carbon aviation fuels may

reduce the airlines offsetting requirements under CORSIA.

• Annex 16 Vol IV definitions:

– CORSIA sustainable aviation fuel. A renewable or waste-derived aviation fuel

that meets the CORSIA Sustainability Criteria under this Volume.

– CORSIA lower carbon aviation fuel. A fossil-based aviation fuel that meets the

CORSIA Sustainability Criteria under this Volume.

– CORSIA eligible fuel. A CORSIA sustainable aviation fuel or a CORSIA lower

carbon aviation fuel, which an operator may use to reduce their offsetting

requirements.

Source: https://www.unitingaviation.com/publications/Annex-16-Vol-04/#page=66

Page 5: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Current Framework & Sustainability Criteria

• Calculation of GHG emissions under CORSIA:

CO2 = 3.16 x [M + ME*(LE/LC)]

Where:

M = Mass of conventional fuel used (in tonnes);

ME = Mass of CORSIA eligible fuel claimed (in tonnes);

LE = Life cycle emissions value for a CORSIA eligible fuel (in gCO2e/MJ);

LC = Baseline life cycle emissions value for jet fuel, equal to 89 gCO2e/MJ.

• Sustainability criteria include minimum 10% GHG emissions reduction.

Source: https://www.unitingaviation.com/publications/Annex-16-Vol-04/#page=66

Page 6: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Strategies to Reduce GHG Impacts

• Resource management

• Resource prioritization

• Innovative technologies

Page 7: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Quiz

How much emissions reductions from global crude oil production can

be achieved by the management of flaring and methane losses?

A) 23%

B) 33%

C) 43%

D) 53%

Page 8: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Resource Management & Prioritization • Gas management can provide substantial mitigation benefits.

• Stringent flaring reduction (limited to 20 scf/bbl) and minimal fugitive and venting emissions results

in ~43% of annual CI reduction.

0 10 20 30 40 50 60 70 80 90 100

Cumulative oil production

MMbpd%

0

10

20

30

40

50

Up

str

ea

m c

arb

on

inte

nsitie

s

g C

O2eq

/MJ o

f cru

de

pe

tro

leum

Current World

No Routine Flaring World (Moderate)

No Routine Flaring World (Extreme)

Minimal Fugitives & Venting World

No Routine Flaring (Extreme)+Minimal Fugitives & Venting World

Ca

rbo

n in

ten

sitie

s (

g C

O2e

q/M

J) 10.3 g CO2eq./MJ

8.7 g CO2eq./MJ 8.3 g CO2eq./MJ 7.9 g CO2eq./MJ 5.8 g CO2eq./MJ

Source: From the supplementary information for M.S. Masnadi, H.M. El-Houjeiri et al., Science, 361 (6405), 851-853.

Page 9: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Refinery GHG Reduction Potential

4.9 g CO2e/MJ

4.2 g CO2e/MJ

3.8 g CO2e/MJ

1.9 g CO2e/MJ

0.2 g CO2e/MJ

Source: J-C Monfort and H.M. El-Houjeiri, Aramco Services Company (2018).

Page 10: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Aviation Fuel GHG Emissions Reduction

70 75 80 85 90 95 100 105

High Reduction

Medium Reduction

Low Reduction

Baseline

88 78

Well-to-Wake Emissions Grams CO2-Equivalent Per Mega Joule (gCO2e/MJ)

Source: J-C Monfort and H.M. El-Houjeiri, Aramco Services Company (2019).

• Cutting routine flaring (up to 20 scf/bbl) • Renewable electricity & steam for refinery

• Cutting routine flaring (up to 20 scf/bbl) • Minimum methane losses (0.2 gCO2e/MJ) • CCS for refinery CDU

• Cutting routine flaring (up to 20 scf/bbl) • Minimum methane losses (0.2 gCO2e/MJ) • Solar thermal EOR • Near net-zero carbon refinery

Page 11: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

400

900

1400

1900

2010 2015 2020 2025 2030 2035 2040 2045 2050

Inte

rna

tio

na

l Avia

tion

Em

issio

ns

(MT

CO

2)

Low-case LCAF scenario (10% sustainability criteria)

Low-case LCAF scenario (5% sustainability criteria)

Medium-case LCAF scenario (10% sustainability criteria)

Medium-case LCAF scenario (5% sustainability criteria)

High-case LCAF scenario

Carbon-Neutral Growth from 2020

Technology and operations improvements

Potential Contribution of LCAF to GHG Emissions Reductions

Source: J-C Monfort and H.M. El-Houjeiri, Aramco Services Company (2019); ICCT White Paper: Mitigating International Aviation Emissions Risks and Opportunities for Alternative Jet Fuels (2017).

Vegetable Oil (1000-2000 $/ton)

Starch and Sugar (800-4800 $/ton)

Lignocellulosic (1000-8000 $/ton)

Gas management;

and CCS for refinery CDU

Gas management; solar thermal EOR; and near net-zero

carbon refinery

ICCT SAF scenarios

Page 12: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Conclusions

• The implementation of LCAF recognizes the heterogeneity of

petroleum-based aviation fuels and rewards improved

production practices with clear incentives for the lowest

carbon intensity producers.

• LCAF has the potential to further reduce aviation fuel GHG

emissions.

Page 13: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Next Steps

• Increase participation of oil and gas experts in the Fuels Technical Group (FTG)

of the ICAO Committee on Aviation Environmental Protection (CAEP).

• Develop detailed LCA methodologies for the consideration of lower carbon

aviation fuel (LCAF) under CORSIA.

• Build a high resolution petroleum LCA tool for the measurement of conventional

jet fuel life cycle emissions.

• Appropriate policies should be adopted by relevant international organizations

and interested governments to incentivize the deployment of LCAF.

Page 14: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental
Page 15: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Backup Slides

Page 16: Aviation Climate Policy & Lower Carbon Aviation Fuel · • Increase participation of oil and gas experts in the Fuels Technical Group (FTG) of the ICAO Committee on Aviation Environmental

Phased implementation • The CORSIA starts with a pilot phase in 2021.

• Operators with annual CO2 emissions above 10,000 MT will have to measure and report their emissions from 1st January 2019 so a baseline can be established.

• The participation of states in the CORSIA offsetting is voluntary between 2021-2026.

76 States (76% of

international

aviation

activity) to

participate

in the pilot phase

(As of 20 November

2018)

Source: CORSIA Frequently Asked Questions (FAQs); Silva, B. CORSIA. ISCC Stakeholder Meeting North America (27 November 2018)