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How Energy Efficiency cuts costs for a two-degree future Dr. Jakob Wachsmuth (Fraunhofer ISI) ECEEE policy seminar After COP21: Potentials and policies for energy efficient decarbonisation Brussels, 8 February 2016 1 Contents How


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How Energy Efficiency cuts costs for a two-degree future

  • Dr. Jakob Wachsmuth (Fraunhofer ISI)

ECEEE policy seminar “After COP21: Potentials and policies for energy efficient decarbonisation” Brussels, 8 February 2016

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How Energy Efficiency cuts costs for a two-degree future

  • Introduction
  • Methodology
  • Impact
  • Regional implications
  • Conclusions

Contents

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Background

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Energy Efficiency: A Cheaper path to a two-degree future

  • Role of EE in decarbonization
  • Why this study? Why now?
  • What’s new? – cost savings and policy focus
  • Why regions matter?

INTRODUCTION

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History shows hope and challenges

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  • Most countries are producing increasingly more from each unit of energy

consumed

  • Stricter fuel economy standards have decoupled consumption in the transport

sector from economic growth but total consumption is still increasing

0.000 0.050 0.100 0.150 0.200 0.250 0.300 0.350 0.400 1990 2000 2005 2009 2013 k

  • e

/ $ 5 p

Energy intensity of industry

World EU USA Brazil Mexico China India 0.000 0.010 0.020 0.030 0.040 0.050 0.060 0.070 1990 2000 2005 2009 2013 koe/$05p

Energy intensity of transport

World EU USA Brazil Mexico China India Source: own representation based on the Enerdata database

INTRODUCTION

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Global savings and climate stabilization

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Aggressive efficiency policies in buildings, transport, industry key to achieving 2 degree target; cheapest carbon abatement in most nations.

Cumulative savings of

$ 2.5 – 2.8 Trillion

to 2030 Annual savings of

$ 440 – 480 Billion

in 2030 Cumulative savings of

$ 750 Billion

to 2030 from historical policies*

* Policies passed since 1990 in 3 Regions: China, European Union, United States

Energy efficient pathway vs. Energy intensive pathway

INTRODUCTION

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Methodology

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Go Goal: Assess the impact of energy efficiency (EE) on the cost of de deca carbo boni nization ba based d on n existing ng estimates of EE and nd alterna native de deca carbo boni nization me measures

METHODOLOGY

METHODOLOGY

1. Assessment of existing EE policies in the focus regions 2. Review of 2°C scenarios and the role of energy efficiency 3. Projection of cost reductions by EE policies until 2030 4. Conclusions reviewed by local experts

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Contributors

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A A global team of energy efficiency experts

Project team

  • Jakob Wachsmuth, Vicki Duscha,

Matthias Reuter, Fraunhofer ISI

  • Hanna Fekete, Markus

Hagemann, Niklas Höhne, NewClimate Institute

  • Bjoern Dransfeld, Felix Röben,

the greenwerk Steering Committee

  • Nils Borg, ECEEE
  • Fabián Gaioli, Coralia

Enviromental

  • Dian Grueneich, Stanford

University

  • Steven Nadel, ACEEE
  • James Wolf, independent

consultant

  • Joachim Schleich, Grenoble

Ecole de Management

METHODOLOGY

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Contributors

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A A global team of energy efficiency experts

Local experts

  • Brazil: Pontifical Catholic University of Rio de Janeiro, Rodrigo F Calili

and Reinaldo C Souza

  • China: Chinese Academy of Sciences (CAS), Ying Fan and Jin-Hua Xu
  • EU: Fraunhofer ISI, Wolfgang Eichhammer
  • India: The Energy and Resources Institute India (TERI), Neha Pahuja
  • Mexico: Comisión Nacional para el Uso Eficiente de la Energía, Juan

Ignacio Navarrette Barbosa

  • US: ACEEE, Steven Nadel + colleagues

METHODOLOGY

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$Benefit $Cost emissions reduction

energy efficient pathway energy intensive pathway

Generation Buildings and Industry Transport Intervention Type

Comparing Two Pathways

A focus on energy efficiency turns abatement costs into abatement benefits.

Even the energy intensive pathway requires lowering annual energy demand in end use sectors by 7 % in 2030 High efficiency in end-use sectors grants significant flexibility in choosing

  • ptions fordecarbonizing supply.

An energy efficient pathway saves $440–480 Billion globally in comparison to an energy intensive pathway, and yet both mitigate 15’400 Mt of emissions annually in 2030.

Potential Interventions

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IMPACT

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Highly efficient buildings come with large abatement potentials, but varying cost-effectiveness. Abatement potentials of RE and nuclear power are by far the largest, but costs of fully exploiting them will be high. Until 2030, use of Carbon Capture & Storage both for power generation and industrial processes is mainly avoidable by energy efficiency & RE. Efficiency gains in industry show huge saving potentials, in particular in heavy industries. Increasing fuel economy of vehicles highly cost-effective with much larger abatement potential than biofuels.

The energy efficient pathway

sa saves s $440–480 480 Billio illion globally in comparison to an energy intensive pathway

Power Industry

10 30

Total annual abatement [GtCO2e/y]

50 100

  • 50
  • 100

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Annual specific costs of GHG abatement [USD/tCO2e] Transport Buildings

$Benefit $Cost emissions reduction

IMPACT

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Significant cost savings and emissions reduction in 2030

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More than 85% of those savings occur in China, the European Union, and the United States

Results for the Energy Efficiency Pathway for six-regions include $220-250 Billion in annual savings and reductions of 11,000 Mt CO2 equivalent in 2030. Not only is this a significant amount of savings for these regions but it is a large share of the emissions reduction needed reach a two-degree pathway.

IMPACT

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China in Focus

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Energy Efficient vs. Energy Intensive Pathway:

  • Compared to BAU, the Intensive Pathway reduces annual consumption by > 14 EJ

until 2030. The Efficient Pathway achieves additional savings of 4.7 - 6.0 EJ.

  • Realization of the Efficient Pathway would reduce the annual net costs by 54 - 69

billion USD (saving of 10 – 12 USD/tCO2e). Current policies:

  • historical EE policies, in particular in industry (TOP 1000 and TOP 10000 program),

have already decreased the net costs by 52 – 64 billion USD per annum.

  • significant unaddressed industrial potentials, especially in the chemical industry and

the iron & steel sector, as well as in petroleum processing and coking.

  • transport sector requires additional efforts to reduce fuel consumption, especially

in HDVs, but also a modal shift in public and freight transport.

REGIONAL IMPLICATIONS

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Brazil in Focus

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Energy Efficient vs. Energy Intensive Pathway:

  • Compared to BAU, the Intensive Pathway reduces annual consumption by 1.6 EJ

until 2030. The Efficient Pathway achieves additional savings of 0.7 – 0.8 EJ.

  • Realization of the Efficient Pathway would reduce the annual net costs by 13 billion

USD (savings of 54 – 55 USD/tCO2e). Current policies:

  • Historic savings not quantified due to data constraints but also marginal impacts.
  • Significant potentials in buildings sector currently targeted, particularly within

PROCEL, but retrofits of HVACs and air-conditioning call for additional measures.

  • For transport, strict fuel economy standards and infrastructure for a modal shift

seem to be necessary additions to the existing labeling of cars.

  • Industry holds potential for numerous EE measures throughout all subsectors.

IMPACT

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The EU in Focus

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Energy Efficient vs. Energy Intensive Pathway:

  • Compared to BAU, the Intensive Pathway reduces annual consumption by 4.1 – 4.5

EJ until 2030. The Efficient Pathway doubles the savings (8 – 9 EJ).

  • Realisation of the Efficient Pathway would reduce the annual net costs by 79 – 82

billion USD in 2030 (saving of 72 – 75 USD/tCO2e). Current policies:

  • Historical EE policies have decreased future net costs by at least 8 – 10 bill. USD/a.
  • Revision of EED with a concrete EE target for 2030 and 3rd NEEAPs drive EE.

Ecodesign directive plays a relevant role for heating and electrical appliances .

  • Realizing industrial potentials mainly depends on successful reform of the EU ETS.
  • Moderate fuel economy standards for LDVs, absence of strong policies for HDVs,

and lack of EU-wide standards for buildings retrofits leave room for improvements.

IMPACT

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Conclusion – Global & Regional implications

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A lot of levers with abatement benefits are not realized due to market barriersyet. A mix

  • f measures targeting barriers and support for diffusion are particularly important.

India

  • Low GWP in MVACs and modal shifts in

public transport

  • EAF in I&S sector
  • Efficient new build and new & retrofit of

cooling systems

Brazil & Mexico

  • Fuel consumption standards for HDVs and

MDVs and modal shift

  • Large untapped potential remains in

industry

  • Efficient appliances and HVAC

EU

  • Significant retrofit of existing buildings
  • Stricter & extended fuel economy standards
  • ETS reform to drive change in industry

USA

  • Significant retrofit of existing buildings
  • Reduce fuel consumption of heavy industry
  • Modal shifts in freight & public transport

China

  • Change in industrial processes (EAF in I&S,

waste heat recovery for chemicals)

  • Modal shifts in freight & public transport
  • Retrofitting commercial buildings

CONCLUSION

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Energy Efficiency:

A Cheaper path to a two-degree future

  • Dr. Jakob Wachsmuth

Competence Center Energy Policy and Energy Markets Fraunhofer Institute for Systems and Innovation Research ISI Breslauer Straße 48 | 76139 Karlsruhe | Germany Phone +49 721 6809-632 jakob.wachsmuth@isi.fraunhofer.de http://www.isi.fraunhofer.de

Contact Information

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USA in Focus

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Energy Efficient vs. Energy Intensive Pathway:

  • Compared to BAU, the Intensive Pathway reduces annual consumption by 3.8 EJ

until 2030. The Efficient Pathway achieves additional savings of 6.0 – 6.3 EJ.

  • Realization of the Efficient Pathway would reduce the annual net costs by 66 – 72

billion USD (savings of 29 – 33 USD/tCO2e). Current policies:

  • Historical EE policies have decreased future net costs by 40 – 43 bill. USD/a, mainly

induced by CAFE standards for LDVs, appliance standards & building energy codes.

  • Clean Power Plan, updates of CAFE standards and building energy codes are likely to

boost energy efficiency throughout all sectors.

  • Achieving significant retrofits of existing buildings biggest challenge for EE policy-
  • making. Other challenges include reducing fuel intensity in heavy industries.

IMPACT

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India in Focus

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Energy Efficient vs. Energy Intensive Pathway:

  • Compared to BAU, the Intensive Pathway reduces annual consumption by 3.9 EJ

until 2030. The Efficient Pathway achieves additional savings of 1.1 – 1.3 EJ.

  • Realization of the Efficient Pathway would reduce the annual net costs by 10 – 15

billion USD (savings of 6 – 9 USD/tCO2e). Current policies:

  • Historic savings not quantified due to data constraints but also marginal impacts.
  • Only a limited number of EE measures is being implemented.
  • Industry harbors saving potentials in iron & steel production, while transport has

potential for reduced fuel consumption (mainly HDVs).

  • Both efficient new-builds and replacing existing cooling systems offer large saving

potentials in the buildings sector.

IMPACT

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Mexico in Focus

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Energy Efficient vs. Energy Intensive Pathway:

  • Compared to BAU, the Intensive Pathway reduces annual consumption by 0.7 EJ

until 2030. The Efficient Pathway achieves additional savings of 0.1 – 0.2 EJ.

  • Realization of the Efficient Pathway would reduce the annual net costs by 1.9 – 2.6

billion USD (saving of 13 - 17 USD/tCO2e). Current policies:

  • Historic savings not quantified due to data constraints but also marginal impacts.
  • While buildings sector is systematically targeted using norms and labeling,

potentials in industry and transport sector addressed only to a minor extent.

  • Additional measures debated within PRONASE 2013 – 2018, which holds huge

potential to target numerous EE options in heavy industry and transport.

IMPACT

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2000 4000 6000 8000 10000 12000 14000 16000 18000 20000 20052010202020302040205020602070208020902100

Energy investments [billion USD (2005)/a]

GEA_geala_450_atr_full GEA_geala_450_atr_limbe GEA_geala_450_atr_limbe_limir GEA_geala_450_atr_limir GEA_geala_450_atr_nbecs GEA_geala_450_atr_nbecs_nsink_limbe GEA_geala_450_atr_noccs GEA_geala_450_atr_noccs_nonuc GEA_geala_450_atr_nonuc GEA_geala_450_atr_nsink

Review of the role of EE in 2°C scenarios

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  • Difficult to compare different models, but costs tend to be lower in scenarios with high

efficiency when using the same model

  • For most IAMs, EE measures not modeled but demand reduction is assumed
  • In

Investments (CAPEX & OPEX) in scenarios with high (left) and low efficiency (right):

Source: Enerdata database, which is based on official national statistics

2000 4000 6000 8000 10000 12000 14000 16000 18000 20000 20052010202020302040205020602070208020902100

Energy investments [billion USD (2005)/a]

GEA_geaha_450_atr_full GEA_geaha_450_atr_limbe GEA_geaha_450_atr_limir GEA_geaha_450_atr_nbecs GEA_geaha_450_atr_nonuc GEA_geaha_450_atr_nsink GEA_geaha_450_btr_full

Source: representation by NewClimateInstitute based on the GEA scenario database 20